1992_GI_Power_Semiconductor_Data_Book 1992 GI Power Semiconductor Data Book

User Manual: 1992_GI_Power_Semiconductor_Data_Book

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INTRODUCTION
General Instrument Corporation is a major multinational company
manufacturing a wide range of products from data systems, broadband
communications and semiconductor products. The corporation, which has
been in existence over 50 years, has manufacturing and sales locations
throughout the world serving all major electronic markets.
The Power Semiconductor Division, a leading producer of discrete semiconductor devices has manufacturing facilities in the United States and
the Far East. These devices include low and medium power rectifiers from
standard thru ultrafast recovery, bridge assemblies and transient voltage
suppressors. We offer the widest selection of rectifier package types and
junction structures including plastiC encapsulated, glass passivated, superectifier, and surface mounts. Advanced junction technologies include
double diffusion, double diffused fast and ultra-fast recovery, narrow base
epitaxial, PAR and Schottky.
Particular emphasis has been focused on the superectifier product family
including our new super surface mounted devices. The superectifier, when
introduced over ten years ago increased rectifie; reliability by several
orders of magnitude. Today it still remains unmatched as the cost performance leader in axial leaded rectifiers. Now the superectifier features of
metallurgically bonded junction, glass passivation, and flame retardant
encapsulation are available in our line of super surface mounted rectifiers.
For the ultimate in surface mounted rectifier reliability it's super surface
mount.
The information contained in this data book is intended to provide the
necessary technical and support data to assist the design engineer. It is
our policy to maintain high standards of product manufacturing. The
General Instrument logo (GI), printed on every component, ensures that
it reaches the highest level of quality and reliability. In the complex and
competitive semiconductor industry, high standards of quality using the
latest methods of statistical quality controls are of the utmost importance
since they constitute for our customers, the assurance of reliable product
performance.
Not every application problem can be solved using a standard device, in
this case we often develop special products to meet the customer requirements. If in doubt, call your local Sales Office or our Application Engineering Laboratory for further information.

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SYMBOLS
CJ
IF
I(AY)
IFSM
10
IR
Irr
IRSM
IT

Junction Capacitance
Forward Current
Average Forward Rectnier Current
Peak Forward Surge Current
Mean Forward Current
Reverse Leakage Current
Reverse Recovery Current
Maximum Non-Repetitive Reverse Peak Current
On-State Test Current
I~
Rating for Fusing
Po
Steady State Power Dissipation
PPK
Peak Power Dissipation
ReJA Thermal Resistance (Junction to Ambient)
ReJC Thermal Resistance(Junction to Case)
ReJL Thermal Resistance (Junction to Lead)
TA
Ambient Temperature (Stand-off Voltage)
Tc
Case Temperature

TJ
Tl
t,
trr
VBR
VFM
VFR
VR
VRM
VRMS
VRRM
VRSM
Vc
VRWM
Vz
Zk

Junction Temperature
Lead Temperature
Rise Time
Reverse Recovery Time
Reverse Breakdown Voltage
Instantaneous Forward Voltage
Forward Recovery Voltage
Dc Reverse Voltage
Maximum Recurrent Peak Reverse Voltage
RMS Input Voltage
Repetitive Peak Reverse Voltage
Maximum Non-Repetitive Peak Reverse Voltage
Clamping Voltage at IRSM
Working Peak Reverse Voltage
Zener Voltage
Dynamic Impedance

DRAWINGS
All dimensions are in inches and (millimeters.)
Figures not to scale.

TEMPERATURES
Ratings at 25°C ambient temperature unless'
otherwise specified.

The General Instrument data book is not a document
for official acceptance tests. Relevant is only the
detailed data sheet, which is available on request.
The Manufacturer reserves the right to change the contained
data at any time in order to improve performance and supply
the best product possible.

INsHMir
-2-

CONTENTS
POWER
SEMICONDUCTOR
DIVISION

DATA BOOK
10 th Edition

General Information
Introduction . . . . . . . . . . . . . . . • . . . • . . . . . . . . . . . 1
Symbols . . . . . . . . . . . . . . . . • . . . . . • . . . . . • . . . . 2
Contents . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3
Numerical Index . . . . . . . . . . . . . . . . • . . . . . . . . . . . 5
Quality Aaaurance
Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16
Test Conditions . . . . . . . . . . . . . . • . . . . . . . . . . . . . . 17
High Reliability-Test Capabilities . . . . . . . . • . . . . . . . . . . 18
Military Approved Rectifiers
Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 21
List of approved JAN-JANTX devices . . . . . . . . . . . . . . . . . 23
JAN, JANTX, JANTXV devices 0.2 to 6.0 AMP . . . . . . . . . . . 24
Schottky Rectifiers
Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 47
Quick Selector Guide . • . . . . . . . . . . . . . . . . . . . . . . • . 48
Axial Plastic Schottky RectHiers 0.6 to 5.0 AMP . . . . . . • . . • . 51
Medium Current Schottky RectHiers 7.5 to 40 AMP . . . . . . . . . . 71
Fast Efficient Rectifiers
Introduction . . . . . . . . . . . . . . . . . • . . . . . . . . . . . . .167
Quick Selector Guide . . . . . . . . . . • . . . . . . . . . . . . . . .168
Glass Passivated Fast Efficient Rectifiers 1.0 to 6.0 AMP . . . . . . 171
Fast Efficient SuperectHier 1.0 to 5.0 AMP . . . . . • • • . . . . . . 193
Plastic Fast Efficient Rectifiers 1.0 to 3.0 AMP . • . . . . . . . . . .203
Medium Current Fast Efficient RectHiers 6.0 to 30 AMP . . . . . . .209
Superectlflers
Introduction . . . . . . . . . . . . . . . • . . . . . . . . . . . . . . .240
Quick Selector Guide
.............
. .. 241
Zener Regulator Diode 1.5 Watt . . . . . . . . . . . . . . . . . . . .275
Fast Recovery Superectifiers 0.4 to 3.0 AMP . . . . . . . . . . . . . 279
Miniature GPP Plastic Rectifier 1.0 AMP . . . . . . . . . . . . . . . 303
Glass Rectifiers

I

Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .309
Quick Selector Guide . . . . . . . . . . . . . . . . . . . . . . . . . .313
High Vo~age Glass Passivated RectHiers 1.0 to 3.0 AMP . . . . . . 337
Fast Recovery Glass Passivated Rectifiers 1.0 to 3.0 AMP . . . . . 349
Plastic Rectifiers

I
I
I

Introduction . . . . . . . . . . . . . . . . . . • . . • . . . . . . . . .371
Quick Selector Guide . . . . . . . . . . . . . • . . . . . . . . . . . .375
Plastic Rectifiers 1.0 to 8.0 AMP . . . . . . . • . . . . . . . . . . . .376
Fast Recovery Plastic Rectifiers 1.0 to 6 AMP . . . . . . . . . . . . 397
Bridge Rectifiers
Introduction . . . . . . . . . . . . . . . . • . . . . . . . . . . . . . .417
Quick Selector Guide . . . . . . . . . . . . .
. . .420
Bridge RectHiers 0.9 to 35 Amps . . . . . . .
.
.. .422
Surface Mounted Bridge RectHiers 1.0 AMP . . . . . . . . . . . . .475
Surfaca Mounted Rectifiers
Introduction . . . . . . . . . . . . . . . . . . . . • . . . . • . . . . . 481
Quick Selector Guide . . . . . . . . . . . . . . . . . . . . . . . . . .483
Surface Mounted Rectifier 3.0 AMP . . . . . • . . . . . . . . . . . . 486
Transient Voltsge Suppressor
Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 553
Application Notes
Schottky Rectifier . . . . . . . . . . . . . . . . . . . . . . . . . . . . 597
Transient Voltage Suppressor . . . . . . . . . . • . . . . . . . . . .601
Surface Mount Superectifier . . . . . . . . . . . . . . . . . . . . . .605
Thyristor Surge Suppressor \Transient Voltage Suppressor . . . . . 609
Standard Rectifiers . . . . . . . . . . . . • . . • . . . . . . . . . . . 613
Transient Voltage Suppressor - Automotive . . . . . . . • . . . . . . 617
Packaging
Published January, 1992

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Information
. . . . . . . . . . . . . . . . . . . . . . . . . . . • . .621
Sales Offices and Distributors
Information

. . . . . . . . . . . . . . . . . • . . . . . . . . . . . . .629

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NUMERICAL INDEX
1.5KA10 .....•..... 566
1.5KA1OA .......... 566
1.5KA11 ........... 566
1.5KAllA .......... 566
1.5KA12 ........... 566
1.5KA12A .......... 566
1.5KA13 ........... 566
1.5KAl3A .......... 566
1.5KA15 ..........• 566
1.5KA15A .......... 566
1.5KA16 ........... 566
1.5KA16A .......... 566
1.5KA18 ........... 566
1.5KA18A .•........ 566
1.5KA20 ........... 566
1.5KA2OA .......... 566
1.5KA22 ........... 566
1.5KA22A ....•..... 566
1.5KA24 ........... 566
1.5KA24A .........• 566
1.5KA27 ........... 566
1.5KA27A .......... 566
1.5KA3O ........... 566
1.5KA3OA .......... 566
1.5KA33 ........... 566
1.5KA33A .......... 566
1.5KA36 ........... 566
1.5KA36A ....•..... 566
1.5KA39 ........... 566
1.5KA39A .........• 566
1.5KA43 ........... 566
1.5KA43A .......... 566
1.5KA6.S .......... 566
1.5KA6.8A ......... 566
1.5KA7.5 .......... 566
1.5KA7.5A .....•... 566
1.5KAB.2 .......... 566
1.5KA8.2A ......... 566
1.5KA9.1 .......... 566
1.5KA9.1A ......... 566
1.5KE10 ........... 586
1.5KE100 .......... 586
1.5KE100A .....••.. 586
1.5KE10A .......... 586
1.5KEll ........... 586
1.5KEll0 .......... 586
1.5KEllOA ......... 586
1.5KEllA .......... 586
1.5KE12 ......•.... 586
1.5KE120 .......... 586
1.5KE12OA ......... 586
1.5KEl2A .......... 586
1.5KE13 ........... 586
1.5KE130 .....•.... 586
1.5KE13OA ......... 586
1.5KE13A ••........ 586
1.5KE15 ........... 586
1.5KE150 .......... 586
1.5KE150A ......... 586
1.5KE15A .......... 586
1.5KE16 ........... 586
1.5KEl60 .......... 586
1.5KE160A ......•.. 586

1.5KE16A .......... 586
1.5KE170 .......... 586
1.5KE170A ......... 586
1.5KE18 ........... 586
1.5KE180 .......... 586
1.5KE180A ......... 586
1.5KEl8A .......... 586
1.5KE2O ........... 586
1.5KE200 .......... 586
1.5KE200A ......... 586
1.5KE20A .......... 586
1.5KE22 ........... 586
1.5KE220 .......... 586
1.5KE220A ......... 586
1.5KE22A .......... 586
1.5KE24 ........... 586
1.5KE24A .......... 586
1.5KE250 .......... 586
1.5KE250A ......... 586
1.5KE27 ........... 586
1.5KE27A .......... 586
1.5KE30 ........... 586
1.5KE300 .......... 586
1.5KE300A ......... 586
1.5KE3OA .......... 586
1.5KE33 ........... 586
1.5KE33A .......... 586
1.5KE350 .......... 586
1.5KE350A ......... 586
1.5KE36 ........... 586
1.5KE36A .......... 586
1.5KE39 ........... 586
1.5KE39A .......... 586
1.5KE40 ........... 586
1.5KE400 .......... 586
1.5KE400A ......... 586
1.5KE40A .......... 586
1.5KE43 ........... 586
1.5KE43A .......... 586
1.5KE47 ........... 586
1.5KE47A .......... 586
1.5KE51 ........... 586
1.5KE51A .......... 586
1.5KE56 ........... 586
1.5KE56A .......... 586
1.5KE6.8 ........... 586
1.5KE6.8A ......... 586
1.5KE62 ........... 586
1.5KE62A .......... 586
1.5KE68 ........... 586
1.5KE68A .......... 586
1.5KE7.5 ........... 586
1.5KE7.5A ......... 586
1.5KE75 ........... 586
1.5KE75A .......... 586
1.5KE8.2 .........•. 586
1.5KES.2A ......... 586
1.5KE82 ........... 586
1.5KE82A .......... 586
1.5KE9.1 ........... 586
1.5KE9.1A ......... 586
1.5KE91 ........... 586
1.5KE91A .......... 586

lN3611GP ......... 250
lN3612GP ......... 250
lN3613GP ......... 250
lN3614GP ......... 250
1N39576GP ........ 250
lN4001 ............ 376
lN4001GP ......... 252
lN4002 ............ 376
lN4002GP ......... 252
lN4003 ............ 376
1N4003GP ....•.... 252
lN4004 ......•.•... 376
lN4004GP ......... 252
lN4005 ...•..•..... 376
lN4005GP ......... 252
lN4006 ............ 376
lN4006GP ......... 252
lN4007 •.•...•...•. 376
lN4007GP ......... 252
lN4245 ......•....• 318
lN4245GP ......... 254
lN4246 ..........•. 318
lN4246GP ......... 254
lN4247 ............ 318
lN4247GP ......... 254
lN4248 •.•......... 318
lN4248GP ......... 254
lN4249 ............ 318
lN4249GP ......... 254
lN4383GP ......... 258
lN4384GP ......... 258
lN4385GP ......... 258
1N4585GP ......... 258
lN4586GP ......... 258
lN483B ........... 314
lN485B ........... 314
lN486B ........... 314
lN4933 ..........•. 398
lN4933GP ......... 284
lN4934 ........•.•. 398
lN4934GP ......... 284
lN4935 ............ 398
lN4935GP ......... 284
lN4936 ............ 398
lN4936GP ......... 284
lN4937 ............ 398
lN4937GP ......... 284
lN4942 ............ 350
lN4942GP ......... 286
lN4944 ............ 350
lN4944GP ......... 286
lN4946 ............ 350
lN4946GP ......... 286
lN4947 .....•...... 350
lN4947GP ......... 286
lN4948 .....•...... 350
lN4948GP ......... 286
lN5059 •....•.....• 32O
lN5059GP ......... 260
lN5060 ..••.•...... 32O
lN5060GP ......... 260
lN5061 ............ 320
lN5061GP ......... 260

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lN5062 ............ 320
1N5062GP ......... 260
lN5391 ............ 380
lN5391GP ......... 262
lN5392 •.••.•..•..• 380
lN5392GP ......... 262
lN5393 ............ 380
lN5393GP ......... 262
lN5394 •..•.•....•. 380
lN5394GP ......... 262
lN5395 •....•..•... 380
lN5395GP ......... 262
lN5396 ............ 380
lN5396GP ......... 262
lN5397 ............ 380
lN5397GP ......... 262
lN5398 ............ 380
lN5498GP ......... 262
lN5399 ......•.•... 380
1N5399GP ......... 262
lN5400 ............ 382
lN5401 ............ 382
lN5402 ............ 382
lN5403 ............ 382
lN5404 ............ 382
lN5405 ............ 382
lN5406 ............ 382
lN5407 ....•....... 382
lN5408 ............ 382
lN5415 ....•....•.. 362
lN5416 ............ 362
lN5417 ............ 362
lN5418 ...•....•.•. 362
lN5419 ............ 362
lN542O .....•...... 362
lN5550 ............ 328
lN5551 ............ 328
lN5552 .....•...... 328
lN5553 ............ 328
lN5554 ............ 328
lN5614 ..•......... 322
lN5615 ............ 352
lN5615GP ......... 290
lN5616 ...........• 322
lN5617 ............ 352
1N5617GP ......... 290
lN5618 .....•...... 322
lN5619 .....•..•... 352
lN5619GP ......... 290
lN562O .....•...... 322
lN5621 ............ 352
1N5621 GP ......... 290
lN5622 •..•.•...... 322
lN5623 •........•.. 352
1N5623GP ......... 290
lN5624 ......•..•.. 330
lN5624GP ......... 270
lN5625 .....•...... 330
lN5625GP .. .... .. 270
lN5626 ............ 330
lN5626GP ......... 270
lN5627 ............ 330
lN5627GP ......... 270

NUMERICAL INDEX
lNS817 ............ 54
lN5818 ............ 54
1N5819 ............ 54
lN5820 ............ 60
lN5821 ............ 60
lN5822 ............ 60
lN645 ............ 316
lN646 ............ 316
lN647 ............ 316
lN648 ............ 316
lN649 ............ 316
lN6267 ........... 586
lN6267A .......... 586
lN6268 ........... 586
1N6268A .......... 586
lN6269 ........... 586
1N6269A .......... 586
lN6270 ........... 586
1N6270A .......... 586
lN6271 ........... 586
lN6271A .......... 586
lN6272 ..•........ 586
1N6272A .......... 586
lN6273 ........... 586
1N6273A .......... 586
lN6274 ........... 586
lN6274A .......... 586
lN6275 ........... 586
lN6275A .......... 586
lN6276 ........... 586
1N6276A .......... 586
lN6277 ........... 586
lN6277A .......... 586
lN6278 .....•..... 586
lN6278A .......... 586
lN6279 ........... 586
lN6279A .......... 586
lN6280 ........... 586
lN6280A .......... 586
lN6281 ........... 586
lN6281A .......... 586
lN6282 ........... 586
1N6282A .......... 586
lN6283 ........... 586
1N6283A .......... 586
lN6284 ........... 586
1N6284A .......... 586
lN6285 ........... 586
lN6285A .......... 586
lN6286 ........... 586
1N6286A .......... 586
lN6287 ........... 586
lN6287A .......... 586
lN6288 ........... 586
1N6286A .......... 586
lN6289 ........... 586
1N6289A .......... 586
lN6290 ........... 586
1N6290A .......... 586
lN6291 ........... 586
lN6291A .......... 586
lN6292 ........... 586
1N6292A .......... 586

lN6293 ............ 586
1N6293A ........... 586
lN6294 ............ 586
1N6294A ........... 586
lN6295 .•.......... 586
1N6295A ........... 586
lN6296 ............ 586
1N6296A ........... 586
lN6297 ............ 586
1N6297A ........... 586
lN6298 ............ 586
1N6298A ........... 586
lN6299 .... : ....... 586
1N6299A ........... 586
lN6300 ............ 586
1N6300A .....•..... 586
lN6301 ............ 586
lN6301A ........... 586
lN6302 ............ 586
1N6302A ........... 586
lN6303 ............ 586
1N6303A ........... 586
lN6478 ............ 492
lN6479 ............ 492
lN6480 ............ 492
lN6481 ............ 492
lN6482 ............ 492
lN6483 ............ 492
lN6484 ............ 492
2KBPOO5M ......... 438
2KBPOl M .......... 438
2KBP02M .......... 438
2KBP04M .......... 438
2KSP06M ......... .438
2KBP08M .......... 438
2KBP10M ......... .438
2WOOSG ........... 436
2W01G ............ 436
2W02G ............ 436
2W04G ............ 436
2W06G ............ 436
2W08G ............ 436
2Wl0G ............ 436
3N246 ............. 432
3N247 ............. 432
3N248 ............. 432
3N249 ............. 432
3N250 ............. 432
3N251 ............. 432
3N252 ............. 432
3N253 ............. 438
3N254 ............. 438
3N255 ............. 438
3N256 ............. 438
3N257 ............. 438
3N258 ............. 438
3N259 ............. 438
5KP10 ............. 590
5KP100 ............ 590
5KP100A .......... 590
5KP10A ........... 590
5KP11 ............. 590
5KPll0 ............ 590

5KP110A .......... 590
5KPllA ........... 590
5KP12 .....•....... 590
5KPl2A ........... 590
5KP13 ........•.... 590
5KPl3A ........... 590
5KP14 •....•.••.... 590
5KPl4A ........... 590
5KP15 .........•... 590
5KPl5A ........... 590
5KP16 .•...•......• 590
5KPl6A ........... 590
5KP17 ......•.•.... 590
5KP17A ........... 590
5KP18 ............• 590
5KPl8A ........... 590
5KP20 .•........... 590
5KP20A ........... 590
5KP22 ............. 590
5KP22A ........... 590
SKP24.. ........... 590
5KP24A ........... 590
5KP26 ............. 590
5KP26A ........... 590
5KP28 ............. 590
5KP28A ........... 590
5KP30 ............. 590
5KP30A ........... 590
5KP33 ............. 590
5KP33A ........... 590
5KP36 ............. 590
5KP36A ........... 590
5KP40 ............• 590
5KP40A ........... 590
5KP43 ......•...... 590
5KP43A ........... 590
5KP45 ............. 590
5KP45A ....•...... 590
5KP48 ............. 590
5KP48A ........... 590
5KP5.0 ............ 590
5KP5.0A ........... 590
5KP51 ............. 590
5KP51A ........... 590
5KP54 ............. 590
5KP54A ........... 590
5KP58 ......•...... 590
5KP58A ........... 590
5KP6.0 ............ 590
5KP6.OA •...•.....• 590
5KP6.5 ............ 590
5KP6.5A ........... 590
5KP60 ............. 590
5KP60A ........... 590
5KP64 ......•...... 590
5KP64A ........... 590
5KP7.0 ............ 590
5KP7.0A ........... 590
5KP7.5 .•...••..... 590
5KP7.5A ........... 590
5KP70 .......•..... 590
5KP70A ........... 590
5KP75 ............. 590

·6·

5KP75A ........... 590
5KP78 ............. 590
5KP78A ........... 590
5KP8.0 ............ 590
5KP8.0A ........... 590
5KP8.5 ............ 590
5KP8.5A •.•.•...••. 590
5KP85 ...••..•••.•. 590
5KP85A ........... 590
5KP9.0 ............ 590
5KP9.0A ........... 590
5KP90 .......••..•. 590
5KP90A ........... 590
AGP15·2oo ...••.... 286
AGPl5-4oo ......... 286
AGP15-6oo ......... 286
AGPl5-800 ......... 266
B125Cl0000 ....... 428
B125C1SOOO ....... 434
B125CSOOG ........ 422
B125C800DM ....... 424
B2SOCloooo ....... 428
B250C150OO ....... 434
B250C800G ........ 422
B2SOC800DM ....... 424
B380Cl000G ....... 428
B380C1500G •...... 434
B380CSOOG ........ 422
B380C800DM ....... 424
B4OC1000G ........ 428
B40C1500G ........ 434
B4OC8OOG ......... 422
B4OC800DM ........ 424
B8OC1500G ........ 434
B8OC800G ......... 422
B80Cl000G ........ 428
B8OC800DM ........ 424
BA 157GP .......... 282
BAl58GP .......... 282
BA159DGP ......... 282
BY159GP .......... 282
BY228 ............. 344
BY396P ........... 408
BY397P ........... 408
BY398P ........... 408
BY399P .......... .408
BY50o-100 ......... 410
BY500-2oo ......... 410
BY5OQ.400 ......... 410
BY500-600 ......... 410
BY500·SOO ......... 410
BYM05-100 ........ 486
BYM05-200 ........ 486
BYM05·400 ........ 486
BYM05·SO ......... 486
BYM05-600 ........ 486
BYM06·100 ........ 488
BYM06·200 ........ 488
BYM06-400 ........ 488
SYMOS-SO ......... 488
BYM06-600 ........ 488
BYM07·100 .......• 490
BYM07·150 ........ 490

NUMERICAL INDEX
BYM07-200 •••••••• 490
BYM07-300 •••••••• 490
BYM07-400 •••••••• 490
BYM07-50 ......... 490
BYM1()'100 ........ 494
BYM10A-1000 ...... 494
BYM1 ()'200 ........ 494
BYM1 ().400 ........ 494
BYM1 ()'50 ......... 494
BYM1().6()0 ........ 494
BYM10A-800 ••••••• 494
BYM11-100 ........ 496
BYM11-1000 ....... 496
BYM11-200 ........ 496
BYMl1-400 ........ 496
BYM11-50 ......... 496
BYM11-600 ........ 496
BYM11-800 ........ 496
BYM12-100 •••••••• 498
BYM12-150 •••••••• 498
BYM12-200 •••••••• 498
BYM12-300 •••••••• 498
BYM12-400 ........ 498
BYM12-50 ......... 498
BYM13-2O ......... 504
BYM13-30 ......... 504
BYM13-40 ......... 504
BYM13-50 ......... 504
BYM13-60 ••••••••• 504
BYV27-100 ......... 178
BYV27-150 ......... 178
BYV27-200 ......... 178
BYV27-50 .......... 178
BYV28-50 .......... 184
BYV2B-100 ......... 184
BYV2B-150 ......... 184
BYV2B-200 ......... 184
BYV32-50 .......... 232
BYV32-100 •.......• 232
BYV32-150 .....•... 232
BYV32-200 ......... 232
BYV95A ........... 356
BYV95B ........... 356
BYV95C ........... 356
BYV96D ........... 356
BYV96E ........... 356
BYW29-50 ......... 220
BYW29-100 ........ 220
BYW29-150 ........ 220
BYW29-200 ........ 220
BYW32 ............ 360
BYW33 ............ 360
BYW34 ............ 360
BYW35 ..•• " ....... 360
BYW36 ............ 360
BYW72 ............ 368
BYW73 ............ 388
BYW74 ............ 388
BYW75 ............ 368
BYW76 ............ 368
BZW04-10 ••••••••• 574
BZW04-102 •••••••• 574
BZW04-11 ......... 574

BZW04-111 ........ 574
BZW04-128 ........ 574
BZW04-13 ......... 574
BZW04-136 ........ 574
BZW04-14 ......... 574
BZW04-145 ........ 574
BZW04-15 ......... 574
BZW04-154 ........ 574
BZW04-17 ......... 574
BZW04-171 ........ 574
BZW04-188 ........ 574
BZW04-19 ......... 574
BZW04-2O ......... 574
BZW04-213 ........ 574
BZW04-23 ......... 574
BZW04-239 ........ 574
BZW04-256 ........ 574
BZW04-26 ......... 574
BZW04-273 ........ 574
BZW04-28 ......... 574
BZW04-299 ........ 574
BZW04-31 ......... 574
BZW04-33 ......... 574
BZW04-342 ........ 574
BZW04-37 ......... 574
BZW04-376 ........ 574
BZW04-40 ......... 574
BZW04-44 ......... 574
BZW04-48 ......... 574
BZW04-53 ......... 574
BZW04-58 ......... 574
BZW04-5V8 ........ 574
BZW04-64 ......... 574
BZW04-6V4 ........ 574
BZW04-70 ......... 574
BZW04-78 ......... 574
BZW04-7VO ........ 574
BZW04-7V8 ........ 574
BZW04-85 ......... 574
BZW04-8V5 ........ 574
BZW04-94 ......... 574
BZW04P-10 ........ 574
BZW04P-102 ....••• 574
BZW04P-11 ........ 574
BZW04P-111 ....... 574
BZW04P-128 •..•.•• 574
BZW04P-13 ........ 574
BZW04P-136 ....... 574
BZW04P-14 ........ 574
BZW04P-145 ....... 574
BZW04P-15 •••••.•. 574
BZW04P-154 •••.•.• 574
BZW04P-17 ........ 574
BZW04P-171 ....... 574
BZW04P-188 ....... 574
BZW04P-19 ........ 574
BZW04P-2O •••••... 574
BZW04P-213 ••.. , •• 574
BZW04P-23 ........ 574
BZW04P-239 ..••..• 574
BZW04P-256 ••••••• 574
BZW04P-26 ••••••.. 574
BZW04P273 •.••••.. 574

BZW04P28 ........ 574
BZW04P299 •••..•• 574
BZW04P31 ........ 574
BZW04-33 ......... 574
BZW04P342 ••••••• 574
BZW04P37 ........ 574
BZW04P376 •••..•• 574
BZW04P40 ........ 574
BZW04P44 ........ 574
BZW04P48 ........ 574
BZW04P53 ........ 574
BZW04P58 ........ 574
BZW04P5V8 ••••••• 574
BZW04P64 ........ 574
BZW04P70 ........ 574
BZW04P78 ........ 574
BZW04P7VO ••••..• 574
BZW04P7V8 •..•••• 574
BZWW04P85 ••.•••• 574
BZW04P8V4 ••.•..• 574
BZW04P8V5 ••••.•• 574
BZW04P94 ........ 574
BZW04P9V4 ••.•••. 574
CG1 .............. 338
CG2 .............. 342
CG3 .............. 346
DFOO5M ........... 428
DFOO5S ........... 478
DF01M •••.•••••••• 426
DF01S ............ 478
DF02M ............ 426
DF02S ............ 478
DF04M ............ 426
DF04S ............ 478
DF06M ............ 426
DF06S ............ 478
DFOBM ............ 426
DFOBS ............ 478
DF1OM .....•..•••• 426
DF10S ............ 478
001 .............. 338
002 .............. 342
003 .............. 346
EDF1AM .......... 472
EDF1AS ........... 474
EDF1BM .......... 472
EDF1BS ........... 474
EDF1CM .......... 472
EDF1CS .......... 474
EDF1DM .......... 472
EDF1DS .......... 474
EGL34A ........... 490
EGL34B ........... 490
EGL34C ............ 490
EGL34D ........... 490
EGL34F ........... 490
EGL34G ........... 490
EGL41A ••.•.•••••• 498
EGL41B •.••.•••••• 498
EGL41C ........... 498
EGL41D ........... 498
EGL41F ........... 498
EGL41G ........... 498

-7-

EGP10A ........... 194
EGP10B •..•••••••• 194
EGP1OC •...••••••• 194
EGP10D ........... 194
EGP10F ........... 194
EGP10G ••••••..•.. 194
EGP20A ........... 196
EGP20B ••••••••••• 196
EGP20C ........... 196
EGP2OD ..••••••••• 196
EGP20F ••••••••••• 196
EGP2OG •.••••••••• 196
EGP30A ••••••••••• 198
EGP30B ••••••••••• 198
EGP30C ........... 198
EGP30D ........... 198
EGP30F ........... 198
EGP3OG ••••••••••• 198
EGP50A ........... 200
EGP50B ........... 200
EGP50C ........... 200
EGP50D ........... 200
EGP50F ........... 200
EGP50G ........... 200
ES1A ............. 514
ES1B ............. 514
ES1C ............. 514
ES1D ............. 514
ES2A ............. 528
ES2B ............. 528
ES2C ............. 528
ES2D ............. 528
ES3A ............. 542
ES3B ............. 542
ES3C ............. 542
ES3D ............. 542
FE1A ............. 172
FE1B ............. 172
FE1C ............. 172
FE1D ............. 172
FE2A ............. 176
FE2B ............. 176
FE2C ............. 176
FE2D ............. 176
FE3A ............. 182
FE3B ............. 182
FE3C ............. 182
FE3D ............. 182
FE5A ............. 186
FE5B ............. 186
FE5C ............. 186
FE5D ............. 186
FE6A ............. 188
FESB ............. 188
·FE6C ............. 188
FE6D ............. 188
FEP16AT ..•••••••• 228
FEP16BT •••••••••• 228
FEP16CT .......... 228
FEP16DT .......... 228
FEP16FT .......... 228
FEP16GT ••••••••.• 228
FEP16HT .......... 228

NUMERICAL INDEX
FEP1SJT .......... 228
FEP6AT .....•.•... 212
FEP6BT ........... 212
FEP6CT ........... 212
FEP6DT ........... 212
FEPFl6AT ......... 226
FEPF16BT ••....... 226
FEPFl6CT •...••... 226
FEPF16DT ...• , •... 226
FEPF16FT ......... 226
FEPF1SGT ...••.... 226
FEPF16HT ......... 226
FEPF1SJT ......... 226
FEPF30AP ......•.. 234
FEPF30BP ......... 234
FEPF30CP .......•. 234
FEPF30DP ......••. 234
FEPF30FP ......... 234
FEPF30GP ......... 234
FEPF30HP ......... 234
FEPF30JP ......... 234
FEPF6AT .......... 210
FEPF6BT ..•...•... 210
FEPF6CT .......•.. 210
FEPF6DT .......... 210
FEP30AP .......... 236
FEP30BP .......••. 236
FEP30CP .......... 236
FEP30DP .......... 236
FEP30FP .......... 236
FEP30GP •.•.....•. 236
FEP30HP .......... 236
FEP30JP .•......•• 236
FES8AT ........... 216
FES8BT ••...•...•. 216
FES8CT ........... 216
FES8DT ........... 216
FES8FT •......•... 216
FES8GT ........... 216
FES8HT ........... 216
FESSJT ........... 216
FESl6AT .......... 224
FES16BT .......... 224
FES16CT .......... 224
FES16DT .......•.. 224
FES16FT .......... 224
FES1SGT •......... 224
FES16HT .......... 224
FES1SJT .......... 224
FESFBAT .......... 214
FESF8BT ...•.•.... 214
FESFBCT ....••...• 214
FESF8DT ..••...... 214
FESF8FT •......... 214
FESFBGT ..... '" .. 214
FESF8HT .....•.... 214
FESFSJT .......... 214
FESF16AT ......... 222
FESF16BT ....••... 222
FESFl6CT ..•.. " .. 222
FESF16DT ......... 222
FESF16FT ......... 222
FESF1SGT ...•..... 222

FESF16HT ......... 222
FESF1SJT ......... 222
GIA .............. 324
G1B .............. 324
G1D .............. 324
G1G .............. 324
G1J ............... 324
G1K .............. 324
GIM .............. 324
G2A .............. 326
G2B .............. 326
G2D .............. 326
G2G .............. 326
G2J ............... 326
G2K .............. 326
G2M .............. 326
G3A .............. 332
G3B .............. 332
G3D .............. 332
G3G .............. 332
G3J ............... 332
G3K .............. 332
G3M .............. 332
G4A .............. 334
G4B .............. 334
G4D .............. 334
G4G .............. 334
G4J ............... 334
G4K .............. 334
G4M .............•. 334
GBL005 ........... 442
GBlOl ............ 442
GBL02 ............ 442
GBl04 ............ 442
GBl06 ............ 442
GBl08 ............ 442
GBL10 ............ 442
GBPCl005 ......... 440
GBPC101 .......... 440
GBPC102 .......... 440
GBPC104 .......... 440
GBPC106 .......... 440
GBPC108 .......... 440
GBPCll0 .......... 440
GBPC6oo5 ......... 454
GBPC601 .......... 454
GBPC602 .......... 454
GBPC604 .......... 454
GBPC606 .......... 454
GBPC608 .......... 454
GBPC610 .......... 454
GBPCB005 ......... 456
GBPCBOl .......... 456
GBPC802 ......... .456
GBPC804 .......... 456
GBPCB06 ......... .456
GBPCB08 .......... 456
GBPC810 .......... 456
GBPCla-005 ....... 462
GBPC10-ol ........ 462
GBPCla-02 ........ 462
GBPC10-04 ........ 462
GBPC10-OS ........ 462

GBPCla-08 ........ 462
GBPCla-l0 ........ 482
GBPC12-005 .•••... 464
GBPC12-01 ........ 464
GBPC12-02 ........ 464
GBPC12-04 ........ 464
GBPC12-06 ........ 464
GBPC12-08 ........ 464
GBPC12-10 ........ 464
GBPCl5-005 .•..... 464
GBPCl5-01 ........ 464
GBPCl5-02 ........ 464
GBPCl5-04 ........ 464
GBPCl5-06 ........ 464
GBPCl5-08 ........ 464
GBPCl5-10 ........ 464
GBPC25-005 ....... 464
GBPC25-01 ........ 464
GBPC25-02 ........ 464
GBPC25-04 ........ 464
GBPC25-06 ..•..... 464
GBPC25-08 ........ 464
GBPC25-10 ........ 464
GBPC35-oo5 ......• 468
GBPC35-01 ........ 468
GBPC35-02 ........ 468
GBPC35-04 ........ 468
GBPC35-06 ........ 468
GBPC35-08 ........ 468
GBPC35-10 ........ 468
GBU4A ............ 446
GBU4B ............ 446
GBU4D ............ 446
GBU4G ............ 446
GBU4J ............ 446
GBU4K ............ 446
GBU4M ............ 446
GBU6A ............ 450
GBU6B ............ 450
GBU6D ............ 450
GBUSG ....•..•..•• 450
GBUSJ ............ 450
GBU6K ............ 450
GBU6M ............ 450
GBUBA ............ 458
GBU8B ............ 458
GBU8D ...••.•...•. 458
GBU8G ....•.....•• 458
GBUSJ ............ 458
GBU8K ............ 458
GBU8M ............ 458
GFIA ............. 510
GFIB ............. 510
GF1D ............. 510
GFIG ............. 510
GF1J ......•..•.... 510
GF1K ............. 510
GFIM ............. 510
Gll-l200 .......... 340
Gll-l400 .......... 340
G11-1600 .......... 340
Gll00l ............ 174
Gll002 ...........• 174

-8-

Glloo3 ............ 174
GI1004 ............ 174
Glll0l ............ 180
Glll02 ............ 180
Glll03 ............ 180
GI1104 ............ 180
GI1301 ............ 190
GI1302 ............ 190
GI1303 ............ 190
GI1304 ............ 190
GI1401 ............ 218
GI1402 ............ 218
G11403 ............ 218
GI1404 ............ 218
G12401 ..•.....•.•. 230
GI2402 ............ 230
GI2403 ............ 230
GI2404 .......•.... 230
G125a-l ............ 246
G1250-2 ••.•.....•.. 246
GI250-3 ............ 246
GI250-4 ............ 246
GISOO ....••.....•. 384
GI501 ........•.... 384
GI502 ............. 384
G1504 ............. 384
G1506 ............. 384
GI508 ............. 384
GI510 ............. 384
G1750 ..•.......... 388
GI751 ............. 388
GI752 ............. 388
GI754 ............. 388
GI756 ............. 388
G1758 .........•... 388
GI810 ....••....... 292
GI811 ............. 292
GI812 ......•..•... 292
GI814 ............. 292
GI816 •...•....••.. 292
GI817 .......•..... 292
GI818 .....•...•... 292
G1820 .......•.... .412
GI821 ............. 412
GI822 ............ .412
GI824 ............. 412
GI826 ............ .412
Gla50 ............. 402
GI851 ............. 402
GI852 ...........• .402
GI854 ............. 402
GI856 ............ .402·
GI910 ............ .448
GI911 ............. 448
GI912 ............. 448
GI914 ............ .448
GI916 ............. 448
GI917 ............. 448
Gl34A ....•........ 486
Gl34B ............. 486
Gl34D .......•..... 486
Gl34G •..........•. 486
GL34J ............ .486

NUMERICAL INDEX
GL34K ............ 486
GL41A ............ 494
GL41B ............ 494
GL41D ............ 494
GL41G ............ 494
GL41J ............ 494
GL41K ............ 494
GL41M ............ 494
GLL4735 ....•..... 500
GLL4736 .......... 500
GLL4737 .......... 500
GLL4738 .......... 500
GLL4739 .......... 500
GLL4740 .......... 500
GLL4741 .......... 500
GLL4742 .......... 500
GLL4743 .......... 500
GLL4744 .......... 500
GLL4745 .......... 500
GLL4746 .......... 500
GLL4747 .......... 500
GLL4748 .......... 500
GLL4749 .......... 500
GLL4750 .......... 500
GLL4751 .......... 500
GLL4752 .......... 500
GLL4753 .......... 500
GLL4754 .......... 500
GLL4755 .......... 500
GLL4756 .......... 500
GLL4757 .......... 500
GLL4758 .......... 500
GLL4759 ...•..•... 500
GLL4760 .......... 500
GLL4761 .......... 500
GLL4762 .......... 500
GLL4763 .......... 500
GP02-20 ........... 244
GP02-25 ........... 244
GP02-3O ........... 244
GP02-35 ........... 244
GP02-4O ..........• 244
GP08A ............ 248
GP08B ............ 248
GP08D ............ 248
GP08G ............ 248
GPOSJ ............ 248
GP10A ....•....... 256
GP10B ............ 256
GP10D ............ 256
GP10G ..•.•.•..... 256
GP10J ............ 256
GP10K ............ 256
GP10M .......••••• 256
GP10N ....•....... 256
GP10Q ............ 256
GP10T ......•.•... 256
GP10V ..•......... 256
GP10W ...•..... :. 256
GP10Y •........... 256
GP15A ............ 264
GP15B ..•......... 264
GP15D ............ 264

GPl5G ............ 264
GPl5J .•........... 264
GP15K ............ 264
GP15M ............ 264
GP20A ............ 268
GP20B ............ 268
GP20D ............ 268
GP20G ............ 268
GP2OJ .....•....... 268
GP30A ............ 272
GP30B ............ 272
GP30D ............ 272
GP30G ............ 272
GP3OJ ............. 272
GP30K ............ 272
GP30M ............ 272
'J,JTXl N3611 ....... 28
'J,JTX1N3612 ....... 28
'J,JTX1N3613 ....... 28
'J,JTX1N3614 ....... 28
'J,JTX1N3957 ....... 28
'J,JTX1N483B ....... 24
'J,JTX1N485B ....... 24
'J,JTX1N486B ...•... 24
'J,JTX1N4245 ....... 30
'J,JTX1N4246 ....... 30
'J,JTX1N4247 ....... 30
'J,JTX1N4248 .•..... 30
'J,JTX1N4249 ....... 30
'J,JTX1N4942 ....... 32
'J,JTX1N4944 ....... 32
'J,JTX1N4946 ....•.. 32
'J,JTX1N4947 ....... 32
'J,JTX1N4948 ....... 32
'J,JTX1N5415 ....... 34
'J,JTX1N5416 ....... 34
'J,JTX1N5417 ....... 34
'J,JTX1N5418 ....... 34
'J,JTX1N5419 ....... 34
'J,JTX1N5420 ....... 34
'J,JTX1N5550 ....... 36
'J,JTXl N5551 ....... 36
'J,JTX1N5552 ....... 36
'J,JTX1N5553 ....... 36
'J,JTX1N5554 ....... 36
'J,JTX1N5614 ....... 40
'J,JTX1N5615 ...•... 38
'J,JTX1N5616 .•.•... 40
'J,JTX1N5617 •...... 38
'J,JTX1N5618 ....... 40
'J,JTX1N5619 ....... 38
'J,JTX1N5620 ....... 40
'J,JTX1N5621 ....... 38
'J,JTX1N5622 ....... 40
'J,JTXl N5623 ....... 38
'J,JTX1N5624 ....... 42
'J,JTX1N5625 ....... 42
'J,JTX1N5626 ....... 42
'J,JTX1N5627 ....... 42
'J,JTX1N5807 ....... 44
'J,JTX1N5809 ....... 44
'J,JTX1N5811 ....... 44
'J,JTX1N645 ........ 26

'J,JTX1N647 ........ 26
'J,JTX1N649 ........ 26
'J,JTX1N645-1 ....... 26
'J,JTX1N647-1 ....... 26
'J,JTX1N649-1 ....... 26
KBL005 ...........• 444
KBL01 ............. 444
KBL02 ............. 444
KBL04 ............. 444
KBL06 .......•.•... 444
KBL08 ............. 444
KBL10 .........•... 444
KBP005M .......... 432
KBP01M ........... 432
KBP02M ........... 432
KBP04M ........... 432
KBP06M ........... 432
KBP08M ........... 432
KBP10M ........... 432
KBU4A ............ 448
KBU4B ............ 448
KBU4D ............ 448
KBU4G ............ 448
KBU4J ............ 448
KBU4K ............ 448
KBU4M ............ 448
KBU6A ............ 452
KBU6B ............ 452
KBU6D ............ 452
KBUSG ............ 452
KBUSJ ............ 452
KBU6K ............ 452
KBU6M ............ 452
KBU8A ............ 460
KBU8B ............ 460
KBU8D ............ 460
KBU8G ............ 460
KBUSJ ............ 460
KBU8K ............ 460
KBU8M ............ 460
Ml00A ............ 378
Ml00B ............ 378
MlooD ............ 378
MlOOG ............ 378
MlooJ ............. 378
Ml00K ............ 378
MlooM ............ 378
MBR1035 ........... 86
MBR1045 ........... 86
MBR1050 ........... 88
MBR1060 ........... 88
MBR1090 ........... 90
MBR10100 .......... 90
MBR1535CT .•.•.... 104
MBRl545CT ........ 104
MBR155OCT ........ 106
MBRl56OCT ........ 106
MBRl635 .........• 112
MBRl645 .......... 112
MBR1650 .......... 114
MBRl660 .......... 114
MBR2035CT ........ 126
MBR2045CT ........ 126

, All military devices will be available in JTXV in mid 1992.

-9-

MBR2050CT ........ 128
MBR2060CT ........ 128
MBR2090CT ........ 130
MBR20100cT ....... 130
MBR2535CT ........ 140
MBR2545CT ........ 140
MBR2550CT ........ 142
MBR2560CT ........ 142
MBR3035PT ........ 148
MBR3045PT ........ 148
MBR3050PT ........ 150
MBR3060PT ........ 150
MBR4035PT ........ 162
MBR4045PT ........ 162
MBR4050PT ........ 164
MBR4060PT ........ 164
MBR735 ............ 76
MBR745 ............ 76
MBR750 ............ 78
MBR760 ............ 78
MBRF1035 .......... 80
MBRF1045 .......... 80
MBRF1050 .......... 82
MBRF1060 .......... 82
MBRF1090 .......... 84
MBRF10l00 ......... 84
MBRFl535CT ....... 100
MBRF1545CT ...•... 100
MBRF1550CT ....... 102
MBRF1560CT ....... 102
MBRFl635 ......... 108
MBRFl645 ......... 108
MBRF1650 ......... 110
MBRFl660 ......... 110
MBRF2035CT ....... 120
MBRF2045CT ...•... 120
MBRF2050CT ...•.. 122
MBRF2060CT ....... 122
MBRF2090CT ....... 124
MBRF20100CT ...... 124
MBRF2535CT ....... 136
MBRF2545CT ...•... 136
MBRF2550CT ....... 138
MBRF2560CT ....... 138
MBRF3035PT ....... 144
MBRF3045PT ..••... 144
MBRF3050PT .•..... 146
MBRF3060PT ....... 146
MBRF4035PT ....... 158
MBRF4045PT ....... 158
MBRF4050PT ....... 160
MBRF4060PT ....... 160
MBRF735 ........... 72
MBRF745 ....•...... 72
MBRF750 .•......•.. 74
MBRF760 ........... 74
MPG06A ........... 304
MPG06B ........... 304
MPG06D •.......... 304
MPGOSG ........... 304
MPGOSJ ........... 304
MPG06K ........... 304
MPG06M ........... 304

NUMERICAL INDEX
NSSAT ............ 394
NS8BT .......••... 394
NS8DT .......•.... 394
NS8GT ........•... 394
NS8JT ...........• 394
NS8KT ..•....•.... 394
NS8MT •......•.... 394
NSF8AT ..•..••.... 392
NSF8BT •..••.••... 392
NSF8DT .••.•.••..• 392
NSFSGT .........•. 392
NSF8JT ........... 392
NSF8KT .•.••...... 392
NSF8MT •..•..•.... 392
P300A .•......•..• 386
P300B .•.....•.... 386
P300D ....•...•..• 38S
P300G .•.......... 386
P3OOJ ............. 38S
P300K .•.......... 386
P300M .••......... 386
P4KA6.8 •••....•... 558
P4KA6.SA ......... 558
P4KA7.5 .....•.•... 558
P4KA7.5A .....•... 558
P4KA8.2 .........•. 558
P4KA8.2A .....•..• 558
P4KA9.1 ........... 558
P4KA9.1A .....•... 558
P4KA10 .......•... 558
P4KA10A ......•... 558
P4KAll .......•... 558
P4KAllA ......•... 558
P4KA12 .•.....•... 558
P4KA 12A ......•... 558
P4KA13 .......•... 558
P4KA13A ......•... 558
P4KA15 .......•... 558
P4KA15A .....•.... 558
P4KA16 ........... 558
P4KA16A .......... 558
P4KA18 ..•........ 558
P4KA18A .......•.. 558
P4KA20 ....••....• 558
P4KA20A .......•.• 558
P4KA22 .•......... 558
P4KA22A .......•.. 558
P4KA24 ........... 558
P4KA24A .......•.. 558
P4KA27 .••........ 558
P4KA27A .......... 558
P4KA30 .......•... 558
P4KA30A .......•.. 558
P4KA33 ..•...•.•.. 558
P4KA33A .•....•... 558
P4KA36 ..•....•... 558
P4KA36A .......... 558
P4KA39 .....•..•.. 558
P4KA39A ..•...•... 558
P4KA43 ........... 558
P4KA43A ......•... 558
P4KE10 ........... 570
P4KE100 ......•... 570

P4KE100A ......... 570
P4KE10A .......... 570
P4KEll ..•........ 570
P4KE110 .•...•.... 570
P4KEllOA ......... 570
P4KEllA .......... 570
P4KE12 ........... 570
P4KE120 .......... 570
P4KE120A ......... 570
P4KE12A •......... 570
P4KE13 ........... 570
P4KE130 .......... 570
P4KE130A ......... 570
P4KE13A ...••.•... 570
P4KE15 ...•....... 570
P4KE150 ....•.•... 570
P4KE150A ......... 570
P4KE15A ....•..... 570
P4KE16 ........... 570
P4KE1S0 ....•..... 570
P4KE160A ...•.••.. 570
P4KE16A ......•... 570
P4KE18 .......••.. 570
P4KE180 .......... 570
P4KE180A ......... 570
P4KE18A .......... 570
P4KE20 ........... 570
P4KE200 .......... 570
P4KE200A ......... 570
P4KE20A ...•....•. 570
P4KE22 ...•....... 570
P4KE220 .......••. 570
P4KE220A ......... 570
P4KE22A ......•.•. 570
P4KE24 ........... 570
P4KE24A ........•. 570
P4KE250 .......... 570
P4KE250A ......••• 570
P4KE27 ........... 570
P4KE27A .......•.. 570
P4KE30 ........... 570
P4KE300 .......... 570
P4KE300A .•....... 570
P4KE30A ......••.. 570
P4KE33 ...•....... 570
P4KE33A ....•...•. 570
P4KE350 ..•....... 570
P4KE350A ......... 570
P4KE36 ........... 570
P4KE36A .......... 570
P4KE39 ........... 570
P4KE39A .......... 570
P4KE400 .•........ 570
P4KE400A •........ 570
P4KE43 .....•.•... 570
P4KE43A ......•... 570
P4KE47 ........... 570
P4KE47A ...•...... 570
P4KE51 .....•..... 570
P4KE51A .......... 570
P4KE56 ........... 570
P4KE56A .......... 570
P4KES.8 ....•...... 570

P4KES.SA .......... 570
P4KE62 .....•..... 570
P4KE62A .......... 570
P4KES8 •••........ 570
P4KE68A .•........ 570
P4KE7.5 ••...•..•.. 570
P4KE7.5A ••..••••.. 570
P4KE75 ...•••..••• 570
P4KE75A •....•..•• 570
P4KE8.2A ..•••..••• 570
P4KE82 ...•....••• 570
P4KE82A ••..••..•• 570
P4KE9.1 ....•.•.... 570
P4KE9.1A •.•••...•. 570
P4KE91A .......... 570
P600A .......•...•• 390
P6006 ......•...... 390
P600D •...•......• 390
P600G ..........•. 390
P600J .•.•.•••...•• 390
P600K ..•..•.•..... 390
P600M ....•••.•••. 390
P6KAS.S .•......••• 562
P6KA6.SA ........•. 562
P6KA7.5 ........... 562
PSKA7.5A .......... 562
P6KA8.2 ........... 562
PSKA8.2A .......••. 5S2
P6KA9.1 ........... 562
P6KA9.1A .......... 562
PSKA10 ........... 562
P6KA10A .......... 562
PSKAll ........... 562
P6KAllA .......... 562
P6KA12 ........... 562
P6KAl2A .......... 562
P6KA13 ........... 562
P6KA 13A .......... 562
P6KA15 ........... 562
P6KA 15A .......... 562
P6KA16 ........... 562
P6KA16A .......... 562
P6KA18 ........... 562
P6KA lSA .......... 562
P6KA20 ........... 562
P6KA20A .......... 562
P6KA22 ........... 5S2
PSKA22A .......... 562
P6KA24 ...... , .... 5S2
P6KA24A .......... 562
P6KA27 ........... 562
P6KA27A .......... 5S2
P6KA30 ........... 562
P6KA30A .......... 562
P6KA33 ........... 562
P6KA33A .......... 562
P6KA36 ........... 562
P6KA36A .......... 562
P6KA39 ........... 562
P6KA39A .......... 562
P6KA43 ........... 562
P6KA43A .......... 562
P6KE10 ........... 582

-10-

P6KE100 ........... 582
P6KE100A ......... 582
P6KE10A .......... 582
P6KEll ............ 582
P6KEll0 ........... 582
P6KEll0A ......... 582
P6KE11A .......... 582
P6KE12 ............ 582
P6KE120 .....•..... 582
P6KE120A ......... 582
P6KEl2A .......... 582
P6KE13 ............ 582
P6KEl30 ........... 582
P6KEl30A ......... 582
P6KEl3A .......... 582
P6KE15 ............ 582
P6KEl50 ........... 582
P6KE150A ......... 582
PSKEl5A ..... : .... 582
P6KE16 ......•..•.. 582
P6KEl60 ........... 582
P6KE160A ......... 582
P6KE16A .......... 582
P6KE170 ........... 582
P6KE170A ......... 582
P6KE18 ............ 582
P6KEl80 ........... 582
P6KEl80A ...•..... 582
P6KE1SA .......... 582
P6KE20 ......••.... 582
PSKE200 ........... 582
P6KE200A ......... 582
P6KE20A .......... 582
PSKE22 ............ 582
P6KE22A .......... 582
P6KE24 ....•....... 582
P6KE24A .......... 582
P6KE27 ............ 582
PSKE27A .......... 582
P6KE30 ............ 582
P6KE300 .....•..... 582
P6KE300A ......... 582
P6KE30A .......... 582
P6KE33 ............ 582
PSKE33A .......... 582
PSKE36 ....•....... 582
P6KE36A .......... 582
P6KE39 ............ 582
P6KE39A .......... 582
PSKE400 ........... 582
P6KE400A ......... 582
P6KE43 ............ 582
P6KE43A .......... 582
P6KE47 ......•..... 582
P6KE47A .......... 582
P6KE51 ............ 582
P6KE51A .......... 582
P6KE56 ............ 582
P6KE56A .......... 582
PSKES.8 ........... 582
P6KE6.SA .......... 582
P6KE62 ............ 582
P6KE62A .......... 582

NUMERICAL INDEX
PSKE68 ........... 582
P6KE68A •......... 582
P6KE7.5 ...•....... 582
P6KE7.5A ......... 582
P6KE75 ........... 582
P6KE75A .......... 582
P6KE8.2 ........... 582
P6KE8.2A ......... 582
P6KE82 ........... 582
P6KE82A .....•.... 582
P6KE9.1 ........... 582
P6KE9.1A ....••... 582
P6KE91 .........•• 582
P6KE91A .......... 582
RF1A ...•......... 516
RF1B ............. 516
RF1D ............. 516
RF1G ............. 516
RF1J .........•.... 516
RF1K ............. 516
RF1M ............. 516
RG1A ............. 354
RG1B ............. 354
RGlD ............. 354
RG1G ............. 354
RG1J .......•..... 354
RG1K ............. 354
RG1M ............. 354
RG2A ............. 358
RG2B ............. 358
RG2D ............. 358
RG2G ............. 358
RG2J ............. 358
RG2K ............. 358
RG2M ............. 358
RG3A ............. 364
RG3B ............. 364
RG3D ............. 364
RG3G ............. 364
RG3J ............. 364
RG3K ............. 364
RG3M ............. 364
RG4A ............. 366
RG48 ............. 366
RG4D ............. 366
RG4G ............. 366
RG4J ...........•. 366
RG4K ............. 366
RG4M ..........•.. 366
RGL34A ........... 488
RGL348 ........... 488
RGL34D ..........• 488
RGL34G .......•... 488
RGL34J ........... 488
RGL41A ........... 496
RGL418 ........... 496
RGL41D ........... 496
RGL41G ..•........ 496
RGL41J ...•....... 496
RGL41K ........... 496
RGL41M •.......... 496
RGP02·12E ........ 280
RGP02·14E ........ 280

RGP02·16E ........ 280
RGP02·18E ........ 280
RGP02·20E ........ 280
RGP10A ........... 288
RGP108 .•.•....... 288
RGP10D ........... 288
RGP1OG ........... 288
RGP10J ........... 288
RGP10K ........... 288
RGP10M ........... 288
RGPl5A ........... 294
RGP158 ........... 294
RGP15D ........... 294
RGPl5G ........... 294
RGPl5J ........... 294
RGP15K ........... 294
RGP15M ........... 294
RGP20A ........... 296
RGP208 ........... 296
RGP20D ........... 296
RGP2OG ........... 296
RGP20J ........... 296
RGP25A ........... 298
RGP258 ........... 298
RGP25D ........... 298
RGP25G ........... 298
RGP25J ........... 298
RGP25K ........... 298
RGP25M ........... 298
RGP30A ........... 300
RGP308 ........... 300
RGP30D ........... 300
RGP3OG ........... 300
RGP30J ........... 300
RGP30K ........... 300
RGP30M ........... 300
RMPG06A ......... 306
RMPG068 ......... 306
RMPG06D ......... 306
RMPGOGG ......... 306
RMPGOGJ .......... 306
RS2A ............. 526
RS28 ............. 526
RS2D ............. 526
RS2G ............. 526
RS2J .............. 526
RS2K ............• 526
RS3A ............. 540
RS38 ............• 540
RS3D ............. 540
RS3G ............. 540
RS3J .............. 540
RS3K ............. 540
S2A ............... 524
S28 ..............• 524
S2D ..............• 524
S2G .............. 524
S2J ..............• 524
S2K ............... 524
S2M .............. 524
S3A ............... 538
S38 ............... 538
S3D ............... 538

S3G .............. 538
S3J ............... 538
S3K ..............• 538
S3M .............. 538
SA5.0 ....•...•.••. 578
SA5.0A ........... 578
SA6.0 ....•...•.•.. 578
SA6.0A .........•.• 578
SA6.5 ............. 578
SA6.5A ............ 578
SA7.0 ............. 578
SA7.0A .•.......... 578
SA7.5 ............. 578
SA7.5A .•.......... 578
SA8.0 ............. 578
SA8.0A ............ 578
SA8.5 .........•... 578
SA8.5A ............ 578
SA9.0 ............. 578
SA9.0A ............ 578
SA10 .......•...... 578
SA10A ............ 578
SAll .............. 578
SAllA ............ 578
SA12 .......•...•.. 578
SAl2A .....•...... 578
SA13 ....•......... 578
SA13A ....••.....• 578
SA14 .•............ 578
SA14A ............ 578
SA15 .............. 578
SA15A ............ 578
SA16 .............. 578
SA16A ............ 578
SA17 ......•....... 578
SA17A ............ 578
SA18 .............. 578
SA18A ............ 578
SA20 .............. 578
SA20A ............ 578
SA22 .............. 578
SA22A ............ 578
SA24 .............. 578
SA24A ............ 578
SA26 .............. 578
SA26A .......•.... 578
SA28 .............. 578
SA28A ............ 578
SA3a .............. 578
SA30A ............ 578
SA33 .............. 578
SA33A ............ 578
SA36 .............. 578
SA36A ............ 578
SA40 .........•.... 578
SA40A ............ 578
SA43 .............. 578
SA43A ............ 578
SA45 .............. 578
SA45A ..........•. 578
SA48 .............. 578
SA48A ............ 578
SA51 .............. 578

·11·

SA51A ..••...•..... 578
SA54 ........•..... 578
SA54A ............. 578
SA58 .............. 578
SA58A .•........... 578
SAGO .............. 578
SAGOA ............. 578
SA64 .............. 578
SA64A ............. 578
SA70 .............. 578
SA70A .•........... 578
SA75 ......•....... 578
SA75A ...•...••.... 578
SA78 ......••...... 578
SA7SA ............. 578
SASS .............. 578
SA85A ............. 578
SA90 •.•........... 578
SA90A ...•......... 578
SAloo ............. 578
SAlOOA ..••.•...... 578
SAll0 .•........... 578
SAll0A ..•......... 578
SA120 .•........... 578
SA120A ............ 578
SAl30 .•........... 578
SA130A ..•......... 578
SAl50 .•••.....•... 578
SA150A .••......... 578
SAl60 .•........... 578
SA160A ............ 578
SA170 ....•........ 578
SA170A ............ 578
SB020 .............. 52
S8030 •............. 52
SB040 .............. 52
S8120 •............. 56
S8130 .............. 56
SB140 .............. 56
S8150 .............. 56
SBl60 .•..•........• 56
S8190 .............. 58
S81100 ...•......... 58
S8320 .............. 62
S8330 .............. 62
SB340 .............. 62
SB350 .............. 62
SB360 •............. 62
SB390 ......•....... 64
SB3100 ....•..•..... 64
SB520 .............. 66
SB530 .............. 66
S8540 ............•. 66
SB550 ....••.......• 66
SB560 ............. 66
SB590 ......•....... 68
SB5100 ............. 68
SBL1030 ............ 94
SBL1040 ............ 94
SBL1030CT .•....... 98
SBL1040CT ......... 98
SBLl630CT ........ 118
SBL1640CT ........ 118

NUMERICAL INDEX
SBL1640CT ........ 118
SBL2030PT •....... 134
SBL2040PT •....... 134
SBL3030PT .•••.... 154
SBL3040PT •....... 154
SBLF1030 ..•••..... 92
SBlF1040 .......... 92
SBLFi030CT .•••.... 96
SBLF1040CT .••..•.. 96
SBLFl630CT .....•. 116
SBLFl640CT .••.... 116
SBLF2030PT ....... 132
SBlF2040PT .....•• 132
SBLF3030PT ....... 152
SBLF3040PT ...••.. 152
SD241P ..••••..... 156
SGL41-2O .......... 504
SGL41-30 ...•...... 504
SGL41-40 .••....... 504
SGL41-50 .......... 504
SGL41-60 .•........ 504
SRP100A ......•... 400
SRP100B .......... 400
SRP100D ......•.•• 400
SRP100G .....•.... 400
SRP100J .......... 400
SRP100K .......... 400
SRP300A .......... 406
SRP300B .......... 406
SRP300D .......... 406
SRP300G .......... 406
SRP300J .......... 406
SRP300K .......... 406
SRP600A .....•.•.. 414
SRP600B .••....... 414
SRP600D .......•.. 414
SRP600J .......... 414
SRP600G .•........ 414
SRP600K .......... 414
SS12 ............. 516
8513 .......•..... 516
SS14 ............. 516
SS15 .......•..... 516
SS16 ............. 516
SS19 ............ 518
851B ............. 518
SS22 ............. 530
8523 ............. 530
SS24 ............. 530
SS25 ............. 530
SS26 ............. 530
SS29 ............. 532
SS2B ............. 532
SS32 ............. 544
SS33 ............. 544
SS34 ............. 544
SS35 ............. 544
SS36 ............. 544
SS39 ............. 546
SS3B ............. 546
TGL41-10 .......... 506
TGL41-100 ......... 506
TGL41-100A ....... 506

TGL41-1OA ......... 506
TGL41-11 .......... 506
TGL41-110 ......... 506
TGl41-110A .....••. 506
TGL4H1A ......... 506
TGL41-12 .......... 506
TGL41-12O ......... 506
TGL41-12OA ........ 506
TGL41-12A ..•.•.••. 506
TGL41-13 .......... 506
TGL41-130 ......... 506
TGL41-13OA .•...... 506
TGL41-13A ......... 506
TGL41-15 .......... 506
TGL41-150 ......... 506
TGL41-150A ..•....• 506
TGL41-15A ......... 506
TGL41-16 .......... 506
TGL41-160 ......... 506
TGL41-160A ........ 506
TGL41-16A ......... 506
TGL41-170 ......... 506
TGl41-17OA ......•. 506
TGL41-18 .......... 506
TGL41-180 ......... 506
TGL41-180A •....... 506
TGL41-18A ......... 506
TGl41-2O .......... 506
TGL41-200 ......... 506
TGL41-2OOA ........ 506
TGL41-2OA ......... 506
TGL41-22 .......... 506
TGL41-22A ......... 506
TGl41-24 .......... 506
TGL41-24A .....•... 506
TGL41-27 .......... 506
TGL41-27A •....•... 506
TGL41-30 .......... 506
TGL41-3OA •........ 506
TGL41-33 .......... 506
TGL41-33A ......... 506
TGL41-36 .......... 506
TGL41-36A ......... 506
TGL41-39 .......... 506
TGL41-39A ......... 506
TGL41-43 .......... 506
TGL41-43A .....•.•. 506
TGL41-47 .......... 506
TGL41-47A .....•... 506
TGL41-51 .......... 506
TGL41-51A ......... 506
TGL41-56 .......... 506
TGL41-56A ......... 506
TGL41-6.8 ......... 506
TGL41-6.8A •....... 506
TGL41-62 .......... 506
TGL41-62A ......... 506
TGL41-68 .......... 506
TGL41-68A ......... 506
TGL41-7.5 ......... 506
TGL41-7.5A ....•.•. 506
TGL41-75 .......... 506
TGL41-75A ....•.... 506

TGL41-8.2 ......... 506
TGL41-8.2A ........ 506
TGL41-82 .......... 506
TGL41-82A ........• 506
TGL41-9.1 ......... 506
TGL41-9.1A ........ 506
TGL41-91 .......... 506
TGL41-91A ......... 506
TMPG06-6.8 ........ 554
TMPG06-6.8A ...... 554
TMPG06-7.5 ........ 554
TMPG06-7.SA ....•. 554
TMPG06-8.2 ........ 554
TMPG06-8.2A ...... 554
TMPG06-9.1 •....••. 554
TMPG06-9.1A ...... 554
TMPG06-10 ........ 554
TMPG06-10A ....... 554
TMPG06-11 ........ 554
TMPG06-11A ....... 554
TMPG06-12 ........ 554
TMPG06-12A ....... 554
TMPG06-13 ........ 554
TMPG06-13A ....... 554
TMPG06-15 ........ 554
TMPG06-15A ....... 554
TMPG06-16 ........ 554
TMPG06-16A ....... 554
TMPG06-18 ........ 554
TMPG06-18A ....... 554
TMPG06-20 ........ 554
TMPG06-20A ....... 554
TMPG06-22 ........ 554
TMPG06-22A ....... 554
TMPG06-24 ........ 554
TMPG06-24A ....... 554
TMPG06-27 ........ 554
TMPG06-27A ....... 554
TMPG06-30 ........ 554
TMPG06-30A ....... 554
TMPG06-33 ........ 554
TMPG06-33A ....... 554
TMPG06-36 ........ 554
TMPG06-36A .•..... 554
TMPG06-39 ........ 554
TMPG06-39A .•..... 554
TMPG06-43 ........ 554
TMPG06-43A ....... 554
TSMA6.8 .......... 520
TSMA6.8A ......... 520
TSMA7.5 .......... 520
TSMA7.5A ......... 520
TSMAB.2 .......... 520
TSMA8.2A ......... 520
TSMA9.1 .......... 520
TSMA9.1A ......... 520
TSMA10 ........... 520
TSMA10A .......... 520
TSMAll ........... 520
TSMA11A .......... 52O
TSMA12 ........... 520
TSMAl2A .......... 520
TSMA13 ........... 520

-12-

TSMAl3A .......... 520
TSMA15 ........... 520
TSMAl5A .......••. 520
TSMA16 ........... 520
TSMAl6A .......... 520
TSMA18 ........... 520
TSMAl8A .......... 520
TSMA20 ........... 520
TSMA20A .......... 520
TSMA22 ........... 520
TSMA22A .......... 520
TSMA24 ........... 520
TSMA24A .......... 520
TSMA27 ........... 520
TSMA27A .......... 520
TSMA30 ........... 520
TSMA30A .......... 520
TSMA33 ........... 520
TSMA33A .......... 520
TSMA36 ........... 520
TSMA36A .......... 520
TSMA39 ........... 520
TSMA39A .......... 520
TSMA43 ........... 520
TSMA43A .......... 520
TSMA47 ........... 520
TSMA47A .......... 520
TSMA51 ........... 520
TSMA51A .......... 520
TSMA56 ........... 520
TSMA56A .......... 520
TSMA62 ........... 52O
TSMA62A ...•...... 520
TSMA6S ........... 520
TSMA68A .......... 520
TSMA75 ........... 520
TSMA75A .......... 520
TSMA82 ........... 520
TSMA82A .......... 520
TSMA91 ........... 520
TSMA91A .......... 520
TSMA100 .......... 520
TSMA100A ......... 520
TSMA110 .......... 520
TSMA110A ......... 520
TSMA120 .......... 520
TSMA120A ......... 520
TSMA130 .......... 520
TSMA130A ......... 520
TSMA150 .......... 520
TSMA 150A ......... 520
TSMA160 .......... 520
TSMA160A ......... 520
TSMA170 .......... 520
TSMA170A ......... 520
TSMA180 ...... ~ ... 520
TSMA180A ......... 520
TSMA200 .......... 520
TSMA200A ......... 520
TSMB6.8 ........... 536
TSMB6.8A .......... 536
TSMB7.5 ........... 536
TSMB7.5A .......... 536

NUMERICAL INDEX
TSMB82 .......... 536
TSMB8.2A ..•..••.• 536
TSMB9.1 •.......•• 536
TSMB9.1A ••••..... 536
TSMB10 •..•.•..••• 536
TSMB10A ..•...•••• 536
TSMB11 ••.......•. 536
TSMB11A ........•• 536
TSMB12 ..••.•••••• 536
TSMB12A •....••... 536
TSMB13 ••........• 536
TSMB1aA ••••••••.. 536
TSMB15 ••••••.•... 536
TSMBl5A •....••..• 536
TSMB16 •••••••••.. 536
TSMB16A ••..••...• 536
TSMB18 .•.••.•..•• 536
TSMB18A ••••••.••• 536
TSMB20 ••....•...• 536
TSMB2OA ••••••••.. 536
TSMB22 •••••••••.• 536
TSMB22A •...•....• 536
TSMB24 .••.•••••.. 536
TSMB24A •...••.•.• 536
TSMB27 •.........• 536
TSMB27A •.•••••.•• 536
TSMB30 ••........• 536
TSMB3OA ••••••••.. 536
TSMB33 ..••....•.• 536
TSMB3aA ..•••.•••• 526
TSMB36 •.••••••.•• 536
TSMB36A .....•..•• 536
TSMB39 .......•••• 536
TSMB39A .•..••...• 536
TSMB43 ..•.....••• 536
TSMB4aA ••..••••.• 536
TSMB47 .••...••..• 536
TSMB47A ••.....••• 536
TSMB51 ••••••••.•• 536
TSMB51A ••..•.••.. 536
TSMB56 ..•••...••• 536
TSMB56A ••.•••...• 536
TSMB62 .•......•.• 536
TSMB62A •••••••.•. 536
TSMB68 •.•..•.••.• 536
TSMB68A •......••. 536
TSMB75 •..••...••• 536
TSMB75A .......••• 536
TSMB82 .••••••••.. 536
TSMB82A .•....•••. 536
TSMB91 ..•••.•••.. 536
TSMB91A .....••••. 536
TSMB100 ••••.••... 536
TSMB100A •••••.•.. 536
TSMB110 ••••••.... 536
TSMB110A ........• 536
TSMB120 •••..••••. 536
TSMB120A .......•• 536
TSMB130 .••..•••.. 536
TSMB13OA ••••..••• 536
TSMB150 •••••..... 536
TSMB150A .......•. 536
TSMB160 •....•.••• 536

TSMB160A ..•••.••• 536
TSMB170 •••••..••. 536
TSMB170A ••....... 536
TSMB180 ...•••.••. 536
TSMB180A ••.•....• 536
TSMB200 •••...•... 536
TSMB200A ..••...•. 536
TSMCS.8 •••....... 548
TSMCS.8A ........ 548
TSMC7.5 ..•••...•• 548
TSMC7.5A ••.•...•. 548
TSMCB2 •....•••.• 548
TSMCB.2A .•••..••. 548
TSMC9.1 .••.•...•. 548
TSMC9.1A ...••••.• 548
TSMC10 ....••..••. 548
TSMC10A •••.•..... 548
TSMC11 •••.••.•••. 548
TSMC11A •...•..... 548
TSMC12 .....••••.• 548
TSMC12A •..••...•• 548
TSMC13 .•••....... 548
TSMC13A ....•••••• 548
TSMC15 .•..••...•. 548
TSMC15A •.••.•.... 548
TSMC16 •...••..••• 548
TSMC16A ••••...... 548
TSMC18 ..•.••••••• 548
TSMC18A .•••....•. 548
TSMC20 ••••...•••. 548
TSMC20A .••••..••. 548
TSMC22 ••••....... 548
TSMC22A .......... 548
TSMC24 ••.•••...•• 548
TSMC24A .•........ 548
TSMC27 .••••••..•. 548
TSMC27A ••••....•• 548
TSMC30 •••..•..... 548
TSMC30A .•.••..••. 548
TSMC33 .••••....•. 548
TSMC3aA •......... 548
TSMC36 .•••••..... 548
TSMC36A ..•....... 548
TSMC39 .••••..•.•. 548
TSMC39A .••....... 548
TSMC43 •......•... 548
TSMC43A .••...•... 548
TSMC47 ......••... 548
TSMC47A •.••••.••• 548
TSMC51 ...•..••.•. 548
TSMC51A ..••••.••• 548
TSMC56 .•••••...•. 54Q
TSMC56A ..•.•••••• 548
TSMCS2 •••••....•. 548
TSMCS2A ••.••..... 548
TSMCS8 ••....••.•. 548
TSMCS8A ...••••••• 548
TSMC75 •.....••.•. 548
TSMC75A •••••.•.•• 548
TSMC82 •••••...... 548
TSMC82A ••••.•.... 548
TSMC91 .....••.... 548
TSMC91A .•..•••... 548

TSMC100 •....••.•. 548
TSMC100A .....•.•• 548
TSMC110 ••...••.•. 548
TSMC110A ..•.....• 548
TSMC120 •.....•.•• 548
TSMC120A ....•.... 548
TSMC130 •.....•.•• 548
TSMC13OA ....••.•• 548
TSMC150 •........• 548
TSMC150A .......•. 548
TSMC160 •....••••• 548
TSMC160A •.•...••• 548
TSMC170 •..•...•.• 548
TSMC170A ....•.••• 548
TSMC180 •..••..... 548
TSMC180A ......•.• 548
TSMC200 ••...•...• 548
TSMC200A ......••• 548
UF4001 ..•....•.•.• 204
UF4002 .•.......•.• 204
UF4003 ......•..••• 204
UF4004 ..•...••.•.. 204
UF4005 .•.. , ....••• 204
UF4006 ............ 204
UF4007 ............ 204
UF5400 ............ 206
UF5401 ............ 206
UF5402 ............ 206
UF5403 ............ 206
UF5404 ............ 206
UF5405 ............ 206
UF5406 ............ 206
UF5407 ............ 206
UF5408 ............ 206
WOOSG ............ 430

W001G ..•.•.....•• 430
WOO2G ............ 430
WOO4G ............ 430

WOO6G ............ 430
WOO8G ............ 430
W1OG ............. 430
ZGL41-100 ...•.•... 502
ZGL41-100A ........ 502
ZGL41-110 ...•..••• 502
ZGL41-110A .•...... 502
ZGL41-120 .•....••. 502
ZGL41-120A ••.....• 502
ZGL41-130 .......•• 502
ZGL41-130A ..•.•.•. 502
ZGL41-140 ...•••... 502
ZGL41-140A ..•.•... 502
ZGL41-150 '" ...... 502
ZGL41-150A ........ 502
ZGL41-160 •.•...... 502
ZGL41-160A .•...•.. 502
ZGL41-170 ......•• ,502
ZGL41·170A ..•..... 502
ZGL41-180 ....•..•. 502
ZGL41·180A ..•..... 502
ZGL41-190 ......... 502
ZGL41-190A •....••. 502
ZGL41-200 ......... 502
ZGL41-2OOA ...••.• , 502

-13-

ZGP1D-100 ......... 302
ZGP1D-100A ••..•••• 302
ZGP1D-100B •...• , .. 302
ZGP1D-110 ......... 302
ZGP1D-11OA ........ 302
ZGP1D-11OB •.•..... 302
ZGP1D-120 ......... 302
ZGP1D-120A ........ 302
ZGP1D-120B ••• , ..•. 302
ZGP1D-13O ......... 302
ZGP1D-l3OA •••.•••. 302
ZGP1D-13OB ••••...• 302
ZGP1D-140 ......... 302
ZGP1D-140A .....••• 302
ZGP1D-14OB ••..•••• 302
ZGP1D-150 ......... 302
ZGP1D-15OA .•• , ••.• 302
ZGP1D-15OB •....••• 302
ZGP1D-160 ......... 302
ZGP1D-16OA ..•..•.. 302
ZGP1D-160B •.••.••. 302
ZGP1D-170 ......... 302
ZGP1D-17OA .....••. 302
ZGP1D-170B .... , •.. 302
ZGP1D-180 ......... 302
ZGP1D-18OA ..•••••. 302
ZGP1D-18OB ...•.... 302
ZGP1D-190 ......... 302
ZGP1D-19OA .. '" ... 302
ZGP1D-19OB •• , , ..•• 302
ZGP1D-200 ......... 302
ZGP1 D-2OOA .•.•.... 302
ZGP1D-2OOB ••.•••.• 302

-14-

QUALITY ASSURANCE

.....- - - - -15-

IN~--

QUALITY ASSURANCE
CUSTOMER INFORMATION
INTRODUCTION
Quality and Reliability of the Power Semiconductor Division extends its services to the areas
of materials and product analysis, statistical quality control, reliability evaluation, quality inspection and development of new test methods.
Headquartered in New York, it assumes the responsibility for the development, implementation and administration of the Quality Assurance and statistical quality control programs for
all operations of the Division, both domestic and foreign.
At our manufacturing plants, rigid and extensive in-process statistical quality controls are utilized such that the quality and reliability of our products are consistent and repeatable. The
laboratories of our facilities are equipped with the latest high-level instrumentation and
staffed with skilled technicians and engineers.
Professional expertise and the most modern scientific equipment maintains our position of
excellence and leadership as the foremost producer of semiconductor devices, and assures
that the quality levels of our products, from inspection and test of raw materials to final approval of completed devices, meet the highest standards of the industry.

We offer•••
• Top-flight specialists and modern facilities.
• Experienced Test and Reliability Engineers.
• Statistical Quality Control.
• Fully equipped laboratories able to perform all types of scientific investigation.

SERVICES OF THE MATERIALS AND DEVICE ANALYSIS SECTION
• Testing, inspection and evaluation of materials utilizing the facilities of the electrical,
mechanical, high-reliability and chemical analysis departments of our laboratories.
• Research and development of testing methods.
• Inspection of materials to ensure compliance by suppliers and contractors to specifications.
• Failure analysis to determine the cause of breakdown in materials or components.
• Qualification testing of military devices in accordance with applicable military specifications. The laboratories are qualified to perform testing to MIL-S-19500, MIL-STD-750,
MIL-STD-202, and also are qualified to MIL-STD-883 tests under MIL-M-38510. Qualification approvals (QPL listing) were awarded by the United States, Canadian and West German Departments of Defense.
• A continuing program of military reliability (JAN-TX) also is in progress to assure conformance to the requirements for aerospace and the military.

-16-

TEST CONDITIONS

OPERATING LIFE

SOLDERABILITY

Conditions: Rated voltage,
rated current, for 1000 hours
at rated maximum junction temperature

Conditions: 95% coverage within
1.2 mm of device body.

DC BLOCKING

TEMPERATURE CYCLING

Conditions: Rated voltage for 1000 hours
at rated maximum junction temperature
in inert environment.

Conditions: - 65 °C

STORAGE LIFE

SHOCK

Conditions: Rated maximum ambient
temperature for 1000 hours in inert
environment

Conditions: 5 blows of 1500g's.

to +175°C.

LEAD PULL

VIBRATION (CONSTANT)

Conditions: Axial pull to destruction.

Conditions 20 g's at 60 Hz ± 20 Hz.

LEAD FATIGUE

ACCELERATION

Conditions: number of 90-degree
bends with 0.5 kg weight attached
to lead.

Conditions: 20,000 g's.

MOISTURE RESISTANCE

SAL T ATMOSPHERE

Conditions: 85°C, 85% Relative
Humidity for 1000 hours.

Conditions: 5% solution for
24 hours at 40°C.

FLAMMABILITY
Conditions: Encapsulating compound,
General Instrument's proprietary
formulas, GI-4B or GI-5A is self-extinguishing, recognized and registered
by Underwriters' Laboratories, U.S.
under 94V-O rating.

-17-

HIGH RELIABILITY-TEST CAPABILITIES
• Barometric Pressure:

• Vibration Noise:

This equipment simulates low atmospheric
pressure encountered in non-pressurized
environments up to 200,000 feet.

Measures the amount of electrical noise
produced by the devices under vibration
from 9-5kHz and 0-70g.

• Humidity:

• Non-Operating Life:

This equipment evaluates units in an accelerated
manner, and monitors the effects of their
resistance to high humidity and heat conditions.
Typical RH of 90 to 98% is achieved.

To determine the effects on devices at elevated
temperatures. Temperature ranges up to 300 °C.

• Operating Life Test:
To operate the devices under intended condition
to screen and eliminate marginal devices and
eliminate mortality.

• Salt (Spray) and Salt Atmosphere:
The equipment provides an accelerated
laboratory corrosion test simulating the effects of
seacoast atmospheres. Salt concentration and
velocity per day can be maintained between
10,000 and 50,000 mgrn/m2/day. Salt Atmosphere - Salt spray 5%- 20% salt solution.

• Steady State Operating Life
• Reverse Bias Operating Life
• Intermittent Operating Life

• Solderability - Lead Integrity
(Lead Tension):

• Thermal Shock Temp.-Cycllng:
This test determines the resistance of devices to
exposure at extremely high and low temperatures.
Chamber limits - 74°C to 2500 C.

Determine the solderability on all devices from 0
to 400°C.
Lead Tension - Designed to check the
capabilities of the devices to withstand straight
pulls.

• Mass Spectrometer Leak Detector
(Fine Leak):
To determine the effectiveness (or the hermeticity)
of the seal on devices with internal cavities which
are evacuated or contain air or gas. Machine limits
1 - 10 -9 to 10 - 10 -6atm.

• Lead Integrity (bending stress):

• Gross Leak:

• Lead integrity (lead torque):

Determine seal leak greater than 10 - 10 -6ATM
cc/Sec.

Check the devices, leads and seals for
resistance to twisting motion. Equipment limits
from .5 cmkg to 100 mkg.

Check the quality of leads, welds and seals of the
devices to withstand bends under specific
weights.

• Constant Acceleration:
Determines the effects of a centrifugal force on
devices up to 700,000g under space environment
(refrigerated vacuum).

• HI-Power Microscopic Inspection:

• Shock:

• Bond Strength:

Subjects the devices to conditions resulting from
sudden applied forces or abrupt changes in motion produced by rough handing, transportation or
field operation from 10 to 4,500g.

This determines strength of lead bonding
between the active area of the device and
connecting packaging lead.

Examine internal and external construction of
our devices up to 600 times.

• Vibration Fatigue:
Tests the effects of vibration within the frequency
range of 60 Hz at 0-70g.

-18-

MILITARY APPROVED
RECTIFIERS
0.2 AMPERE TO 6.0 AMPERES

- - - - - - INsfaMir .....
-19-

-20-

GENERAL INSTRUMENT
# 1 IN PRICE, # 1 IN SERVICE, # 11N MILITARY
General Instrument Power Semiconductor Division, is
the world's largest manufacturer of rectifiers and
bridges, supplying over 2 billion annually. We're proud
to be number one in quality and reliability as we are
in being number one in price and service. And no one
beats our delivery. Think bigger and better. Design-in
General Instrument JAN, JANTX and JANTXV rectifiers and bridges, and see why we're The Decisive
Factor in military rectifiers.

JAN COMPONENTS
The most economical Hi-Rei device, JAN components
are MIL qualified and subjected to environmental and
life sample tests to assure qualtty conformance. JAN
devices are 100 % tested, lot traceable and must pass
a number of other tests (see comparison chart.) Aside
from military circuits they are frequently used in commercial applications requiring superior potential life
cycle performance that can not be guaranteed with
standard commercial components.

DELIVERY
As you well know, ensuring on time delivery, for those
hard-to-get parts, is one of the most important and
frustration aspects of a purchasing agent's many
responsibilities. We remove that stumbling block for all
the JAN, JANTX and JANTXV devices we produce. As
the world's largest rectifier manufacturer, you can ALWAYS count on JAN parts from stock. In addition, we
have MORE BURN-IN CAPACITY THAN ANYONE,
which guarantees shorter JANTX lead times. That's
why you can count on General Instrument Power Semiconductor Division to be the Decisive Factor in your
military project.

JANTX AND JANTXV COMPONENTS
In addttion to JAN processing, JANTX and JANTXV
devices are subjected to extra environmental and
electrical test as outlined in MIL-S-19500. (See comparison chart.) These screening procedures eliminate
the possibility of infant mortality failures that might
occur in the early stages of component system use.
PDA (percent defects allowable) requirements are applied to every lot. thereby assuring continuous quality
and reliability. This effectively restricts the probability
of shipping defective lots. The selection of JANTX and
JANTXV level components assures both maximum
component reliability and standardized reliability
testing procedures.

PRICING
WE ARE NOW, AND WILL ALWAYS BE, THE PRICE
LEADER IN JAN, JANTX AND JANTXV MILITARY
RECTIFIERS!

SPECIRCATION CONTROL DRAWINGS
Additional reliability testing, electrical screenings, or
special markings are often required. General Instrument Power Semiconductor Division will guarantee that
all those standards are met. We can guarantee this
thanks to our state- of - the - art testing facility which
provides the capability to screen devices to those special requirements.

TECHNICAL ASSISTANCE
You'll find that buying from General Instrument Power
Semiconductor Division makes a lot of sense. Consider the potential headaches we head off or eliminate
with our technical assistance and support. Every one
of our components is supplied wtth concise product
data sheets that give engineers and dElsigners complete details on electrical parameters, mechanical data,
and maximum ratings as well as other vital information.

HIGH RELIABILITY SCREENING SEQUENCE
GROUP A Testing - Group A testing is performed on
each lot which consists of visual inspection mechanical
inspections and specified electrical parametric testing
Group B Testing - Group B Testing is performed on
each lot and consists of reliability testing.

Equally important is our accessability. When questions
arise with initial design, redesign, or current application, just pick up the telephone and call our applications
engineering department at (516) 933-3164. We're extremely well staffed with experienced professionals to
clearly and accurately answer every question.

Group C Testing - Group C Testing is performed on a
6 month periodic basis, and consists of long term
realiability and environmental testing.
Microscopic Inspection - 100% microscopic inspection is performed on all JANTXV level devices only.

AVAILABILITY
The following is intended as a quick guide and reference to the types of components General Instrument
Power Semiconductor Division supplies:

Traceability· Traceability is maintained per the applicable specification and MIL-S-19500.

-21-

JAN, JANTX, JANTXV
High Temperature Storage (Non-operating) Devices are stored in high temperatures ranging
from 1S0·C to 200·C for stabilization.
Temperature Cycling· Devices are cycled for
temperatures ranging from -6S·C to +17S·C to
weed out structural weakness, i.e. welds, glass
to metal seals and molecular lattice structure.
Shock· Specified devices are subjected to a
mechanical shock test.
Acceleration· Specified devices are subjected
to centrifuge.
Seal Leak (Fine) - Devices are tested with a
helium mass spectrometer to locate any leaks
down to 1x10- CC's per second leak rate.
Seal Leak (Gross) - Devices are checked for
leaks too large for detection by tracer gases.
100% Electrical Test· Devices are subjected to
all parameters of the applicable specification.
High Temperature Reverse Bias - Devices are
subject to reverse bias for fourty eight hours
under elevated temperature.
Power ·Burn In - Devices are subjected to
ninety six hours of burn-in to the conditions in
the applicable specifications.
100% Delta Electrical Test - Devices are subjected to all parameters of the applicable
specification and delta calculations are determined. Those devices not meeting the requirements are rejected.
Resistance to Solvents - Devices are exposed
to various solvents to ensure marking permanen-

HIGH-RELIABILITY
COMPARISON CHART
JAN JANTX JANTXV

Microscopic Inspection
(Internal Visual)
Tracebiiky (Lot)
100% Electrical Test
High Temp Storage
(Non-Operating)
Temperature Cycling
Acceleration (When Applicable)
Seal leak (Fine)
Seal leak (Gross)
High Temp Reverse Bias
(When Applicable)
Electrical Test (Read & Record)
Power Age (Burri-in)
Electrical Test (Read & Record)
(with Delta limks)
Group A Inspection
per Mll-S-19500
Group B Inspection
per Mll-5-19500
Group C Inspection
per Mll-S-19500
PDA (Max. Pct. Def Allow.)
thru Power Burn-in

cy~

Solderability· Testing is performed to
determine the degree of solder
coverage on the leads.

GROUP

A
B
MlUTARYLOTS
ASSEMBLED
ANDtOO%
ELECTRICALLY
TESITED

C
SAMPLE
TEST

-22-

No
Yes
Yes

No
Yes
Yes

Yes
Yes
Yes

Yes
No
No
No
No

Yes
Yes
Yes
Yes
Yes

Yes
Yes
Yes
Yes
Yes

No
No
No

Yes
Yes
Yes

Yes
Yes
Yes

No

Yes

Yes

Yes

Yes

Yes

Yes

Yes

Yes

Yes

Yes

Yes

No

Yes

Yes

QUALIFIED PRODUCTS LIST
PRODUCTS QUALIFIED UNDERMILITARY SPECIFICATION MIL-S-19500
GOVERNMENT
DESIGNATION

DETAIL
SPEC

GOVERNMENT
DESIGNATION

DIODES

DETAIL
SPEC
RECTIRERS (contlnuedl

JAN, JANTX,1 N483B
JAN,JANTX,1N485B
JAN, JANTX, 1N486B

1118
1118
1118

JAN, JANTX, 1N5615
JAN,JANTX,1N5617
JAN, JANTX, 1N5619
JAN, JANTX, 1N5621
JAN,JANTX,1N5623

JAN, JANTX,
JAN, JANTX,
JAN, JANTX,
JAN, JANTX,
JAN, JANTX,
JAN, JANTX,

1240
1240
1240
1240
1240
1240

JAN, JANTX, 1N5624
JAN, JANTX, 1N5625
JAN, JANTX, 1N5626
JAN,JANTX,1N5627

1432
1432
1432
1432

JAN, JANTX, 1N5907
JAN, JANTX, 1N5809
JAN, JANTX, 1N5811

1477
1477
1477

1N645
1N647
1N649
1N645-1
1N647-1
1N649-1

RECTIRERS
1N3611
1N3612
1N3613
1N3614
1N3957

1228
1228
1228
1228
1228

JAN, JANTX , 1N4245
JAN, JANTX, 1N4246
JAN, JANTX, 1N4247
JAN, JANTX, 1N4248
JAN, JANTX, 1N249

1286
1286
1286
1286
1286

JAN, JANTX,
JAN, JANTX,
JAN, JANTX,
JAN, JANTX,
JAN, JANTX,

1N4942
1N4944
1N4946
1N4947
1N4948

1359
1359
1359
1359
1359

JAN, JANTX, 1N5415
JAN, JANTX, 1N5416
JAN,JANTX,1N5417
JAN, JANTX, 1N5418
JAN, JANTX, 1N5419
JAN, JANTX , 1N5420

1411
1411
1411
1411
1411
1411

JAN, JANTX, 1N5550
JAN, JANTX, 1N5551
JAN, JANTX, 1N5552
JAN, JANTX, 1N5553
JAN, JANTX, 1N5554

1420
1420
1420
1420
1420

JAN, JANTX, 1N5614
JAN,JANTX,1N5616
JAN, JANTX, 1N5618
JAN, JANTX, 1N5620
JAN, JANTX, 1N5622

1427
1427
1427
1427
1427

JAN, JANTX,
JAN, JANTX,
JAN, JANTX,
JAN, JANTX,
JAN, JANTX,

-23-

1429
1429
1429
1429
1429

POWER
SEMICONDUCTOR
DIVISION

INsr~

JAN AND JANTX 1 N483B THRU 1 N486B
LOW POWER MINIATURE GLASS PASSIVATED JUNCTION DIODE
VOL TAGE - 70 to 225 Volts CURRENT - 200 Milliamperes
DO-204MB
.022(.56J Il.l.!b..
A.
•018 (.46J

FEATURES

... t

-

1.50 (38.1)
1. 00 (25.4J

!

-

t

.300 0.6J
.230 (5.8J

I I

!
t

+-1. 50 (38.1)
1.00 (25.4J

!

Dimensions in inches
and

(millimeters)

• Qualified to MIL-8-19500/11BC
• High temperature metallurgically
bonded
• 0.2 amperes
operation at
TA=25'C with
no thermal runaway
• Hermetically sealed package
• Ideally suited for miniaturized equipment
• Glass passivated cavity-free junction
• High temperature soldering guaranteed 350°C/10 seconds/ .375",
(9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

MECHANICAL DATA
case: JEDEC DO-204MB one
piece glass,hermetically sealed
Terminal: Axial leads,
solderable per MIL-STD-202,
Method 20B
Polarity: Color band denotes
cathode

Mounting Position: Any
Weight: .02 ounce, .56 gram

."Brazed.fead ssS(lmb/y by Patent No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz. resistive or inductive load.
For capacitive load. derate current by 20%
SYMBOLS JAN1N483B JAN1N4858 JAN1N486B

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Minimum Reverse Breakdown Voltage at 1001lA
Maximum Average Forward Recitified Current TA=25°C
.375" (9.5mm) Lead Length at TA=150'C
Peak Forward Surge Current,
8.3ms·single half sine-wave superimposed on
rated load (JEDEC Method) TA=150°C
Maximum Instantaneous Forward Voltage at 100mA
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=100'C
Typical Junction Capacitance (NOTE 1 )
Typical Thermal Resistance (NOTE 2 )
Operating and Storage Temperature Range

I(AV)

180
127
180
200
200
50

IFSM
VF
IR
IR
CJ
R8JA
TJ,TsTG

2.0
1.0
25
5.0
15.0
80.0
-65 to +200

VRRM
VRMS
Voc
VBR

70
50
70
80

NOTES.

1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voc.
2. Thermal Resistance from Junction to Ambient at .375" (9.5mm) lead lengths, P.C. Board Mounted.

-24-

225
159
225
250

UNITS

Volts
Volts
Volts
Volts
Milliamps

Amps
Volts

IlA

~A

pf

°CIW
°c

MAXIMUM RATING AND CHARACTERISTIC CURVES
JAN AND JANTX 1N4838 THRU 1N4868

FIG. 2 10

>-'
z
UJ
a:
a:

"

8.0

:;)

0

FIG. 1 0

UJ

200

FORWARD CURRENT DERATING CURVE

~ !'.....

~S3

.... a:
O,.1J
UJ"II::;;

150

0":

~~
a::;;

100

0":
u..Z

UJUJ
t'Ja:
a::;)
UJO

50

::<

25

100

T.a-2SOC

I

"""- .......

---

11

o

2.0

4.0 6.08 10

20

40 6080 100

NUMBER OF CYCLES AT 60Hz

'-....

FIG. 3 -

...........
150

I

.....

T",,15O"C

2.0

1.0

1.eS

8.3rns SINGLE HALF
SINE·WAVE
(JEDEC METHOD)

r--...

4.0

'"«UJ
"-

~~

75

50

6.0

0
u..

SINGLE PHASE
HALF WAVE
60Hz
RESISTIVE OR INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS

..:II:

UJ
"'en
a:UJ
:;)a:
enUJ
0"a::;;
",«
s:a:

MAXIMUM NON· REPETITIVE PEAK
FORWARD SURGE CURRENT

'-....

175

TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS

10
5.0

200

/

>-'
z
UJ
a:
a:

AMBIENT TEMPERATIJRE, °C

/

:;)

0
0

1.0

~fB

.50

a:

a:
OUJ
u.. "en:;;
:;)«
0
UJ
II:

FIG. 4 -

TYPICAL REVERSE CHARACTERISTICS

5.0

Z

10

UJen
",UJ
a: a:
UJUJ
>"UJ:;;
a:«
",0
:;)a:

;::
Z
;::en

V

T.. 15O"C

........ V

II

T".25"C

PULSE WIDTH-300j'S I - 1% DUTYCYCLE

.100
.050

:;;:

J

.......T....125°C

I

.010

i-"'"

0.6

0.8

1,0

1.2

1.4

1.6

1.8

FIG. 5 -

TYPICAL JUNCTION CAPACITANCE

50

00

~~

~~

r......

~~

z:;)

-0

u..

Q.

0.01

LU

10

'

......

TJ-25OC

0
Z

;::
r- TrSOC
0001

2.0

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

0.1

l--:t
20

40

60

,

(3

..---

ct

5.0

'"

0

80

100

120

f_1.0MHz
Vsig_50m Vp-p max.

III

140

PERCENTAGE OF PEAK REVERSE VOLTAGE

1,0
1,0

1111
10

REVERSE VOLTAGE, VOLTS

-25-

100

POWER
SEMICONDUCTOR
DIVISION

.INsr~

JAN AND JANTX 1 N645 THRU 1 N649
JAN AND JANTX 1 N645-1 THRU 1 N649-1
MINIATURE GLASS PASSIVATED SILICON DIODES
VOL TAGE- 225 to 600 Volts
CURRENT - 400 Milliamperes
.0231O.61~

• 0181.051

....

t

!
t

.300 17.61
.23015.81

!
,. . t

I-

:~~~ Ic;}dI

I

OIA.,.

1.50 138.11
1.00125.41

1

Dimensions in inches
and
(millimeters)

MECHANICAL DATA

FEATURES

1.50138.11
1. 00 125.41

• Qualified to MIL-S-19500/240E
• Glass paSSivated cavity-free junction
• 0.4 amperes operation at TA= 25°C
with no thermal runaway
• High temperature metallurgically
bonded
• Ideally
suited for
miniaturized
equipment
• Hermetically sealed package
• High temperature soldering guaranteed:350·C/10seconds/.375".(9.5mm)
lead length/5 Ibs., (2.3kg) tension

case: One piece glass, hermetically sealed
Terminals: Axial leads
Solderable per MIL-STD-202,
Method 208
Polarity: Color band denotes
cathode
Mounting Position: Any
Weight: .02 ounce, .56 gram

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
JAN
JAN
JAN
JAN
JAN
JAN
SYMBOLS 1N645 1N645-1 1N647 1N647-1 1N649 1N64!J.1 UNITS

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Minimum Reverse Breakdown Voltage at 100J.LA
50 J.LA
Maximum Average Forward Recitilied TA=25°C
Current .375" (9.5mm) Lead Length at
TA= 150'C
Peak Forward Surge Current,8.3ms single hall sinewave superimposed on rated load (JEDEC Method)
atTA,.150·C
Maximum Instantaneous Forward
1.5A TA=150°C
Vokage at 400mA
9.0A TA=25°C
0.5A TA=-55°C
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA = 100°C
Maximum Average Reverse Current at Peak Reverse
Voltage,lo=150mA TA=150°C .375" 9.5mm Lead Lengths
Maximum Junction Capacitance (NOTE 1)
Typical Thermal Resistance (NOTE 2 )
Operating Junction Temperature Range
Storage Ambient Temperature Range

VRRM
VRMS
Vrx;
VBR

225
156
225
270

-

225
156
225

-

270

VF

-

-

480

25
50
15 1 25

25
50
1 15 1 25
100
20.0
80.0
-65 to 175
-65 to +200

NOTES:

1. Measured at 1 MHz and applied reverse voltage of 4.0 Vee.
2. Thermal Resistance from Junciton to Ambient at .375",(9.5mm)lead lengths, P.C. Board mounted.
-26-

600
420
600
720

600
420
600

-

720

5.0
0.95
1.0
1.20

IFSM

IR(Av)
CJ
R8JA
TJ
TSTG

-

400
280
400

400
150

I(AV)

IR

400
280
400
480

VoHs
VoHs
Volts
Volts
milli
Amps

Amps
Volts

1

50
50
251 25

nA
J.LA
J.LA
pi
°CIIN
°C
°C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES
JAN AND JANTX 1N645 THRU 1N649
JAN AND JANTX 1N645-1 THRU 1N649·1
FIG. 2 - MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
15

""'-r'-.. ~

W

(!J(I)
a:w
~ffi

FIG. 1 - FORWARD CURRENT DERATING CURVE
0

w
II:
>=(1)
Uw
wa:
a:w
00.
a:::<
..:«
3:,.:
a:Z

04

.............

03

0.1

............

-r--I-

wU

0.

~

Tl

r\.

\

RESISTIVE OR INDUCTIVE LOAD
0.375' (9j5mm) U''')D LENG~S

o
75

50

........... 1"- ....

~~

I'--..

SINGLE PHASE
HALF WAVE

25

I
T..25"C

~~

~~

60Hz

o

......

10

a:Z
OW
LLa:

02

f2~

wa:
(!J=>
«U
a:
w
~

~

J.3"" ~IN~L~ ~[~

SINE·WAVE
(JEDEC METHOD)

100

125

150

r--10

20

40

60

NUMBER OF CYCLES AT 60 Hz

FIG, 4 - TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS

175

100

AMBIENT TEMPERATURE. 'C

50

FIG. 3 - TYPICAL REVERSE CHARACTERISTICS

,.:

/

Z
w
a:
a:
=>
U
0
a:

30
20

T,.15O'C
10

50

a::JI

T... 125'C

-~

l"-

OW
LLo.
(1)::<
=>«
0
w
Z

-

L

10

~(I)

I

T..25'C
PULSE WlDTH-300j'S
1% DUTY CYCLE

100

>'Z
>'(I)

t--

050

~

I

I

010
06

08

10

12

14

16

18

20

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

FIG. 5 - JUNCTION CAPACITANCE
50

I ........

01

LL

"-

t-? ~TJ-25'C

u.i

U

-.l

I"

T"..26OC

. . . . 1"

MAXILu~

10

z

I

>'0

~

?f.

00 1
20

40

60

80

100

120

PI

«
U

140

PERCENT OF RATED PEAK REVERSE
VOLTAGE
f-1.DMHz
Vsig-5Om Vp-p max.
10

100

REVERSE VOLTAGE. VOLTS

INsr~
·27·

100

INsr~

POWER
SEMICONDUCTOR
DIVISION

JAN AND JANTX 1N3611 THRU 1N3614 AND 1N3957
MINIATURE GLASS PASSIVATED JUNCTION RECTIFIER
VOL TAGE - 200 to 1000 Volts CURRENT - 1.0 Ampere
FEATURES
~
00
41

1.

T·

1

11
~

.110(2.791
•
'.060 U.52IDIA • •
1

.14013.561

•
•
•

Dimensions in inches
and
(millimeters)

•
•

Qualified to MIL-S-19S00/22SE
High temperature metatllurgically
bonded
Hermetically
sealed package
Glass passivated
cavity-free junction
1.0 Ampere operation at TA=100°C
with no thermal runaway
TypicallR less than 0.1j.tA
High temperature soldering guaranteed: 3S0'C/10 seconds/.37S",
(9.Smm) lead length aVS Ibs.,
(2.3kg) tension

MECHANICAL DATA

case: One piece glass, hermetically sealed
Terminals: Axial leads,
solderable per MIL-STO-202,
Method 20S
Polarity: Colorband denotes
cathode
Mounting Position: Any
Weight: 0.02 ounce, 0.S6 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, ha~ wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
~N

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Vottage
Minimum Reverse Breakdown Vottage at 100llA
Maximum Average Forward Recitffied Current
.375" (9.5mm) Lead Length at TA= 100'C
Peak Forward Surge Current,
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method) at TA = 150'C
Maximum Instantaneous Forward
TA=25'C
Voltage at 1.0A
TA= -65'C
Maximum'DC Reverse Current
TA= 25'C
at Rated DC Blocking Voltage
TA= 150'C
Typical Reverse Recovery Time (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3 )
Operating Junction Temperature Range
Storage Temperature Range

~N

~N

~N

~N

SYMBOLS 1N3611 1N3612 1N3613 1N3614 1N39S7
200
400
600
800
1000
VRRM
140
280
420
560
700
VRMS
400
600
800
1000
200
Voc
240
480
720
920
1150
VBR

UNITS
Volts
Volts
Votts
Volts

I(AV)

1.0

Amps

IFSM

30.0
1.1
1.5
1.0
300.0
2.0
10.0
40.0
-65 to +175
-65 to +200

Amps

VF
IR
TRR
CJ
RaJA
TJ
TSTG

NOTES:
1. Reverse Recovery Conditions: IF =0.5A, IR=I.0A. Irr=0.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) lead lengths P.C. Board mounted.

-28-

Volts

!1A
jLS
pf

°CIW

°C
°C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES
JAN AND JANTX 1N3611 THRU 1N3614 AND 1N3957

FIG. 1 - FORWARD CURRENT
DERATING CURVE
0

W

g;
.... en

Uw
Wo:
O:w
OQ.
0:::;
,0:<

~..:

O~

1.0

FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
20

1\

.8

W
0:
0:
::>
U

\

.6
.4

"-0:
wo:
(!l::>
<
w

\

125

10

~en

ReSIimvE OR INDUCTIVE LOAD
0.375" (9.6mm) LEAD LENGjS

I

50

0:

80Hz

;(

0

Z

05

~

'r-.....

~INe:WAVE

10

~~

30

~~

'" 0:
;:sa

20

Q.

10

~~

"c.
uj

U

z

u

it<

U

Z

20

0
F

40 60 BO 100

U

0:
0:
::>
U
wen
enw
0:0:
WW
>Q.
w::;
0:<
enO
::>0:

en
~

1.0

1.0
A

0.1

V8irfi ~'ii1';7·
10

REVERSE VOLTAGE, VOLTS

4.0

.04

1a1.0MHz
10

10

;!:
z
;!:

T"..25'C

50

;:;

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

@Q
z::;

...........
10

z

NUMBER OF CYCLES AT 60Hz

..:
zw

50

;!:

f--f-I-+-H-++H--+-+--f'P'HoCI:-I

10

.01
20

40

18

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

"-1
-- __

II

16

100

I~
; "
f--f-f-+"I'-Id+H--+-+'I"Iool+++I
1 11

1.4

iJEDECMETHOD

1

1"o..,..
........+~---1I-t+t-H''''':--.....''""""-+-I-++++++I
_
T,-1 1iO"C

1.2

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

T".26"C

Cl)W

II

.01

50 I"<",""-'~"TT'-I!a.lTjj":.:.
..-SING-rLE-HALF,....,..-.I"J.IT
III,
I"
40

2% DUTY CYCLE

en

FIG•. 3- MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

w

PULSE WlDTHoo300JlS

/

01

;!:
Z
;!:

175

AMBIENT TEMPERATURE

(!len
o:w
::>0:

....... i--"""'"

10

>-'
Z

60

60

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

-29-

100

20

POWER
SEMICONDUCTOR
DIVISION

INsr~

JAN AND JANTX 1 N4245 THRU 1 N4249
GLASS PASSIVATED JUNCTION MEDIUM SWITCHING RECTIFIER
VOLTAGE -200 to 1000 Volts CURRENT- 1.0Ampere
FEATURES

MECHANICAL DATA
Case: One piece glass, her-

• Qualified to MIL-S-19500/286C
• High temperature metallurgically
....:-?~='bonded
• Glass
passivated cavityfree junction
• 1.0 Ampere operation at
TA=100°C with no thermal runaway
• TypicallR less than 0.1 Il A
+ ,.033 !.84J OIA .• Hermetically sealed package
.028 (. 71)
• High temperature soldering guaranteed: 350°C/l0 seconds/.375",
(9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

metically sealed
Terminals: Axial leads,
solderable per MIL-STD-202,
Method 208
Polarity: Color band denotes
cathode
Mounting Position: Any
Weight: .02 ounce, .56 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25·C ambientaemperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
~N

~N

~N

~N

~N

SYMBOLS 1N4245 1N4246 1N4247 1N4248 1N4249

Maximum Recurrent Peak Reverse Voltage
VRRM
Maximum RMS Voltage
VRMS
Maximum DC Blocking Voltage
VDC
Minimum Reverse Breakdown Voltage at 100!LA
VBR
Maximum Average Forward RectHied Current
.375" (9.5mm) Lead Length at TA=100°C
I(AV)
Peak Forward Surge Current,
8.3ms single haH sine-wave superimposed on
rated load (JEDEC Method) at TA=100°C
IFSM
Maximum Instantaneous Forward Voltage at 3.0A
VF
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=150°C
IR
Thermal Resistance (NOTE 3 )
R8JA
Typical Junction Capacitance (NOTE 1)
CJ
Maximum Reverse Recovery Time (NOTE 2)
TRR
Operating and Storage Temperature Range
TJ,TsTG

200
140
200
240

400
280
400
480

600
420
600
720

1000
700
1000
1150

UNITS

VoHs
Volts
Volts
VoHs

1.0

Amps

25.0
1.3
1.0
150.0
50.0
15.0
5.0
-65 to +175

Amps
Volts

NOTES:
1. Measured at 1MHz and applied reverse voltage of 4.0 volts.
2. Reverse Recovery Test Conditions: IF= O.SA, IR= 1.0A, Irr = O.2SA.
3. Thermal Resistance from Juction to Ambient at .375' (9.56mm) Lead lengths P.C. Board mounted.

-30-

800
560
800
960

!LA
°cm
pf
~S

·C

MAXIMUM RATING AND CHARACTERISTIC CURVES
JAN AND JANTX 1N4245 THRU 1N4249

,.:
Z
w

FIG. 1 -

FORWARD DERATING CURVE

1.0

\

ce
ce

::>

()

0

w

u::

Gfil
wce
00.
0(0«

s:a:
0
u..

w

50

50

UJ

100

125

~

Z

~

\

150

05

T"..25"C

'"~

PULSE WIDTH..ooo!'8 2% DUTY CYCLE
-

I
.01

175

04

AMBIENT TEMPERATURE, ·C

FIG. 3 -

I

.10

Z

75

I

0

~ESISTIVE OR INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS

25

1.0

a: a:

::>0«

\

-60Hz

~

a:

OW
LLo.
"'::;;

\
_

50

~~

-SINGLE PHASE
HALF WAVE
0.2

U.l

w
a:
a:
0

\
0.'

C!l

,.....

()

0.6

«ce

10

::>

\

cew

ce::;;

,.:
Z

\

O.S

FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

20

06

08

1.0

12

14

16

INSTANTANEOUS FORWARD VOLTAGE. VOLTS

MAXIMUM NON"REPETITIVE PEAK
FORWARD SURGE CURRENT

FIG. 4 30

TYPICAL JUNCTION CAPACITANCE

b.....

u..

Q.

W

I'

T,1J:

10

()

z

20

~

i'--t--,

(3

0:
0«

0

T..100"C

10~-+~++~~~-r~~~~

'.1.0MHz
Vsig-50m Vp-p max.
10

100

10

FIG. 5 -

f-'

T.... 125OC

1.0

~~
~

O.

z

~
CJ)
~

TYPICAL REVERSE CHARACTERISTICS

10

a:
a:
::>
()
w'"
",UJ
cea:
wUJ
>0.
w::;;
ceo«
",0
::>a:
00

100

REVERSE VOLTAGE, VOLTS

NUMBER OF CYCLES AT 60 Hz
Z
W

--

,

1,/

-

..

01

T...7SOC

T.r-25"C
.01
20

40

60

80

100

120

PERCENT OF RATED PEAK REVERSE VOLTAGE

-31-

140

18

INsr~

POWER
SEMICONDUCTOR
DIVISION

JAN AND JANTX 1 N4942 THRU 1 N4948
GLASS PASSIVATED JUNCTION FAST SWITCHING RECTIFIER
VOLTAGE· 200 to 1000 Volts CURRENT.1.0Ampere

t

1.50 (38.11
.065(1.65)

~ I
~

.250(6.35)

:i4OiTI6i

+
---'-_ _.u

FEATURES

I'

MECHANICAL DATA
Case: One piece glass, hermetically sealed
Terminals: Axial leads,
solderable per MIL-STD-202,
Method 208
Polarity: Color band denoted
cathode
Mounting Position: Any
Weight: .02 ounce, .56 gram

• Qualified to MIL-S-19500/3598
High temperature metallurgically
bonded
• Glass passivated cavityfree junction
• 1.0 Ampere
operation at
T A=55°C with
no thermal runaway

.250(6.35) •
.140(3.56)

OIA.

':~~~\~i~)OIA .• Her~etically sealed packa~e
•

Typical temperature soldenng
guaranteed:350°C/1 Oseconds/.375",
(9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

JAN

SYMBOLS 1N4942

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Vottage
Minimum Reverse Breakdown Voltage at 100fAA
Maximum Average Forward Rectified Current
.375" (9.5mm) Lead Length at TA=55°C
Peak Forward Surge Current,
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method) at TA=100°C
Maximum Instantaneous Forward
TA=25°C
TA= -65°C
Voltage at 1.0A
Maximum DC Reverse Current
TA = 25°C
at Rated DC Blocking Voltage
TA=150°C
Maximum Reverse Recovery Time (NOTE 1)
TJ= 25°C
Maximum Junction Capacitance (NOTE 2 )
Typical Thermal Resistance (NOTE 3 )
Operating and Storage Temperature Range

VRRM
VRMS
Vee
VBR

200
140
200
220

JAN

JAN

JAN

JAN

1N4944

1N4946

1N4947

1N4948

UNITS

400
280
400
440

600
420
600
660

800
560
800
880

1000
700
1000
1100

Volts
Volts
Votts
Volts

I(AV)

1.0

Amps

IFSM

15.0
1.3
1.5
1.0
200.0

Amps

VF
IR
TRR
CJ
R8JA
TJ,TsTG

45

150
35

25

50.0
-65 to +175

NOTES:
1. Reverse Recovery Test Conditions IF = 5A, IR = lA, Irr = 25A.
2. Measured at 1 MHz and applied reverse voltage of 12 volts.
3. Thermal resistance from Junction to Ambient at .375"(9.5mm) lead lengths P.C.Board mounted.

-32-

Volts
fAA
250
20

500
15

nS
pf

°CIW
°C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES
JAN AND JANTX 1N4942 THRU 1N4948
FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
20

,.:
Z
w
a:
a:
:>

..J.....-'1"

10

0

0

V

a:

FIG. 1 - FORWARD CURRENT
DERATING CURVE

!Z'
W
a:
a:
:>

1.00

ll!

.75

0
0

1\

tff!
wa:

a:w
00.
a:::E
.t<
;::
a:

f2

.5Qo

.25

w
(!l
~

25

50

75

Z

0.1

f2~
(I)::E
:><
0
w

\

.100

~
(I)
.01

\

.4

Z

w
a:
a:
:>
0(1)
ww
(!la:

\

20

125

a:

175

~

,.:

a: a:

24

6810

00

,

~:E
~

z

~
(I)

./

T...75"C-

-

0.1

;!;

/
40

6080100

NUMBER OF CYCLES AT 60 Hz

01

"

20

40

I--

T,-25"C' -

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

30

"

-

10

/'
20

T,.I25"C -

>0.

w::E
a:<
(1)0
:>a:

FIG. 5 - TYPICAL JUNCTION CAPACITANCE

...........

FIG. 6 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM

T,.w

5011

1011

NONINOUCTIVE

NONINOUCTIVE

_ _ 1..

+D.SA
(+)

r\

1/

-025
NON·
INDUCTIVE

1-1.0 MHz
Voig-llOm'lJ>p max.
10

50

REVERSE VOLTAGE. VOLTS

100

--11

D.U.T.

111

5

2.0

WW

r-..."

Iilil

1.8

0

W(l)
(l)W

r- t-

f2

,.

Z

w
a:
a:
:>

I I

10

1.6

10

....:.::...WC

a:

1.4

20

150

IJ1eoer METHOD

........ ~r-.

!§~
~<

"

1.2

FIG. 4 - TYPICAL REVERSE CHARACTERISTICS

8.3",. SINClLE
HALF·WAVE

r....

to

~B

.6

INSTANTANEOUS FORWARD VOLTAGE. VOLTS

FIG. 3 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT
,.:

PULSE WIOTHo300jIO
2% DUlY CYCLE

;!;

AMBIENT TEMPERATURE ·C

30

I

T,-25"C

Z

O.375"(9.Iimm) LEAD LENGTHS

~

1,0

~

110Hz
RESISTIVE DR
INDUCTIVE LOAD

W

h
a: a:

OSCILLOSCOPE
(NOTE 1)

NOTE:S. 1. Rise Tlrne ... 7ns max. Input Impedance ::::
1 megohm, 22pF
2 Rise Time"" 1Dns max. Source Impedance '"

J

l' I

-1.0

-.I

Itlem

50 ohms

-33-

SET TIME BASE FOR

80100,.am

IN~

POWER
SEMICONDUCTOR
DIVISION

JAN AND JANTX 1N5415 THRU 1N5420
GLASS PASSIVATED JUNCTION FAST SWITCHING RECTIFIER
VOL TAGE· 50 to 600 Volts CURRENT· 3.0 Amperes

r

1.30 (32.02)

.037 1.94)

Case: One piece glass, her-

• Glass passivated cavity-free
junction
• High
temperature
metallurgically bonded
• Fast switching for high efficiency
• 3.0 Ampere operation at TA=55°C
with no thermal runaway
• Hermetically sealed package
• High temperature soldering guaranteed: 350°C/1 0 seconds/.375"
(9.5mm) lead lengthl5 Ibs., (2.3kg)
tension
k

.042 (1.0710.ffi,... <-

MECHANICAL DATA

FEATURES

---------.;;...;;;;.;..;..;...;;..;..;~;;..

~!(22.86) • Qualified to MIL-S-19500/4110

, .

metically sealed
Terminals: Axial leads,
solderable per MIL-STD-202,
Method 208
Polarity: Color band denotes
cathode
Mounting Posit/on: Any
Weight: .037 ounce, 1.04
gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz,resistive or inductive load.
For capacitive load, derate current by 20%.
JAN
SYMBOLS IN5415

Maximum Recurrent Peak Reverse Vottage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Minimum Reverse Breakdown Voltage at 100ilA
Maximum Average FOnNard Rectified Current
.375" (9.5mm) Lead Length at TA= 55°C
Peak FOnNard Surge Current,
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method) at TA=100°C

JAN

JAN

JAN

JAN

JAN

IN5416

IN5417

IN541S

IN5419

IN5420

UNITS

500
350

600
420

Volts
Volts

500

600

Volts

550

660

Volts

VRRM
VRMS

50
35

100
70

200

Voc

50

100

200

400
280
400

VBR

55

110

220

440

140

I(AV)

3.0

Amps

IFSM

80.0

Amps

Minimum Peak Reverse Power at 20 Ils pulse width
Maximum Instantaneous Forward
1.5A TA=25°C
Voltage at
9.0A TA=25°C
0.5A T A=-55°C
Maximum DC Reverse Current
TA=25'C
at Rated DC Blocking Voltage
TA=100°C
Maximum Junction Capacitance (NOTE 1)

PRM

1000

Watts

VF

1.2
1.5
1.3

Volts

CJ

550

430

250

165

140

120

Maximum Reverse Recovery Time (NOTE 2)
Maximum Thermal Resistance (NOTE 3 )

TRR
R8JL

150

150

150
150
20.0

250

400

Operating and Storage Temperature Range

TJ,TSTG

1.0
20.0

IR

-65 to +200

NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 volts.
2. Reverse Recovery Test Conditions: IF= O.5A, IR= 1.0A, Irr=.25A.
3. Thermal Resistance from Junction to Lead at .37S",(9.Smm)lead lengths with both leads attached to heat-sinks.

-34-

IlA
pf
nS

°C/W
°C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES
JAN AND JANTX 1N5415 THRU 1N5420
FIG. 2 -

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

200

~ FIG. 1 w
4.0

ffi

~"­

~"'" ......

20

10

RESISTIVE OR
INOUCTIVe LOAD
375" (9 5mm) LEAD LENGTH

W

Cl

«

a:
W

0

>

TA" 100"C
100

0"-

a:::<

~«

ClU)

a:W
::Ja:
U)W

a:
a:
::J
U
3.0
OU)
a: W

«

8 3 SINGLE HALF
SINE-WAVe JEDEC METHOD

W

FORWARD CURRENT DERATING CURVE

0

25

«

SO

75

100

a:::<
««
~

"

125

50

....

1--

a:Z
OW
u.a:
",a:
«::J

........
150

wU
"-

~

10

5

10

50

100

NUMBER OF CYCLES AT 60Hz

200

175

AMBIENT TEMPERATURE. °C
FIG. 4 -

TYPICAL JUNCTION CAPACITANCE

100
U.

0-

FIG:. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
20

W
a:
a:
::J

U

o

Ow

40

Ci
«

"«

20

U

3.0

/

I.

.....

f- f.l.0MHz

~

VS;Q'jmvT

10

V

10

~J - ;50~

...........

I-

10

a:

~~
1I:a:

60

Z
«

U

/

~
Z

ui

40

20

10

60

100

REVERSE VOLTAGE, VOLTS

u.,,U)::<

=> «

oW

0.3

/

Z

«

I-

0.1

TJ~

2S"C
Pulse Width = 300j.1 S
2% Duty Cycle

Z

«
I-

U)

10
.03

6,0

Z

J

.0 1
0.4

~

0.6

08

10

1.2

14

16

1.8

4.0

Z

2.0

W
a:
a:
::J

INSTANTANEOUS FORWARD VOLTAGE VOLTS

2.0
TJ

U

FIG. 6 -

FIG.5 - TYPICAL REVERSE
CHARACTERISTICS

25'· C

1.0

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM ~ ~ .6

500
NQNINDUCTIVE

f----trrf-..-

100
NONINDUCTIVE

0.5A

I

~

\.
1/

lapprox I

25'

OSCilLOSCOPE

NONINDUCTIVE

NOTES 1 Rise Time = 7ns max

INOlE 11

Input Imp<>dance =

1 mog&Ohm 22pF,
2 Rise Time
50 ohms

= IOns max

Source Impedance

•

10

=

A

~

,2

i3

::Ja:

D,U,T,

10

ffiffi
aJ ~

"

I

~~

1

«Z::<

06

!z

04

~

02

~

01

11cml

SET TIME BASE FOR
SO;lOOns/em

-35-

~

./

20

40

.60

80

lOa

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

INsr~

POWER
SEMICONDUCTOR
DIVISION

JAN AND JANTX 1 N5550 THRU 1 N5554
GLASS PASSIVATED JUNCTION MEDIUM SWITCHING RECTIFIER

VOLTAGE-200to 1000 Volts

f

.100 (4.57)OIA
.115 (2.92)

1.30 132.02)
0.90 (22.9)

CURRENT-3.0Amperes
FEATURES

MECHANICAL DATA

• Qualified to MIL-S-19S00/420A
• Glass passivated cavity-free junction
• Medium
switching for
good efficiency
• High temperature
metallurgically bonded
• 3.0 Ampere operation at
TA=SS'C with no thermal
runaway
• Hermetically sealed package
• High temperature soldering
guaranteed:
3S0'C/1 Oseconds/.37S".(9 .5mm)
lead lengthlS Ibs., (2.3kg) tension

case: One piece glass, hermetically sealed
Terminals: Axial leads,
solderable per MIL-STD-202,
Method 208
Polarity: Color band denotes
cathode
Mounting Position: Any
Weight: .037 ounce, 1.04 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%
~N

~N

~N

~N

~N

200
140
200
240

4500
280
400
480

600420
600
660

800
560
800
880

1000
700
1000
1100

SYMBOLS 1N5550 1N5551 1N5552 1N5553 1N5554

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Minimum Reverse Breakdown Voltage at 50!1A
Maximum Average Forward Recitified Current
.375" (9.5mm) Lead Length at
TA=55°C
TL =55°C
Peak Forward Surge Current,
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method) at TA = 55°C
Maximum Instantaneous Forward
TA=25°C
Voltage at 9.0A
TA=-55°C
Maximum Reverse Current
TA=25°C
at Rated DC Blocking Voltag'l
TA=100°C
Maximum Reverse Recovery Time (NOTE 1)
Maximum Thermal Resistance (NOTE 2 )
Operating Junction Temperature Range
Storage Temperature Range

VRRM
VRMS
Voc
VBR

3.0
5.0

I(AV)

IR
TRR
R9JL
TJ
TSTG

Amps
1.3

1.2

VF

1.5
1.0
75.0
2.0
22.0
-65 to +175
-65 to +200

NOTES:

1. Reverse Recovery Test Conditions: IF= O.SA, IR= 1.0A, Irr= .25A.
2. Thermat Resistance from Junction to Lead at .375" ,(9.Smm) lead lengths with both leads attached to heat sink.

-36-

Volts
Volts
Volts
Volts

Amps

100.0

IFSM

UNITS

Voks
!1A
J,1S

°CIW
°C
°C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES
JAN AND JANTX 1N5550 THRU 1N5554
FIG. 2 200

FIG. 1 -

oW
u::

5.0

t5 fB

4.0

~~

3.0

FORWARD CURRENT DERATING CURVE

r--,--"'I'I:-,----,---,---,--,---,

wa:
a:w

«<

w
t'JUl
a:w
::Ja:
UlW
00.
a::2
«<
;;:,.:
a:z
Ow
u.a:
",a:
<=>
wO
a.

100

r--: h tT,,_55"C

10

1a

10

50

75

100

125

150

175

FIG. 4 -

TYPICAL JUNCTION CAPACITANCE

200

u.

"-

;0

c;:

<

L

v
10

0

50

100

REVERSE VOLTAGE, VOLTS

~Ul

Z

"I--

10

Z

10

TJ_25"C

f_l.0MHz
Vsig-50mVp-p max.

0

,.:

50

r----...

Q

50

0

;-...

z

100

w
a:
a:
=>

50

u.i
0

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

;0
Z
;0

100

100

TEMPERATURE, "C

a:~
Ow
u.o.
Ul:2
=><
0
W

50

NUMBER OF CYCLES AT 60Hz

1--"---+---+--I'--P"""~--t---1
25

a:

8.3ms SINGLE HALF·WAVE
SINE-WAVE JEDEC) METHOD

20

wa:
t'J=>

Cl ()
~

t-..... TJ~25~ I

50

~...:

om
u.a:

MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT

PULSE WIDTH-3001'"
2% DUTY CYCLE

IL

10

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

TJ-25"C

L

30
20
10

I--

T.r=1~OC V
V

II

05

TJ_125"C

I

Ul

1

.,;

01

Ul
w
Ulw
0: a:
Ww
>0.
w:2
0:«
UlO
=>a:

as

10

~~

;:;r:

01
06

08

10

12

14

16

18

zdJ

20

~~
z=>

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

-0

0.1

-

TJ-75"C

./

01

V
20

./
40

/
60

TJ",2&C

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

·37·

INsr~

POWER
SEMICONDUCTOR
DIVISION

JAN AND JANTX 1 N5615 THRU 1 N5623
GLASS PASSIVATED JUNCTION FAST SWITCHING RECTIFIER

VOLTAGE-200to 1000 Volts

CURRENT-1.0Ampere
FEATURES

1.11012.79)
'.065 (1.65)
OIR.
.225 15.72)

.130133.00)

, .033 (.838)
.028 (.711l
OIA

Dimensions in inches
and

(millimeters)

MECHANICAL DATA
Case: One piece glass, her-

• Qualified to MIL-S-19500/429C
• High temperature metallurgically
bonded",
• Hermetically ;~
sealed package
• Glass passivated
. ''%
cavity-free junction
• 1.0 Ampere operation at TA=55°C
with no thermal runaway
• Typical IR less than 0.1 J.IA
• High temperature soldering guaranteed: 350°C/10 secondsl.375",
(9.5mm) lead length at/5 Ibs.,
(2.3kg) tension

metically sealed
Tennlnals: Axial leads,
solderable per MIL-STD-202,
Method 208
Polarity: Colorband denotes
cathode
Mounting Position: Any
Weight: .02 ounce, .56 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz,resistive or inductive load.
For capacitive load. derate current by 20%.
SYMBOLS 1N5615 1N5617 1N5619

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Minimum Reverse Breakdown VoHage at 50llA
Maximum Average Forward Recitilied Current
.375" (9.5mm) Lead Length at TA=5SoC
Peak Forward Surge Current,
S.3ms single haH sine-wave superimposed on
rated load (JEDEC Method) at TA =1 OO°C
Maximum Instantaneous Forward VoHage at 3.0A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=100°C
Maximum Reverse Recovery Time (NOTE 1)TJ=25°C
Maximum Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3 )
Operating Junction Temperature Range
Storage Temperature Range

VAAM
VAMS
VDC
VBA

200
140
200
220

400
2S0
400
440

600
420
600
660

1N5621

1N5623

UNITS

SOO
560
SOO
SSO

1000
700
1000
1100

VoHs
VoHs
VoHs
Volts

I(Av)

1.0

Amps

IFSM

25.0

Amps

1.6
0.5
25.0
300
150
250
25
20
35
3S.0
-65 to +175
-65 to +200

VoHs

VF

IR
TAA
CJ
R8JL
TJ
TSTG

150
45

NOTES:

1. Reverse Recovery Conditions: IF=I.0A, IR= 1.0A, Irr= 0.2SA.
2. Measured at 1.0 MHz and applied reverse voltage of 12 Volts.
3. Thermal Resistance from Junction to lead at .375" (9.5mm) lead lengths P.C. Board mounted.

-38-

500
15

IlA
nS
pi
°CIW
°C
°C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES
JAN AND JANTX 1N5615 THRU 1N5623
FIG. 2 - TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS
20

t--'

z

FIG. 1 - FORWARD CURRENT
DERATING CURVE
L = 375" (9.5mm) I

100

w
a:
a:
:oJ
0
0
w

"'~

75

u::

!=(!)

Ow
wa:
a:w
00.
a:::<

~-

1\

a:
25

LL

0

02" x 02"

50

w

'"a:«w

RESlilTlVE OR INDUCTIVE LOAD
O.375"(9.5mm) LEAD LENGTHS

~

50

25

75

100

125

z

T....25"C
1.0

~

I
I

.01

.6

175

t--'
Z

40

C

.r
:oJ
OCIJ
Ww
",a: 30
a:w
:oJ 0.
CIJ::<
0«

20

0:

~
a:

"

LL

w

r--... r--.

0

,.

t--'
Z

a:
a:
:oJ
o
~ fB
a: a:
WW
>0.
w::<
a:«
ClJO
:oJ a:

l'- t"--I'

TA-100"C

10

;::
Z
;::
CIJ

100

10

NUMBER OF CYCLES AT 60 Hz

.,.-

Q.

TJ_25"C

./

30

W

T....75OC

0.1

~

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
01

I

r---

2.0

T".125"C

, /'

~~

"

20

T....25"C

LL

1.8

r--

00

10

b..

1.6

0

T~LJ

r----.r---

1.4

0

8.3ms SINGLE HALF
SINE-WAVE
(JEDEC) METHOD

.......

12

FIG. 4 - TYPICAL REVERSE CHARACTERISTICS

FIG. 3- MAXIMUM NON-REPETITIVE
SURGE CURRENT

'>1

1a

8

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

AMBIENTTEMPERATURE, 'C

50

PULSE WIDTHo3OOl'8
2% DUTY CYCLE

/

01

;::
Z
;::CIJ

r\

150

.,.V

10

0
a:
~CIJ
a:~
OW
LLo.
CIJ::<
:oJ«
0
w

!\~~
(5mm x 5mm)

~«

0

t--'

Z

w
a:
a:
:oJ

40

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

10

0

FIG. 6 - REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

z

;::
0

11:

50n
NONJNDUCTIVE

t5

10n
NON INDUCTIVE

05A

f-1MHz
Vsig-50mVp-p max.

REVERSE VOLTAGE, VOLTS

100

y

D.U.T.

(+)

10

~

.:.. 25 Vdc
(approx.)

-0.25

(-)

OSCILLOSCOPE

-10

NOTES 1. Rise-rllT18-7ns max. Input Impedance...
1 rnegaohm 22pF.
2. Rise Time-l0ns max. Source Il'fllE'danc:e..

50 ohms.

-39-

I

\

(NOTE 1)

-til

\ J

II

cmi-'- ~~/~66~~~:SE FOR

INsr~

POWER
SEMICONDUCTOR
DIVISION

JAN AND JANTX 1 N5614 THRU 1 N5622
GLASS PASSIVATED JUNCTION MEDIUM SWITCHING RECTIFIER

VOLTAGE-200to 1000 Volts

CURRENT-1.0Ampere
FEATURES

' .110 (2.791
j • 065D~t65)

.i~~\~tJ~\

•
•

•
•
, .033 (.838)'
.028 C.711)1
OIA

Dimensions in inches
and
(millimeters)

•

•
•

Qualified to MIL-S-19500/427C
High temperature metallurgically
bonded ~"~.
HermetiCa"y-~
sealed package
____
Glass passivated cavity.~
free junction
1.0 Ampere operation at TA=55 0 C
with no thermal runaway
TypicallR less than 0.1 IJA
High temperature soldering guarnateed: 350°C/1 0 seconds/.375",
(9.5mm) lead length atl5 Ibs.,
(2.3kg) tension

MECHANICAL DATA
Case: One piece glass, hermetically sealed
Terminals: Axial leads,
solderable per MIL-STD-202,
Method 208
Polarity: Colorband denotes
cathode
Mounting Position: Any
Weight: .02 ounce, .56 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Vokage
Maximum RMS Vottage
Maximum DC Blocking Vokage
Minimum Reverse Breakdown Voltage at 50j.!A
Maximum Average Forward Rectified Current
.375" (9.5mm) Lead Length at TA=55°C
Peak Forward Surge Current,
S.3ms single haH sine-wave superimposed on
rated load (JEDEC Method) at TA= 100°C
Maximum Instantaneous Forward Voltage at 3.0A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=100°C
Maximum Reverse Recovery Time (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Maximum Thermal Resistance (NOTE 3)
Operating Junction Temperature Range
Storage Temperature Range

SYMBOLS

JAN

JAN

JAN

fN5614

fN56f6

fN56f8

fNS620

JAN

fN5622

JAN

UNITS

VAAM
VAMS
Voc
VBA

200
140
200
220

400
2S0
400
440

600
420
600
660

SOO
560
SOO
SSO

1000
700
1000
1100

Voks
Voks
Voks
Voks

I(AV)

1.0

Amps

IFSM
VF

30.0
1.3
0.5
25.0
2.0
15.0
3S.0
-65 to +175
-65 to +200

Amps
Voks

IA
TAA
CJ
R8JL
TJ
TSTG

NOTES:
1. Reverse Reoovery Conditions: IF=1.0A, IR=1.0A, Irr=O.25A.
2. Measured at 1.0 MHz and applied reverse vollage of 4.0 Voe.
3. Thermal Resistance from Junclion 10 lead al.375" (9.5mm) lead lengths P.C. Board mounled.

-40-

I1A
I1S
pf
°cm
°C
°C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES
JAN AND JANTX 1N5614 THRU 1N5622
FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
20

FIG. 1 - FORWARD CURRENT
DERATING CURVE
1.00

~ ~375" IJmml T

0

w

I\I~,-

rr:

t3ffl
wa:

.75

a:w

~~
,,

RESISTiVe OR
NOUCTIVE LOAD
. o.m'(9.6mm) LEADLENGTHS
25

50

75

100

125

7

0

I

1

1\

w
~

V

0

1\

150

T....25"C
PULSE WlDTH-300JIS

--,

2% DUlY CYCLE

1

.4

.6

81.01.21.4

1.61820

INSTANTANEOUS FORWARD VOLTAGE. VOLTS

175

FIG 4 _TYPICAL REVERSE CHARACTERISTICS

AMBIENT TEMPERATURE ·C

20

FIG. 3 - MAXIMUM NON-REPETmVE
SURGE CURRENT
50

,.:

Z
w
a:
a:
::>
u'"
ww
C)a:
a:w
::>Il.

~~

40

30

a:

20

f2

10

f'.. I'-..

10

a._SINGLE HALF
SINE·WAVE

Z
W
a:
a:
::>
u
w'"
"'w
a: a:
WW

(JEDjMnr

...........
......

~
a:

~ 1'-1~lJ

"

Tj'!71

T.... I25'C

,.:

~

10

i1i~
a:a:
OU

"'-,,-

~

~~

i'!
Z
i'!

II
10

7
J

0.1

'"~

100

NUMBER OF CYCLES AT 60Hz

"c.

.01
20

40

60

80

100

120

FIG. 6 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM

~O~INDUCTIVE

~
Z
i'!

(+)

0

_

it

-

~

~~~INDUCTIVE

+O.5A

--tI
V

-0.25
OSCILLOSCOPE
(NOTE 1)-

NOTES 1. Rio. Tlmo-7M max. Input Irnpedan_
1 mogaohm22pF.
2. Rise TIme-l0ns max. Source ImpedanC8at

500111.0.

-41-

I

II

Vaig-50mVp-p max.
100

t..

D.U.T.

(-)

10

jo-

1"\

50Vdc
(approx:)

f-1MHz

REVERSE VOLTAGE. VOLTS

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

r--....... .....T~~

10

.-

~

III

I--

T.-2,C _I--

./

FIG 5 - TYPICAL JUNCTION CAPACITANCE
40 ,......"
30

1=

./

...

'j..,J
BASE FOR
-ti' emle- SETTIME
5OI100nslcm

-1.0

POWER
SEMICONDUCTOR
DIVISION

INsr~

JAN AND JANTX 1 N5624 THRU 1 N5627
GLASS PASSIVATED JUNCTION RECTIFIER
VOL TAGE - 50 to 800 Volts CURRENT - 3.5 Amperes
MECHANICAL DATA

FEATURES
.230·(5.841 DIA
.110 (4.321

.052 U.32IDl&... _
.049 (1.241

Dimensions in inches
and
(millimeters)

• Qualified to MIL-S-19500/432
• High temperature metallurgically
bonded
• Hermetically
sealed package
• Glass passivated cavityfree junction
• 3.5 Ampere operation at TA= 55°C
with no thermal runaway
• Typical IR less than 0.1 !J,A
• High temperature soldering guaranteed: 350°C/10 seconds/.375",
(9.5mm) lead length aU5 Ibs.,
(2.3kg) tension

case: One piece glass, hermetically sealed
Terminals: Axial leads,
solderable per MIL-STD-202,
Method 208
Polarity: Colorband denotes
cathode
Mounting Position: Any
Weight: .037 ounce,1.04 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage

VRRM
VRMS

JAN
1N5624
200

JAN
1N5625
400

JAN
1N5626
600

JAN
1N5627
800

140

280

420

560

Volts

200
240

400
460

600
660

800
880

Volts
Volts

UNITS
Volts

Maximum DC Blocking Voltage
Minimum Reverse Breakdown Voltage at 50ILA

Voc
VBR

Maximum Average Forward Rectified Current
.375" (9.5mm) Lead Length at TA= 55'C

I(AV)

3.5

Amps

Peak Forward Surge Current,
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method) at TA=100'C

IFSM

125.0

Amps

Maximum Instantaneous Forward
Vo~age at 3.5A

TA=25'C
TA= -65'C

IR

1.0
1.5
1.0
100.0

CJ

40.0

pf

Maximum Reverse Recovery Time (NOTE 2)
TJ=25'C
Maximum Thermal Resistance (NOTE 3 )

TRR
ReJL

5.0
18.0

Operating and Storage Temperature Range

TJ,TsTG

-65 to +200

ILS
'CIW
DC

Maximum DC Reverse Current
TA=25'C
at Rated DC Blocking Voltage
TA=150'C
Typical Junction Capacitance (NOTE 1)

VF

NOTES:

1 Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
2. Reverse Recovery Test Conditions: IF = 0.5A, IA = 1.0A, Irr = 0.2SA
3. Thermal Resistance from Junction to Lead at .375", 9.5mm lead lengths, with both leads attached to heat sink.

-42-

VoHs

/LA

MAXIMUM RATING AND CHARACTERISTIC CURVES
JAN AND JANTX 1N5624 THRU 1N5627
FIG. 2 -

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

200

100

FIG. 1 0

w
u:
;::",
Uw
wa:
a:w

00.
0::;
,(<(

~t-'

-

FORWARD CURRENT DERATING CURVE

T... l00"C

4.0
3.5

50

.........

3.0

..........

2.0

~

f'."

0"-

LLll!

wO:
C)::l
«U
a:
w

8.3ms SINGLE HALF
SINE·WAVE
(JEDEC) METHOD

.........

80Hz
RESISTIVE OR INDUCTIVE LOAD
O.37S'(9.&nm) LEAD LENGTHS

1.0

'i'

25

75

50

100

10

~

........
125

150

10

"

175

AMBIENT TEMPERATURE, °C

100

50

NUMBER OF CYCLES AT 60Hz

FIG, 4 -

200

TYPICAL JUNCTION CAPACITANCE

100

LL

c.

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

.......
50

f"-

W

U

z

100

>'

r---......

()

Cl:

50

«
U

/

f.1MH,
Vsig_50mVp--p max.

T...25"C

1" .....

10

,..:

Z

/.

10

W

0:
0:

::l

5.0

10

50

100

U

0

~(I)

~ffi

1.0

(I):;

0.5

LLo.

::l«
0
w

/

'";::;

FIG. 5 20

I

-

I

I

0.1

TJ.l~

T...25OC
PULSE WlDTHo3OO... 2% DUTY CYClE

- ---

TYPICAL REVERSE CHARACTERISTICS

30

z
z>'

>'

REVERSE VOLTAGE, VOLTS

I

0:

10

...-

T.... 12SOC

,.

I

-

.05

1,0
,01
0.6

0.8

1.0

1.2

lA

1.6

1.8

2,0.

__ i--"'"
T.,..75"C

INSTANTANEOUS FORWARD VOLTAGE, VOLTS
0.1

17

,01

./
20

V

40

-"
TJ "125°C
60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

-43-

140

POWER
SEMICONDUCTOR
DIVISION

INsr~

JAN AND JANTX 1 N5807 THRU 1 N5811
GLASS PASSIVATED JUNCTION FAST EFFICIENT RECTIFIER
VOLTAGE RANGE - 50 to 150 Volts CURRENT-6.0Amperes

t

MECHANICAL DATA

FEATURES

1.30 (32.021 _ _ _ _ _ _ _ _ _.......;....;;;,;...;,.;..;;;...;..;;,=

.185(4.19)DIA.
.115 (2.92)

~!)

• Qualified to MIL-STD-19500/477

• Glass passivated cavity free junction
:~ I~::
S.uperf~s! recovery times for very
!
high efficiency ,
f
• Low forward
~)D.m:.....~
1.30 132.02)
voltage, high current
.037 (.941
0.9°1(22.96)
_
c..:pability
• Hermetically sealed
package
• High surge capability
• High temperature metallurgically
bonded
Dimensions in inches
• High temperature soldering guaranand
teed: 350°C, .375",(9.5mm), from
(millimeters)
case for 10 seconds at 5lbs.,
(2.3kg) tension

•

case: One pice glass hermetically
sealed
Terminals: Axial leads, solderable
to MIL-STD-202
Method 208
Polarity: Colorband denotes
cathode end
Mounting Position: Any
Wleght: 0.037 ounce, 1.04 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless othelWise specified.
Single phase, half wave, 60Hz,resistive or inductive load.
For capacitive load. derate current by 20%

SYMBOLS

JAN1N5807

JAN15809

JAN1N5811

UNITS

VRRM
VAMS
Voc
VBA

50
35
50
60

tOO
70
100
110
3.0
6.0

150
105
150
160

Volts
Volts
Volts
Volts

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Minimum Reverse Breakdown Voltage at 10011A
Maximum Average Forward Recitilied Current TA=55'C
.375" (9.5mm) Lead Length at
Tl=75'C
Peak Forward Surge Current,
3.ms single half sine-wave superimposed on
rated load (JEDEC Method) at TA = 55'C
Maximum Instantaneous Forward 4.0A TA= 25'C
Voltage at
6.0A TA= 25'C
4.0A TA= 100'C
4.0A TA= -65'C
Maximum DC Reverse Current
TA = 25'C
at Rated DC Blocking Voltage
TA= l00'C
Maximum Reverse Recovery Time (NOTE 1) TJ = 25'C
Maximum Forward Recovery Time at 500 mA
Maximum Forward Voltage Recovery at 500 mA
Maximum Junction Capacitance (NOTE 2 )
Maximum Thermal Resistance (NOTE 3 )
Operating Junction Temperature Range
Storage Temperature Range

I(AY)

IFSM
VFM

IA
TAA
TFA
VFR
CJ
ReJL
TJ
TSTG

125.0
0.875
0.975
0.800
1.075
5.0
150.0
30.0
15.0
2.2
60.0
22.0
-65 to +175
-65 to +200

NOTES:
I. Reverse Recovery Test Condition: IF = 1.0A, IR = 1.0A, IRR =C.IA, di/dt =100 AI!,s.
2. Measured at 1 MHz and applied reverse voltage of 10 volts.
3. Thermal Resistance from Junction to Lead at .375", 9.5mm lead lengths, with both leads attached to heatsinks.

-44-

Amps

Amps
Volts

IIA
nS
nS
Volts
pi
'CIW
'C
'C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES
JAN AND JANTX 1N5807 THRU 1N5811
FIG. 2. MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
200

FIG. 1- FORWARD CURRENT DERATING CURVE
12,---r---,.--,----,---,---,---,

elm

",w

:::J'"

10

100

rn~

I:

8.0

(JEDEC Method)

""

--

50

~a
rr----I

4.0 1-=-~+:----+---+--"'''oEP'O..--+-____

....

TA = 55"C

!2~
><'"

8.0

H~lf Jine~wLl

lJ.3ms Sinlgle

W

10
10

2.0

50

100

NUMBER OF CYCLES AT 60 Hz

FIG. 4- TYPICAL JUNCTION CAPACITANCE
~

n

50

m

@

~

ill

100

TEMPERATURE. 'C

u.

a.
W

FIG. 3 - TYPICAL FORWARD CHARACTERISTICS

'"

0

100.0

Z

;!

fa

,

'"

<

,.:
Z

.....

~

/

W
0-

:::;

TJ

= 1MHz
V
= 150~Vn

7fl;

6

10

f

10.0

10

'il9

W

20

~
40

60

100

REVERSE VOLTAGE. VOLTS

:::J
0
0

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

I

1.0

,.:

@

TJ = 250(;

Z

PULSE WIDTH = 3OOtJos

J

0.1

Z

200

'"'":::J
0

100

W

:::J

;!
Z
;!

2S"C

.....

20

15

'"

'"
'"~
'"rn
!2

=

40

[j

~~

-

~~

2% DUTY CYCLE

~~

I

1.0

;!
z
;!

I
0.6

1==

10

"'<

rnO
:::J'"
00

0.4

100'C:::

w:::;

rn
;!!;

0.01

.......

I
T,

0.8

1.0

1.2

1.4

1.6

'"
;!!;

1.8

INSTANTANEOUS FORWARD VOLTAGE. VOLTS

T, - 25'C

==

0.1

20

60

40

80

100

120

PERCENT OF RATED PEAK REVERSE VOLTAGE

--

FIG. 6 - TEST CIRCUIT DIAGRAM AND REVERSE RECOVERY TIME CHARACTERISTICS

~
p.U.T.

'+1.OA

I\.

~~~
l"Ee

I,

Lo

/

T
J

-1.QA

NOTES:
1. RISE TIME = 3ns MAX. INPUT IMPEDANCE:: 50 OHM MIN.
2. RISE TIME _ Sn, MAX. SOURCE IMPEDANCE ~ 50 OHM MAX.

1

I\, 1/

I,

I

~t em'" SET TIME BASE FOR 5ns/em
~

-45-

INsrBmt

140

-46-

SCHOTTKY RECTIFIERS
0.6 TO 40 AMPERES

-47-

LOW CURRENT AXIAL SCHOTTKY RECTIFIERS

-

TYPE
PACKAGE
IO(A)
VRo2O(V)
VR03O(V)
VR-4O(V)
YR-5O(V)
VRo6OM
VR·9OM
VR-I9OM

....

81110

lN1817
Ib..

IhnI

8111GO
DW

TYPICAL JUNCTION CAPACITANCE

1000

0.1

FIG. 5 -

20

40

80 100

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

25

o

.... ,

10

REVERSE VOLTAGE VCl TS

./
.001

1.0

0.4

40

60

80

100

120

I

140

PERCENT OF RATED PEAK
REVERSE VOLTAGE

"'"
1.0

TJ-TJmax.

1'0 :--..~

2.0

~
5.0

10

-

20

NUMBER OF CYCLES AT 60 Hz

-53-

J

I III II

8.3m. SINGLE HALF SINE·WAVE
JEDEC METHOD

- ......
50

100

1N5817 THRU 1N5819
HIGH CURRENT SCHOTTKY BARRIER RECTIFIERS
VOLTAGE-20 t040 Volts CURRENT- 1.0Ampere
FEATURES
DO-41

t

1.0 (25.4)

.10712.7)
.080(2.0)

MIN

.1

1+ ~

~
.205(5.2)
.160(4.1)

~

t

1.0(25.4)
lAIN
.034 (.86) ~

I

+

.028 (,71)

..

• Low cost
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
• Metal to silicon rectifier, majority carrier
conduction
• Guardring for stress protection
• Low power loss,
high efficiency
• High current capability,
10wVF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
2S0°C/10 secondS/.37S" (9.S mm) lead lengths at
Sibs., (2.3 ~g) tension

MECHANICAL DATA
Dimensions in inches

and

(millimeters)

Case:JEOEC 00-41 Molded Plastic
Terminals: Axial leads, solderable per MIL-STO202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.012 ounces, .34 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°0 ambient temperature unless otherwise specified. Resistive or inductive load. For capacitive load, derate current by 20%.

• Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
• Maximum DC Blocking Voltage
• Maximum Non-Repetitve Peak Reverse Voltage
• Maximum Average Forward Rectified Current
.375", 9.5mm Lead Length at Tl = 90°C
• Peak Forward Surge Current, 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
TL = 70°C
• Maximum Forward Voltage at 1.0A
• Maximum Forward Voltage at 3.1 A
• Maximum Instantaneous Reverse Current at
Rated DC Reverse Voltage (NOTE3)
TA = 25°C
TA=1000C
Typical Thermal Resistance (NOTE 1)
Typical Junction Capacitance (NOTE 2)
• Storage and Operating JunctionTemperature Range

SYMBOLS

1N5817

1N5818

1N5819

UNITS

VRRM
VRMS
Voc
VRSM

20
14
20
24

30
21
30
36

40
28
40
48

Volts
Volts
Volts
Volts

I(AV)
IFSM
VF
VF
IR
R8JL
CJ
TJ,TsTG

1.0

.450
.750

25.0
.550
.875

Amps

I

.600
.900

1.0
10.0
15.0
110.0
-65 to +125

NOTES: 1. Thenmal Resistance from Junction to Lead, PC Board Mounting with .375(9.5mm) Lead Lengths and 1.5 in2
(38.1 mm 2) copper pads.
2. Measured at 1 MHz and applied reverse voltage of 4.0 volts.
3. Pulse Test: 300~ Pulse Width, 2.% Duty Cycle .
• JEDEC registered values

-54-

Amps
Volts
Volts
rnA
°cm
pf
°c

RATINGS AND CHARACTERISTIC CURVES 1N5817 THRU 1N5819

FIG 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG 1 - FORWARD CURRENT DERATING CURVE
1.0

\

lN58A....

~~~
lN581

1\

\

SINGLE PHASE HALF WAVE
60Hz
RESISTIVE OR INDUCTIVE LOAD
~ (9.8mm) LEAD LENGTH
40

20

60

60

100

I "

~
120

140

LEAD TEMPERATURE; C

Vu'~~~IDTH.300J'll1% DUTY CYCLE

1
3

~

J

~

1~

13

L5

lJ

1~

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG 2 - TYPICAL REVERSE
CHARACTERISTICS
FIG 4 -MAXIMUM NON-REPETITIVE PEAK
SURGE CURRENT

100

30

25

W

(!;IU>

",w
:::>'"
u>W

~~
«
;:0-:
",Z

0

-

20

~

15

OW

LL'"
",'"
<:::>

/

T..75"C

T.. - T.. max.
8.3ms·SINGLE HALF SINE-WAVE
JEDEC METHOD

""- ..... ....
........... ........

10

wO
c.

5

1=

~

...

".

.0

.00 1

I

~

T..125"C

10

20

60

.100

NUMBER OF CYCLES AT 60 Hz

T~5·C

I

I

I

I

I

20

40

60

60

100

120

140

FIG 5 - TYPICAL JUNCTION CAPACITANCE

PERCENT OF RATED PEAK
REVERSE VOLTAGE

400

200

'a
o
~

100

5

60
60

<::

40

ui

~

'-

1o
0.1

-..... .....

T,.25 C

....
f.l.0MHz
Vsig _ 50m Vp-p
I

0.4

1.0

4

10

REVERSE VOLTAGE, VOLTS

-55-

INSTUMIr

40

80

100

S8120 THRU S8160
MINIATURE SCHOTTKY BARRIER RECTIFIER
VOLTAGE RANGE - 20 to 60 Volts CURRENT - 1.0 Ampere
FEATURES
00-41

t

1.0 (25.4)

MIN
.107(2.7) ~ 1

1+

.080(2.0)

i

----r-.205 (5.2)
.160(4.1)

t

t

.034(.96) ~

+

.028 (.71)

1.0 (25.4)
MIN

l

Dimensions in inches
and
(millimeters)

• Low cost
• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier, majority
carrier conduction
• Low power loss,
high efficiency
• High current capability,
10WVF

•
•
•
•

High surge capacity
Epitaxial construction
Guardring for transient protection
For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250 0 C/l0 seconds/.375" (9.5mm) lead
lengths/5Ibs., (2.3kg) tension

MECHANICAL DATA
C8se:JEOEC 00-41 Molded Plastic
Terminals: Axial leads, solderable per MIL-STO202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0-012 ounces, .34 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load. derate current by 20%.

SYM80LS S8120

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Length See Fig.l
Peak Forward Surge Current,
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage
at 1.0A (NOTE 2)
Maximum Instantaneous Reverse Current at
Rated DC Blocking Voltage (NOTE 2) TA=25°C
TA=100DC
Typical Thermal Resistance (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range

S8130

S8140

S8150

S8160

UNITS

VRRM
VRMS

20
14

30
21

40
28

50
35

60
42

Volts
Volts

Voc

20

30

40

50

60

Volts

I(AV)

1.0

Amps

IFSM

40.0

Amps

VF

0.50

IR
IR
R8JL
TJ
TSTG

0.5
10.0 I
15.0
-65 to +125
-65 to +150

NOTES:
I.Thermal Resistance Junction to Lead P.C. Board Mounting .375" (9.5 mm) Lead Lengths.
2. Pulse Test: Pulse Width = 300jlS. Duty Cycle=2.0%.

-56-

0.70

Volts

5.0

mA
mA
°CIW

-65 to +150

°C
DC

RATINGS AND CHARACTERISTIC CURVES 58120 THRU 58160
FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

fZ

lU

....-

FIG. 1 -

Z

lU

a:

1.0

()

.75

a:lU

«a:
~ ~ .50

~~

SB130

~B140

.25

«

a:

lU

50

25

>
«

75

\

100

~oo
gj~

SB150
THRU
SB180

1\ \

RESISTIVE OR INDUCTIVE LOAD
.375" (9.5mm) LEAD LENGTH

~

175

3

.5

7

t.1

9

13

1.5

1.7

1.9

2,1

t--

....-

LI

S8'50 THRU 58180

.Ii

Z

w

'0

a:

a:

::l

()

~ra

~oo

ffi~
Gj~

.0

TJ_7SoC

~~

~~
5~

.1

0-

"

10

w::ii

/

~

Z

.0

f-

f---- TJ=2SoC

5~

lU:2

~
Z
«

.....' 1/:/ 1;'

TJ-150oC

1 .0

a::2
oo~

/

1

Z

~

t--TJ_7SoC,

Z

,

.0

,

.00

,

~
00

TJ-2S9C

~

00
Z

17

I~"'"

TJ ..2SoC

~

.001
20

40

60

80

100

120

140

20

FIG. 4 - TYPICAL JUNCTION CAPACITANCE
400

S~'~~

TJ.125'C
LL 200

~~

0.

100
80

-,

S8'30
58140

-1-

40

60

!1Ii15ti
58160

....-

40

Il.

"'.

rn

10
0.'

.......

a:
::>

40

~(/)

30

()

~~

20

3:
a:

'0

~~

i"o..

50

04

120

140

0

w

::la:

f- f.~.OMHz
VS'9i

100

Z

a:

a:W

80

80

PERCENT OF RATED PEAK REVERSE VOLTAGE
FIG. 5 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

PERCENT OF RATED PEAK REVERSE VOLTAGE

20

1

'00

0

ffiffi

«
()

I
TJ_2SoC
PULSE WIDTH_3001". 1% DUN CYCLE

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS
FIG. 38 -- TYPICAL REVERSE CHARACTERISTICS

()

6«

0.1

~

a:
::l

W

:

;

Z

150

a:

o
Z
«
f-

S8160:

f-

S812~
ToI-125°C

Z

S8140

Z

«

\

125

~~~~gS8150~

o
lU

S8130
S8140
lU

J l

OO::ii 1.0
::l«

FIG. 3A - TYPICAL REVERSE CHARACTERISTICS

....-

1-

L'

LL~

LEAD TEMPERATURE. 'C

'00

~ .,.~'"

10

a:

SB1~ \

000

lU
(!)

::l

()

o

1\ i\

a:
::l

20

a:
a:

FORWARD CURRENT DERATING CURVE

tEIJLLE JALF UEUAtl
JEDEC METHOD

"''"

TJ...TJmax.

,..
to-...
f"""o,...

o

u.
~

1.0

10

80 100

40

;'5
Il.

REVERSE VOLTAGE, VOLTS

-57-

4

6 810

20

40

60 80100

NUMBER OF CYCLES AT 60Hz

S8190 AND S81100
MINIATURE LOW CURRENT SCHOTTKY BARRIER RECTIFIER
VOLTAGE RANGE -90 and 100 Volts CURRENT-1.0Ampere
FEATURES
D0-41

-r
1.0 (25.4)
MIN

.107(2.7) ~
.OBO (2.0)

1 I.

~

.20515.2)
.160(4.1)

---L-

t

1.0 (25.4)
MIN
.034 (.86)..
•02B (.71)

I

+

Dimensions in inches
and
(millimeters)

• Plastic package has Underwriters Laboratory
Flammabiltiy Classifications 94V-0
• Metal to silicon rectifier,
majority carrier con- "
duction
'<,
"

• Low power
'"
loss, high efficiency
,
• High current capability, low VF
'"
• High surge capacity
,
,
• Epitaxial construction
• Guardring for transient protection
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed: 250°C/1 0
secondsl.375"{9.5mm) lead lengths at 5lbs .
(2.3kg) tension

MECHANICAL DATA
Case:JEDEC 00-41 Molded Plastic
Terminals: Axial leads, solderable per MIL-STD202, Method 208
Polarity: Color band denotes cathode
Mounting Posit/on: Any
Weight: 0.012 ounces, .34 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacttive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
DC Blocking Voltage
Maximum Average Forward Rectified Current .375"
(9.5mm) lead lengths at TL=135°C
Peak Forward Surge CurrentS.3ms single half sine-wave
superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Voltage Rate of Change (rated VR)
Maximum Instantaneous Forward IF- 1.0A, TA- 25°C
Voltage at (NOTE 1)
IF" 1.0A, TA,,1000C
Maximum Instantaneous Reverse Current TA= 25°C
at Rated DC Reverse Voltage (NOTE 1)
TA-l000c
Typical Thermal Resistance
Junction to Ambient
(NOTE 2)
Junction to Lead
Operating Junction Temperature Range
Storage Temperature Range

SYMBOLS

88190

S8110D

VRRM
VRMS
Voc

90

100
71
100

64

90

I(AV)

1.0

Amps

IFSM
IRRM
dv/dt

50.0
1.0
1000

Amps
Amps

VF

0.79
0.69

IR
IR
RaJA
RaJL

0.5
5.0
47.0
S.O

°CIW

TJ

-65 to +150

°C

TSTG

-65 to +175

°C

NOTES: 1. Pulse Test: Pulse Width=300}lS, Duty Cycle=2%.
2. Units vertical mounted on P.C. Board with .375", 9.5mm Lead Length with 1.5" sq. (38.1 mm2 ) copper pads.
3. Pulse width=2.0}lS, f=I.0KHz.

-58-

UNITS
Votts
Volts
Volts

V/jIS

Volts
mA
mA

RATINGS AND CHARACTERISTIC CURVES SB190 THRU SB1100

FIG. 2· MAXIMUM NON·REPETITVE PEAK
FORWARD SURGE CURRENT
60

~~

~~

'"

a:::

,

FIG. 1-FORWARD CURRENT DERATING CURVE

z

a:
::J

1.0

U

Of./) .7 5

I

~ll'

,5 0

RESISTIVE OR INDUCTIVE LOAD
O.375"(9.5mm) LEAD LENGTHS

W

Cl
~

""r-..

~ ........ ~
~

10

IuD

5
,0
20
NUMBER OF CYCLES AT 60 Hz

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

\

W

;(
50

"'1-0

a.

~

.2 5

8.3m. SINGLE HALF SINE-WAVE
JEDEC METHOD

20

1\

a: W
«a:

~~

~§
wU

TJ- TJ max,

30

ex:Z
OW
u..ex:

1

II

0",
0 .....

W

ClUl
ex:w
::Jex:
UlW

5.0

~

I

Z
W
ex:
ex:
::J

150

100

LEAD TEMPERATURE:C

./

~

/

TJ-1SOOC
1.0

~

V

==
=

U

Cl

ex:
«Ul
i: w
ex: a:
Ow
u..a.
Ul::1
::J«

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS
10,0

0

1= TJ - 150°C

, ,
/ J

.10

W

Z
«

....z
....«
Ul

T... 25°C

I

I

~

-"

1.0

01

I

II I

I
.5

A

."

."

TJ",1 OO"C

.10

u..

." ,., ."
/'

c. 200

-

-

T....75"C

W

U

Z

....«

100

«
a.
«

60

U

I'

.00

1

V
20

I'
40

.7

.8

.9

1.0

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
400

.0 1

.6

INSTAN rAN EO US FORWARD VOLTAGE,
VOLTS

.J'

.,..,

T,.25"(;
PULSE WIDTH.300~.
2% DUTY C Y C L E _

I

""
60

80

' '-1
I

TJ",25"C

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

U

r

r--

80

-"'"

40

..........

I

TJ o25=¢'~
F= 1MHz

20

111i',

10
0.1

0.4

1.0

2

10

REVERSE VOLTAGE, VOLTS

-59-

o50

r',

20

40

~
100

1 N58~O THRU 1N5822
MEDIUM CURRENT SCHOTTKY BARRIER RECTIFIER
VOL TAGE - 20 to 40 Volts CURRENT - 3.0 Amperes
FEATURES
OD-201AO

f

.210(5.31
.190(4.81
DIA.

1.0 (25.41

T'

LI

t

.375 (9.51

T

• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Metal to silicon rectifier, majority
carrier conduction ~
• Low power loss,
...
high efficiency
• High current capability, low VF
' ." .......
• High surge capacity
'~
• Epitaxial construction
.'"
• Guardrlng for transient protection
• For use in low voHage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250 0 C/10 seconds/.375" (9.5 mm) lead lengths at
5 Ibs. (2.3 kg) tension

1.0 (25.41

.052 (1.31
.048(1.21

+

T'

Dimensions in inches
and
(millimeters)

MECHANICAL DATA
Csse:JEDEC DO-201AD Molded PlastiC
Terminals: Axial leads, solderable per MIL-STD202, Method 208
PolarUy: Color band denotes cathode
Mounting PosUlon: Any
Weight: 0.04 ounces, 1.12 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperabJre unless otherwise specified.
Resistive or inductive load,
For capacitive load, derate current by 20%.
SYMBOLS

• Maximum Recurrent Peak Reverse Voltage
VRRM
Maximum RMS Voltage
VRMS
• Maximum DC Blocking Voltage
Voc
• Non-Repetitve Peak Reverse Voltage
VRSM
• Maximum Average Forward Rectified Current
I(Ay)
.375":9.5mm Lead Length at TL= 95°C
• Peak Forward Surge Current, 8.3ms single
half slne-wave superimposed on rated load
(JEDEC Method) at TL _ 75°C
IFSM
• Maximum Instantaneous Forward Voltage at 3.0 (NOTE 1)
VF
• Maximum Instantaneous Forward Voltage at 9.4 (NOTE 1)
VF
• Maximum Average Reverse Current at Rated
DC Blocking Voltage
TA = 25°C
IR
(NotE 1)
TA= 100°C
IR
Typical Thermal Resistance (NOTE 2)
R8JL
TJ,TsTG
• Storaae and Operatina Junction Temperature Ranae

fNSBRO
20
14
20
24

fN581f
30
21
30
36

fN58Z2

UNITS

40
28
40
48

Volts
Volts
Volts
Volts

3.0

.475
.850

I

80.0
.5:10
.900

Amps

I

.525
.950

2.0
20.0
20.0
-65 to +125

NOTES:
1. Pulse Test: Pulse Width=300J1S, Duty Cycle=2%.
2. Thermal Resistance from Junction to Lead Vertical P'C.Board Mounting, .500" (12.7 mm) Lead Length with 2.5' sq.
(S3.5mm2) copper pads.
'JEDEC registered values

-so-

Amps
Volts
Volts
mA

rnA
·CIW
°C

RA TlNGS AND CHARACTERISTIC CURVES tN5B20 THRU tN5B22

FIG 3 • MAXIMUM NON·REPE11TVE PEAK
FORWARD SURGE CURRENT
90
70

W

~f3

• FIG. 1 - FORWARD CURRENT DERATING CURVE

IG

II)W

Oil. 50

"

~

It...:

~

~~
1

W

0

20

40

80

120

100

LEAD TEMPERATURE,

~

..... r--.

~G

Q.

20

\
80

40

a::z
OW
ILa::
lI:a:: 30

\

SINGLE PHASE
HALF WAVE 110Hz
RESISTIVE OR
INDUCTIVE LOAD
.375" (1.5mm) LEAD LENGTH

"

...

a:: 2

a:: 2

I

I

T'.T,l.
8.3m, SINGLE HALF SINE-WAVE
JEDEC METHOD

o(C

~;

\2c

80

;:)a::

,

~

~

...

10

140

10

5

'c

20

100

90

NUMBER OF CYCLES AT 60 Hz

FIG.4· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG. 2 - TYPICAL REVERSE
CHARACTERISTICS

nee

!iW
a::
a::

;:)

1.0

0
WII)
II)W
15 a::

no DulyCyclo

-

~ ~TJ'1~C ~ ~
T...7&-C

~~

a:: 2 0.1

...

I/"

/, VI'

,

;:§
o. 1

II)~

;:)

~
!

_ -;0..

~.

I I.

....
0=
w2
z

~

~

TJ =
Pul.. Width • 300,.,..

10

0.2

/1'

~- ·1N5822

0.3

0.4

0.8

0.5

0.7

0.8

0.1

INSTANTANEOUS FORWARD VOLTAGE
VOLTS

V'

.01

T,po25'C

FIG 5 - TYPICAL "'UNCTION CAPACITANCE
1000
800

II)
TJ •

'a

noD"'rCycIo

.001

20

40

eo

eo

100

-

TJ'25.~J
t-1.OMHz

800

n-c

Pul.. Wklth • 3OO,u1

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

oJ
0

.........

Voigo5OmVPiI

i"o

200

........

Z
C

!::
0

~

~

100
90
80

20
10

0.1

.4

1.0

4

10

40

100

REVERSE VOLTAGE, VOLTS

IN~
-61-

58320 THRU 58360
MEDIUM CURRENT SCHOTTKY BARRIER RECTIFIER
VOL TAGE - 20 to 60 Volts CURRENT - 3.0 Amperes
FEATURES

f

.210 (5.3)
.190 (4.8)
DIA.

r

1.0 (25.4)

LI

/+

t

.375 (9.5)

~
1.0 (25.41

.052 [1.3)
.048 [1.21

T

+

Dimensions in inches
and
(millimeters)

• Plastic package has Underwriters Laboratory
• Flammability Classificaiton 94V-O
• Metal to silicon rectifier, majority
carrier conduction',,",
• Low power loss,
..••,""'
high efficiency
""~
• High current capability,
"'IIIIIII!.
10WVF"""
• High surge capacity
.' ....
• Epitaxial construction
• Guardring for transient protection
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250 oC/10 seconds/.37S" (9.5 mm) lead lengths
at Sibs. (2.3 kg) tension

MECHANICAL DATA
Case:JEDEC DO-201AD Molded Plastic
Terminals: Axial leads, solderable per MIL-STD202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.04 ounces, 1.12 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2SoC ambient temperature unless othelWise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS SB320

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at
.375", 9.5mm Lead Length (see fig. 1)
Peak Forward Surge Current, 8.3ms single
haH sine-wave superimposed on rated load
(JEDEC Method)
Maximum Instantaneous Forward Voltage at 3.0A
Maximum Instantaneous Reverse Current at Rated
DC Blocking Voltage (NOTE 2)
TA = 25°C
TA _100°C
Typical Thermal Resistance (NOTE 1)
Operating JunctionTemperature Range
Storage Temperature Range

VRRM
VRMS
Voc

SB330

SB340

SB350

SB360

UNITS

30
21
30

40
28
40

50
35
50

60
42
60

Volts
Volts
Volts

20
14
20

3.0

I(AV)

80.0

IFsM

VF

.50

.74

IR

0.5

IR

20.0

RaJA
TJ
TSTG

Amps

20.0
-65 to +125

mA
mA
10.0

°CIW

-65 to +150

°c

-65 to +150

NOTES:
1. Thermal Resistance from Junction \0 Lead Vertical PC Board Mounting, .500" (12.7 mm)Lead Length with 2.5"sq.
(63.5mm2) copper pads.
2. Pulse Test: Pulse width = 300jlS, Duty Cycle = 2%.

-62-

Amps
Volts

°c

RATINGS AND CHARACTERISTIC CURVES S8320 THRU S8360

FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
FIG. 1 - FORWARD CURRENT DERATING CURVE

SB3~ I\.

S8330
58340

THRU
' \ S8360

\

RESISTIVE OR
I
INDUCTIVE LOAD
~.
375" 0..
W::;
a:«
CIl::J..J
O:!
W::;
z
«
IZ
«
ICIl

--

1.0

---

0.1

.",.-

-

~

~41'

./

V

TJ '" 7SD C

In

TJ = 25 C
C

,,4

.001

40

60

-

80

TYPICAL JUNCTION CAPAICTANCE

TJ

U

60

25°C

~ r-.

40

._-

10

88320 thru 58340
S8350 thru S8360

I IIII111

0.1

140

=

80

20

S8350 thru
SB360

120.

10

i""'o

100

I-

56320 thru
SB340

100

.9

200

U
Z
«

«
0..
«
U

1/>'

.6.7

400

...a.

~,
~,

5

1000
800
600

~

20

.4

FIG. 4 -

41'

ui

.01

3

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

~

..

S8350 thru S8360

J

.2

...

... V

"

I
II
01

TJ " 125°C

/

J

1.0

~

I---

,

~

If

CIl::;
::J«
0
W
Z
«
IZ
«
ICIl

LEAD TEMPERATURE, 'C
FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS

10

,

... ~

\ \
125

IS8320 11h'U s8d40
10

...

......

I

0

'-

100

I

0.4

1.0

4.0

40 80 100

10

REVERSE VOLTAGE VOLTS

PERCENT OF RATED PEAK
REVERSE VOLTAGE

FIG. 5 150

W
(!)CIl
a:W
::Ja:
CIlW
00..
a:::;
««

:;:...:
a:Z
OW
... a:
~a:
«::J
wU

120

~

90

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

I

"" ....... "'"

II I

8.3ms SINGLE HALF SINE-WAVE
JEDEC METHOD

~

60

I

TJ- TJ max.

30

-

I- .......

0..

1.0

2.0

5.0

10

20

NUMBER OF CYCLES AT 60Hz

-63-

50

100

58390 AND 583100
MEDIUM CURRENT SCHOTTKY BARRIER RECTIFIER
VOLTAGE RANGE -90 and 100 Volts

CURRENT -3.0 Amperes
FEATURES

DO-201AD

1

.210(5.3)
.190(4.8)

r

1.0 (25.4)

DIA.

LI I·

t

.375 (9.5)

~
1.0 (25.4)

.05211.3)
•04811.2)

l

Dimensions in inches
and
(millimeters)

• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier con- ''-__ ".
duction
""",
• Low power
~.
loss, high efficiency
~""
• High current capability, low VF
"""'"
"''<'"
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• High temperature soldering guaranteed: 250°C/10
seconds/.375(9.5 mm) lead lengths at 5 Ibs .
(2.3 kg) tension

MECHANICAL DATA
Case: JEDEC DO-201AD Molded Plastic
Terminals: Axial leads, solderable per MIL-STD202, Method 208
Polarity: Color Band denotes cathode
Mounting Position: Any
Weight: .04 ounces, 1.12 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS

SB390

S83100

VRRM
VRMS
Voc

90
64
90

100
71
100

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
.375" (9.5mm) Lead Lengths at Tl-100·C
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Voltage Rate of Change, (rated VR)
Maximum Instantaneous Forward Voltage at
IF = 3A, TA = 25°C
(NOTE 1)
IF =3A, TA = 100·C
Maximum Instantaneous Reverse Current at Rated
DC Blocking Voltage TA =25°C (NOTE 1)
Peak Reverse Voltage TA = 100·C
Junction to Ambient
Typical Thermal Resistance
(NOTE 2)
Junction to Lead
Operating Junction Temperature Range
Storage Temperature Range
NOTES:

1. Pulse Test Pulse Width=300 lAS, Duty Cycle=2%.
2. Units vertical mounted on P.C. Board wtth .3'/5", 9.5mm lead lengths.
3. Pulse width=2.01AS, f=1.0m KHz.
-64-

UNITS
Volts
Volts
Volts

I(AV)

3.0

Amps

IFSM
IRRM
dvldt

150.0
1.0
1000

Amps
Amps
VIIlS

VF

0.79
0.69

Volts

IR
RaJA
RaJL
TJ
TSTG

0.1
10.0
20.0
5.0
-65 to +150
-65 to +175

mA

·CIW
·C
·C

RATINGS AND CHARACTERISTIC CURVES S8390 THRU S83100
FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
FIG. 1 OCll

a: W

50

FORWARD CURRENT DERATING CURVE

I

ffi

•

~ffi

a: a.
W"':
(!lZ

2

a: ~
~::l

1

a.

PULSE WIDTH-3OOjLS _

r

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

J
1.0

II

II
0.2

10

Z

I

I

~

W
a:
a:

I

I

I

Z

..,:

I

W

115

LEAD TEMPERATURE.·C

T... ,25"C .

L/

o

~

RESISTIVE OR

T... ,5O"C

o::l

\,

O~

... <

"

'f'

a:
a:

FIG. 5 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
40

60

60

100

120.

140

150""

PERCENT OF RATED PEAK
REVERSE VOLTAGE

120

I I IIIII

T,oT,l.
8.3n'8 SINGLE HALF SINE·WAVE
JEDEC METHOD

.

~~---+--+-+-r+++tr----r--r-+~rtrM

50

O~_~-L-L~UUUL_~~-'-~~~~
~
~
g
20
~
1.0

NUMBER OF CYCLES AT 60Hz

~5·

IN~

S8520 THRU S8560
HIGH CURRENT SCHOTTKY BARRIER RECTIFIERS
VOLTAGE - 20 to 60 Volts CURRENT - 5.0 Amperes
FEATURES
DO-201AD

f

.21015.3)
.190 (4.8)

r

1.0 (25.4)

Dli

1+

.......~·--+t-­

r·

.375 (9.5)
•

28S

2

)

1.0 (25.4)

.0520.3)
.0480.21

.. T

• Low cost
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Metal to silicon rectifier, majority
carrier conduction c",
• Low power loss,
"""'"
high efficiency
"lIIh..
• High current capability,
~,
low VF
--."
• Hi~h s~rge c a p a c i t . y " ' ' ' - , - ,
• Epitaxial construction
'"
• Guardring for transient protection
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
2S0°C/10 seconds/.37S" (9.S mm) lead lengths at
Sibs., (2.3 kg) tension

MECHANICAL DATA
Dimensions in inches
and
(millimeters)

Case:JEDEC DO-201AD Molded Plastic
Terminals: Axial leads, solderable per MIL-STD202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.04 ounces, 1.12 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25"C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

SB530

SB540

SB550

SB560

UNITS

Maximum Recurrent Peak Reverse Vottage

SYMBOLS SB520

VRRM

20

30

40

50

60

Volts

Maximum RMS Voltage

VRMS

14

21

28

35

42

Volts

Maximum DC Blocking Voltage

Voc

20

30

40

50

60

Volts

Maximum Average Forward Rec@ed Current
.375", 9.5mm Lead Length See Fig.1

I(AV)

Peak Forward Surge Current, 8.3ms single
haH sine-wave "uperimposed on rated load
(JEDEC Method) at rated Tl
Maximum Instantaneous Forward Voltage at 5.0A
Maximum Instantaneous Reverse Current at
Rated DC Blocking Voltage
TA=25°C
(NOTE 2)
TA = 100°C
Typical Thermal Resistance

(NOTE 1)

Operating Junction Temperature Range
Storage Temperature Range

IFSM
VF

Amps

5.0

Amps

150.0
0.55
0.5
50.0

IR
IR

0.67

Volts

25.0

mA
mA

R8JL

15.0

10.0

°CIW

TJ

-65 to +125

-65 to +150

°C

TSTG

-6510 +125

NOTES:
1. Thermal Resistance Junction to Lead Vertical P.C. Board Mounting, .375" (9.Smm) Lead Length.
2. Pulse Test: Pulse Width=300f!S, Duty Cycle=2%.

-66-

°C

RATINGS AND CHARACTERISTIC CURVES S8520 THRU S8560

FIG. 2 -

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

300

250>

W
(!l",

a:w
:::la:
CIlW

t-

FIG. 1 - FORWARD CURRENT DERATING CURVE

Z

W

a:
a:
:::l

50

I~

o

40
0",
a:W
a: 30

S~~ i'..

«

THRU
SB540

~~

W

~

10

~

~~C

", ( Sm ~)

!§J VE

R

THRU'- ISB560

r\
~

a:::< 20

~«

S~501

~

LE GT
CTI E OA

I'"

r\
i'..

W

20

40

60

80

100

a:::;
««
~r:
a:Z
OW
u..a:
><:a:
«:::l
wU

150

..............

100

120

"'Z
W
a:
a:
:::l
0
0
a:
«

a:
a:
:::l
0

---

10

I J

"'::;

:::l« 1.0

0

SB550THRU
Sj

-

W
Z
«

t-

t-

1..-:

./

10

z

'"~

J

0.1

I

T".2So C
PULSE WIDTH-~

'~DUTYICYCLEI
.7

.8

.9

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

V

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
4000

T,-25'C -

.~~

«

t-

Z
«

CIl

I.

f

Z
«

:::l--'
O::d
W::<

t-

10

./

>Q.

"'-

0

\

u..~

~

.;9

THRU
r-- t-- SB520
SB540

T".7SoC

w'"
"'w
a: a:
Ww
W::;
a:«

40

~'"
a: W
Oa:

....

."...

100

50

FIG.4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

.J.," ~17

r:

zW

20

NUMBER OF CYCLES AT 60Hz

ISO

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS

TJ.12~oC~

JEDEC METHOD

10

t-

10

8.3ms SINGLE HALF SINE-WAVE

50

LEAD TEMPERATURE, 'C

20

--

TJ-TJm&X•

.......,;""""

Q.

r\

a:

>
«

200

OQ.

01

r--

,*'V

---20

[-

c.

ui

1000

0

800
600

t-

400

Z
«

~

001

2000

u..

U

asr

0

SB5fS
40

60

80

--- ,-

Q.

«

200

r- ~BifCj~~W

100
100

120

140

01

PERCENT OF RATED PEAK REVERSE
VOLTAGE

-

1"'0..

«

SB520-SB540

1111

I' ~~-25'C

1-.... ~
!iii

SB550-SB560

04

10

10

REVERSE VOLTAGE, VOLTS

-67-

40

80100

S8590 AND S85100
MEDIUM CURRENT SCHOTTKY BARRIER RECTIFIER
VOLTAGE RANGE - 90 and 100 Volts CURRENT - 5.0 Amperes
FEATURES
DD-201AD

f

~

.19014.81
DIA.

r'

1.0125.41

LI

1+

t

-+.37519.51

1.0 125.41

.05211.3) • +
.04811.21

T'

• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier con- -'-_
duction
"-"""'• Low power
~
loss, high efficiency
"'IIIIIIIIiIl .
• High current capability, low VF
"'""".,,
"""_
• High surge capacity
• Epitaxial c o n s t r u c t i o n ' • High temperature guaranteed: 250°C/10
seconds/.375" (9.5 mm) lead lengths at 5 Ibs.
(2.3 kg) tensions
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection

MECHANICAL DATA
Dimensions in inches

and
(millimeters)

Case: JEDEC DO-201AD Molded Plastic
Terminals: Axial leads, solderable per MIL-STD202, Method 208

Polarity: Color Band denotes cathode
Mounting Position: Any
Weight: .04 ounces, 1.1 gram
---------:M-=-~::-::)(j-=lM::-::U::-::M=-=R::-::A=-=7i=lN::-::G::-::S::-A::-::H:-::'D::-::ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

SYMBOLS

SB5100
100
71
100

UNITS

Maximum Recurrent Peak Reverse Voltage

VRRM

SB5SO
90

Maximum RMS Voltage
Maximum DC Blocking Voltage

VRMS
VDe

64
90

Maximum Average Forward Rectified Current
.375" (9.5 mm) lead length at TL=125'C

I(AV)

5.0

Amps

Peak Forward Surge Current
8.3ms single half sine·wave superimposed
on rated load (JEDEC Method)

IFSM

150.0

Amps

IRRM
dv/dt

1.0
1000

Amps

VF

0.79
0.69

Peak Repetitive Reverse Surge Current
(2.0us, 1KHz)
Voltage Rate of Change, (rated VR)
Maximum Instantaneous Forward Voltage at (NOTE 1)
IF = 5A, TA = 25°C
IF = 5A, TA = 100°C
Maximum Instantaneous Reverse Current at
DC Blocking Voltage (NOTE 1)
TA=25°C
TA=100°C
Typical Thermal Resistance,
(NOTE 2)

Junction to Ambient
Junction to Lead

Operating Junction Temperature Range
Storage Temperature Range

Volts
Volts
Volts

V/lJ.s

Volts

IR

0.5
20.0

RaJA
RaJL

15.0
6.0

TJ

-65 to +150

°C

TSTG

-65 to +175

°C

mA

°CIW

NOTES: 1. Pulse Test: Pulse Width=300 JIS, Duty Cycle=2%.
2. Units vertical mou'lled on a P .C. Board with .500' (12.7mm) lead length with 2.5' sq. (63.5mm2) copper pads.

-68-

RATINGS AND CHARACTERISTIC CURVES S8590 THRU S85100

FIG. 3 -

MAXIMUM NONoREPETITIVE PEAK
FORWARD SURGE CURRENT

300

I

I

I TTT'1
I,

I

T... ToImBX.

FIG. 1 -

...:
z
W

a:
a:
::J

U

,

FORWARD CURRENT DERATING CURVE

50

~

a: W

~ ffi

a: 11.

O~

IL

30
20

<

ffi

~

,

RESISTIVE OR INDUCTIVE LOAD
0.37S0(9.&nm) LEAD LENGTHS

W
C)

o

~t::
a:Z

150

100

50

130

I

JEDEC METHOD

I

I

I

200

OW
ILa:
lI<:a:
«::J
wU
11.

100

.............. ........

I

:
i"""

~r-

2.0

1.0

5.0

10

20

,

!
I

I

r--

50

\

1.0

o

250

a:~

,

40

000

W
C)(J)
a:W
::Ja:
(1)W
011.

8.311"8 SINGLE HALF SINE·WAVE

--

ill

I
in

50

NUMBER OF CYCLES AT 60Hz
FIGo 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

150

50

LEAD TEMPERATURE:C

I-

Z
W
a:
a:
::J
U

I

T~15O"C

/
/

/I
T'~25-C

10

0

a:

~ff3

FIG. 2 - TYPICAL REVERSE
CHARACTERISTICS

a: a:
OW
ILIl.
00::;:
::J«
0
W
z
«

10

...:
z

W
a:
a:
::J
U
Woo
(1)W
a: a:
Ww
>11.
W::;:
a:<

~

,/

10

01

...

T.._12SOC

lL

, ...

~

OW::;:
Z
<
IZ
<:

ILa.
U
Z
«

~

I

, /~
20

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

0.4

0.6

0.8

1.0

1.2

I

I

1.4

1.B

1.B

i3

«
11.
«
U

TYPICAL JUNCTION CAPACITANCE

1

............

200

TJ

ui
I-

.001

PULSE W1DTH-300~._
2% iUTY CYCLE

II
0.2

FIG. 5 -

01

T.. _25"C

o

400

I00

."

I

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

""

~

I

I00
01

T,.7f;"(\ . - ~

./

J.

IZ

~

..,

::Jj

J

«

T.... l000c ~ ~

u:-

I

10

100
80
60
40

~ 25}C

F
'.l.oMHz
~ vou. 50m VP1'

II

II

20

140

10
0.1

04

10

10

40

REVERSE VOLTAGE, VOLTS

IN~
-69-

I

80 1 uO

I

·70·

MEDIUM CURRENT
SCHOTTKY RECTIFIERS
7.5 TO 40.0 AMPERES
SEE
NEW

ISOLATED
PACKAGES

.....-

_ _ _ _ INsr~MIr - -71-

MBRF735 AND MBRF745
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts CURRENT - 7.5 Amperes
FEATURES
• Isolated plastic package has Underwriters
.Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
',,• For use in low voHage, high frequency' inverters, '
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds/.25", (6.35mm) from case
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS .

110-220

MECHANICAL DATA
+

PIN 10----,

......4°REF.......

PIN20---M-l
STANDARD POLARITY

Dimensions in inches and (millimeters)

case: IT0-220 Fully Overmolded Plastic
Tennlnals: Leads Solderable per MIL-STD-202,
Method 208
Polarity: As marked Mounting PosH/on: Any
Mounting Torque: 5 In.- lb. max.
W"ght: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25"C.ambient temperature unless otherwise specified. Resistive or inductive load. For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc-l05°C
Peak Repetitive Forward Current (Square Wave, 20 KHz)
at Te=105°C
Peak Repetitive Forward Current (Square Wave, 20 KHz)
at Te-l05°C
Peak Forward Surge Current,8.3ms single hail sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous
IF-7.5A, Te=125°C
Forward Voltage at
IF-15A, Te= 125°C
IF-15A, Te-25°C
Maximum Instantaneous Reverse Current Tc-l25°C
at Rated DC Blocking Voltage (NOTE 2)
Tc-25°C
Voltage Rate of Change (rated VR)
Typical Thermal Resistance (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1.Thermal Resistance Junction to Case.
2. Pulse Test: 3DOjIS Pulse Width, 2% Duty Factor.
3. 2.0jlS Pulse Width, f= 1.0 KHz.
-72-

SYMBOLS

IIBRF735

VRRM
VRWS
Voc

35
35
35

IIBRF745
45
45
45

UNITS

Volts
Volts
Volts

I(AV)

7.5

Amps

IFRM

15.0

Amps

IFRM

15.0

Amps

IFSM
IRRM

150.0
1.0
0.57
0.72
0.84
15.0
0.1
1000
3.5
-65 to +150
-65 to +175

Amps
Amps

VF
IR
dv/dt
ReJC
TJ
TSTG

Volts
mA
mA

V/JLS
°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBRF735 AND MBRF745

FIG. 3 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGI! CURRENT
175

W
a:W
::lao
",W

150

(!)'"

FIG. 1-FORWARD CURRENT DERATING CURVE

,.:
Z

00.

a::2

10.0

W

a:
a:

,

8.0

::l

()

0'"

3::g:
a::2
~ la:

,1\

100

(!)

2.0

«::l

W()

i'- r-.

~

100

-~

TJ-T",rMX.

............
f""".

50

I"'b

0.

25
5

1

10

20

100

50

NUMBER OF CYCLES AT 60Hz

f\

W

>

50

8.3ms SINGLE HALF
SINE·WAVE
(JEDEC METHOD)

75

~

W

;i

J"'... """

3::":

~

a: W
~ a: 6.0

125

FIG. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

150

....

CASE TEMPERATURE, ·C

50

~

Z
W
a:
a:

I

TJo125OC~

::l
()

I

10

.".. ~5·C~

~V

0

a:
~

FIG. 2-MAXIMUM REVERSE
CHARACTERISTICS

3::'"

.LL L

a: W
offi
!.LQ.
",:2

10

'L

h

::l«

0

W

~
....

Z

,.:
Z

W

I

'"~

a:
a:
::l

0.1 :1
TJ - 75°C

V

W",

~W

~ffi

I

....~

1.0

()

" I T J ' 25°C

Z

TJ" 125°C

~

1.0

L

,,/ /

.2

.3

PULSE WIDTH 300,...5 2"AI Duty Cycle

.4

.5

.6

.7

V
11/

0=2

w:2

z

V

~

....
~

1.0

4000

"'~
::l...J

Z

.9

FIG. 5-TYPICAL JUNCTION CAPACITANCE

~~ o.

....

.8

INSTANTANEOUS FORWARD VOL TAGE.
VOLTS

V

u..
0-

W
~ 1000

TJ "25°C

.01

~

800

U

600
400

....

'"Z

~

0.

I'

TJ= 25°C
F= lMHz

2000

r-- t-

VSI9' 50mVp·p

~

()

...........

200

.001

20

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

r'"

100
0.1

0.4

1.0

10

REVERSE VOLT AGE VOLTS

-73-

40

80 100

MBRF750 AND MBRF760
SCHOTTKY RECTIFIER
CURRENT - 7.5 Amperes

VOLTAGE RANGE - 50 and 60 Volts

FEATURES
• Isolated plastic package has Underwriters
Laboratory Flammability Classification 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed: 250°C/10
seconds/.25", (6.35mm) from case
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS

ITO-220

MECHANICAL DATA
+

PIN 1<>--"1
PIN 2 5-+f--I
STANDARD POLARITY

Dimensions in inches and (millimeters)

Case: ITO-220 Fully Overmolded Plastic
TermInals: Leads Solderable per MIL-STO-202,
Method 208

Polarity: As marked
Mounting PositIon: Any
Mounting Torque: 5 in. - lb. max.
WeIght: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load. derate current by 200/•.
SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Vohage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at
Tc=125'C
Peak Repetitive Forward Current (Square Wave, 20 KHz)
at Tc=125"C
Peak Forward Surge Current, a.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous
IF= 7.5A, Tc= 125°C
Forward Vohage at (NOTE 2)
IF= 7.5A, Tc= 25°C
Maximum Instantaneous Reverse Current at Tc=125°C
Rated DC Blocking Voltage (NOTE 2)
Tc=25°C
Voltage Rate of Change (rated VR)
Typical Thermal Resistance (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES:
1. Thermal Resistance Junction to Case.
2. Pulse Test: 3001J.S Pulse Width, 2% Duty Factor.
3. 2.01J.S Pulse Width, 1=1.0 KHz.

-74-

VRRM
VRWM
Voc

MBRF750
50

MBRF760
60

50
50

60
60

UNITS
Vohs
Vohs
Volts

I(AV)

7.5

Amps

IFRM

15.0

Amps

IFSM
IRRM

150.0
0.5
0.65
0.75
50.0
0.5
1000
3.5
-65 to +150
-65 to +175

Amps
Amps

VF
IR

dvldt
R8JC
TJ
TSTG

Vo~s

mA
mA
V/IlS
°CIW
DC
DC

RATINGS AND CHARACTERISTIC CURVES MBRF750 AND MBRF760
FIG. 3 -MAXIMUM NON-REPETIVE PEAK
FORWARD SURGE CURRENT
175

150

UJ
a:UJ
:::>a:
UlUJ
Oa.
a:::;
««

(!)'"

,..:

FIG. 1-FORWARD CURRENT DERATING CURVE

15

10.0

a:
a:



«

,

"'

75

~

4. 0

(!)

ffi

a:Z
OUJ
... a:
",a:
«:::>
UJO
a.

8.0

a:::;

~«

100

~>-

a

OUl
a: UJ

125

II

8.3ms SINGLE HALF SINE WAVE
(JEDEC METHOD)
T..-T"max.

FIG. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
50

150

>Z

CASE TEMPERATURE, °C

UJ
a:
a:
:::>

0

./

7

10

0

a:
«
~oo
a: UJ

FIG. 2-MAXIMUM REVERSE
CHARACTERISTICS

I-I"'"

Z
UJ
a:
a:
:::>

"'a.
00::;
:::>«
0
UJ
Z
«
>Z
«
>00

T... 'SOOC

T~125°C

,..:

~

1.0

"

~

."..

T...75OC /
0.1

:::>..J
0=
UJ::;

>00

J

"

.01

/

20

...

2000

0

W
Z
«

1000
800

>-

500

«
a.
«

400

U

/

V

0
40

60

80

100

.3

.4

.5

.6

.7

.8

.9

1.0

FIG. 5-TYPICAL JUNCTION CAPACITANCE

~

.001

~t~;i;'OTti '" 300JJ S-

2% Duty Cycle

4000

Q.

T....25oo

.2

/

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

./

Z
«
«

'I'
1.0

0.1
.1

oo~

>Z

/

~

0

UJUl
OOUJ
a: a:
UJUJ
>a.
~::;

~

offi

10

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

I

--

I II'

IT,JJ II

.....

!.,MHz
Vslg-5CmVp-p

["'...

200

..... 1-0.

140

100
0.1

0.4

1.0

10

REVERSE VOLTAGE, VOLTS

-75-

40

80100

MBR735 AND MBR745
SCHOTTKY RECTIFIER

VOLTAGE RANGE - 35 and 45 Volts

CURRENT - 7.5 Amperes
FEATURES

TO-220

~ .u~~:m

I'

-

(3~8lJ
ft

.150

j

.055 (1.401
.04511.141

J

.110(1~1 _

.600115.241
.575114.GlJ

1

.3S0 (9.141
.320 (8.131

!

,:;"'¥"""'~

US3 (29 5411
1.103 (28.021
.025
.5S0 (124.22i "MAX.

j

.530 (t4S1

"'11,:m~::;~

+--+ .210(5.331
.190 (4.831

·mo.....
.014( .3S1

-

• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction"'.
• Low power
loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 secondsl.25", (6.35mm) from case
• Guardring for transient protection

110(2.791
.090(2.291

(CASE POSITIVEI PIN 1 + <>----t.;,
STANDARD POLARITY PIN 2 - ~CIfSE

Dimensions in inches and (millimeters)

MECHANICAL DATA
Case: JEDEC TO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STD- 202,
Method 208

Polarity: As marked Mounting Position: Any
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Vo~age
Maximum DC Blocking Voltage
Maximum Average Forward Rectnied Current at
Tc=105°C
Peak Repetitive Forward Current(Square Wave, 20 KHz)
at Tc-l05°C
Peak Foward Surge Current,8.3ms single haff sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous
IF=7.5A, Tc=125°C
Forward Vo~age at
IF=15A, Tc-125°C
IF=15A, Tc=25°C
Maximum Instantaneous Reverse Current at
Rated DC Blocking Voltage
Tc=125°C
(NOTE 2)
Tc = 25°C
Voltage Rate of Change (rated VR)
Maximum Thermal Resistance (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES:

1. Thermal Resistance Junction to Case.
2. Pulse Test: 300J.lS Pulse Width, 2% Duty Factor.
3. 2.0J.lS, 1.0 KHz.
-76-

SYMBOLS

MBR735

MBR745

UNITS

VRRM
VRWM
Voc

35
35
35

45
45

Vo~s

45

Volts

Vo~s

I(AV)

7.5

Amps

IFsM

15.0

Amps

IFSM
IRRM

150.0
1.0

Amps
Amps

VF

0.72
0.84

Volts

IR

15.0
0.1
1000
3.0
-65 to +150
-65 to +175

rnA
rnA
V/IlS
°CIW
°C
°C

0.57

dv/dt
RaJC
TJ
TSTG

RATINGS AND CHARACTERISTIC CURVES MBR735 AND MBR745

FIG. 3 -MAXIMUM NON-REPETIVE PEAK
FORWARD SURGE CURRENT

-r

175

r:
~

FIG. 1 -

0

10.0

0:
0:

3

:"'~

FORWARD CURRENT DERATING CURVE

OUl

80

/;;;;j;;*~-I-I-4-*4;;f;~~,ct--t--jIH

o:W
~~60
<{o:

'",+-

40

;:;

2.0

~

I""-- r--..

0

r--.

I

~~ ~+-4-~-+~~}-+-~-+-4--r-~ct--t-i
~

,

TJ..TJ max.

i"r--

;

h

II

8.3ms SINGLE HALF SINE WAVE
(JEDEC METHOD)

;
5

'I\.

10

20

50

100

NUMBER OF CYCLES AT 60Hz

~+-4-~-+~I--+-++-+-l--r-t-+"V--t

~

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

OL-~~L-L-~L-L-L-L-~~L-L-~
o
~
100

~

f-

CASE TEMPERATURE, "C

~::;,....o-:

Z

I

W

0:
0:

TJ0125"C~

::::>

U

o

I

10

L

~

~5"C"!:

0:

<{

FIG. 2 - MAXIMUM REVERSE
CHARACTERISTICS

~~

1

offi

10

h I/'

Ul:2

o::::><{

/

'/ II

LLo..

10

/TJ o25"C

W

Z

TJ ::: 125°C

~

<{

fZ
<{
fUl

1

I

./

V

V

....

I

111 1

Z

1

30o'~PULSE \il/IDTH
2"" Duty Cycle
10

TJ ::: 75°C

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS
FIG. 5 -

TYPICAL JUNCTION CAPACITANCE

4000

V

V

LL

:WOO

Q.

ui

TJ=25°C

1

U

1000

<{

800

Z

f-

0<{

.,

iI lI
TJ1"25°C
f.. 1MHz

r- I-

\ Vsig.. 50mVp-p

600
400

0..
<{

U

..

............

200

00 1

20

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

100
01

04

10

10

REVERSE VOLTAGE. VOLTS

-77-

....
40

80 100

MBR750 AND MBR760
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 50 and 60 Volts CURRENT - 7.5 Amperes
FEATURES
TO-220

.420(10.67)
.380 (9.65)

.155 (3.94) DIA
.145p.68)
.

-----I .m\i:~~l
.055 (1.40)
-+ • .045 tl.14)

.150(3~81) =~
·lJDt;!J!!l ~

ft

.620 (15.75)

P~N~

PIN

~r=~11

'0)

. i:lfllr.iiID

. t

"11·:m~:l;~

.......... 210(5.33)
.190(4.83)

T

.600 (15.24)
.575 tl4.6lJ

1

.360 (9.14)
.320 (8.13J

~

1163(29.54)1
1.103 (28.02)

.025

j~:~~rJMllX'
'~+I"

..

• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Metal to silicon rectifier,
majority carrier conduction
"\
• Low power
loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds/.25", (6.35mm) from case
• Guardring for transient protection

MECHANICAL DATA

.110(2.79)
.090(2.29)

(CASE POSITIVE)
PIN 1 • <>------t...;.
STANDARD POLARITY PIN '- - o--+f--lCASE

Dimensions in inches and (millimeters)

Case: JEOEC TO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STO- 202,
Method 208
Polarity: As marked
Mounting Position: Any
WeIght: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at
Tc=125°C
Peak Repetitive Forward Current (Square Wave, 20 KHz)
at Tc=125°C
Peak Forward Surge Current, 8.3ms single half sine-wave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward Voltage at
(NOTE 2)
IF=7.5A, Tc =125°C
IF=7.5, Tc=25°C
Maximum Instantaneous Reverse Current at Tc=25°C
Rated DC Blocking Voltage (NOTE 2)
Tc=125°C
Voltage Rate of Change (rated VR)
Typical Thermal Resistance (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range

NOTES:
1. Thermal Resistance from Junction to Case.
2. Pulse Test: 3OO!J.S Pulse Width, 2% Duty Factor.
3. 2J'S Pulse Width, f=I.0 KHz.

-78-

SYMBOLS

MBR750

MBR760

VRRM
VRWS

50
50
50

60
60
60

Voc

UNITS
Volts
Volts
Volts

I(AY)

7.5

Amps

IFRM

15.0

Amps

IFSM
IRRM

150
0.5

Amps
Amps

VF

0.65
0.75
0.5
50.0
1000
3.0

Volts

V/!J.s
°CIW

-65 to +150
-65 to +175

°C
°C

IR
dv/dt
R9JC
TJ
TSTG

rnA
rnA

RATINGS AND CHARACTERISTIC CURVES MBR750 AND MBR760

FIG. 3 -MAXIMUM NON-REPETIVE PEAK
FORWARD SURGE CURRENT
175
150
W
C)(/)

FIG. 1 -

~

zW

10.0

a:
a:
::>

6.0

o

FORWARD CURRENT DERATING CURVE

!\

OC/)
a: W

«ffi

6.0

3:0..

gs~

u..

W

2.0

~

o

125

00..

a::::;;
««
3:~
a:Z
OW
... a:
>!a:
«::>
wO

,

o

50

100

\

I!

""...

II

8.3... SINGLE HALF SINE WAVE

I (JEOEC METHOO)

__ r----- _

T".TJ max.

......

100

...

~

75

,

........ ......

50

~

i

0..

\

4.0

W
C)

«
a:

a:W
::>a:
(l)W

25 L---

5

1

10

20

!
100

50

NUMBER OF CYCLES AT 60Hz

FIG.4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
50

150

..L

~

CASE TEMPERATURE, ·C

io""

Z
W
a:
a:
::>

./

0
0

V

10

I--

a:

~(I)

FlO. 2 - MAXIMUM REVERSE
CHARACTERISTICS

UJ

a:
oce

... ~

10

~ T... 15O'C

/

'I'

(I):::;;

::>«

0

1.0

UJ

~
~
Z
W
a:
a:
::>

T... 125"C

".

l.,....oo-' ~

1.0

Z
«

~

Z
«

~
0.1

0

2

WC/)
C/)w
a: a:
Ww

T....75OC . /

>0.. 0.1

~~
C/)-

::>--'
O:::!
W:::;;

z
«
z~

«
~
C/)

J

~
(I)

/
.01

PULSE WIDTH

"

.3

.6

FIG. 5 - TYPICAL JUNCTION CAPACITANCE

...

Q.

/

2000

u.i
0

Z
«

~

(3
«

I

0..

1000

Lsllll

r-- ....

f_1MHz
Vsig_50mVP1>

800
600
400

«

/

20

0
40

60

80

100

1.0

4000

~

.001

=300 us -

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

~
T...25"C

/

TJ = 25°C
2% Duty Cycle

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

f"'..

200
100
0.1

ro.""
0.4

10

10

40

REVERSE VOLTAGE. VOLTS

IN~~
-79-

80 100

MBRF1035 AND MBRF1045
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts CURRENT - 10.0Amperes
FEATURES
ITO-220

.13 •• 008
(3.3 to.21

,.1071.008
(2.7'0.21

• Isolated plastic package has Underwriters
Laboratory Flammability Classification 94V-0
• Metal to silicon rectifier majority
carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Guardring for transient protection
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Intemallnsulation: 1.SK VRMS
• High temperature soldering guaranteed:2S0°C/1 0
secondsl.2S"(6.3Smm) from case

MECHANICAL DATA
+

PIN1~

PIN 2 0---+1--1
STANDARD POLARITY

Dimensions and (millimeters)

Case: ITO-220 Fully Overmolded Plastic
Terminals: Leads Solderable per MIL-STD- 202,
Method 208
Polarity: As marked Mounting Position: Any
Mounting Torque: S in.- Ib.max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectnied Current at
Tc-135°C
Peak Repetitive Forward Current,
(Square Wave 20 KHz) at Te = 135°C
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 2»
Voltage Rate of Change at (rated VR)
Maximum Instantaneous Forward Voltage at (NOTE 1)
IF= 10A, Te= 125·C
IF= 20A, Te= 125·C
IF= 20A, Te= 25·C
Maximum Instantaneous Reverse Current at
DC Blocking Voltage (NOTE 1)
Te= 125·C
Te - 25·C
Typical Thermal Resistance, Junction to Case
Typical Operating Junction Temperature Range
Typical Storage Temperature Range

SYMBOLS

MBRF1035

AfBRF1045

VRRM
VRWS
Voc

35
35
35

45
45

I(AV)

10.0

Amps

IFSM

20.0

Amps

IFSM
IRSM

150.0
1.0
1000

Amps
Amps

dv/dt

VF

IR
R8JC
TJ
TSTG

NOTES: 1. Pulse Test: Pulse Width 3OOIIS, Duty Cycle 2%.

2. 2.0IJS Pulse Width, f=I.0KHz.
-80-

45

UNITS
Volts
Voks
Volts

VlIlS

0.57
0.72
0.84

Volts

15.0
0.1
2.2
-65 to +150
-65 to +175

mA
mA
°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBRF1035 AND MBRF1045

FIG. 3 ·MAXIMUM NON·REPETIVE PEAI':
FORWARD SURGE CURRENT
175

150

UJ
C)I/)
a:UJ
:::>a:
I/)UJ

FIG. 1-FORWARD CURRENT DERATING CURVE
12

,
1\,

««

;:..:

a:Z
OUJ
LLa:
:.:a:
«:::>
UJU

75

50

o

50

100

....

'r-~

II.

~

o

'" '"

125

011.
a:~ 100

\

II
IIT""T._.
8.3ms SINGLE HALF SINE WAVE
(JEDEC METHOD)

25

1

10

-

20

50

100

NUMBER OF CYCLES AT 60Hz
FIG. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

...Z

150

CASE TEMPERATURE. 'C

UJ
a:
a:
:::>
U

50 I

II!"::.

T,

~

\25 C
0

10 I

V

.L'

"""'

... V

0

a:

~lll

FIG. 2-MAXIMUM REVERSE
CHARACTERISTICS

a: a:
OUJ
LLQ.
I/)~
:::>«
0
UJ
Z
....«Z
....I/)«

10

~ f-T,

125 C
0

.,:
Z

UJ
a:
a:
:::>

1.0

1.0

0.1

~

~

"

.JIll"

/

V

TJ =- 25°C

II

j
0.1

.1

I

/

PULSE WIDTH = 300 fJ.S -

II
.2

.3

~% Duty ICycle I
.4

.5

.6

.7

.9

.8

1.0

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

TJ = 75° C

FIG. 5-TYPICAL JUNCTION CAPACITANCE

I/):!;

4000

el;;!

i

~

UJ~

~«

/
j

~

u
111111

ffiffi
iiia:~II.

L

V

.01

/'

II.

iii

TJ = 25° C

u

Iii

Z
«

1000
800

U

600
400

....

~

«
II.
«
U
.001

20

40

60

80

J

2000 ,

M5~ I I

0.

100

120

!.1MHz
Vslg.50mVp-p

i"'"

200

140

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

1"00..

I

0.1

....
...... i'"

0.4

1.0

10

REVERSE VOLT AGE. VOLTS

-81-

40

90 100

MBRF1050 AND MBRF1060
SCHOTTKY RECTIFIER
VOLTAGE RANGE -50 and 60 Volts CURRENT· 10.0 Amperes
FEATURES
ITO-220

.13

~

.008

(3.3 ~o. 2)

• Isolated plastic package has Underwriters
Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
+ High current capability, low VF
• High surge capacity
• Epitaxial construction
• Guardring for transient protection
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Internal Insulation: 1.5K VRMS
,.lon.ooa • High temperature soldering guaranateed:
(2.1~0.2)
250°C/10 seconds/.25"(6.35mm) from case

MECHANICAL DATA
+

PINI~

PIN2~
STANDARD POLARITY

Dimension in inches and (millimeters)

Case: ITO-220 Fully Overmolded Plastic
Terminals: Leads Solderable per MIL-STO-202,
Method.208
Polarity: As marked
Mounting Position: Any
Mounting Torque: 5 in. - lb. max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at Tc= 133°C
Peak Repetitive Forward Current,
(Square Wave 20 KHz) at Tc= 133'C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on ratea:
enW
Oil.
a:::;

FIG. 1-FORWARD CURRENT DERATING CURVE

~

10

a:
a:
::>
U
oen
!1f Il:!

s:W

~~

«

\

W

150

e"",

12

125
100

3:~

a:z
OW
u.a:
><:a:
<::>
wU

6

75

'"

~ .....

..............

50

r-....

~

I-

CL.

25

10

4

20

100

50

NUMBER OF CYCLES AT 60Hz

W

~

a:

FIG. 4-TVPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

W

~

~I'-

o

o

50

100

50

150

I-

CASE TEMPERATURE. 'C

Z

W

V

a:
a:

TJ = 150 C
0

::>
U

10

" ..,..

.,

, / /'"

0

a:

<

FIG. 3 - MAXIMUM REVERSE
CHARACTERISTICS

-

10

TJ

~

~

Z

W
a:
a:
::>

125 C
0

Z

f

'"~

0.1. 1

."",.. ~

TJ

"'-

25° C

L

<

~

L

1/

/ /

1.0

I-

If
.2

.3

I

I
PULSE WIDTH - 300 IJ.S
2% Duty Cycle

.4

.5

.6

.8

.7

.9

1.0

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

TJ = 75° C

0.1

FIG. 5- TYPICAL JUNCTION CAPACITANCE
4000

u. 2000

V

Z

<

I-

Z

L

If

I-

0=
w::;
<
en

en::;
::><
0
W
Z
<

1.0

U

Wen
enw
a: a:
Ww
>CL.
W::;
a:<
en::>...J

3: en

a: w
Oa:
u.~

./

.01

a
ui

....... TJ~25·C

U
Z

<

I-

I-

~

(3

i!"'"

<
0.
<

~ 2~·

T,
C
1_1.0 MHz

1000
600

Vsig_SOmVp-p

600
400

r'"

U

........

200
.001

~

~

00

00

100

1~

PERCENT OF RATED PEAK
REVERSE VOLTAGE

1~

100
0.1

0.4

1.0

10

REVERSE VOLTAGE. VOLTS

·83·

i"""'o

~I'40

80 100

MBRF1090 AND MBRF1 01 00
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 90 and 100 Volts

CURRENT -10.0 Amperes
FEATURES

ITO-220

.13 '.008

(3.3 to.2)

,.IO?! .008
(2.7 t 0.2)

• Isolated plastic package has Underwriters
Laboratory Flammability Classifications 94V-0
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• Internal insulation: 1.Sk VRMS
• High temperature soldering guaranteed: 250°C/10
seconds/.25"(6.35mm) from case

MECHANICAL DATA
+

PIN 1 <>-----]
PIN 2 O--+t-l
STANDARD POLARITY

Dimensions in inches and (millimeters)

Case: ITO-220 Fully Overmolded Plastic
Terminals: Leads Solderable per MIL-STD-202,
Method 208
Polarity: As marked Mounting Position: Any
Mounting Torque: .08 ounces, 2.24 gram
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load. For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectnied Current
at Tc=125°C
Peak Repetitive Forward Current, rated VR
(Square Wave 20 KHz) at Te=125°C
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 2)
Voltage Rate of Change (rated VR)
Maximum Instantaneous
IF= 10A, Te= 25°C
Forward Voltage at (NOTE 1)
IF= 1OA, Te= 125°C
IF= 20A, Te= 125°C
IF= 20A, Te= 25°C
Maximum Instantaneous Reverse Current at rated
DC Blocking Voltage
Te=125°C (NOTE 1)
Te=25°C
Typical Thermal Resistance, Junction to Case
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1. Pulse Test: Pulse Width 300 115, Duty Cycle 2%.
2. 2.0115 Pulse Width, 1=1.0 kHz.
-84-

SYMBOLS
VRRM
VRWM
Voc

IlIBRFI090
90
90
90

MBRFt0100
100
100
100

UNITS
Volts
Volts
Volts

I(AV)

10.0

Amps

IFRM

20.0

Amps

IFSM
IRRM
dv/dt

150.0
0.5
1000
0.80
0.70
0.85
0.95

Amps
Amps

150.0
0.15
2.2
-65 to +150
-65 to +175

rnA
rnA
°CIW
°C
°C

VF

IR
R8JC
TJ
TSTG

V/IJ.S

Volts

RATINGS AND CHARACTERISTIC CURVES MBRF1090 AND MBRF10100

FIG. 2 -MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT
175

,

a:W

FIG. l-FORWARD CURRENT DERATING CURVE

\

\

8.3 ms SINGLE HALF SINE-WAVE
JEDEC METHOD

,

W
150
(!lUl

::> a:

UlW

125

O~

~« 100
~~
a:Z
OW
!La:

75

~ i3
a.

,

""

......

t-.....

o

50

100

.............

50

25

5

1

\
o

r--..t--.

10

....

20

50

100

NUMBER OF CYCLES AT 60Hz
FIG. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

150

10

CASE TEMPERATURE, ·C

1/

/
FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS
I

0

I

TJ

~

V

.1

~

=125°C

,1,...0-' ~

0=

T,
25° C
PULSE WIDTH - 300f.l.s _
2% Duty Cycle

I

I

I
.01

~

1

7'

I'"

.2

.3

.4

.5

.6

.7

.8

.9

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

TJ =75°C

FIG. 5-TYPICAL JUNCTION CAPACITANCE
4000

!L

V

.01

ui
~

TJ = 25°C

«

f-

13
«
a.
«

~

~

.001

V

~

~

u
00

00

100

1W

T

TJ = 25° C

2000

1.0 MHz
V sig = 50mVp-p

f

Q.

:""'-i"-o
1000
800
600

40 0

200

1~

PERCENT OF RATED PEAK
REVERSE VOLTAGE

100
0.1

0.4

1.0

10

REVERSE VOLTAGE, VOLTS

-85-

40

80 100

MBR1035 AND MBR1045
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts CURRENT - 10.0 Amperes
FEATURES
TO-220
-

.160(4:06)

...1 • .055 11.40)
.045 i1.141

"
-rr ~

.15013.811
.13013.30)
.36019.14)
.32018.131

.60011.24)
.575114.&11

1

l

l
I"~";

3129.54)
3128.02)

.,025
MAX.

.530T·46)

"I I' :~5~ ~:l;:

+--+ .21015.33)
.19014.83)

.022[0 56) •
•014[0.36)

IJ"",",
.09012.29)

ICASE POSITIVE)
PIN 1·~
STANDARD POLARITY PIN 2 - ~CASE

Dimensions in inches and (millimeters)

• Plastic package has Underwriters Laboratory
Flammabilty Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• High temperature soldering guaranteed: 250°C/10
seconds/.25"(6.35mm) from case

MECHANICAL DATA
Case: JEDEC TO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STD- 202,
Method 208

Polarity: As marked
Mounting Position: Any
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25"C ambient temperature unless otherwise specilied.
Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current at
Te-135°C
Peak Repetitive Forward Current,
(Square Wave 20 KHz) at Te= 135°C
Peak Forward Surge Current
8.3ms single.haH sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 2)
Voltage Rate of Change at (rated VA)
Maximum Instantaneous
IF=10A, Tc=125°C
Forward VoHage (NOTE 1)
IF=20A, Tc=125°C
IF=20A, T c=25°C
Maximum Instantaneous Reverse Current at rated
DC Blocking VoHage (NOTE 1)
Te= 125°C
Te= 25°C
Maximum Thermal Resistance, Junction to Case
Operating Junction Temperature Range
Storage Temperature Range

SYMBOLS

MBR1035

MBRI045

UNITS

VAAM
VAWM
VDC

35
35
35

45
45
45

VoRs
VoRs
Volts

-

I(AV)

10.0

Amps

IFSM

20.0

Amps

IFSM
IAAM

150.0
1.0
1000
0.57
0.72
0.84

Amps
Amps
V/(J.S

15.0
0.1
2.0
-65 to +150
-65 to +175

rnA
rnA

dv/dt

VF
IR
R8JC
TJ
TSTG

NOTES: 1. Pulse Test: Pulse Width 300!'S, Duty Cycle 2%.
2. 2.0!'S Pulse Width, 1=1.0 KHz.
-86-

VoRs

°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBR1035 AND MBR1045

FIG 3 • MAXIMUM NON·REPETmVE
SURGE CURRENT
175

w
~'"
a:w

FlO 1 • FORWARD CURRENT DERATING CURVE

~ffi

12

~

-<

0.4

~~

~

~

""I'"""

a:!z

f2 tl!

75

...

60

~§

--

wO

~

W

W

a:~

,

i3
ffffl
LL

"'-

125

~ • 100

~

a:

0.6

~

0'"

10

~ffi

160

25
0.1

0.5

0.2

10

I"""- r--

20

100

50

NUMBER OF CYCLES AT 60 Hz
0.2

o

1\

o

60

FlO 4· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
60

160

100

CASE TEMPERATURE,' C

I

V'

Jc V

IT.. 1
10

FlO 2 • MAXIMUM REVERSE
CHARACTERISTICS

f

10.0

10"'"
~

~

f

1/

1.0

T...25'C

f-- r- T...125'C
LL

!iW

1

1.0

a:
a:

0.1

i3

w'"
"'w
a: a:
Ww
> ...

tl!~

~

io!""

.10

1/ 10""

~

U

IU

PULSE WIDTH-3OO1&S
2% DUTY CYCLE

U

U

U

U

U

u

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

I/'
T....75'C

FlO 5 • TYPICAL JUNCTION CAPACITANCE
4000

"'~

§:i
z
~
~

I

... V

.01

u. 2000

V'
T...25'C

C!,

w

°~
.....~
°
Z

ii!:

.001

o

20

40

60

60

100 120

140

PERCENT OF RATED VOLTAGE PEAK
REVERSE VOLTAGE

l00c
800

....

T;25°6

800
400

"

200

100
0.1

OA

1.0

4

10

REVERSE VOLTAGE, VOLTS

-87-

f""'ol'"
40

60 100

MBR1050 AND M'BR1060
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 50 and 60 Volts CURRENT -10.0 Amperes
FEATURES
To-220

:j

.160 (4. )
_.055 (1.40)
.045 (1.14)

~

:gg~t~M ,j

-fr

.360 C9.l4J
.320 (8.13)

.600(1.24)
.575 (l4.6ll

!

1
. ~~.
r~";

3 (29.54)
3 (28.02)

1

.530Ct 46 )

"11·:gm~::;l

_ _ .210(5.33)
.190(4.83)

I::;

.02210.56).
.01410.36)

• Plastic package ,has Underwriters Laboratory
Flammability Classification~ 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power
loss, high efficiency
• High current capability, 10V' VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• ,Guard ring for transient protection
• High temperature soldering guaranteed: 250°C/1 0
secondsl.25"(6.35mm) from case

.110(2.79)
"]9ii'i2.29)

(CASE POSITIVE) PIN'l +<>----u
STRNDARD POLARITY PIN2 -~CIiSE

Dimensions in inches and (millimeters)

MECHANICAL DATA
Case: JEDEC TO-220 Molded Plastic
Termlnals:Leads Solderable per MIL-STD- 202,
Method 208

PolarIty: As marked Mounting Position: Any
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
.
For,capacitive load, derate current by 20%.
Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current'
Tc=133°C
Peak Repetitive Forward Current.
(Square Wave 20 KHz) at Tc=,133°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
PeaklRepetitive Reverse Surge Current (NOTE 2)
Voltage Rate of Change at (rated VA)
Maximum Instantaneous
IF=10A, Tc=25°C
Forward Voltage (NOTE 1)
IF=10A, Tc=125°C
IF=20A, Tc=125°C
IF=20A, Tc=25°C
Maximum Instantaneous Reverse Current at rated
DC Blocking Voltage (NOTE 1)
Tc=125°C
Tc=25°C
Maximum Thermal Resistance, Junction to Case
Operating Junction Temperature Range
Storage Temperature Range

SYMBOLS

MBRI050

AfBR1060

UNITS

VAAM
VAWM
Voc

50
50
50

60
60
60

Volts
Volts
Volts

I(AV)

10.0

Amps,

IFSM

20.0

Amps

IFSM
IAAM

150.0
0.5
1000
0.80
0.70
0.85
0.95

Amps
Amps

50.0
0.15
2.0
-65 to +150
-65 to +175

rnA
rnA
°CIW
°C
°C

dvldt

VF

IA
R8JC
TJ
TSTG

NOTES:

1. Pulse Test: Pulse Width 300 !IS. Duty Cycle 2%.
2. 2.0 !IS Pulse Width. 1=1.0 KHz.
-88-

V/IlS

Volts

RATINGS AND CHARACTERISTIC CURVES MBR1050 AND MBR1060

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
175

100

W

ClUJ
O:W
::::>0:

FIG.1- FORWARD CURRENT DERATING CURVE
12

"-'
Z
W

,

U

OC/l

o:W

ffi
~O-

00..

0::;:
««
:S:"-'
o:Z

1\

0:
0:
::::>



50

u.o:

wU

6

8.3ms SINGLE HALF
SINE WAVE
(JEDEC METHOD)

i'
............

r--.... t"'--o

I'"

0..

0::;:

fr«

i\

25
1

\,

W

Cl
«
0:
W
>

«

o

"'- .....

125

C/lW

10

tLJmax I

"-

o

50

100

10

20

50

100

NUMBER OF CYCLES AT 60Hz

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
50

150

f-

CASE TEMPERATURE, "C

Z

I'

W

0:
0:
::::>

U

o
0:
«

FIG. 3 - MAXIMUM REVERSE
CHARACTERISTICS

TJ

~~

f

I J

C/l:;:

::::>«

o

150°C

10

offi
u.o..

10

~

10

L

V V

f

~

TJ

=:

25°C

W

Z

TJ - 125°C

i-"""

«
f-

Z

.L

«

I

f--

C/l
Z

o1

j,...ooo'"
1

~

I--"

TJ

I

V 1

PULSE WIDTH 300 iJs
2"0 Dull Cycle

10

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

= 75 c C

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
4000

V
./ V

1

TJ " 25°C

U.

2000

U
Z

1000

a.
W

«

800

U

600

f-

,.

TJ=2S!C

«
0«

U

f=1.0MHz
Vsig",SOmVp-p -

400

~

~

200

00 1

20

40

60

80

100

120

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

01

04

10

10

REVERSE VOLTAGE, VOLTS

-89-

-40

80100

MBR1090 AND MBR10100
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 90 and 100 Volts CURRENT -10.0 Amperes
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power
loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• High temperature soldering guaranteed:
250°C/10secondsl.25"(6.35mm)

TO-220

*

.15013.81)
.13013.30)

-p-

~

j

.1GO 14.0G)
, .05511.40)
.04511.14)

.GOOJ5.24)
.575114.&ll

.3GO (9.14)
.32018.13)

1

1

~
3129.
1.10 3 128.02)

1

roo"",;

.,025
MAX.

.530It 4G )

+11·:gmg:::l

- . . .21015.33)
.19014.83)

ICASE POSlTIVEl

·N21D.5G).
.0141O.3G)

I .... 11012.79)
-

MECHANICAL DATA

.090(2.29)

Case: JEDEC TO-220 Molded plastiC
Terminals: Leads solderable per MIL-STD-202,

PIN 1 + <>-----t...;.

STANDARD POLARITY PIN 2 - ~CASE

Method 208

Polarity: As marked Mounting Position: Any
Weight: .08 ounces, 2.24 gram

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Vo~age
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at
Tc.. 133°C
Peak Repetitive Forward Current,
(Square Wave 20 KHz) at Tc=133°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 2)
Voltage Rate of Change, (rated VR)
Maximum Instantaneous
IF- lOA, Tc= 25°C
Forward Voltage at
IF= lOA, Tc= 125°C
(NOTE 1)
IF=20A, Tc= 125°C
IF= 20A, Tc= 25°C
Maximum Instantaneous Reverse Current at Rated
DC Blocking Voltage (NOTE 1)
Tc=25°C
Tc=125°C
Maximum Thermal Resistance, Junction to Case
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1. Pulse Test Pulse Width 300 "s, Duty Cycle 2%.

2. 2.0"s Pulse Width, 1.0 KHz.

-90-

SYMBOLS

MBRf090

MBRfOfOO

UNITS

VRRM
VRWM
Voc

90
90
90

100
100
100

Volts
Volts
Volts

I(AV)

10.0

Amps

IFSM

20.0

Amps

IFSM
IRRM
dv/dt

150.0
0.5
1000
0.80
0.70
0.85
0.95

Amps
Amps

0.1
25.0
2.0
-65 to +150
-65 to +175

rnA
rnA
°CIW
°C
°C

VF
IR
IR
R8JC
TJ
TSTG

VlWS
Volts

RATINGS AND CHARACTERISTIC CURVES MBR1090 AND MBR10100

FIG. 2 - MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
I

TJ_TJm&X.

II!
~

~

!i
III

a:
a:
::>

\,

8.0

~

~
III

4.0

~

2.0

1\

~

,

OW

::=~
o:z

75

11.0:
:.:0:
«:::l

wO

50

,

....... .......

00..

0:::< 100
««

8.0

8.3ms SINGLE HALF
SINE WAVE
(JEDEC METHOD)

............. ~

a:W
",W

:::l0: 125

10

0

IE

III
C)

~

400

f"Ioo
200

140

100
0.1

0.4

1.0

10

40

80100

REVERSE VOLTAGE, VOLTS

INsr~
-91-

SBLF1030 AND SBLF1040
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 30 and 40 Volts

CURRENT - 10.0 Amperes
FEATURES

ITD-220
.1581.008
[4t.021
.13 t .008
(3.3 0 0.21

r--+ '

.189 MAX.
[4.S1

,.10n.00s
[2.7 t O.21

• Isolated plastic package has Underwriters
Laboratory Flammability Classification 94V-O
• Isolated overmolded package
• Metal to silicon rectifier,
majority carrier conduction
• Low power
loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• Guardring for transient protection
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds/.25", (6.35mm) from case
• Internal Insulation: 1.5K VRMS

MECHANICAL DATA
+

PIN 1 0------,
PIN 2 O--+I-l
STANDARD POLARITY

Dimensions in inches and (millimeters)

Case: ITO-220 Fully Overmolded PlastiC
Terminals: Leads Solderable per MIL-STD-202,
Method 208
Polarity: As marked
Mounting Position: Any
Mounting Torque: 5 in - Ibs max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise spscified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.
Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward
Rectified Current
Peak Forward Surge Current, 8.3ms single
~alf sine-wave superimposed on rated load
JEDEC Method)
Maximum Instantaneous Forward Voltage
IF-lOA, (NOTE 2)
Maximum Average Reverse Current at
Tc=25'C
Rated DC Blocking Voltage per element TC-l00'C
Typical Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range

SYMBOLS

SBLF1030

SBLF1040

UNffS

VRRM
VRMS
Voc

30
21
30

40
28
40

Volts
Volts
Volts

IIAV)

10.0

Amps

IFSM

250.0

Amps

VF

0.60
1.0
50.0
3.5
-40 to +125

Volts

IR
R9JC
TJ, TSTG

NOTES:

1. Thermal Resistance from Junction to Case.
2. Pulse Test: 300 lIS Pulse Width, 2% Duty Factor.

-92-

mA
'CIW
'C

RATINGS AND CHARACTERISTIC CURVES SBLF1030 AND SBLF1040

FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
8.3ms SINGLE HALF SINE WAVE
(JEDEC METHOD)

T...TJmBX.

~

~

'"

FIG.1·
FORWARD CURRENT DERATING CURVE
'0.0

~een

......

"' ....

i"

:\

cr W

;Iho
~~
II. c .

oo

~wc

-

~

5

~

2.0

o

t'......

\

10

o

~

20

100

50

NUMBER OF CYCLES AT 60Hz

\

'00

'0

"'~

FIG. 4 • TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
~

CASE TEMPERATURE. 'C

100

W

a:
a:

::l

o
o

/

0

a:

;13

FIG.3 • TYPICAL

REVERSE CHARACTERISTICS

~ffi

'00

I

"-A-

V

en~

::lC •.0

@
Z
C

!

. / 10-'
TJ·100·C-

.v

r-

~

TJ ' 25'C

.1
.0

PULSE WIDTH. 300jJl
~

·11
.2.3.0.5.6

.J!'

FIG. 5 • TYPICAL JUNCTION CAPACITANCE
0000

V

II.
A

-'

0
Z

'000

C

100
100

C

400

AC
0

.J1I'

20

40

10

10

'00

'20

-

2000

u.l

T,":aoC

...(3
.0'

~--:
.•.•

INSTANTANEOUS FORWARD VOLTAGE •
VOLTS

\....-" ~ T,'15'C

V

Duty Cycle

'40

i

III

IT." ~5Jd

1"-0""

t·1MHz
Vlig = SOmVp·p

200
'00

PERCENT OF RATED PEAK
REVERSE VOLTAGE

0.'

0.0

'.0

'0

REVERSE VOLTAGE. VOLTS

-93-

80100

SBL1030 AND SBL1040
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 30 and 40 Volts

CURRENT - 10 Amperes
FEATURES

TO-220

.42000.611
.380 (9.651

i+-:'

.lS0(3~81JW
_
f

.62005.151

PIN

P~NimJ

11::;5;=:::;9=

.

.DlI1i.rn

~

.155 (3.94)0IA
_1_.055(1.40)
.145p.68)
.-r----.,...-+- Ji45iIl4j

bkom
(. 6
t

.1j Oc:!J!!l
t
.360 (9.14)
.320 (8.13J

I

.600(15.241
.575 (14.611

1

l

1.163 (29 5411
1.103 (28.021
......025
1.560 (124.22)
MAX.
.530

(t461

• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
2S0·C/10 seconds/.2S", (6.3Smm) from case
• Guardring for transient protection

MECHANICAL DATA
"11.:m~:::l

+--+ .210(5.331
.190 (4.831

.02210.56)·1 .... 110(2.191
.01410.361
.090(2.291

(CASE POSITIVE) PIN 1 + ~
STANDARD POLARITY PIN 2 - ~CASE

Dimensions in inches
(millimeters)

Csse: JEOEC TO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STO-202,
Method 208
Polarity: As marked
Mounting Position: Any
Weight: .08 ounces, 2.24 gram

CROSS REFERENCE GUIDE
GI
SB11040
SBl1030

FUJI

SHINDENGEN
S5S4M
S5S3M

ERC62-004

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.

Maximum Recurrent Peak Reverse Vo~age
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
at Tc=110'C
Peak Forward Surge Current, 8.3ms single
half sine-wave superimposed on rated load
(JEDEC Method)
Maximum Instantaneous Forward Voltage at
IF=1 OA, Tc~25'C (NOTE 2)
Maximum Instantaneous Reverse Current at
Rated DC Blocking Voltage (NOTE 2)
Typical Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range

Tc= 25'C
Tc=100'C

NOTES:
1. Thermal Resistance from Junction to Case.
2. Pulse Test: 300 J.lS Pulse Width, 2% Duty Cycle.

-94-

SYMBOLS

SBLt030

SBL1040

VRRM
VRMS
Voc

30
21
30

40
28
40

UNITS
Voks
Volts
Volts

I(AV)

10.0

Amps

IFSM

250.0

Amps

VF

0.60

Voks

IR
ReJC
TJ,TsTG

1.0
50.0
3.0
-40 to +125

mA
'CIW

'c

RATINGS AND CHARACTERISTIC CURVES SSL 1030 AND SSL 1040

FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
300

T....TJmax.
250
W

<:0:

\

~ffi

15

t'- I'

;liB

50

-

t'-~

!l.
5

w

U

~

/

10

«
~ffi

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS

offi
u.!l.

100

I

If

"'::.
::J « , 0
ow
z

«

.,.:
Z

W

10

/

'i

0:
0:

I--'

::>

-~

1-

U

Z

«

~

T, -100'C=

f==
r---

~

V

>!l. 1.0

~~

~
I"" T, ~ 75" C

lL

0.2

FIG. 5 -

"'::>-'
O:::!

V

V

U.

c.

'"~

U
Z

1000

U

600
400

«
I-

..,

2000

u.i

T,"25'C

0.1

«
«

./

0.3

0.4

0,5

------1.------1:----:-:
0.7
a,s
0.9

0.6

!l.

u

TYPICAL JUNCTION CAPACITANCE

-

4000

W~

z
«
IZ
«
I-

01

TJ = 25°C
PULSE WIDTH'" 300,Us_
2% Duty Cycle

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

.Y

w",
"'W
0:0:
Ww

-

f-f

I-

II

,...,..

ITJ I~ !5Jd

""'"

800

f-1MHz
Vsig = 50mVp-p

"

200

'"

.01
";):0

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

14(j"

100
0.1

0,4

1,0

10

REVERSE VOLTAGE, VOLTS

-95-

40

.80100

SBLF1030CT AND SBLF1040CT
SCHOTTKY RECTIFIER
VOLTAGERANGE-30and40 Volts CURRENT-10.0Amperes
FEATURES
ITO-220CT
405 MAX

r

.1581.00S
H • 02 )

In ----$-' V--t .d
-

.13 t.OOS
I~I
(3.310.2) "- "'-y

1+-+ "

lS9 MAX
(4. S)

"«'

~

tflX.
(17)

I

.103 MAX.
(2.6)

PIN
1 2 3

r•

I
.0511.008 pi

1

I~--

I

l

-

1""'-

qI" !.5312 MIN.
1.1 1('ff.5)
i .. i .. i
'j 2.54
~
40REF.
.028 1 .OOS,
...
."" "'CO.7!:O.2] 1+

(1.3~042)

.029 !:08s
(0.7518:!)

,

• Isolated Plastic package has Underwriters
Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier,
~
majority carrier conduction
• Low power loss,
high efficiency
"
• High current capability, low VF
• High surge capacity
,
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Dual rectifier construction, positive center-tap
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS
• High temperature soldering guaranteed:250°C/1 0
seconds/.25"(6.35mm) from case

,.10n.00S
(2.7 1 0.2)

MECHANICAL DATA

~

lID It"CI

o---t+-t!A'i

PIN 12
PIN3-~ STANDARD POLARITY

Dimensions in inches

and

case: ITO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STD-202,
Method 208
Polarity: As marked
Mounting Position: Any
Mounting Torque: 5 in. - lb. max.
Weight: .08 ounces, 2.24 gram

(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=95°C
Peak Forward Surge Current, 8.3ms single
half sine-wave superimposed on rated load
(JEDEC Method)
Maximum Instantaneous Forward Voltage
Per Leg at IF _ 5.0A,Tc = 25°C (NOTE 2)
Maximum Instantaneous Reverse Current at Tc= 25°C
Rated DC Blocking Voltage per element Tc= 100°C
Typical Thermal Resistance per element (NOTE
Operating and Storage Temperature Range

1)

SYMBOLS

SBLF1030CT

VRRM
VRMS
Voc

30
21
30

1. Thonnal Resistance from Junction to Case per element.
2. Pulse Test: 300J.lS Pulse Width, 2% Duty Cycle.

-96-

UNITS
Vo~s

Volts
Volts

I(AV)

10.0

Amps

IFSM

175.0

Amps

VF

0.55
0.5
50.0

Vo~s

3.5
-40 to + 125

°CIW

IR
ReJC
TJ,TsTG

Notes:

SBLFI040CT
40
28
40

mA
°C

RAnNGS AND CHARACTERISnC CURVES SBLF1030CT AND SBLF1040CT

FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG

-----.--

300

8.3rra SINClLE HALF SINE WAVE
(JEDEC METHOD)

FIG.

t-=

Z

W
a:
a:
::l

1 - FORWARD CURRENT DERATING CURVE

OCil

a: W

<

\

7.5

5

,

60

~

100

a:
<
;s:CIl
a: W
offi
LLQ.
CIl:::;
::l<
0
W
Z
<

>11. 0.1

~~
CIl-

.01

100

./

10

",

./

1

J

1.0

I-

Z

<
CIl

I

I-

~

0.1
0.2

~t~:iG;IDTH = 300,. 5 -

I

2% DUTY CYCLE

0.3

0.4

0.5

0.8

0.7

0.8

0.8

1.0

1.1

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

.. -

~

FIG. 5· TYPICAL JUNCTION CAPACITANCE PER LEG
4000

T,.

~

2S'C

T.-2&"C

LL

Q.

I-

Z

-

==

::l...J
w::::i!
z
<
O~

<
CIl

T'~l~""

i-""'"
~
~ ~. ~ 7S'C
~

50

".....

W
a:
a:
::l

10

WCIl
CIl
W
a: a:
Ww

20

Z

CHARACTERIS,TICS

0

10

I-

FIG. 3- TYPICAL REVERSE

W
a:
a:
::l

I

60
160

0

1.0

,-

~

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

a

r--

r---....

50

~
o

r...

NUMBER OF CYCLES AT 60Hz

CASE TEMPERATURE. ·C

Z

........ ~

100

11.

2.5

t-=

..........

~

5.0

o

150

a:z
OW
LLa:
",a:
<::l
wO

10.0

0

200

«
;:t-=

12.&

T,.T"rnlIK.

250

W
C)CIl
a:W
::la:
CIlW
all.
a:::::i!

1-1.0 MHz

2000

VoIg-5OmVp-p

W

,,/

0
Z

I-

<

800

U

600

I-

~

1000

<
<

11.

0

400

200

..........
.001

20
40
80
80 100 120
PERCENT OF RATED PEAK

100
01

140

REVERSE VOLTAGE

04

10

10

REVERSE VOLTAGE. VOLTS

"

40

I~
·97·

80100

SBL1030CT AND SBL1040CT
SCHOTIKY RECTIFIER
VOLTAGE RANGE· 30 and 40 Volts CURRENT· 10.0 Amperes
FEATURES
TO-220

~:m~Ull
....1 '
...-_-;-+-

.640(1626)
.620115.75)

1 PIN
2 3

~

.160li1:im

1

:I4Olf.5Gi

t

:tlg!i~l~f
f ~
t

.36019.14)
.32016.13)

!

1.163 (29.54)
1.103 128.02)

.05511.4OJ
.04511.14)
.600124)
.575 [14.61)

1

i

It

·5601124.22)
46)
.530

1

..,
..I ,:m~ml

.lJ37 (0.94)
".D27(O.691
~

.190(4:831

• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Dual rectifier construction, positive center-tap
• Guardring for transient protection
• High temperature soldering guaranteed:250°C/1 0
seconds/.25"(6.35mm) from case

MECHANICAL DATA

.022 10.56).... .11012.79)
.014(0.]6)
.09012.29)

I'"

PIN2

(CASE POSITlVEl PINl-~
STANDARD POLARITY PIN 3-~E

Dimensions in inches
and
(millimeters)

Case: JEDEC TO-220 Molded Plastic
Terminals: Solderable per MIL-STD-202,
Method 208
Polarity: As marked
Moumlng Position: Any
Weight: .08 ounces, 2.24 gram

CROSS REFERENCE GUIDE
GI
SBL1040CT

FUJI
ESAC82-004

SHINDENGEN

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.
Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc-95°C
Peak Forward Surge Current, 8.3ms single
haH sine-wave superimposed on rated load
(JEDEC Method)
Maximum Instantaneous Forward Voltage
Per Leg at IF- 5.0A,Tc= 25°C (NOTE 2)
Maximum Instantaneous Reverse Current at Tc= 25°C
Rated DC Blocking Voltage per element
Tc=100°C
Typical Thermal Resistance per element (NOTE 1)
Operating and Storage Temperature Range
NOTES:

1. Thermal Resistance from Junction to Case per element.
2. Pulse Test: 300flS Pulse Width, 2% Duty Cycle.

-98-

SYMBOLS

SBLt030CT

SBLt040CT

UNITS

VRRM
VRMS
Voc

30
21
30

40
28
40

Volts
Volts
Volts

I(AV)

10.0

Amps

IFSM

175.0

Amps

VF

0.55
0.5
50.0
3.0
-40 to +125

Volts

IR
R8JC
TJ,TSTG

mA
°CIW
°C

RATINGS AND CHARACTERISTIC CURVeS SBL 1030CT AND SBL 1040CT

FIG. 2 • MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
300

1".T.. max.

8._ SINCllE HALF SINE WAVE
FIG. 1 - FORWARD CURRENT DERATING CURVE

..:z

w 12.5
a:
a:
:l
10
0
OCl)
a: W

<

150

3:":a:z
OW
u.a:
><:a:
<:l
wO
0.

,

I

200

«

~

(JEIlEC METHOD)

250

W
ClU)
a:w
:la:
Cl)W
00.
a::::;:

I~

:
100

r"""'- ...... r-.

.............. -...

50

~

5

\

,
....
z

CASE TEMPERATURE. ·C

0
0

FIG. S - TYPICAL REVERSE
CHARACTERISTICS

W
a:
a:
:l

1.0

0

WCI)
Cl)w
a: a:
Ww
>0.

:!!~
CI)-

:l....l
o:::!
W:::;:
z
....z<
<
....
CI)

F

'T.....aI"C
PUlSE WlDTHo3OO,..
2'110 DUTY CYCLE

-

J
.2

..-

I

.3

.4

.5

.8

.7

.8

.8

1.0

1.1

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

FIG. II· TYPICAL JUNCTION CAPACITANCE PER LEG
"T.-25"C

4000

~

2000

0
Z

1000

....<

~

T"..26-C .

u.

c.
ui

/

(3

I
o

j
10"

01

~

=

•001

I

/

~

0.1

.01

10

~ffl

a: a:
Ow
u.Q.
CI):::;:
:l<
0
W
Z
<
....
z
....CI)<

T""~~

~ ~J7&C
F-,..,..
.... ~

.".,...,...

v./

a:

10

..:z

1pO

-

50

W
a:
a:
:l

r--

50

FIG. 4 • TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG
150

100

-to-

20

NUMBER OF CYCLES AT 60Hz

~
50

10

<
0.
<

800

600
400

0

20

40

60

60

100

120

r-1.oM~
Voigo5OmVi>P

200

.........

140

PERCENT OF RATED PEAK
REVERSE VOLTAGE

100
01

04

10

10

~
40

REVERSE VOLTAGE. VOLTS

I~
-99-

eo 100

MBRF1535CT AND MBRF1545CT
SCHOTTKY RECTIFIER
VOLTAGE RANGE· 35 and 45 Volts CURRENT· 15.0 Amperes
FEATURES
ITO-220CT

• Isolated plastic package has Underwriters
Laboratory Flammability Classifications 94V-O

,

• Metal to silicon rectifier, ~..
majority carrier conduction
• Low power loss"
high efficiency
." "
• High current capability, low VF
• High surge capacity
~
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C110 secondsl.25", (6.35mm) from case
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS

.13 t .008
(3.3 to.21

'<:<>

1 P~N 3

.103 MAX.

~""""-rIr-""""
.051..008 I!,
!-r!l.3~~421

.029 !:008

m.75:!:8:!)

1,1"

,

!.531~ MIN.

+, I--rr:sr-

1,.., .. 1

... ,.107<.008
!2.7 t 0.21

2.54

~
4'REF.
.028 t.008
.... ...
.... ... (0.7 :to.2)

""'*'''''
..,. ..4° REF..... ....

PIN1-~2

PI" 3-~ ... +
STANDARD POLAR lTV

Dimensions in inches
and
(millimeters)

MECHANICAL DATA
Case: ITO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STD-202,
Method 208
Polarity: As marked Mounting Position: Any
Mounting Torque: 5 in. - lb. max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load. derate current by 20%.
Maximum Recurrent Peak Reverse Voltage
Working Peak Reverse Voltage
DC Blocking Voltage
Maximum Average Forward Rectified Current at Tc-105'C
Peak Repetitive Forward Current (Square Wave, 20 KHz)
per leg at Te=105'C
Peak Forward Surge Current, 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge (NOTE 3)
Maximum Instantaneous
IF= 7.5A,Tc-125'C
Forward Voltage
IF- 15A, Te=125°C
Per Leg at (NOTE 2)
IF=15A, Tc- 25°C
Maximum Instantaneous Reverse Current at Rated
DC Blocking Voltage per element
Te= 125°C
(NOTE 2)
Tc= 25°C
Voltage Rate of Change at (Rated VR)
Typical Thermal Resistance per element (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1. Thermal Resistance from Junction to Case per element.
2. Pulse Test: 300f1S Pulse Width. 2% Duty Cycle.
3. 2.0f1S Pulse Width. 1.0KHz.
-100-

SYMBOLS
VRRM
VRWM
Voc
I(AV)

MBRF1S3SCT MBRF1S4SCT
35
45
I
35
45
I
35
45
I
15.0

UNITS
Volts
Volts
Volts
Amps

IFRM

15.0

Amps

IFSM
IRRM

150.0
1.0
0.57
0.72
0.84

Amps
Amps

mA

TJ

15.0
0.1
1000
3.5
-65 to +150

TSTG

-65 to +175

VF
IR
dv/dt
R8JC

Volts

Vlu.s
'CIW

'c
'C

RATINGS AND CHARACTERISTIC CURVES MBRF1535CT AND MBRF1545CT

FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
160
140

W

1'...

ClUJ

a:w
~a:

...:
~

~

<{

«~

!'.... .....

0
100

10

20

100

50

NUMBER OF CYCLES AT 60Hz

FIG. 4· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

150

z

CASE TEMPERATURE, °C

50

I

W

a:
a:

TJ

~

o

o
a:
«

,
/

offi

10

LLQ.

00::;:

:J«

oUJ

125 C
0

125~V

/"

./

10

~~

FIG. 3 - MAXIMUM REVERSE
CHARACTERISTICS

T,

r-.... ,...,
,...",

40 1

~

~

,

l't-.

80

~

4.0
50

(JEDEC METHOD)

60

,

W

W

f'

Q.

I'1\

Cl

«
a:

I

~a:

wO

8.0

8.3rns SINGLE HALF SINE WAVE

i'...

100

OW
LLa:

ffi12.0

0::;:
lL

a:::;:
««
~...:
a:Z

,

a:, .5312 MIN.
.029!:00S • • 1
CO.75 t gJI
::
2.54

!

1

1-m:sJ

...

0. 107 •. OOS

Q.7·O.21

~
4° REF.
.02S'.008
.. •
... ... (O.7tO.2)
"""""" PIN1-~2
.......4°REF........

PIN

3-<>---tJ+-1

+

STANDARD POLARITY

Dimensions in inches
and
(millimeters)

• Isolated plastic package has Underwriters
Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier, ,
majority carrier conduction
• Low power loss,
.
high efficiency
'. \ \
\\ '.
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds/.25", (6.35mm) from case
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS

MECHANICAL DATA
Case: ITO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STO-202,
Method 208
Polarity: As marked Mounting Position: Any
Mounting Torque: 5 in. - lb. max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc_105°C
Peak Repetitive Forward Current (Square Wave,
20 KHz)' at Tc-1 05°C per leg
Peak Forward Surge Current, 8.3ms single half sine·
wave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward IF=7.5A,Tc=125°C
Voltage Per Leg at (NOTE 2)
IF=7.5A, Tc=25°C
Maximum Instantaneous Reverse Current Tc=125°C
at Rated DC Blocking Voltage per element Tc= 25°C
(NOTE 3)
Voltage Rate of Change, (Rated VR)
Typical Thermal Resistance per element (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1. Thermal Resistance from Junction to Case per element.
2. Pulse Test: 300(1$ Pulse Width, 2% Duty Cycle.
3. 2.0(1$ Pulse Width, 1.0 KHz.

-102-

VRRM
VRWM
Voc

MBRF1550CT MBRF1560CT

50
35
50

60
42
60

UNITS

Votts
Votts
Volts

I(AV)

15.0

Amps

IFRM

15.0

Amps

IFSM
IRRM

150.0
0.5
0.65
0.75
50.0
0.5

Amps
Amps

VF
IR

dv/dt
R8JC
TJ
TSTG

1000
3.5
-65 to +150
-65 to +175

Votts
rnA

VlJl.S
°CIW
DC
DC

RATINGS AND CHARACTERISTIC CURVES MBRF1550CT AND MBRF1560CT

FIG. 2· MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
160

w

140

1I, •.3ms SINGLE HALF SINE WAVE

..........

(!)Vl
O::UJ
~

,...~

0::

20.0

~

o::UJ

~

ffi 12.0

f2~
w

•. 0

«

«

.....

.0

..........

60

4.0

o
o

50

100

r--..

~ ...

Cl.

40 ,

5

10

20

100 '

50

NUMBER OF CYCLES AT 60Hz

\

(!)

a:::
UJ
>

100

~a

~

0::Cl.

......
f".r--.

~

~,...0::2
ou.0::
UJ

16.0

OU)

120

OCl.

0::
0::

i3

a:::

U)UJ

FIG. l-FORWARD CURRENT DERATING CURVE

PER LEG (JEDEC METHOD)
T....TJ max.

......

1\

FIG. 4· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

50

150
~

CASE TEMPERATURE. 'C

2

I

UJ

0::
0::

::J
U
0

TJ

=

L

125 C
0

10

",. ~

/

0::

«

FIG. 3-MAXIMUM REVERSE

o::UJ

offi
u.Cl.

10
TJ

L

3:U)

CHARACTERISTICS

/

u):;,

150 C
0

j

::J«

0

V

/

TJ

-

25° C

UJ

2

V

~

0

i-""'TJ

~

«

~

125'

2

C

«

?,:
0.1
.1

.2

/"
.3

PULSE WIDTH = 300IJ.s
2% Duty Cycle

.4

.5

.6

I'

l/

/

~

1.0

...l ...l .li

J

75'C

.9

FIG.5· TYPICAL JUNCTION CAPACITANCE PER LEG
4000

T,

..

.7

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

1/

1

,

I /

~

U)

VTJ~25'C

J

/

~,

LL

2000

"-

ill
~ 1000
<:(

800

<:(

600
400

S
Cl.

ITJ.125!~I-+

r-- 1""-,...

f:: 1MHz
~sig = 50mVp-p

«

..........

U

200

.00 1

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

0.1

0.4

1.0

10

r-...

I"ro40

BO 100

REVERSE VOLTAGE. VOLTS

IN~M'r
·103-

MBR1535CT AND MBR1545CT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts CURRENT - 15.0 Amperes
FEATURES
TO-220CT

.m~Ull
:n
-+1 ' .05511.40l
.045 tl.141

-r---:--I-.150

(3~lIlJ

r- f I

.11°f(~@)~ ~

1

.575 (14.611

t·

.360(9.14)
•320 13)

~~i

1.103 (28.021

/ "'"'''T''''''-''-

+1 ,.037(0.94)

I I .02710.69)
+I 'i~~glI)
. .)
~

.190(4:83)

1. (t46)

560 U24.221
.530

1...

.02210.561 ..
.014(0.361

-

• Plastic package has Underwriters Laboratory
Flammabiiity Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds/.25", (6.35mm) from case
• Guardring for transient protection

MECHANICAL DATA

.110 [2. 7S1
.090(2.291

PIN2

(CASE POSITIVE) PINl+~
STANDARD POLARITY PIN 3-~E

Dimensions in inches
and
(millimeters)

Case: JEDEC TO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STD-202,
Method 208
Polarity: As marked
Mounting Position: Any
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load. derate current by 20%.
Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc-l05°C
Peak Repetitive Forward Current per diode at Tc=105°C
(Rated VR, Square wave, 20KHz)
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward Voltage
Per Leg
IF=7.5A,Tc=125°C
(NOTE 2)
IF=15A,Tc=125°C
IF=15A.Tc=25°C
Maximum Instantaneous Reverse Current at Rated
DC Blocking Voltage per element
Tc=125°C
Tc = 25°C
Voltage Rate of Change at (Rated VR)
Maximum Thermal Resistance per element (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES:
1. Thermal Resistance Junction to Case.
2. Pulse Test: 300l'S. Pulse Width. 2% Duty Factor.
3. 2.0I1s. Pulse Width 1.0 KHz.
-104-

SYMBOLS

MBR1535CT

MBR1545CT

UNITS

VRRM
VRWM
Voc

35
35
35

45
4.5

Voks
Volts

45

Volts

IrAV)

15.0

Amps

IFRM

15.0

Amps

IFSM
IRRM

150.0
1.0

Amps
Amps

VF

0.57
0.72
0.84

Volts

dv/dt
R8JC
TJ

15.0
0.1
1000
3.0
-65 to +150

TSTG

-65 to +175

IR

mA

VlIlS
°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBR1535CT AND MBR1545CT

FIG. 2· MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
160

~

FIG. 1 -

ffi

FORWARD CURRENT DERATING CURVE

«

a:
W

40

~

I

'I
50

TJ..TJ max.

100

I'-.... ........

80

60

0..

-'j-

~

-'-

100

a:Z
OW
u.a:
~a:
«::>

"'1\

~~ 80

u.
W
Cl

LEG (JEDEC METHOD)

1'....
1"1'0

wU

3:0..

ll
l.3nmILllELi
PER

3:~

,

160

.........

120

a:::;:
««

OUJ
a: W
c( ffi12.0

r-....

00..

200

a:
a:

B

140

W
ClUJ
a:W
::>a:
UJW

5

10

l"- ,...,...
"
20

"'1"

50

100

NUMBER OF CYCLES AT 60Hz

f\

FIG. 4· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG
50

150
I-

CASE TEMPERATURE, 'C

Z

I

W

a:
a:
::>
()

o
a:
«

FIG. 3 - MAXIMUM REVERSE
CHARACTERISTICS

~ffl

,/

/

LL~
UJ::;:

a::>«

I

10

,."

/

10

Oa:

10

./

=125~C/

TJ

"""

1/

V

/
TJ=25°C

W

TJ = 125°C

Z

«

~
Z

IZ

«

~

0\

U

0.1

-

I
3

.4

.5

I

.6.7

.9

1.0

FIG. 5· TYPICAL JUNCTION CAPACITANCE PER LEG

@~
z
«

«

ri:e~~!;~o}tS-

4000

~:::i

IZ

/ II

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

V ...

ffiffi

~~

/

TJ = 75°C

~fa
> a.

J

tii

10

W
a:
a:
::>

.L:

.0 1

V

TJ = 25°C

I--

C.

ui

U
Z

«

tiiz

t-

~
0..

1000

f_1.0MHz

t-- I-t--

Vsig_SOmVp-p

800
600
400

«

U

:-....

200

00 1

20

~

00

00

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

120

I

TJ-25"C

u.. 2000

V

100
0.1

0.4

1.0

10

~
40

80 100

REVERSE VOLTAGE, VOLTS

-105-

INsBMIr

MBR1550CT AND MBR1560CT
SCHOTTKY RECTIFIER

VOLTAGE RANGE - 50 and 60 Volts

CURRENT - 15.0 Amperes
FEATURES

+ Plastic package has Underwriters Laboratory
Flammability Classifications 94V-0

~:m~u~~
.../ _.05511.40)
-r---..,...-+- :omr:m

.15013~8lJp

.1]0 lih~) _

1i==='11
1

P~H 3

.640 (1626)
.620 [15.75)

~

1

ft

!

r

:I4Ol3.56i

" :~~~ ~:~:~
.. -+, ,·mlm)

.02210.56) ..
.0141O.36J

t

1

.

.575 U4.611

.360(9.14)
.32010.l3)

J.J6~ 129.54)
1.10 128.02)
.5601124.22)
[ .530It 46 )

.1Siii4.OCi

I
1

.600115.24)

1....

I'"

.11012.79)
.09012.29)

+ Metal to silicon rectifier,
majority carrier conduction
+ Low power loss,
high efficiency
+ High current capability, low VF
+ High surge capacity
+ Epitaxial construction
+ For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds/.25", (6.35mm) from case
+ Guardring for transient protection

MECHANICAL DATA

I.)

- - - .19014.83J
~

(CRSE POSITIVE) PIN1+~PI~2
STRNDARD POLARITY PIN 3-0CASE

Case: JEOEC TO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STO-202,
Method 208

Dimensions in inches
and
(millimeters)

Polarity: As marked
Mounting POSition: Any
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=105°C
Peak Repetttive Forward Current (Rated VR, Sq. Wave,
20KHz) at Tc=1 05°C
Peak Forward Surge Current, 8.3ms single hall sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward Voltage
IF=7.5A,Tc=2SoC (NOTE 2)
per leg
IF=7.5A, Tc=125°C
Maximum Instantaneous Reverse Current at Rated
DC Blocking Voltage per element
Tc=25°C
Tc=125°C
Voltage Rate of Change (Rated VR)
Typical Thermal Resistance per element (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1. Thermal Resistance from Junction to Case per element.
2. Pulse Test: 300(lS Pulse Width. 2% Duty Factor.
3. 2.0(lS Pulse Width, f=1.0KHz.
-106-

SYMBOLS

MBR1550CT

MBR1560CT

UNITS

VRRM
VRWM
VDC

50
50
50

60
60
60

Volts
Volts
Volts

I(AV)

15.0

Amps

IFRM

15.0

Amps

IFSM
IRRM

150.0
0.5

Amps
Amps

VF

0.75
0.65

Volts

IR
dv/dt

R8JC
TJ
TSTG

1.0
50.0
1000
3.0
-65 to +150
-65 to +175

rnA
Vl(ls

°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURYES MBR1550CT AND MBR1560CT

FIG. 2 • MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
'60
'40

W

,..:

~

a:
a:
::.
u

FIG. 1 -

FORWARD CURRENT DERATING CURVE

"-

a:CL

O~

w

~r\

80

40

W

>

'00

" ..........

60

50

40,

5

10

20

'""
50

NUMBER OF CYCLES AT 60Hz

FIG. 4· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG
,SO

'00

........

60

r\

<

1'-.....

CL

1\ ~

C)

<
a:

«
;;:,..:
a:z
OW
,,-a:
:.:a:
<::.
wU

'60

OCl)

a: W
~ ffj'20
"-

'20

Oil.

a:::;

20.0

T...T.rrnax.

" ""

C)CI)

a:w
::.a:
Cl)W

8.31118 SINGLE HALF SINE WAVE
PER LEG (JEDEC METHOD)

r--..

50

f-

CASE TEMPERATURE. ·C

Z

w
a:
a:

./

lL

::.
U
0

'0

a:

~ffl

FIG. 3 - MAXIMUM REVERSE
CHARACTERISTICS

/

OW
"-CL

'0

CI)::;

~

T,='5O" C

1..,..000"

--

f

a: a:

::.<
0

....

j

, 0

W
Z

<
f-

~ ~C='2S· C

,

Z

<
f-

CI)

~

0'

lL

.2

2% Duty Cycle

.3

.4

.5

.6

.7

.8

.9

1.0

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

1/ ~

,

.1

Tj=2S·C
PULSE WIDTH = 300 M' -

-'FIG. 5· TYPICAL JUNCTION CAPACITANCE PER LEG
4000

Ttl - 7SO C

u. 2000
c.

./

V

,

~

W

"'T, = 2S· C

~ 1000

«

800

<{

600
400

6
CL

<
U

/
.00

,

o

V
20

40

60

60

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

ITJ=12S1~1-+

r-. r-.

f= 1MHz
Vsig = 50mVp-p

....... ,

200

,..

'00

0'

04

, 0

'0

40

REVERSE VOLTAGE. VOLTS

·107-

I~

80 100

MBRF1635 AND MBRF1645
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts CURRENT - 16.0Amperes
FEATURES
ITO-220

.13 •• 008
(3.3 '0.2)

MAX.,
1,.405
110.3)

I

r

.I5h .008
H • 02) ~ ,.189 MAX.
I
(4.B)

,.lon.OOB
(2.7 t 0.2)

• Isolated plastic package has Underwriters
Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss
high efficiency
• High current capability~ low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage. high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds/.25", (6.35mm) from case
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS

MECHANICAL DATA
PINl~
PIN2~

STANDARD POLAR lTY

Dimensions in inches and (millimeters)

case: ITO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STO-202,
Method 208
Polarity: As marked
Mounting Position: Any Mounting Torque: 5 in. -Ibs. max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Vokage
Maximim Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc= 125°C
Peak Repetitive Forward Current, (Square Wave,
20 KHz) at Tc= 125°C
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 2)
Voltage Rate of Change at (Rated VR)
Maximum Instantaneous Forward Voltage at
(NOTE 1)
IF=16A, Tc=125°C
IF= 16A, Tc= 25°C
Maximum Instantaneous Reverse Current
Tc=125°C
at Peak Reverse Voltage (NOTE 1)
Tc=25°C
Typical Thermal Resistance, Junction to Case
Operating Junction Temperature Range
Storage Temperature Range
NOTES:

1. Pulse Test: 3001'5 Pulse Width, 2%Duty Cycle.
2.2.01'5 Pulse Width, 1.0 KHz.
-108-

SYMBOLS

MBRFI635

MBRFI645

UNITS

VRRM
VRWM
VDC

35
35
35

45
45

Voks
Voks
Volts

45

I(AV)

16.0

Amps

IFSM

32.0

Amps

IFSM
iRSM
dv/dt

150.0
1.0
1000

Amps
Amps
V/IlS

VF

0.57
0.63
40.0
0.2
2.0
-65 to +150
-65 to +175

Voks
Volts
mA

IR
RQJC
TJ
TSTG

°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBRF1635 AND MBRF1645

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
150

UJ
a:UJ
::la:
(/)UJ
00.
a:::;
««
~..:
a:Z
OUJ
LLa:
"a:
«::l
UJU

125

Cl(/)

FIG. i-FORWARD CURRENT DERATING CURVE

,
\

100
75

'"

......

100

25

,

5

UJ
a:
a:
::l
U
UJ(/)
(/)UJ
a: a:
UJUJ
>0.
UJ::;
a:«
(/)::l-'
UJ::;
Z
«
I-Z
«

Z

I
TJ'" 125°C

10

,

~~

~ffi
LLo.
(/)::;
::l«

@
Z
«
I-

-

/

1.0

Z

TJ"- 125°C

I

I'
TJ" 25°C

I

I
.1

.2

I

PULSE WIDTH = 3001-15
2% Duty Cycle

.3

.4

.5

.6

.7

.9

.8

1.0

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

."

./

FIG. 5-TYPICAL JUNCTION CAPACITANCE
5000
4000

2

~J=75OC

LL

2000

U

1000
800

a.
W

0.1

Z
«

I--

~

(3

«
0.
«

~

~
•01

/

........

./

/' 7

I

~
0.1

1.0

100

I-

~

0=
t;

~

10

50

FIG. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

f:: TJ ~ 15O"C
..:
z

20

50

150

100

-

10

NUMBER OF CYCLES AT 60Hz

FIG.3-MAXIMUM REVERSE
CHARACTERISTICS

..

f'. ~ ~

50

UJ
a:
a:
::l
U
o
a:

.J'

..........

0.

CASE TEMPERATURE. ·C

./

8.3ms SINGLE HALF SINE WAVE
(JEDEC METHOD)

r-......

~
50

1111

T.. _T.. max.

I........ ~
20

40

U

TJ = 25°C

60

f

80

100

120

140

PERCENT OR RATED VOLTAGE PEAK
REVERSE VOLTAGE

600

,

-

.........

T...25OC
f.1.0mHz

VIIg-5OVpop

I

...... ,...

400

200
100
0.1

0.4

1.0

10

40

80100

REVERSE VOLTAGE. VOLTS

INsDMIr
-109-

MBRFl650 AND MBRF1660
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 50 and 60 Volts CURRENT - 16.0Amperes
FEATURES
• Isolated Plastic package has Underwriters
Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C110 seconds/.25", (6.35mm) from case
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS

ITO-220

13 t .008
(3.3 to.2)

MECHANICAL DATA
PIN 1<>---"1
......4°REF.... _

PIN2~

Dimensions in inches and (millimeters)

Case: ITO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STD-202,
Method 208
Polarity: As marked
Mounting Position: Any Mounting Torque: 5 in. - Ibs. max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at Tc=125°C
Peak Repetitive Forward Current. (Square Wave,
20 KHz) at Tc= 125°C
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 2)
Voltage Rate of Change at (Rated VR)
Maximum Instantaneous Forward Voltage at
(NOTE 1)
IF=lSA, Tc=125°C
IF=16A, Tc= 25°C
Maximum Instantaneous Reverse Current at
Peak Reverse Voltage
Tc=125°C
(NOTE 1)
Tc=25°C
Typical Thermal Resistance, Junction to Case
Operating Junction Temperature Range
Storage Temperature Range
NOTES:
1. Pulse Test: 300!lS Pulse Width. 2% Duty Cycle.
2. 2.0!lS Pulse Width, 1.0 KHz.
-110-

SYMBOLS

MBRF1650

MBRF1660

VRRM
VRWM
Voc
I(Av)

50
50
50

SO
SO
SO
lS.0

UNITS
VoRs
VoRs
Volts
Amps

IFRM

32.0

Amps

IFSM
IRRM
dv/dt

150
0.5
1000

Amps
Amps
V/lJ.s

VF

0.S2
0.75

VoRs
Volts

IR

50.0
1.0
2.0
-65 to +150
-S5 to +175

mA

R8JC
TJ
TSTG

°CIW

'c
°C

RATINGS AND CHARACTERISTIC CURVES MBRF1650 AND MBRF1660

FIG. 2· MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
180

~(I)

140

a:W

T....ToImBX.

'""

:::I a:
(I)

.,:

20.0

a:
a:

18.0

Z
w

:::I

,

o

0(1)
a: ~ 12.0

~~

a:::;

12<

i\

8.0

W

~

~.,:

~

i'~

100

a:Z

12 ~

80

~O

80

~!5

,

........

........

o
o

100

50

~
1""0 ...

40

1

10

20

50

100-

NUMBER OF CYCLES AT 60Hz

\

4.0

a:
W

~

~ 120

~~

FIG. 1-FORWARD CURRENT DERATING CURVE

8.3.. SINGLE HAlF SINE WAVE
(JEDEC METHOD)

"-

FIG. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

150

I-

CASE TEMPERATURE,·C

50

Z

/

W

a:
a:

/'

:::I

o
o

10

a:

~ffl

FIG. '3-TYPICAL REVERSE
CHARACTERISTICS

I

~ffi

10

f

"-0..

I

(I)::;

-

5<

-T,'15O"C

1.0

W

Z

~~

<

!z'
<

.",.,- ---;01= =125° C

I

I(I)

II

~
O•1
.2

./

T" '" 75°9.
1

T, - 25°C

"

.8

.7

.8

u. 2000

,J

1.0

uj

~

T,: ~od
f = .1MHz

.........!--or-.

Co

I

Vsig "" 5OmVp-p

1000

~800

0

<

0..

800
400

(3

V

........
200

40

.9

FIG. 5-TYPICAL JUNCTION CAPACITANCE

,
20

.5

4000

1

.001

.4

3OO~s

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

,

./

.3

TJ" 25°C
PULSE WIDTH"
2% Duty Cycle

80

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

1""0

100
0.1

OA

1.0

4

10

40

80100

REVERSE VOLTAGE, VOLTS

·111·

I~

MBR1635 AND MBR1645
SCHOTIKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts CURRENT - 16.0 Amperes
FEATURES
TO-220

~

.15013.81)
.13013.30)

-fr

.36019.14)
.32018.131

~

.16014.06)
•• 05511.40)
.04511.14)

W

.60011.24)
.575 !l4.611

1

~

3129.54)1
3128.02)

I··~m
.530It 46)

+11·:m~::;~

_ _ .210(5.33)
.190(4.83)

.~.

.01410.36)

II~

• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
2S0°C/10 seconds/.2S", (S.3Smm) from case
• Guardring for transient protection

MECHANICAL DATA
.11012.79)
.090(2.29)

(CASE POSITIVE) PIN 1 + <>----'J...:.
STANDARD POLARITY PIN 2 - ~CIiSE

Dimensions in inches and (millimetefs)

case: JEDEC TO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STD-202,
Method 208
Polarity: As marked
Mounting Position: Any
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc-125°C
Peak Repetitive Forward Current, (Rated VR, Sq. Wave
20 KHz) at Tc-125°C
Peak Forward Surge Current
8.3ms s:ngle haH sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 2)
Voltage Rate of Change, (rated VR)
Maximum Instantaneous Forward Voltage (NOTE 1)
IF= 16A, Tc= 25°C
IF=16A, Tc-125°C
Maximum Instantaneous Reverse Current at
Peak Reverse Voltage
Tc=25°C
(NOTE 1)
Tc=125°C
Maximum Thermal Resistance (NOTE 3)
Operating Junction Temperature Range
Storage Temperature Range
NOTES:

1. Pulse Test Pulse Width 300I'S, Duty Cycle 2%.
2. 2.01'S Pulse Width. 1.0 KHz.
3. Thermal Resistance from Junction to Case.
-112-

VRRM
VRWM
Voo

MBR164S
45
45
45

MBR163S
35
35
35

UNITS
VoHs
VoHs
Volts

I(AV)

16.0

Amps

IFRM

32.0

Amps

IFSM
IRRM
dv/dt

150.0
1.0
1000

Amps
Amps
V/jlS

VF

0.63
0.57

VoHs

IR

0.2
40.0
1.5
-65 to +150
-65 to +175

rnA

R8JC
TJ
TSTG

°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBR1635 AND MBR1645

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
150

FIG. 1 -

UJ
(!JII)
a:UJ
::I
a:
II)UJ
00.
a:::E

FORWARD CURRENT DERATING CURVE

,

125
100

""'"

..........

.........

a:Z
OUJ
LLa:

50

<::I
UJO

26

~a:

50

5

\

100

1

0.

10

20

100

50

NUMBER OF CYCLES AT 60Hz

~

0

I I I

r--... r--. i"'oo

~t-="

~
4

...

75

«

I

T,- T,":"

8.3mo SINGLE HALF SINE WAVE
(JEDEC METHOD)

FIG.4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
50

150

fZ

CASE TEMPERATURE, ·C

UJ
a:
a:

o

10

o

.......

~

I
TJ = 125°C

::I

~

V

a:

~ffl

FIG. 3 - MAXIMUM REVERSE
CHARACTERISTICS

II

!§ffi
LLo.

100

11):;
::1<
@

=

TJ· 150"C

.",.

~

V

r--

/

1.0

Z
Z

g

I

I

~
0.1

~

LL

Co

2000

ui
0

L....... ~
20

40

80

-

80

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

Z

1000
800

(3

600

<
f-

<
0.
<
0

=25"C

r

l

FIG. 5 -

~ ~J.75°C

.0 1

.2

PULSE WIDTH = 300 ,",8

2% Duty Cycle

.3

.4

.5

.6

.8

.7

.9

1.0

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
5000
4000

TJ

I

I
.1

... i""'"

TJ=2SoC

<
f-

TJ = 125°C

/

/

II

120

140

--

TYPICAL JUNCTION CAPACITANCE

r--. "'1"-

T,025'C

1-1.0 MHz
Vlig_6OmVp-p

.......

400

1'1"-

200

100
0.1

0.4

1.0

10

40

80 100

REVERSE VOLTAGE, VOLTS

I~
-113-

MBR1650 AND MBR1660
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 50 and 60 Volts CURRENT - 16.0 Amperes
FEATURES
TO-220
..illJi.lill

I ..

~II~
05511.40)
,..-_--:--+_- .04511.14)

I

PI"

1

.150(3:8llj
.110(1~) _
.600(1.24)
ft
.575 [14.&ll
.3&0 [9.14)

1

P~N 16~~;:;T) (2~-,",~:;-;):.:8i.·I31_,'n"''i-_~_
1.163

~

1.103 (28.02)

1.560 [124.22)

-t

-+1 I·:m ~:::l

_ _ .210(5.33)
.190 (4.83)

.S3°T·

-

46 )

.022[0.56):11"
.014(0.36) -

• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-0
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
2S0°C/10 seconds/.2S", (6.3Smm) from case
• Guardring for transient protection

MECHANICAL DATA

.110[2.79)

.090(2.29)

[CASE POSITIVE)
PIN l + O - - U
STANDARD POLARITY PIN 2 - <>---+f--lCASE

Dimensions in inches and (millimeters)

Case:JEOEC TO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STO-202,
Method 208
Polarity: As marked
Mounting Position: Any
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambienltemperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.
Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=125°C
Peak Repetitive Forw1i\rd Current (Rated VA, Sq. Wave,
20 KHz) at Tc=125°C
Peak Forward Surge Current, 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Pead Repetitive Reverse SurgeCurrent (NOTE 3)
Maximum Instantaneous Forward Voltage
Per leg
IF=16A, Tc = 25°C
IF= 16A, Tc= 125°C (NOTE 2)
Maximum Instantaneous Reverse Current at Tc= 25°C
Rated DC Blocking Voltage
Tc=125°C
Voltage Rate of Change (Rated VA)
Maximum Typical Thermal Resistance (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES:

1. Thermal Resistance from Junction to Case.
2. Pulse Test: 300j.lS Pulse Width. 2% Duty Factor.
3. 2.0j.lS Pulse Width, 1=1.0 KHz.
-114-

SYMBOLS

MBR1650

MBR1660

VAAM
VAWM
Voc

50
50
50

60
60
60

UNITS
Volts
Volts
Volts

ICAV}

16.0

Amps

IFAM

32.0

Amps

IFsM
IAAM

150.0
0.5

Amps
Amps

VF

0.75
0.65
1.0
50.0
1000
3.0
-65 to +150
-65 to +150

Volts

IA
dv/dt

R8JC
TJ
TSTG

mA

V/p..s
°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBR1650 AND MBR1660

FIG. 2· MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
160

FIG. 1 -

~

FORWARD CURRENT DERATING CURVE

,

20.0

W

a:
a:
::> 16.0
o
Oe/)
a: w 12.0

wO
11.

\

~~

f2 ~

W
CJe/)
a:W
::>a:
e/)W
011.
a:::;:

.......

80

i""'o~i"o
1

10

50

20

100

NUMBER OF CYCLES AT 60Hz
40

\

a:
W

~

100

50

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

150

IZ

CASE TEMPERATURE, °C

50

1/

W

a:
a:
::>

o

o
a:

1.0

0=

/

u.~

-

e/)::;:
::><

o

I

1.0

W

Z

I-"""

<

,

1-.
Z

".. ~J_=125OC

«

l-

e/)
~

0

We/)
e/)W
a: a:
Ww
>11.
W::;:
a:<
e/)::>....1
W::;:
Z
<
IZ
<
le/)

,

~ffl

~ T,.~ 150°C

~

10

Oa:

10

Z
W
a:
a:
::>

/

<

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS

~

~

40

W

~

......

60

01
2

T.. '" 75°C

./

0.1

./

TJ

/

.4

.5.6

.8

9

1.0

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

"

FIG. 5 -

,

=25°C

.3

TJ = 25 c C
PULSE WIDTH'" 300.u s
2% Duty Cycle

~

TYPICAL JUNCTION CAPACITANCE

~J~J50~ III

1-- 1'--1"-

f =.lMHz
Vsig '" 50mVp-p

.01

,
001

........ ~

V
o

20

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

I"i"o
100
0.1

0.4

1.0

10

40

80 100

REVERSE VOLTAGE, VOLTS

·115·

IN~

SBLF1630CT AND SBLF1640CT
SCHOTTKY RECTIFIER
VOLTAGE RANGE ~ 30 and 40 Volts CURRENT - 16.0 Amperes
FEATURES
ITO-220CT

r

.158t.008

13 '.008
(3.3tO.2J

MAX"j
/ ,.405
(103J

u . 02J 1+-+ ,.189

!i
..,.'v..,. .d

"'-y~

I.

MAX.

(4.8J

MAX.

(17J

.103 MAX.

(2.6J

t·

1 piN 3

..L~I

(0.75 t gj)

:!~--

'! I'! .5312i MIN.
, I. i 1---m:5J

.051t.00B I',
(1.3'0.2J
I"

.029 ~:gga

1

-

:.. :.. :Ll:!.S4

0.107 LOOS
12.7 t 0.2J

~
4.RH.
.02B 008.1"
.". ...
... .... (0.7 :to.2)

• Isolated Plastic Package has Underwriters Flammability Classification 94V-O
• Isolated overmolded package
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
2S0°C/10 seconds/.2S", (S.3Smm) from case
• Guardring for transient protection
• Internal Insulation: 1.SK VRMS

MECHANICAL DATA

t.

""tpllJJ
J

......4°REF.......

PINl-~N2

PIN

3-~ -+

STANDAR 0 POLAR ITY

Dimensions in inches
and
(millimeters)

case: ITO-220 Fully Overmolded Plastic
Terminals: Leads Solderable per MIL-STO-202,
Method 208
Polarity: As marked
Mounting Position: Any
Mounting Torque: Sin. - Ibs. max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.
Maximum Recurrent Peak Reverse Voltage

VRRM

SBLF1630CT
30

SBLFI640CT
40

UNITS
Volts

Maximum RMS Voltage
Maximum DC Blocking Voltage

VRMS
Voc

21
30

28

Volts
Volts

SYMBOLS

Maximum Average Forward Rectified Current
at Tc = 95'C
Peak Forward Surge Current, 8.3ms single half sine·
wave superimposed on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage
per leg IF = S.OA (NOTE 2)
Maximum Instantaneous Reverse Current at Tc= 25'C
Rated DC Blocking Voltage per element
Tc= 100·C
Typical Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range

!rAV)

16.0

Amps

IFSM

250.0

Amps

VF

0.55
0.5
50.0
2.2
·40 to +125

Volts

IR
R8JC
TJ,TsTG

NOTES:
1. Thermal Resistance from Junction to Case per element.
2 Pulse Test: 300 lIS Pulse Width, 2% Duty Factor.

-116-

40

mA

·CIW
·C

RATINGS AND CHARACTERISTIC CURVES SBLF1630CT AND SBLF1640CT

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEO

....z

300

a:
a:

250

w

8.3ma SINGLE HALF SINE WAVE
PER LEG (JEDEC METHOD)

;;>

o

~

,

20.0

16.0

12.0

~~
~<

,........

~

100

~

50

'"<

0

W

o

50

10

,

r--.... ..... ~

20

50

100

FIG. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG
150

100

........

NUMBER OF CYCLES AT 60 Hz

~

o

.....

Q.

\

4.0

''''

a:

1\

8.0

200

U)

a:W
::>a:
rn w 150

FIG. 1-FORWARD CURRENT DERATING CURVE

T...TJmalC.

....-

CASE TEMPERATURE. ·C

100 ,

Z

w

a:
a:
::>

o

~

./

10

o

/

a:

~~

FlO. 3 - TYPICAL
REVERSE CHARACTERISTICS

a: a:

Ow

100

LL.Q.

oo:;

:l 

T, ~ 100~
10

>=
Z

V

<
r-

o
w",
"'w
a: a:

~

Ww

111

8

.7

FIO.5-TYPICAL JUNCTION CAPACITANCE PER LEG
4000

filS

z
z>=

0.1

'"Z

"- 2000

25'C--=

0

Z

<

0

<
<

Q.

./

1000
800
600

~

II
25,Ic I I

f = 1MHz

-"'"

W

t:

Vsig = 50mVp-p

400

0

200
0.01

o

I

T,

LL.

II"

K-

.9

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

k"'" i"""T,~75'C

W:; 1.0

a:<
"'::;
::> ....

o.

TJ - 25 0 C
PULSE WIDTH = 300 P.s
2% Duty Cycle

.2.3.4.56

~

>Q.

~

1.

OO

z

~

~

00

~

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

1~

1~

I
I

100 I
0.1

0.4

1.0

4

10

REVERSE VOLTAGE. VOLTS

-117-

40

80 1 00

SBL1630CT AND SBL1640CT
SCHOTIKY RECTIFIER
VOLTAGE RANGE - 30 and 40 Volts CURRENT -16.0 Amperes
FEATURES
TO-220CT

•

190(483)
1r160 (4:06)
....1 • . 055 (1.40)
.ij~5 (U;U

.150 (3.8U
.13013.30)

Tr )

.640 (16.26)
.620(15.15)

!
IP~N3 ~l ~
3 (29.54) i
~
t

1.10 3 (28.02)

l"·~·';;
''''''.~,

1+' ,·:~m~:::~
..j

,0221.56)"
.014 CO. 36)

• •.~~~ (~.6II
(.4

+--+ .210(5.331

.190 (4.831

.600J5.24)
.515 (14.61)

.360 (9.14)
.320 (8.13)

(CRSE POSITIVE 1

'J-.

1

.025

4-

.110(2.19)
.090 (2.291

PINl_~PI~2

STRNDRRD POLRRITY PIN 3-

CRSE

• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-0
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°Cf10 secondsf.25", (6.35mm) from case
• Guardring for transient protection

MECHANICAL DATA
Case: JEDEC TO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STO-202,
Method 208
Polarity: As marked
Mounting Posit/on: Any
Weight: .08 ounces, 2.24 gram

CROSS REFERENCE GUIDE

Dimensions in inches and (millimeters)
GI
SBL1640CT

FUJI

SHINDENGEN

ESAD82-004

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectnied Current
at Tc = 95°C
Peak Forward Surge Current, 8.3ms single
half sine-wave superimposed on rated load
(JEDEC Method)
Maximum Instantaneous Forward Voltage
per leg IF=8.0A (NOTE 2)
Maximum Instantaneous Reverse Current at Tc= 25°C
Rated DC Blocking Voltage per element
Tc=100°C
Typical Thermal Resistance per element (NOTE 1)
Operating and Storage Temperature Range

NOTES:
1. Thermal Resistance from Junction to Case per element.
2 Pulse Test: 300IJS Pulse Width, 2% Duty Factor.

-118-

SYMBOLS

SBL1630CT

VRRM
VRMS

30
21

Voc

30

SBL1640CT
40

UNITS

28

Volts
Volts

40

Volts

ICAV)

16.0

Amps

IFSM

250.0

Amps

VF

Volts

IR
R8JC

0 .. 55
0.5
50.0
3.0

TJ,TsTG

-40 to +125

rnA
°CIW
°C

RATINGS AND CHARACTERISTIC CURVES SBL 1630CT AND SBL 1640CT

FIG. 2 • MAXIMUM NON-REPmTlVE PEAK
FORWARD SURGE CURRENT PER LEG
300

a.3mo SINGLE HALF SINE WAVE
PER LEG (JEDEC METHOD)

250

W

!i

!

a::~

150

,

20.0

16.0

~W 12.0
8.0

~a
Q.

o

50

100

'"

T...,T.. max.

I"~

..
--. ........

50

0,

i\

4.0

o

~.,:

a::z
OW
1La::
:.:a::

\

a::Q.

~~

200

..,w
oil.

FIG. 1 - FORWARD CURRENT DERATING CURVE

i~

e~
W

!11m
;:)a::

100

10

5

~

....

Z
W

100

::l

(J

o

v

10

a::

~ffi
ILQ.
..,2

100

Sl <

!

""

~

I

I

1.0

TJ = 25°C
PULSE WIDTH'" 300,....

I

I

o. 1
.2

2'MI DutyCyc:le
.3

.4

'" T, • wc

.8

.7

.8

.9

F1G.5-TYPICAL JUNCTION CAPACITANCE PER LEG
4000

ILQ.

i/

/ T':"~'C..=

1

-

2000

TJ· 25'C
'-1MHz

..

W

(J

1000
800
~ 800
(3
400

Z

Vsig " 50mVp-p

~

t3

.JI'

o

.5

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

~

.0

~

~m

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS

/

100

fig. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

150

a::
a::

"00':'"

50

20

NUMBER OF CYCLES AT 60Hz

CASE TEMPERATURE, 'C

T,

r-- ...

~

~

M

~

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

1~

1~

200

100
0.1

0.4

1.0

10

40

80100

REVERSE VOLTAGE, VOLTS

I~
·119·

MBRF2035CT AND MBRF2045CT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts

CURRENT - 20.0 Amperes
FEATURES

ITO-220CT
.158' .008
.13 '.008
[3.310.21

4 ±.021 _
i ,AOSMAX."r
1
ClO.31

-!

,.189 MAX.
[4.8)

...... 107!: .008

[2.7'0.21

• Isolated plastic package has Underwriters
Laboratory Flammability Classification 94 V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• Guardring for transient protection
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed: 250°C/10
seconds/.25", (6.35mm) from case
• Internal Insulation: 1.5k VRMS

MECHANICAL DATA
Case: ITO-220 Fully Overmolded Plastic
Terminals: Leads Solderable per MIL-STO-202,
Method 208
Polarity: As marked Mounting Position: Any
Mounting Torque: 5 in. - Ibs. max.
Weight: .08 ounces, 2.24 gram

PINl-~2

+

PIN3-~
STANDARD POLARITY
[POSITIVE CIl

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambientlemperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=135°C
Peak Repetitive Forward Current per diode leg
(Rated VR, Sq. wave, 2.0KHz) at Tc=135°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)

SYMBOLS

MBRF2035CT

VRRM
VRWM
Voc

35
35

AfBRF2045CT
45
45

UNITS
Volts
Volts

35

45

vons

I(AV)

20.0

Amps

IFRM

20.0

Amps

IFSM

150.0
1.0

Amps

IRRM

Maximum Instantaneous
Forward Voltage Per Leg

IF= lOA, Tc = 125°C
IF= 20A, Tc=25°C
IF= 20A, Tc=125°C
Maximum Instantaneous Reverse Current at
Rated DC Blocking Vonage per element Tc = 25°C
Tc =125°C
Voltage Rate of Change (Rated VR)
Typical Thermal Resistance per element (NOTE 1)

(NOTE 2)

Operating Junction Temperature Range
Storage Temperature Range

NOTES: I.Thermal Resistance lrom Junction to Case per element.
2. Pulse Test: 300IJ.S Pulse Width, 2% Duty Factor.
3. 2.01J.S Pulse Width,l= I KHz.
-120-

VF

0.57
0.84
0.72

Amps

Volts

IR

0.1
25.0

mA

dv/dt

1000

R9JC

V/IJ.S
°CIW

TJ

2.2
-65 to +150

TSTG

-65 to +175

°C
°C

RATINGS AND CHARACTERISTIC CURVES MBRF2035CT AND MBRF2045CT

FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
160

20.0

,

::>
()

16.0

II:
II:

« ffi
~a.

12.0

<{

8.0

UJ

100

'5:,..:
~m

80

~~
<>.

~IN~ JAl

I'-... .......

T"..TJmax.

~~

""

~

.......

60

........ ....
... ",

40
1

~

UJ

~
II:

~~

SI~GLE

8.3ms
HLF
PER LEG (JEDEC METHDDl_

"0::

~

II:::<

120

cnw

\

O(/)
II:UJ

~ ......

w

a? ffi

:ocr:

FIG. 1-FORWARD CURRENT DERATING CURVE

~
UJ

12

140

5

10

20

100

50

NUMBER OF CYCLES AT 60Hz

4.0

~

50

100

\

FIG. 4· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

150

50

Z

I

UJ
II:
II:
::>
()

I

TJ = 125°C./
10

~

0
II:

~~

FIG.3- MAXIMUM REVERSE
CHARACTERISTICS

/

IL.a.
::><{

aUJ

.... ~

0

1.0

TJ = 25°C

z<{

TJ" 125°C

""""""

"

II'

I/' J

(/)::<
TJ" 150°C

"""

1.,....000'"

/

II: II:
OUJ

10 0

t=

.-.

f-

CASE TEMPERATURE. ·C

f-

"

Z

<{

/

f-

(/)

/

~
0.1
.1

t

PULSE WIDTH" 300 I-ts _
2% Duty YC1e

1

.2

.3

.4

.5

.6

.7

.8

I

.9

1.0

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

TJ = 75°C

0

FIG. 5 • TYPICAL JUNCTION CAPACITANCE PER LEG
4000

IL. 2000

~

1

/'

()

Z

<{

TJ=2SoC

>U
<{

......

a.

V
.01

/

1000
800

600
400

.........

<{
()

V
~

T....25OC
1-1.0 MHz
Vaig_50mVp-p

r---. r--I'-

a.
W

r-....

200
~

00

80

100

1~

PERCENT OF RATED PEAK
REVERSE VOLTAGE

100
0.1

0.4

1.0

10

40

80 100

REVERSE VOLTAGE. VOLTS

IN~
-121-

MBRF2050CT AND MBRF2060CT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 50 and 60 Volts CURRENT - 20.0 Amperes
FEATURES
ITO-220CT

.13 •• 008

13.3 to.2l

,.107t.00B
12.7' 0.2l

• Isolated Plastic package has Underwriters
laboratory Flammability Classification 94V-O
• Metal to silicon rectifier, majority
carrier conduction
• low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
2S0'C/10 seconds/.2S", (6.3Smm) from case
• Guardring for transient protection
• Internal Insulation:l.Sk VRMS

MECHANICAL DATA
PIN1-~N/

." ...4°REF......

PIN3-~
STANDARD POLARITY

Dimensions in inches and (millimeters)

Case: ITO-220 Fully Overmolded Plastic
Terminals: leads Solderable per Mll-STD- 202,
Method 208
Polarity: As marked
MOunting Position: Any Mounting Torque: 5 in. - Ibs. max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load. For capacitive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc-133°C
Peak Repetitive Forward Current per leg
(Rated VR,Sq. wave, 2.0 KHz) at Tc=133°C
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous
IF=10A, Tc=25°C
Forward Voltage
IF= lOA, Tc= 125°C
per leg (NOTE 2)
IF= 20A, Tc= 25°C
IF- 20A, Tc= 125°C
M!IJ(imum Instantaneous Reverse Current at
Rated DC Blocking Voltage per element Tc = 25°C
Tc = 125°C
Voltage Rate of Change (Rated VR)
Typical Thermal Resistance per element (NOTE I)
Operating Junction Temperature Range
Storage Temperature Range

VRRM
VRWM
Voc

60
60
60

UNITS

Volts
Volts
Volts

20.0

Amps

IFRM

20.0

Amps

IFSM
IRRM

150.0
1.0
0.80
0.70
0.95
0.85

Amps
Amps

0.15
150.0
1000
2.2
-65 to +150
-65 to +175

mA

IR
dv/dt
R8JC
TJ
TSTG

-122-

50
50
50

I(AV)

VF

NOTES: I.Thermal Resistance from Junction to Case per element.
2. Pulse Test: 300j.lS Pulse Width, 2% Duty Factor.
3. 2.0j.lS Pulse Width,f= 1 KHz.

MBRF2050CT MBRF2060CT

Volts

V/J.lS

°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBRF2050CT AND MBRF2060CT

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
160

~ en

140

a:W
::>a:

FIG. 1-FORWARD CURRENT DERATING CURVE

!i

1\

W

16.0

~ ffi

12.0

\

o

c(a:

~~

l2 ~

B.O

120

3:..,:

100

~~

20.0

a:
II:
::>

~~

_.

o

o

50

100

~:f

80

a.

60

~5

,

r......

r--""

--

10

II:
a:
::>

~

W

TJ
10

aW

C

'/

~

"""

"'"

1.0

TJ = 25" C

Z

t!'Z

~ """

~~

I

/

i'

PULSE WIDTH

.2

.3

.4

.5

.6

=:

300

,...s

DUlY, CYCle,

.7

.6

.9

1.0

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS
FIO.S.TYPICAL JUNCTION CAPACITANCE PER LEG
4000

~

0.1

I

I

TJ = 75° C

~~
gJ3

~

100

/'1'

u.~

en::;:

::>c(

M:lffi

c(

1-0

50

~en

a: W
Oa:

0.1. 1

fil~
z

125°C/

=

a:

o

ffiffi 1.0 I
>11.

20

Z

,...
1250

r-......

f-

100

-

........

50

150

FIG. 3 -MAXIMUM REVERSE
CHARACTERISTICS

TJ

T....T.. max.

...

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

0
0

..-""

~

NUMBER OF CYCLES AT 60Hz

a:
a:
::>

150" C

"'- ......

10

CASE TEMPERATURE. 'C

f--T,

II

Hk ~'N~ wiv~

B.3mo SIJGLE
PER LEG (JEOEC METHOD);

a:Z
OW

\

4.0

!iW

"-........

V

~

,

TJ

'a,

~

= 25" C

V

W

0

Z

1000
600

0

600
400

~

,

~

2000

c(

a.
c(

I II

-

-~

Vsig 7 50mVp-p

.......
~

200
20

40

60

60

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

I I

f = 1MHz

0

.01 0

I

j

TJ = 25° C

140
100
0.1

0.4

1.0

10

40

60 100

REVERSE VOLTAGE. VOLTS

-123-

IN~

MBRF2090CT AND MBRF20100CT
SCHOTTKY RECTIFIER
VOLTAGE RANGE -90 and 100 Volts CURRENT - 20.0 Amperes
FEATURES
ITO-220CT
.1581.008

.

11

1,.405 MAX., (41.02))...;-;1,,;3o;t·ifOO~8......... i-'(,-,,10....~3)'-i.h_
I
(3.3 to.2)

.+.+~
.

.103 MAX.

1 piN 3

~
.051

.

t.o1; Ii, I !I

~-'--III·

(1.30~42),

.029!:008

(0.75t8:~)

,

(17)

,.189 MAX.
(4.8)

-

1

:r:
--

1+1 1--m:sJ
'.531 MIN.

'":

.. ,.10H.008
(2.7' 0.2)

2.54

~
4° REF.
.028 •• 008., +
.". ....
.". .. lO.7!O.2J
"" ''I',.Ill
.".. ..4°REF.......

PIN1-~2

PIN 3-~~
STANDARD POLARITY

Dimensions in inches and(millimeters)

• Isolated plastic package has Underwriters
Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS
• High temperature soldering guaranteed:
250°C/10 seconds/.25"(6.35mm)

MECHANICAL DATA
case: ITO-220 Molded Plastic
Terminals: Leads Solderable per MIL-STD-202,
Method 208
Polarity: As marked Mounting POSition: Any
Mounting Torque: 5 in. - Ibs. max.
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%
..

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectffied Current at Tc= 133°C
Peak Repetitive Forward Current, per leg
(Square Wave 20 KHz) at Tc=133°C
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Voltage Rate of Change, (rated VR)
Maximum Instantaneous
IF= lOA, Tc= 25°C
Forward Vottage per leg
IF= lOA, Tc= 125°C
(NOTE 2)
IF= 20A, Tc=25°C
IF= 20A, Tc= 125°C
Maximum Instantaneous Reverse Current Tc=25°C
at Rated DC BLocking Vottage (NOTE 2)
Tc=125°C
Typical Thermal Resistance per element (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES:
l.Thermal Resistance from Junction to Case per element.
2. Pulse Test: Pulse Width 300 JlS, Duty Cycle 2%.
3. 2.0 JlS Pulse Width, f=I.0 KHz.

-124-

20.0

UNITS
Volts
Volts
Votts
Amps

IFSM

20.0

Amps

IFSM
IRSM
dv/dt

150.0
0.5
1000
0.80
0.70
0.95
0.85
0.15
150.0
2.2
-65 to +150
-65 to +175

Amps
Amps
VlIlS

SYMBOLS

MBRF2090CT

MBRF20tOOCT

VRRM
VRWM
Voc
I(AV)

90
90
90

100
100
100

VF
IR
R8JC
TJ
TSTG

Volts
mA
°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBRF2090CT AND MBRF20100CT

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
175

W
Cl",
a:W
:>a:
(J)W
0<>'
a::2'
««

FIG. 1-FORWARD CURRENT DERATING CURVE

..:
z

W
a:
a:
:>
C,)
O(J)
a: W
«a:
:;:W
a:<>'
0::'
u.«
W
Cl
«
a:
W
>
«

20

\

16

150

125

100

a:Z
OW
u.a:
",a:
«:>
wC,)
<>.

\

i'

25
1

5

10

20

50

100

NUMBER OF CYCLES AT 60Hz

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

Z

150

100

.........

50

I50

,

75

\,

o

per leg

..... r-.~

:;:..:

12

o

............. .....

8.3m. SINGLE HALF SINE WAVE
PER LEG (JEDEC METHOD)
TJ-TJmax.

W

10

a:
a:
C,)

CASE TEMPERATURE, °C

:>

o
a:
«

/

~ffJ

u.<>.
(J):2'
:>«

100

-.:

W
a:
a:
:>
C,)
W(J)
(J)W
a: a:
Ww
><>.

M!~
(J)-

10

I

oW
Z

..:
z

i

.1

I-

,

Z

«

T, ~ 125' C

TJ "25°C

I-

(J)

.."". ~

I

.01

V

~

I
.3

.4

.5

I~.7

.8

.9

WC

FIG. 5 - TYPICAL JUNCTION CAPACITANCE PER LEG
4000

:>...J
W::.
Z
«
IZ
«
I(J)

0=

.L.

u.

2000

ui
C,)
Z
«

1000
800

a.

~
TJ

25 0 C

~

l-

t)

.01

.6

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

.",
'T,

PULSE WIDTH = 300j.1s
2% DUTY CYCLE

I

Z
.2

1.0

I

I

offi

FIG. 3- TYPICAL REVERSE
CHARACTERISTICS

...,.

P8'1og

Vw

«
<>.
«
C,)

./

-

-I"-

III
T J = 25 0 C

1
1.0 MHz
V sig = 50mVp-p

600
400

I'

200
~

00

00

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

1~

100

0.1

0.4

1.0

10

40

80 100

REVERSE VOLTAGE. VOLTS

-125-

IN_MIt

I

MBR2035CT AND MBR2045CT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts CURRENT - 20.0 Amperes
FEATURES
• Plastic Package has Underwriters Laboratory
Flammability Classification 94V-O
:m~Ull • Metal to silicon rectifier,
majority carrier con,.420110.67),
.155
(3.94) OIA •...,r-_.,.-t.:-+:~I~'j·[j05~5
(~1~.40l!t
.380(9.65)
.145.--+t-IcAsE

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc-133·C
Peak Repetitive Forward Current per leg (Rated VR.
Sq. wave. 2.0 KHz) at Tc-133° C
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous
IF 10A,Tc=25°C
Forward Voltage per leg
IF=10A, Tc~ 125·C
(NOTE 2)
IF=o20A, Tc=25°C
IF=20A. Tc= 125·C
Maximum Instantaneous Reverse Current at
Rated DC Blocking Voltage per element
Tc=25·C
Tc= 125·C
Voltage Rate of Change (Rated VR)
Maximum Thermal Resistance per element (NOTE 1)
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1. Thermal Resistance from Junction to Case per element.
2. Pulse Test: 300 lIS Pulse Width. 2% Duty Factor.
3. 2.0 lIS. Pule Width. f= 1 KHz.

-128-

SYMBOLS

MBR20SOCT

MBR2060CT

UNITS

VRRM
VRWM
Voc

50
50
50

60
60
60

Volts
Volts
Volts

I(AV)

20.0

Amps

IFRM

20.0

Amps

IFSM:
IRRM

150.0
0.5
0.80
0.70
0.95
0.85

Amps
Amps

0.15
150.0
1000
2.0
-65 to +150
-65 to +175

mA

VF
IR
dv/dt
R8JC
TJ
TSTG

Volts

V/JlS
·CIW
·C
·C

RATINGS AND CHARACTERISTIC CURVES MBR2050CT AND MBR2060CT

FIG 3 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT

!i

160

w
a:

140

a:

FIG 1 • FORWARO CURRENT DERATING CURVE

~

20.0

~

16.0

~
::>

12.0

~

!i

~
~

w

o

~~

100

o

60

100

.... ~

~

~

2

.............

60

I"""

~

,

~

SINGlEIH~F

B.3...
SINE·WAVE
JEDEC METHOD

«« 60

W
Q.

40

1.0

~

4.0

w

" ....... ......

120

a:w

~ffi

\

6.0

~

(!lUI

~

o

~

aw

10

20

FIG 4 • TYPICAL REVERSE
CHARACTERISTICS

a:
a:

::>

......

T.... 125"C

10.0

./ ~ ~

()

c

a:
~UI
a:tl!
OW
LLQ.

100

FT...,50'C
!i

w
a:
a:

TJ.125"C

:.,......

10

,.,..,..

::>« 1.0
0
w

---:l r-

T....25°0

L

UI

;!!;
0.1

/
~

i

(r

I

U

M

M

PULSE WI TH.300~s
ClE
2% UTY

u

U

U

M

~

U

INSTANTANEOUS FORWARD VOLTAGE, VOLTS
T....75°0

~

1.0

FIG 5· TYPICAL JUNCTION CAPACITANCE

UI ....

4000

::> ....

. ~:!

~
~
;!!;

II

~

;5

0

a:,s

---

Z

::>
wUl
Ulw
a:a:
Ww
>Q.
w:;;

,
III

UI:;;

..-

100

60

!iw

FIG 2 • MAXIMUM REVERSE
CHARACTERISTICS

60

NUMBER OF CYCLES AT 60 Hz

160

CASE TEMPERATURE: C

5.0

2.0

,..
V
0.1

T.,..25°C

-,'"

-/

LL
0

2000

u.i

0

1000

~

600

«
Q.
~

400

Z

0

-r-

T".25°0
f.l.0MHz
Vslg.5OmVp-p

"'1-0

600

I........

200

.01

o

20

40

60

60

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

100
0.1

0.4

1.0

10

......
40

60 100

REVERSE VOLTAGE: VOLTS

INSTHMIr
·129·

MBR2090CT AND MBR20100CT
SCHOTTKY RECTIFIER
VOLTAGE RANGE -90 and 100 Volts CURRENT - 20.0 Amperes
FEATURES
TO-220CT
.19014.83)

~ :IGOi4"]6i

...1 ' .055(1.40)

-r':-}l-g-~t:-:t-~lt-~-~ .~::[4:
.640 (16.26)
.620 (15.75)
PIN
2

.6~

~
"11·:m~:::l
+
·:m~m:
~

.190 [4.83)

1

n

W:s75U4.ffi

.36019.14)
•320

t.13J

!

1

1

1163 (29.54)
1.103 (28.02)
.560 [124.22)
.530

[t46)

• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier.
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• High temperature soldering guaranteed: 250°C/l0
secondsl.25"(6.35mm) from case

MECHANICAL DATA

.022 CO.56).I.. .110 [2.79)
.014[0.36) - .090(2.29)

PIN2
(CASE POSITIVE! PIN 1-~
STANDARD POLARITY PIN 3-o-+f-1CAsE

Dimensions in inches and (millimeters)

case: JEDEC TO-220 Molded plastic
Terminals: Leads solderable per MIL-STD-202,
Method 208
Polarity: As marked Mounting Position: Any
Weight: .08 ounces, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
atTc-133°C
Peak Repetitive Forward Current, per leg
(Square Wave 20 KHz) at Tc=133°C
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current
(2.0(.1s Pulse Width, 1 KHz)
Voltage Rate of Change, (rated VR)
Maximum Instnataneous
IF= lOA, Tc= 25°C
Forward Voltage
IF= lOA, Tc- 125°C
(NOTE 1)
IFa 20A, Tc- 125°C
IF= 20A, Tc- 25'C
Maximum Instantaneous Reverse
Tc= 25°C (NOTE 1)
Current at rated DC Blocking Voltage Tc=125°C
Maximum Thermal Resistance, Junction to Case
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1. Pulse Test Pulse Width 300!lS. Duly Cycle 2%.
-130-

SYMBOLS

MBR2090CT

MBR20100CT

UNfTS

VRRM
VRWM
Voc

90
90
90

100
100
100

Volts
Volts
Volts

ICAV)

20.0

Amps

IFSM

20.0

Amps

IFSM

150.0

Amps

IRSM
dv/dt

0.5
1000.0
0.80
0.70
0.85
0.95
0.15
150.0
2.0
-65 to +150
-65 to +175

Amps
V/(.1S

VF
IR
IR
R8JC
TJ
TSTG

Volts
rnA
rnA
°CIW
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBR2090CT AND MBR20100CT
FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
175

"l,lTT

150

1?5

'"'~

100

-.

UJ

FIG. 1 -

FORWARD CURRENT DERATING CURVE

20

<.)

«

1\

16

OUl
II:UJ

<

<{::J
UJU
0.

,

0

50

~ ro-."",

50

I

-,

I
~

75

~II:

H

I

,

3:~

i

!

I
....
~
11
~I
I

25

2.0

1.0

5.0

1\

Cl

8.3rns SINGLE HALF SINE WAVE
PEA LEG (JEDEC METHOD)
T".T,IrTIaX.

10

20

50

100

NUMBER OF CYCLES AT 60Hz

FIG. 4 • TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

I-

Z

100

UJ
II:
II:

CASE TEMPERATURE, ·C

10

~
o
II:
<

~~
Ul::!;
::J<
o
UJ

10

Z

<

.."
~

Z
UJ
II:
II:
::J

1.0

",.

"

UJ if,
UlUJ
II: II:
UJUJ
>0.
UJ::;
II: <
Ul::J-'
o='
UJ::;
Z
<
IZ
<
IUl
~

I
i

O. 1

<

I-

Ul
~

TJ '" 25°C
PULSE WIDTH = 300fJs
DUTY yeLE

I

21

I

01

l

I

3

,
,
~

<.)

I

IZ

f--

TJ '" 125 c C

/

1.0

offi
u..o.

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

T.. = 75 c C

0.1

FIG. 5 -

TYPICAL JUNCTION CAPACITANCE

4000

2000

U
Z
<

1000

U

600

a.
ui

V

.01

u..

TJ = 25°C

I-

./

<
0.
<

./
.001

1/
a

.........

TJ '" 25¢C

f_l.0MHz
V sig • 5OmVp.-p

800

....

400

<.)

".

20

-

I

200

40

60

80

100

"

120 140

PERCENT OF RATED PEAK
REVERSE VOLTAGE

100
0.1

04

10

4.0

10

REVERSE VOLTAGE, VOLTS

·131·

40

80100

SBLF2030PT AND SBLF2040PT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 30 and 40 Volts

CURRENT - 20.0 Amperes
FEATURES

ITO-3P

.1~8(3.50)DIA.
.1_213.10)

I

.800(20.2)
.700ns.B)

'
II'

.598U5.2)
.582U4.8)
.381(9.7)
.366(93)

'I

I

~

--*--

~

.06(1.5)

,45"

• (4.B)
+-+1

Chamfe

,

.180 (4. 5)

_

~=~=~
1=

lo.r-.-~

f

2°REF
10·

PlN

~

.095 (2.4)

• Dual rectifier construction, positive center-tap
• Isolated plastic package has Underwriters
Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power
loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 secondsl.17", (4.3mm) lead lengths at
5 Ibs. (2.3kg) tension
• Internal Insulation: 1.5k VRMS

.. I, .028 (.70)

MECHANICAL DATA

.020 (.50)

PINl~

STANDARO POLARITY PIN 3 5--t>f-IPIN 2

Dimensions in inches
and

(millimeters)

case: ITO-3P Molded Plastic
Terminals: Leads Solderable per MIL-STD202, Method 208
Polarity: As marked
Mounting Position: Any
Mounting Torque: 5 in. - lb. max.
Weight: .47 ounces, 13.2 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
'Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.

Maximum Recurrent Peak Reverse Vonage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=105°C
Peak Forward Surge Current, a.3ms single
half sine-wave superimposed on rated load
(JEDEC Method)
Maximum Instantaneous Forward Voltage
Per Leg IF= 10.0 (NOTE 2)
Maximum Instantaneous Reverse Current at Tc- 25°C
Rated DC Blocking Voltage per element
Tc=100°C
Typical Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range
NOTES:
1. Thermal Resistance from Junction to Case per element.
2. Pulse Test: 300j!s Pulse Width. 2% Duty Factor.
-132-

SYMBOLS

SBLF2030PT

SBLF2040PT

UNITS

VRRM
VRMS
Voc

30
21
30

40
28
40

Volts
Voks
Voks

I(AV)

20.0

Amps

IFSM

250.0

Amps

VF

0.55
1.0
50.0
2.0
-40 to +125

Volts

IR
R8JC
TJ,TsTG

mA
°CIW
°C

RATINGS AND CHARACTERISTIC CURVES SBLF2030PT AND SBLF2040PT

~
Z

RG. 1-FORWARD CURRENT DERATING CURVE
20.0

1\,

W

a:
a:

:>

o

16.0

~~

12.0

a:~

~<

8.0

W

CI

<
a:

0

o

~

\

100

250

8.3ma SINGLE HALF SINE WAVE
PER LEG (JEDEC METHOD)

o

~

U)

Irw

200

~

:::>0:
(I)

T".TJmalC.

.........

W 150

~

I""

~~

~ '"

- I- -

4.0

w

>
<

0:
0:
;:)

~

~~

300

w

,

C'"

FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG

..:
z

........

100

0:

---:-.

1~

~

50

'"'"

0

W

CASE TEMP'ER'ATURE, 'C

a..

1

10

r--.... b"",,

20

50

100

NUMBER OF CYCLES AT 60 Hz
FIG. 4· TYPICAL INSTANTANEOUS
F0I'IWARD CHARACTERISTICS PER LEG

FIG. 3 - TYPICAL
REVERSE CHARACTERISTICS

...:

100

Z

100

w

a:
a:

,

:::>

o
c

~

L

0

,/

0:

~

z

W

a:
a:

~~
a: a:

j;.. V

To = 100'
10

Ow
u.a..

o

::) <

WIll

"'W
Ira:

Ww
>0..
W~

o

V'"
~

1.0

0:<

1.0

1/

W

Z

;:!:

,....TJ=7S·C

.Z

'"

L

I-

Ill::;

'"
:!:

;:)...0

S~

0.1

111

-

25° C

PULSE WIDTH :: 3(0)1..$

o.

"_.Duty Cycle

.3

.4

.5

.6

.7

.8

FIG.S-TYPICAL JUNCTION CAPACITANCE PER LEG

'"

:!:

4000

il

ui

o

20

TJ ~ 2S.IC I I
f == 1MHz
Vsig "" SOmvp-p

u. 2000
"-

I.........

0.01

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

.9

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

~ - 25°C~

Z

TJ

1

.2

1/

Z

;:!:
;:!:

f

(/)~

;:)

140

0
Z

<

~
0

'"a..<

i"""1-1000
800
600
400

0

200
100

0.1

0.4

1.0

10

REVERSE VOLTAGE, VOLTS

·133·

40

80100

SBL2030PT AND SBL2040PT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 30 and 40 Volts

CURRENT - 20.0 Amperes
FEATURES

T0-3P

.0(71U9R
UE)F

r

.193 (4. 0)

. -I r

1~ i:~'TYP.

.245'(6.2)
.225 CS.7)t

,. BOTH SIDES

1
.840(21.3)
.820 (20.8)

l"REF-~-

, .1

- ' l"REF
~

,::~:g:~~

!

• Dual rectifier construction, positive center-tap
• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier con.323(8.21
.31317.91
duction
.142(3.6)
• 38(3.5) • Low power loss,
t .110
high efficiency
+ (4.3) • High current capability, low VF
• High surge capacity
• Epitaxial construction
.1/ '.~~~ ~:~~~ • For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
-:;1 11' 1 :~m~:m
High temperature soldering guaranteed:
I
250°C/10 seconds/.17" ,(4.3mm) from case
I
I
• Guardring for transient protection
I

1·IGk :
.140 (3.5)

.795 (20.2)

• ,:~~~ m~ .71T·1J

•

1+-+1 • •.048 (1.22)
.225 (5.7)
.205(5.2)
(Case Positive)

MECHANICAL DATA

.044 (1.12)

PINl~PIN2

STANDARD POLARITY PIN 3 ~E

Dimensions in inches
and
(millimeters)

case: JEDEC TO-3P Molded Plastic
Terminals: Lead solderable per MIL-STD202, Method 208
Polarity: As marked
Mounting Position: Any
Weight: 0.2 ounces, 5.6 gram

CROSS REFERENCE GUIDE
GI
SBL2040PT

SHINDENGEN

FUJI
ESA83-004

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless othelWise specified.
Rasistive or inductive load.
For capacitive or inductive loed, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=105·C
Peak Forward Surge Current,8.3ms single
half sine-wave superimposed on rated load
(JEDEC Method)
Maximum Instantaneous Forward Voltage
per leg IF= 8.0 (NOTE 2)
Maximum Instantaneous Current at
Tc=25·C
Rated DC Blocking Voltage per element Tc=100·C
Typical Thermal Resistance per leg (NOTE 1)
Operating and Storage Temperature Range

SYMBOLS

SBL2030PT

SBL2040PT

UNITS

VRRM
VRMS
Voc

30
21
30

40
28
40

Volts
Volts
Volts

I(AV)

20.0

Amps

IFSM

250.0

Amps

VF

0.55
1.0
50.0
1.5
-40 to +125

Volts

IR
R8JC
TJ,TsTG

NOTES: 1. Thermal Resistance from Junction to Case per element.
2. Pulse Test: 300l1s Pulse Width, 2% Duty Factor.

-134-

rnA

·cm
·C

RATINGS AND CHARACTERISTIC CURVES SBL2030PT AND SBL2040PT
FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
300

W
(!l",
a:W
::Ja:
",W
Oil.
a::::;;

FIG. 1 - FORWARD CURRENT DERATING CURVE

r:
Z
W

a:
a:
::J

20 .0

\

U
16 .0
0'"

a: W


0
50

100

........ ......

.......

50

0
1

\

<

'"

.... r---.. i '

r---

Il.

,

8. 0

(!l

200

«

:;=r:
a:Z

,8.3ms SINGLE HAlF SINE WAVE i
,PER LEG (JEDEC METHODI
T...TJmax.

250

5

10

20

50

100

NUMBER OF CYCLES AT 60Hz

FIG. 4· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

150

CASE TEMPERATURE, °C

zr:

100

W

a:
a:
::J

U

o

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS

a:

~ffl
a: a:

100

~

10

Ow
u.1l.
"':::;;
::J<

oW

r:

Z
W
a:
a:
::J
U
W'"
"'W
a: a:
Ww
>Il.
W:::;;
a:<
::J-'
O::!
W:::;;
Z

T ..

=lODQe

10

./

~
«
Z

'"~

I
.2

" , i-""'"T, ~ WC

1.0

/

2% DUTY CYCLE

.3

.4

.5

.6

.7

.9

.8

INSTANTANEOUS FORWARD VOLTAGE
VOLTS

,

«

TJ = 25°C
PULSE WIDTH'" 300 1-18 _

I

I'"

ff-

Z

".,

f-

"'Z
<

I
I(
1.0

fiG. 5· TYPICAL JUNCTION CAPACITANCE PER LEG
4000

TJ=2S"C

U.

0-

0.1

2~oC ",.1

T...
f.1.0MHz
Vsig_50mVp-p

2000

r""'o

ui

'"~

U
Z

1000

0

600

«
f-

".

./

«
«

!'--i"o

800
400

Il.

.01
~o

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

U

"

200

100
0.1

0.4

10

10

REVERSE VOLTAGE, VOLTS

-135-

40

80100

MBRF2535CT AND MBRF2545CT
SCHOTIKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts

CURRENT - 30.0 Amperes
FEATURES

• Isolated plastic package has Underwriters
Laboratory Flammabilty Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power, loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in. low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
2S0°C/10 seconds/.2S", (6.3Smm) from case
• Guardring for transient protection
• Internal Insulation: 1.Sk VRMS

ITD-220 CT

.. ,.107! .008
[2.7 1 0.21

MECHANICAL DATA
Case: ITO-220 Fully Overmolded Plastic
Terminals: Leads, solderable per MIL-STD-202,
Method 208
Polarity: As marked Mounting Position: Any
Mounting Torque: Sin. - lb. max.
Weight: .08 ounces, 2.24 gram

PI"1-~2

......4°REF.........

PI"3-~

+

STANDARD POLARITY
[POSITIVE CTl

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Vokage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectffied Current
at Tc=130°C
Peak Repetitive Forward Current per leg (rated VR,
Square Wave,20 KHz) at Tc=130°C
Peak Forward Surge Current 8.3ms single half sine-wave
!luperimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward Voltage
Per Lag IF=30A, T c.;25°C (NOTE 2)
IF=30A, Tc=125°C
Maximum Instantaneous Reverse Current at Tc=25°C
Rated DC Blocking Voltage per leg (NOTE 2) Tc=125·C
Typical Thermal Resistance, (NOTE I)
Voltage Rate of Change (rated VR)
Operating Junction Temperature Range
Storage TemperatureRange

SYMBOLS

MBRF253SCT

MBRF2545CT

UNITS

VRRM
VRWM
Voc

35
35
35

45
45

Voks
Voks
Volts

I(Av)

30.0

Amps

IFRM

30.0

Amps

IFSM
IRRM

150.0
1.0

Amps
Amps

VF
IR
IR
R8JC
dv/dt
TJ
TSTG

NOTES: 1. Thermal Resistance from Junction to Case per leg.
2. Pulse Test: 300~ Pulse Width, 2%, Duty Factor
3. 2.0~, Pulse Width 1 KHz.
-136-

45

0.82
0.73
0.2
40.0
1.8
1000
-65 to + 150
-65 to +175

Voks
rnA
rnA
°CIW

V/Jls
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBRF2535CT AND MBRF2545CT

FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEO
15

o~

5

,

"

0

FIG. I-FORWARD CURRENT DERATING CURVE

fZ

30

W

a:
a:
:J

oen

a: W
~ffi

18

~~

12

a:1l.

,

W

o

~

1

<{

5

a:
W
>
<{

o

50

100

10

to-

+-

I'- ""

20

50

100

NUMBER OF CYCLES AT 60Hz

1\

, ! .5311 MIN.

I

[O.75.8:~)

I. I I-rrrsri~ i

,.107!.008
12.7' 0.2)

2.54

i

~
40REF.
.028'.008
......
... "'(0.71:0.2)·

MECHANICAL DATA

""
<

30

1\

18

a:Z
OW
",a:
"a:
<::l
wU
0..

,

\

12

o

100

«
;:,..:

24

o

50

~

100

~

125

~

8.3mo SINGLE HALF SINE WAVE
PER LEG (JEDEC METHOD)
T,.T.. max.

"'" r"oo~

75

I'"

"-

50

5

1

10

50

150

Z

a:
a:
::l
U
o
a:


o

o

&0

100

~

..... .... 1--

5

\

W

CJ

-

~
Z

10

Z


I::L.

~~
Ul-

TJ ~ WC

~

1.0

I

,I

11

PULSE WIDTH

.6

V

FIG. 5 - TYPICAL JUNCTION CAPACITANCE PER LEG

./

U.

Cl.

2000

r--.....

l

. . . r-. ...

ui

f-

()

0.1

Z
a:

FIG. 1-FORWARD CURRENT DERATING CURVE

f-'
Z
UJ
a:
a:
:::>

16

U

oen

8

UJ

r-.~
~

80

o

o

50

60

10

150

I-

Z
UJ
a:

~

a:

TJ

150° C

,~

TJ

-

~ffl

a: a:

OUJ
LLo..
Ul~
:::>«

0

Ien

/

~

TJ

-

25° C ~

40

60

~

TJ

-

25° C

.4

.5

.6

I

I

.9

.8

.7

1.0

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG. 5 - TYPICAL JUNCTION CAPACITANCE PER LEG
4000

..,

~ 2000

V

80

~

~

L

ui
U

- r-- ...

I II
I

i'-

VSIg - SOmVp·p

Z 1000
«
I- 800
0 600
«
400
0..
«

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

I I

TJ ...,. 25° C
f - 1MHz

r"..

..... i'..

200
20

......

I
.3

U
.01

100

PULS~o ~~~~C;CI!OO ~s _
.2

75' C

-

~ i""'"

V

-

125~CL

I

0.1. 1

TJ

I

I

1.0

UJ
Z
«
IZ
«

1250 C

j......- i""""

~

1'00 ...

50

, ,
"'
/

0

a:

FIG.3-MAXIMUM REVERSE
CHARACTERISTICS PER LEG

-

10

U

J

20

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

:::>

r---- T

......

50

CASE TEMPERATURE, °C

100

~

NUMBER OF CYCLES AT 60Hz

\

100

......

UJU

~

~

a:
UJ

~

~§

" """

3ls Smgl~ Hal,

8
Sine-Wave per leg
(JEDEC Method)

\

s:~

a: ~

a:Z
OUJ
LL a:

0..

a: UJ 12
«a:

12«

s:~~f-' 100

,

20

"""

140
100
0.1

0.4

1.0

10

REVERSE VOLTAGE, VOLTS

-143-

40

80 100

MBRF3035PT AND MBRF3045PT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts
CURRENT - 30.0 Amperes
FEATURES
ITO-3P

.1l8l3.S0l 0IA •
.1220.10)

I

I ..366(9.3)'
38119.7l I
--..-i..I

r

.8OO(20.2ll=~~=~

~

1OOU
•

"-nr-T7r--n"",

~,

.095 (2.4l

"I·:~t~~l
(PositiVI! en PIN 1 ~
STANDARD POLARITY PIN 3 ~"iM 2

Dimensions in inches and (mUlimeters)

• Dual rectifier construction, positive center-tap
• Isolated plastic package has Underwriters
Laboratory Flammability C l a S S i - .
fications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
. ''',
• Low power loss, high efficiency
""'" ""
• High current capability, low VF
'''', \' •• "
"" '
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed: 250°C,
.17 (4.3mm) lead length at 5 Ibs. (2.3kg) tension
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS

MECHANICAL DATA
case: ITO-3P Fully Overmolded Plastic
Terminals: Lead solderable per MIL-STD-202,
Method 208
Polarity: As marked Mounting Position: Any
Mounting Torque: 5 in. - lb. max.
Weight: .47 ounces, 13.2 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25·C ambient temperature unless otherwise specified. Resistive or inductive load.
For capac~ive load, derate current by 20%
Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=105·C
Peak Repetitve Forward Current per leg ( rated VR,
Square wave, 20 KHz) at Tc= 105°C
Peak Forward Surge Current, 8.3ms single half sine
-wave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous IF= 20A, Te=125°C (NOTE 2)
Forward Voltage
IF=3OA, Te=25°C
per leg
IF=30A, Tc=125°C
Maximum Instantaneous Reverse
Current at Rated DC Blocking
Tc=25°C
Voltage per leg (NOTE 2)
Te=125°C
TypiCal Thermal Resistance (NOTE 1)
Voltage Rate of Change (rated VR)
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1. Thermal ReSistance from Junction to Case per element
2. Pulse Test: 3OOl'S Pulse Width, 2% Duty Factor.
3. 2.01'S Pulse Width,f=1.0KHz '
-144-

SYMBOLS

MBRF3035PT

MBRF3045PT

UNITS

VRRM
VRWM
Voe

35
35
35

45

Volts
Volts
Volts

45
45

I(AV)

30.0

Amps

IFRM

30.0

Amps

IFSM
IRSM

200
2.0
0.60
0.76
0.72

Amps
Amps

1.0
60.0
1.7
1000
-65 to +150
-65 to +175

mA

VF

IR
R9JC
dv/dt
TJ
TSTG

Volts

°cm
VlILS
·C
°C

RATINGS AND CHARACTERISTISC CURVES MBRF3035PT AND MBRF3045PT

FlO. 2 • MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
300

~._-:r:-HLF llN~ W~V~I

250

W
o:w
:::>0:
enW

PER LEG (JEDEC METHOD)

T...r"max,;

(!len

FIG. 1-FORWARD CURRENT DERATING CURVE

""'ZUJ0:

,

30

0"'-

0::2 150

24
U
Den
o:UJ


U

I
TJ

I
o

h

125 C
O

10

. / ~"""""'"
y I

V

TJ=25"C

0

0:



Z 1000
;': 800

0.1

en

U

~

a: 200

....
z

w
a:
a:
::::>
U

30

LL c:(

\

12

Cl

«

a:
W

>

o

o

1'0 ....

~

3:~

W

«

I"

a:Z
OUJ 100
LLa:
",a:
«::::> 50
UJU

1\

a: W
« a: 18
W
3:
a:o..

~

a:::;;
«« 150

\

24

O(/)

0:'

(/)UJ
00..

FIG. 1-FORWARD CURRENT DERATING CURVE

50
100
CASE TEMPERATURE. °C

o

~

5
10
20
NUMBER OF CYCLES AT 60Hz

1

150

~

100

Z

r-- =T,

I--

125° C

/

U

o

cr:

FIG. 3 - MAXIMUM REVERSE

~~
a: a:

CHARACTERISTICS PER LEG
100

/

10

LLo..

f

(/)::;;

Ij

oW

~

-'"

10

/ T1 =250 C

OW

T. - 1SOO 0

::::>«

Z
W
a:
a:
::::>

100

50

FIG. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
PER LEG

\

a:
a:
::::>

~

r-- r-. ......

0..

UJ

r--

SI~GlE ~AlF' SI~E-~~V~

(JEDEC Method)
T)" 1250 C

~ i"""" T.

=

Z

«
....
Z
«
....
(/)

125° 0

I

u

~o
T. = 75"0

TJ

il IA

~

2

= 25°C

PULSE WIDTH = 300,...2% Duty Cycle

S

B

~

U

u

INSTANTANEOUS FORWARD VOLTAGE,

/

VOLTS

FIG. 5-TYPICAL JUNCTION CAPACITANCE
PER LEG
4000

./

LL 2000
0-

U

1000

«
....

800

Z

T. = 25°0

V

V

20
40
80
80 100 120
PERCENT OF RATED PEAK
REVERSE VOLTAGE

li
«
0..
«

140

I

~~,:-=~

...

W

,

.D1

IIII

""-

I--..

800

......

400

U

,..

TJ "" 25 0 C
200

100

0.1

0.4

1.0

4

10

40

REVERSE VOLTAGE, VOLTS

I~
-147-

80100

MBR3035PT AND MBR3045PT
SCHOTIKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts
CURRENT - 30.0 Amperes
FEATURES
TO-3P

'~i8•9:~f -

r#

rr='.m !Ugl
\i

.

24516.2)
.225(5.7)

1

;~.

~ 10·TYP.

-

7"

.32318.2
.313(1.9)
.14213.6)

iFt9~?ft. !3813. 5i

.170

14.3)

80TH SIDES
.840121.3)

I'REf-'-

, .1

jl'RU

"
,::~:g:~:

.82~~~-nT~~lti~8~~~~B~ill~

1

.12713.22)
.11712.97)

·160+14.1)

.140 (3.5)

.12ill!!,ll

.775(19.7)
+

,.030 1.76)
.020 (.51)

!

MECHANICAL DATA

I_I • , .048 n.22)
.22515.7)
.20515.2)

(Case Positive)

• Dual rectifier construciton, positive center-tap
• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling. and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds, .17 (4.3mm) from case
• Guardring for transient protection

.04411.12)

PINl~---..!.PIH2

STANDARD POLARITY PI"3~[

Dimensions in inches and (millimeters)

Case: JEDEC T03P Molded Plastic
Terminals: Lead solderable per MIL-STD-202
Method 208
Polarity: As marked
Mounting Position: Any
Weight: 0.2 ounces, 5.6 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specilied. Resistive or inductive load.
For capacitive load. derate current by 20%
Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=105°C
Peak Repetitve Forward Current per leg (rated VR,
Square wave, 20 KHz) at Tc=1 05°C
Peak Forward Surge Current, 8.3ms single
haH sine-wave superimposed on rated load
(JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 2)
Maximum Instantaneous Forward Voltage
IF=20A,Tc=125°C (NOTE 3)
per leg
IF=30A. Tc=25°C
IF=30A, Tc=125°C
Maximum Instantaneous Reverse Current
at Rated DC Blocking Voltage)
Tc=25°C
per leg (NOTE 3)
Tc=125°C
Maximum Thermal Resistance (NOTE 1)
Voltage Rate of Change at (Rated VR)
Operating Junction Temperature Range
Storaae TemDerature Ranae
NOTES: 1. Thermal Resistance Irom Junction to Case per leg.
2. 2.0/lS. Pulse Width. 1=1.0 KHz.
3. Pulse Test: 3OC/lS Pulse Width. 2% Duty Factor.
-148-

SYMBOLS

MBR3035PT

MBR3045PT

UNITS

VRRM
VRWM
Voc

35
35
35

45
45

Volts
Volts
Volts

45

hAV)

30.0

Amps

IFRM

30.0

Amps

IFSM
IRSM

200.0
2.0

Amps
Amps

VF

0.60
0.76
0.72

VoRs

IR
R8JC
dv/dl
TJ
TSTG

1.0
60.0
1.4
1000
-65 to +150
-6510+175

rnA
°CIW
V/jJ.s
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBR3035PT AND MBR3045PT

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
300

I TIIIII
'8.3mo SINGLE HALF SINE WAVE

250

W
C)'"
O:W

~
Z
W

0:
0:
::l

U
0(1)

FIG. 1 -

,

30

o:W

«0:

20C

0:::;:
««

150

~ ........
I"'" 1"-1"-

:;:~

o:z

100

",0:
«::l

50

OW
LLO:

"'"

"'-

'1\

12

W
C)

0 ,

10

'1\

«
0:

W

>
«

o

....
l"'- i-

wU

24

:;::i'

0:::;:
S::«

T,.ToImax.

::l0:

(l)W
0"'-

FORWARD CURRENT DERATING CURVE

36

PER LEG (JEDEC METHOD)

o

50

100

20

50

100

NUMBER OF CYCLES AT 60Hz

~

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG
150

50
~

CASE TEMPERATURE. ·C

zW

I

0:
0:

13
o

I

TJo125"~

10

/~

V'" TJ =25°C

0:

~~

FIG. 3' - MAXIMUM REVERSE
CHARACTERISTICS PER LEG

~TJ

JI

[Sffi
LL",-

100

I

/ I

(I)::;:
0

::l«

o

150".7"

10

W

Z

I"

/
",

TJ

= 125

C

«
~
z
«

C

~
(I)

--

PULSE WIDTH 300 fls 2% r'luty Cycle

z

1
1.0

V

INSTANT ANEOUS FORWARD VOLTAGE,
VOLTS

"'~75"C

FIG. 5 - TYPICAL JUNCTION CAPACITANCE PER LEG
4000

u.

Q.

2000

T...2slc

I-- I-

1-1.0 MHz.!

~ I""'-

W

1

100 0

S
«

800

«

.,
.0 1

~

.;>'"
20

40

".

60

"'-

80

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

60 0
400

....

«

TJ=25 c C

U

120

'-

Vslg.50mVp.p-

200

100
01

04

10

10

40

80 100

REVERSE VOLT AGE. VOLTS

-149-

IN~~

MBR3050PT AND MBR3060PT
SCHOTIKY RECTIFIER
VOLTAGE RANGE - 50 and 60 Volts CURRENT - 30.0 Amperes
FEATURES
TO-3P

.170
(4.3)

,

- i rREf
.127[3.22)
.U7[2.S7)

:i~:g:~:
+

.030 (6)
.020 (.!ill

MECHANICAL DATA

I_I .. •.048 (1.22)
.225 (5.7)
.205(5.2)

(Case Positive)

• Dual rectifier construciton, positive center-tap
• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to. silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds, .17 (4.3mm) from case

.044 (1.12)

PINl~p[N2

STANDARD POLARITY PIN 3 ~CAs[

Dimensions in inches
and
(millimeters)

case: JEDEC TO-3P Molded Platsic
Terminals: Lead solderable per MIL-STD-202
Method 208
Polarity: As marked
Mounting Position: Any
Weight: 0.2 ounces, 5.6 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive or inductive load, derate current by 20%.
Maximum Recurrent Peak Reverse Vottage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=105'C
Peak Repetitve Forward Current per leg (rated VR,
Square wave, 20 KHz) at Tc=105°C
Peak Forward Surge Current, 8.3ms single
half sine-wave superimposed on rated load
(JEDEC Method)
Peak Repetitive Reverse Current (NOTE 3)
Maximum Instantaneous Forward Voltage
Per Leg IF=20A, Tc=25°C (NOTE 2)
IF=20A, Tc=25°C
Maximum Average Reverse Current at Tc=25°C
Rated Peak Reverse Voltage (NOTE 3) Tc=100°C
Maximum Thermal Resistance (NOTE 1)
Voltage Rate of Change (rated VR)
Operating JunctionTemperature Range
Storage Temperature Range

SYMBOLS

MBR3050PT

MBR3060PT

UNITS

VRRM
VRWM
Vee

50
50
50

60
60
60

Volts
Volts
Volts

ICAV)

30.0

Amps

IFRM

30.0

Amps

IFSM

300.0

Amps

VF
IR
R8JC
dvldt
TJ
TSTG

NOTES:
1. Thermal Resistance from Junction to Case per leg.

2. 300j.lS Pulse Width, 2% Duty Factor.
3. 2.0j.lS Pulse Width, f=1.0 KHz

-150-

0.65
0.75
5.0
100.0
2.0
1000
-65 to + 150
-65 to +175

Volts
rnA
'CIW
VIlIS
°C
°C

RATINGS AND CHARACHTERISTIC CURVES MBR3050PT AND MBR3060PT

300

,'"
I
I

FIG. 1 -

~

zw

FORWARD CURRENT DERATING CURVE

8.3mo SINGLE HALF

~~
1'1"-

............

,

0

0'"

"

W

~ffi2

4

1\

a: a..

l?~

2

0 ,

10

W

Cl

a:

«
50

130

100

20

50

100

FIG.4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
PER ELEMENT

\

W

!--o ... ~

NUMBER OF CYCLES AT 60Hz

\

«

>

S~ WA~

PER LEG (JEDEC MCTHOD)_
T".ToImBX.

6

a:
a:
::>
u
a:

FIG. 2 • MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG

100

150

~

CASE TEMPERATURE. ·C

zw

a:
a:
::>
u

o
cr:

FIG. 3 - MAXIMUM REVERSE
CHARACTERISTICS

~

./

0

V

~ffl

a: a:

10

Ow
u..a..
"'::;:

~'TC.'5O"C

/

::><

---

oW

j.....oo"
j...-- ~TC.'25°C

10

z

«
>-

z
«

TJ=2S0C

>-

'"~

PULSE WIDTH
2% Duty Cycle

I

01

=3OO~S10

3

TC.75OC~~

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

1

FIG. 5 -

· rf - -

V

/

4000

/

/

/

1

u..
a.
ui
U
Z

«
>U
«a..
«

1/
Tc °t5O~
00 1

Y
m

~

00

00

TYPICAL JUNCTION CAPACITANCE
PER ELEMENT

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

u

2000

r-

T~

-!--or-

1000

t-1.oMHz,,~
Volg-5Om /po

.....

600

--

600
400

200

100
01

J"ooo..

""
04

10

10

40

80100

REVERSE VOLTAGE, VOLTS

IN~
-161-

SBLF3030PT AND SBLF3040PT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 30 and 40 Volts CURRENT - 30.0 Amperes
FEATURES
ITO·3P

.598(15.2)
.582114.8)
.) 1(9.7)
'1b·~)6=6(::9.l
""'"

I

I
S):tl-----*-.211(5.5)

YH__r.18,"'c:.:.4.5J

~

.06(1.5)
x 45·
Chamfe

•

-I

4.8)

2C1REF

Wlli:iiJ

.095(2.4)

• Dual rectifier construction, positive center-tap
• Isolated Plastic (1500 VRMS) package has Underwriters Laboratory Flammability
Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power
loss, high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling; and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds,17 (4.3mm) from case
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS

.. I•. 028 (,70)

MECHANICAL DATA

.020(.50)

(Positive eTl

PIN 1 ~

STANDARD POLARITY PIN 1 a.--.tJi'IH 2

Dimensions in inches
and
(millimeters)

Casei1TO-3P Fully Overmolded Plastic
Terminals: Lead solderable per MIL-STD-202
Method 208
Polarity: As marked
Mounting Position: Any
Mounting Torque: 5 in.- lb. max.
Welght:.47 ounces, 13.2 ounces

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S·C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=100'C
Peak Forward Surge Current, 8.3ms single
haH sine-wave superimposed on rated load
(JEDEC Method)
Maximum Instantaneous Forward Voltage
per leg IF 5=15, Tc= 25·C (NOTE 2)
Maximum Instantaneous Reverse Current at Tc=25°C
Rated DC Blocking Voltage per leg
TC-l00·C
Maximum Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range
NOTES:

1. Thermal Resistance from Junction to Case per leg.
2. Pulse Test: 300f.lS Pulse Width, 2% Duty Factor.
-152-

SYMBOLS

SBLF3030PT

SBLF3040PT

UNITS

VRAM
VAMS
Voc

30
21
30

40
28
40

Volts
Volts
Volts

I(AV)

30.0

Amps

IFSM

275.0

Amps

VF

0.55
1.0
75.0
2.5
-40 to +125

Volts

IR

R8JC
TJ,TsTG

mA
·CIW
°C

RATINGS AND CHARACTERISTIC CURVES SBLF3030PT AND SBLF3040PT

FlO. 2 • MAXIMUM NON-REPETlTIVE PEAK

FORWARD SURGE CURRENT PER LEG
300

W

(!l(l)

~

zw

a:
a:
::>

FIG.1- FORWARD CURRENT DERATING CURVE
36

o 30
om
a: W
«
ffi 24
~Q.

~

a:~

~«

~
~

,

~

12

W
(!l
W

a:w
::>a:
mw
oil.
a:=<
««
~~
a:z
OW
ILa:
"a:
«::>
wO
Q.

6.0

o

o

50

100

CASE TEMPERATURE, 'C

Umo SINGLE HALF SINE WAVE
PER LEG (JEDEC METHOD)

t"....

250

T...T"fNX.

"""'" r---.... ..... 1'

200

150

i"o

i'......

100

...... r--

50

...

~

0
1

5

10

20

50

NUMBER OF CYCLES AT 60Hz

r\,,"

FIG. 4 - TYPICAL FORWARD
CHARACTERISTICS PER LEG
~
Z

100

w

a:
a:
::>

o

o
a:

/

0

~ffl

a: a:

FIG. I - TYPICAL REVERSE
CHARACTERISTICS PER LEG

OW

LLQ.

I

m::;

::>«

100

'I

ow

1.0

~
~
~
Z

. Te· l00·C.......

V

I

.01

0.2

Tc = 75°C

~

,.,

TJ = 2S"C
PULSE WIDTH = 300 IJ. S
2% DUTY CYCLE

I
0.3

04

05

06

0.7

.08

.08

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS·

V

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
PER LEG
4000

ILCo 2000

~

/

o
z

T" = 25<>C

o~
«Q.

o

""
20

40

1000 =IaI.OMu..
600

_ llalg.1iOmVpji

600
400

«

.JII'

.01

r - r--i"oo

T..Jc

ui

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

200
100
01

04

10

10

40

80100

REVERSE VOLTAGE, VOLTS

I~
-153-

SBL3030PT AND SBL3040PT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 30 and 40 Volts CURRENT - 30.0 Amperes
FEATURES

-i.1"REF
~

.118(3.01
.108(2.71

..

,:~~~ !~~~

• Dual rectifier construction, positive center-tap
TO·3P
• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
.323(8.
.313(7.91
high efficiency
.142(3.61
• High current capability, low VF
.138(3.51
• High surge capacity
'-.
+ .170
(4.31
• Epitaxial construction
+
• For use in low voHage, high frequency inverters,
.840(21.31
free wheeling, and polarity protection applications
.820~(20.81
.086 (2.181
II....TT.,.,...,.!+!-!Jt-=:w.fID~
•
High temperature soldering guaranteed:
.076 U.931
250°C/10 seconds,17 (4.3mm) lead lengths at
I
+11: I
.127(3.221
5 Ibs., (2.3kg) tension
.140 (3.5)1
.111(2.971. Guardring for transient protection
.795 (20.21
I
I
.775!U9.71
1

1.16t.w-:

MECHANICAL DATA

1+-+1 ..
.225(5.71
.205(5.21

,.048(1.221
.04411.121

(Case Positive) PIN 1 ~ PIN 2
STANDARD POLARITY PIN 3 ~E

Dimensions in inches and (millimeters)

Case: JEDEC TO-3P Molded Plastic
Terminals: Lead solderable per MIL-STD-202,
Method 208
Polarity: As marked
Mounting Position: Any
Weight: 0.2 ounces, 5.6 gram

CROSS· REFERENCE GUIDE
GI
SBL3030PT
SBL3040PT

FUJI

SHINDENGEN
S30SC3M
S30SCAM

ESAD83-004

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
at Tc=100'C
Peak Forward Surge Current. 8.3ms single
haH sine-wave superimposed on rated load
(JEDEC Method)
Maximum Instantaneous Forward Voltage
per leg IF=15, Tc=25'C (NOTE 2)
Maximum Instantaneous Reverse Current at Tc = 25°C
Rated DC Blocking Voltage per leg
Tc _100°C
Maximum Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range
NOTES:
1. Thermal Resistance from Junction to Case per leg.
2. Pulse Test: 300j.lS Pulse Width, 2% Duty Factor.

-154-

SYMBOLS

SBL3030PT

SBL3040PT

UNITS

VRRM
VRMS
Voc

30
21
30

40
28
40

Volts
Volts
Volts

I(AV)

30.0

Amps

IFSM

275.0

Amps

VF

0.55
1.0
75.0
2.0
-40 to +125

Volts

IR
R9JC
TJ.TsTG

rnA
°CIW
°C

RATINGS AND CHARACTERISTIC CURVES SBL3030PT AND SBL3040PT

FlG. 2· MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
300

FIG. 1 -

.:
z
W

36

U

30

a:
a:
::>

FORWARD CURRENT DERATING CURVE

W
Cl(/)
a:W
::>a:
(/)W
00..
a:::;
««

a: W

«

ffi

~o..

24

a:::;

5: «
«

[[

6.0

>
«

o

o

50

T...T,Imax.

~

. . . r-. .....

150

~ ......

100

100

50

r... ....

~~

0..

\

W

Cl
W

a:Z
OW
!La:
~a:
«::>
wU

~

12

'"

200

~.:

\

O(/)

8.3.. SINGLE HALF SINE WAVE
PER LEG (JEOEC METHOD)

........

250

0
1

10

100

50

20

NUMBER OF CYCLES AT 60Hz

~

1>U

CASE TEMPERATURE, 'C

FIG. 4 - TYPICAL FORWARD
CHARACTERIST(CS PER LEG

.:
Z

100

W

a:
a:
::>

U

o

a:

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS PER LEG

/

0

~ffl
a: a:

Ow

100

!Lo..
(/)::;

I

::>«

oW

1.0

Z

.:
z

W
a:
a:
::>
U
W(/)
(/)W
a: a:
Ww
>0..
W::;
a:«

T,~

«

l00'C/ , /

IZ

10

«

I

~

I

!Ii

.01

0.2

T.. =75"C
1.0

V

,.,

V

FIG. 5 -

::>-'

l-

4000

~

/

0.1

0.3

0.4

0.5

0.6

0.7

.09

.08

a.

T.. '" 25"C

-.... ..... .....

T..JOC

ui

(/)

«

~

5
«

L

./

800 -

TYPICAL JUNCTION CAPACITANCE
PER LEG

I

u.. 2000

~ 1000 =1.1.0M

Vsig-6OmVI>P

600
400

0..

«
U

.01
~

PULSE WIDTH'" 300j.1s
2% DUTY CYCLE

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

(/)-

O::!
W::;
z
«
IZ
«

TJ '" 25°C

~

00

00

100

1~

PERCENT OF RATED PEAK
REVERSE VOLTAGE

200

1~

100
0.1

0.4

10

10

40

80100

REVERSE VOLTAGE, VOLTS

·155·

INsBM'r

SD241P
SCHOTIKY RECTIFIERS
VOLTAGE RANGE - 45 Volts CURRENT - 30.0 Amperes
FEATURES
• Dual rectifier construction, positive center-tap
• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier, majority carrier conduction using an epitaxial
.323(8.2]
.313(1.91
construction
• 42(3.6]
.138(3.5] • Low power loss,
+ .110
high efficiency
(4.3J
• High current capability, low VF
• High surge capacity
'• 8400(2210·3JJ
• For use in low voltage, high frequency inverters,
.82 I( .8
086 (2..18J
+
1I.-rr-n~"~I~lt·'].Ors16li(1tj.sM3J
free wheeling, and polarity protection applications
....i 1• REF
~
I
,
•
High temperature soldering guaranteed:
.160 (4..tJ I ~I :I
:mg:~~:
250°C, .17", 4.3mm from case for 10 seconds
:i~:g:~~
.140 (3.5] I
• Guardring for transient protection
:~~\i~:~\
I
I
TO-3P

I'REF-~-

r

, ..I ,
..

• .030 (.16]
.020 (.511

1

~

, _

MECHANICAL DATA

I
1.......1 .. • .048 n.22]
.044(1.12]

.205(5.2]

(Case Positive) PIN1~PIN2
STANDARD POLARITY PIN 3 ~E

Dimensions in inches and (millimeters)

Case: JEDEC TO-3P Molded Plastic
Terminals: Leadsolderable per MIL-STD-202,
Method 208
Polarity: As marked
Mounting Position: Any
Weight: 0.2 ounces, 5.6 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
Maximum Recurrent Peak Reverse Voltage at Tc- 25'C
Maximum Blocking Voltage at Tc=25'C
Maximum Working Peak Reverse Voltage
Maximum Average Forward RectHied Current
at Tc=105'C
Peak Forward Surge Current
8.3ms Single half sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward Voltage
IF=10A, Tc=125'C
IF=20A, Tc=125'C
per leg (NOTE 2)
Maximum Instantaneous Reverse Current
Reverse Voltage per leg at 35V (NOTE 2)
Tc=25'C
Tc=125'C
Voltage Rate of Change at VR= 35V
Maximum Thermal Resistance (NOTE 1)
Operating Junc:ion Temperature Range
Storage Temperature Range
NOTES:

1. Thermal Resistance from Junction of Case per leg.
2. Pulse Test: Pulse Width = 3001lS. Duty Cycle = 2%.
3. 2.011S Pulse Width. f=I.0 KHz.

-156-

SYMBOLS

SD241P

UNITS

VRRM
Voc
VRWM

45
45
35

Volts
Volls
Volts

I(AV)

30.0

. Amps

IFSM
IRSM

Amps
Amps

VF

400.0
2.0
0.47
0.60

IR
dv/dt
R8JC
TJ
TSTG

1.0
100.0
1000
1.4
-65 to +150
-65 to +175

Volts

rnA
V/fJ.S
°C
°C
'C

RATINGS AND CHARACTERISTIC CURVES SD241P
FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
400

W
(!JO)

a:w
:::>a:
en ~

300

0::;;

~<

I

'""",

8.3"" SINGLE HALF SINE WAVE
PER LEG (JEDEC METHOD)
,T...125"'C

,,~

;:,..:

FIG.1-FORWARD CURRENT DERATING CURVE

:!Ie:

,..:
a:
a:
:::>
u
00)
a: W

<

~

i1ju

36

zw

a:Z
Ow
1La:

...........

200

........ ......

Q.

30

"

24

12

100

5
10
20
NUMBER OF CYCLES AT 60 Hz

\

--

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

i\

6.0

100

50

50

~

I

.1

,..:

TJ

Z
a:
a:
:::>
u

150

50
100
CASE TEMPERATURE, ·C

W

~

125°C

~

./ ~

10

........,

TJ

=2S'"C

0

a:

~ffl

100

,..:
Z
W
a:
a:

0

c: TJ ~ 15O·C
."
./

10

W

~

TJ

.1

.2

~

.,; ~TJ~75°C

.4

.5

w:.
<

z

ILQ.

I-

ui

2000

U

Z

Z
<
t-

0.1

U

~

r--

TJ :: 25°C

.8

.7

-

~

<
<

Q.

U

1000

80

100

1.0

.......... ......

800
600
400
TJ = 25°C

200

60

.9

r-

J

".

40

.6

FIG. 6 - TYPICAL JUNCTION CAPACITANCE PER LEG

4000

20

.3.

INSTANTANEOUS FORWARO VOLTAGE,
VOLTS

~

.01

=300 Jls I--

I

0.1

1.0

PULSE WIDTH

rOUTICYCLj

~

O:::!

en

II

en

= 12S"C

en-

<

J I

1.0

~

io"""

::>..J

I-

J

Z
<
tZ

::>
0

Wen
en
W
a: a:
Ww
>(L
W:.
a:<

I

a: a:
Ow
u.a..
0)::;;
:::><

FIG I-TYPICAL REVERSE
CHARACTERISTICS PER LEG

120

140

{t

F", lMHz

9=

50 jVp·r

100
0.1

PERCENT OF RATED PEAK
REVERSE VOLTAGE

0.4

1.0

2

10

20

40

REVERSE VOLTAGE, VOLTS

I~
_ -157-

100

MBRF4035PT AND MBRF4045PT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts CURRENT - 40.0 Amperes
FEATURES
ITO-3P

'I

.598(15.2)
.582114.8)

:m(9:~~

I --i:fIJlNI

.0011.5)

~

Ch';"~5" ..........1

i:1i1i:lli

.095(2.41

• Dual rectifier constrution, positive center-tap
• Isoated plastic package has Underwriters
Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS
• High temperature soldering guaranteed: 250°C/10
seconds .17"(4.3mm) from case

MECHANICAL DATA

I' .028 (.70)

.02(1(,50)

(Positive eTl
STANDARD POLARITY

Dimensions in inches and (millimeters)

case: ITO-3P Fully Overmolded Plastic
Terminals: Leads solderable per MIL-STD-202,
Method 208
Polarity: As marked Mounting Position: Any
Mounting Torque: 5 in. - lb. max.
Welght:.47 ounces, 13.2 ounces

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.
Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Vottage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc-120°C
Peak Repetitive Forward Current per leg (Rated VR,
Square wave, 20 KHz) at Tc=120°C
Peak Forward Surge Current, 8.3ms single half sinewaVe superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward Voltage
per leg
IF=20A, Te---25°C (NOTE 2)
IF=20A, Tc=125°C
Maximum Instantaneous Reverse Current at Tc=25°C
Rated DC Blocking Voltage (NOTE 2)
Tc=125°C
Typical Thermal Resistance (NOTE 1)
Voltage Rate of Change (Rated VR)
Operating Junction Temperature Range
Storage Tem~erature Ral"1Qe
NOTES: 1. Thermal Resistance from Junction to Case per leg.
2. Pulse Test: 300j.lS Pulse Width, 2% Duty Factor.
3. 2.0j.lS Pulse Width, f=1.0 KHz.
-158-

SYMBOLS

MBRF4035PT

MBRF4045PT

UNffS

VRRM
VRWM
Voc

35
35

45
45

Vo~s

35

45

I(AV)

40.0

IFRM

40.0

IFSM
IRRM

VF
IR
R8JC
dvldt
TJ
TSTG

400
2.0
0.70
0.60
10.0
100.0
1.6
1000
-65 to +150
-65 to +175

Voks
Volts
Amps
Amps

,

Amps
Amps

Vo~s

mA

°CIW
V/ILS
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBRF4035PT AND MBRF4045PT

FIG. 2 - MAXIMUM NON-REPETmVE PEAK
FORWARD SURGE CURRENT PER LEG
400

W

FIG.1-FORWARD CURRENT DERATING CURVE

8.3rns~

~

~

(!)CI)

[(w

::>[(

~

300

T... T,Imax.

W

50

::>
o

40

all..
[(:2

a:
a:

««

,

a: W

~ffi30

a: a.

o~

LL

ffi

10

«::>

o

50

I'oo~

0..

100

1

10

20

100

50

NUMBER OF CYCLES AT 60Hz

-

100

r--. I--

wO

'\

>
«

o

>::[(

\

«

~

IJ..[(

\

20

W

(!)

~

~~

OW 200

~

OUJ

I

1"- ...

Cl)W

z

~IN~ W~JE I

HALF
PER LEG (JEDEC METHOD)_

150

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

CASE TEMPERATURE. °C
~

Z

100

.-

10

V

W

,a:
a:

::>
o
a

FIG. 3 -MAXIMUM REVERSE
C,!AIIACTE;RISTICS PER LEG

a:

~:D

10

a: a:
OW
LLa..

UJ::;;

f-~

Z

W

T. ~ 150°C7

I--"'"

/

1.0

::>«

- - f--

w

Z

«
fz
«

TJ" 12S"C

a:
a:

WUJ
UJ w

V

0.1

::>...J

./

V

.3

V

W::;;

.5

.4

.6

I

.7

-

J_--------L_~

.9

.8

1.0

FIG. 5 - TYPICAL JUNCTION CAPACITANCE PER LEG

z

4000

/

«

LL

~

2000

0.

f-

)

Z

TJ" 25"C

W

.01

0

Z

UJ
~

«
fU
«
a.
«

I

I

~
.001

I

TJ 25°C
PULSE WIDTH = 300 /-lS
2% DUTY CYCLE

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

ZT. = 75"G

O:!

«f-

1/
0.1 '------

Z

0

~~
UJ-

'rt

fUJ

::>

a: a:
Ww
>a.

J

o

T"~5OC

............

..........

1000 ::::: 1.1.0 MHz
800
600

= ;'0;

.50mVp-p

400
.'.

0

200
~

~

00

~

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

1~

1~

100
0.1

0.4

1.0

10

40

80100

REVERSE VOLTAGE, VOLTS

INST~
-159-

MBRF4050PT AND MBRF4060PT
SCHOTIKY RECTIFIER
VOLTAGE RANGE - 50 and 60 Volts CURRENT - 40.0 Amperes
FEATURES
• Dual rectifier constrution, positive center-tap
• Isoated plastic package has Underwriters
Laboratory Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• Internal Insulation: 1.5k VRMS
• High temperature soldering guaranteed: 250°C/10
seconds .17"(4.3mm) from case

ITO-3P

.142 (3.6)
.12&(3.4)1

I

1.1~{2.81

III

.098[Z.Sl I

.08HU)
.043(1.1)
.0]1(0.8)

1 I

.095 (2.4)

I

I...

'I! I !

I... 1

.224 (5. 70)1-..+1......--.1.224 (5. 70J
.205(5.20)
.205(5.20)

MECHANICAL DATA

.... 1•• (128(.70)

.020 (.50)

Case: ITO-3P Fully Overmolded Plastic
Terminals: Leads solderable per MIL-STD-202,

(Positive eTl PIN 1 ~
STANDARD POLARITY PIN 3 ~PiN 2

Method 208

Polarity: As marked Mounting Position: Any
Mounting Torque: 5 in. - lb. max.
Welght:.47 ounces, 13.2 ounces

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.Resistive or inductive load.
For capacitive load, derate current by 20%.

SYMBOLS

Maximum Recurrent Peak Reverse Voltage

VRRM

Maximum Working Peak Voltage

VRWM
Voc

Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=120°C
Peak Repetitive Forward Current per leg (Rated VR,
Square wave, 20 KHz) at Tc=120 DC
Peak Forward Surge Current, 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward Voltage
per leg
IF=20A, T c=25 DC (NOTE 2)
IF=20A, Tc=125 DC
Maximum Instantaneous Reverse Current at Tc=25 DC
Rated DC Blocking Voltage (NOTE 2)
Tc=125 DC
Typical Thermal Resistance (NOTE 1)
Voltage Rate of Change (Rated VR)
Operating Junction Temperature Range
Storage Temperature Range
NOTES: 1. Thermal Resistance from Junction to Case per leg.
2. Pulse Test: 300115 Pulse Width, 2% Duty Factor.
3.2.0115 Pulse Width, f=1.0 KHz.

-160-

MBRF4050PT
50

MBRF4060PT

UNITS
Vo~s

50

60
60

50

60

Volts

Volts

I(AV)

40.0

Amps

IFRM

40.0

Amps

IFSM
IRRM

400.0

Amps

1.0

Amps

VF
IR
R8JC
dv/dt

0.80
0.70
10.0
100.0
1.6
1000

Vo~s

rnA

TJ

-65 to +150

°CIW
V/lJ.s
DC

TSTG

-65 to +175

DC

RATINGS AND CHARACTERISTIC CURVES MBRF4050PT AND MBRF4060PT
FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
400

w
'(!l.n
a:w
:::Ja:
enW

FIG. 1-FORWARD CURRENT DERATING CURVE

00..

a:::;:
««
::..:
a:Z
OW
0.. 0.1

~~
en6~
W::;:

rWJlll""" I--"'"
-~

z

.01

f--

9

1000
600
600

......

400

200

100

0.1

OA

1.0

4

10

r-.
40

60100

REVERSE VOLTAGE. VOLTS

-161-

IN~

MBR4035PT AND MBR4045PT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 35 and 45 Volts

CURRENT - 40 ,0 Amperes
FEATURES

TO-3P

078 REf

-

.,,~, 1'.t

rr:~

~

'."'''~

':J!!"

.645(16.4)
.625 US. 9)

"']'1 . .".,.
--I

.225(5.7)

.075(\.90)

I

~
~ IO'TVP.

...

.323(8.
.313(7.9)

.170
(4.3J

-E£j-

..,. BOTH SIDES

-r- "
"840(21.3)

I'REF ..L.-.

, .1

•

-I'REF
I

.118(3.0)
.108(2.7)

.820,(20.8)11 .,,--,-,~~"j.Ojji86fi(f.2.!m8J
+ "r
.076 (1.93)
.16o+;.W ,
.140 (3.5) I

:~~~ii~·.~~
~

,.030 (.76)
.020 (.5ll

-:1'11

I
I
I_I •

.127(3.22)
.117(2.97)

I

!

.225 (5.7)

• Dual rectifier constrution, positive center-lap
• Plastic package has Underwriters Laboratory
Flammability Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
"
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• High temperature soldering guaranteed: 250°C/10
seconds .17"(4.3mm) from case

..,l!18!l.22)
.044 (l.12)

:2ii5i5.2i
PIN1~PIN2

(Case Positive)
STANDARO POLRRlTY PIN 3 ~ASE

Dimensions in inches and (millimeters)

MECHANICAL DATA
Case: JEDEC TO-3P Molded Plastic
Terminals: Leads Solderable per MIL-STD- 202,
Method 208
Polarity: As marked Mounting Position: Any
Weight: 0.2 ounces, 5.6 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc = 125'C
Peak Repetitive Forward Current per leg (Rated VR,
Square wave, 20 KHz) at Tc=120°C
Peak Forward Surge Current, 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward Voltage
IF=20A, Tc=25°C (NOTE 2)
per leg
IF=20A, Tc=125°C
Maximum Instantaneous Reverse Current at Tc=25'C
Rated DC Blocking Voltage per leg (NOTE 2) Tc=125°C
Typical Thermal Resistance (NOTE 1)
Voltage Rate of Change (Rated VR)
Operating Junction Temperature Range
Storage TemE!erature Range
NOTES:
1. Thermal Resistance from Junction to Case per leg.
2. Pulse Test: 3001'S Pulse Width, 2% Duty Factor.
3. 2.01'S Pulse Width, f=I.0 KHz.
-162-

SYMBOLS
VRRM
VRWM
Voc

MBR4035PT
35
35
35

MBR4045PT

UNrrs

45
45

Voks
Volts
Volts

45

I(AV)

40.0

Amps

IFRM

40.0

Amps

IFSM
IRRM

400.0
2.0

Amps
Amps

VF
IR
R8JC
dV/dt
TJ
TSTG

0.70
0.60
10.0
100.0
1.4
1000
-65 to +150
-65 to +175

Voks
rnA
°CIW
V/lJ.s
°C
°C

RATINGS AND CHARACTERISTIC CURVES MBR4035PT AND MBR4045PT

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
400

FIG. 1 ~

zW

40

II

(!).n

300

oc.

,

50

a:
a:
:::>

W
a:w
:::>a:
(l)W

FORWARD CURRENT DERATING CURVE

~~ HALF SINEIW~V~, I

l~

PER LEG (JEDEC METHOD)

I"-

i

T....TJ max.

,

a::2

.....

..:..:

,,'"

~

--

~

~~

a:Z
OW
LLa:
",a:
«:::>
w ll

I

200

r---......

e--

,

0..

100
10

50

20

100

NUMBER OF CYCLES AT 60Hz

o

o

50

\

100

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

150

CASE TEMPERATURE, °C

....Z

100

W

a:
a:
:::>

II

c::

~tB

lU

T'O~5QOC"""'"

f---

~

~

Z
W
a:
a:
:::>

10

I'

a: a:
Ow
u.o..
(I) ':2
:::;..:

oW

1.00"

:;;....

TJ '" 125°C

II

>0..

01

-

TJ '" 25°C

V

)

~

PULSE WIDTH" 300 IlS 2% DUTY CYCLE
I

~~.~

.9

10

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG.5-TYPICAL JUNCTION CAPACITANCE PER LEG

Ul~

~=75OC

:::>.J
O::!
w:2
Z

4000

I

/

«

....
Z
..:
....
(I)

t+--

V

V

01

Z

--

V

J

10

Z

/

V

10

«
....
(I)

W(I)
Ul W
a: a:
Ww

~:2

~

o

FIG. 3 - MAXIMUM REVERSE
CHARACTERISTICS PER LEG

I

01

~

U.

a.
ui

TJ '" 25°C

J

IJ

..:

....

800

U

600

..:
"..:

400

II

001 I
:>0

40

2000

II 1000
Z

,

60

80

100

PERCENT OF RATED PEAK
REVERSE VOLTAGE

-.....J..

=

1""1"-

T'~25ob

_f-l.0MHz
V.ig-50mVp-p

r--..... -1'-0
T"..25"O

200

1?1l

100
01

04

10

10

REVERSE VOLTAGE, VOLTS

-163-

40

80100

MBR4050PT AND MBR4060PT
SCHOTTKY RECTIFIER
VOLTAGE RANGE - 50 and 60 Volts CURRENT - 40.0 Amperes
FEATURES
TO-3P

.323 B. )
.313(7.9)

.170
(4.3J

t

.B40(21.3)
.B20 o•B)

l"REf_f-

~ ..I

~l"REF
f

.I1B(3.0J
.108(2.7)

-ILl'

.160+(4.1J I
.1400.5) I
.795 (20.2)
I
.775(19.7)

1

I

..

~I'I I

.086 (2.IBJ
.076 (1.93)
.127(3.22)
.111 (2.91)

I
I

• Dual rectifier construciton, positive center-tap
• Plastic package has Underwriters Laboratory
FlammabHity Classifications 94V-O
• Metal to silicon rectifier,
majority carrier conduction
• Low power loss,
high efficiency
• High current capability, low VF
• High surge capacity
• Epitaxial construction
• For use in low voltage, high frequency inverters,
free wheeling, and polarity protection applications
• Guardring for transient protection
• High temperature soldering guaranteed: 250°C/10
seconds/.17"(4.3mm) from case

I_I .. ..048 (I.22J

.225(5.1)
.205(5.2)

MECHANICAL DATA

.044(1.12)

(Case POliitive) Pl'Nl~PIN2
STANDARD POLARITY PIN 3 ~E

Dimensions in inches and (millimeters)

Case: JEDEC TO-3P Molded Plastic
Terminals: Leads Solderable per MIL-STD-202
Method 208
Polarity: As marked
Mounting Position: Any
Weight: 0.2 ounces, 5.6 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
Maximum Recurrent Peak Reverse Voltage
Maximum Working Peak Reverse Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Recmied Current
at Tc=120°C
Peak Repetitive Forward Current per leg (Rated VR,
Square wave, 20 KHz) at Tc=120°C
Peak Forward Surge Current, 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current (NOTE 3)
Maximum Instantaneous Forward Voltage
IF=20A, Tc=25°C (NOTE 2)
per leg
IF=20A, Tc=125°C
Maximum Instantaneous Reverse Current at Tc=25°C
Rated DC Blocking Voltage (NOTE 2)
Tc=125°C
Typical Thermal Resistance (NOTE 1)
Voltage Rate of Change at (Rated VR)
Operating Junction Temperature Range
Storage Temperature Range
NOTES:
1. Thermal Resistance from Junction to Case per leg.

2. Pulse Test: 300/15 Pulse Width, 2% Duty Factor.
3. 2.0/15 Pul~e Width, f=1.0 KHz.

-164-

SYMBOLS

MBR4050PT

MBR4060PT

UNI1S

VRRM
VRWM
Voc

50
50
50

60
60
60

Voks
Voks
Volts

I(Av)

40.0

Amps

IFRM

40.0

Amps

IFSM
IRRM

400.0
1.0

Amps
Amps

VF
IR
R8JC
dv/dt
TJ
TSTG

0.80
0.70
10.0
100.0
1.4
1000
-65 to +150
-65 to +175

Voks
rnA

°CIW
V/iJ.s
°C
·C

RATINGS AND CHARACTERISTIC CURVES MBR4050PT AND MBR4060PT
FIG.2· MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG

(')-'
Z

FORWARD CURRENT DERATING CURVE

00.

II:;;

..:..:
3>-'
lIZ

W

II
II
::J
U
40
DOl

3~

~H
u.
..:

..:::>

wU

0.

~----r'T~
_

50

100

150

CASE TEMPERATURE. 'C

~-

II
II
::J

1---.

o

II

FIG. 3- MAXIMUM REVERSE
CHARACTERISTICS PER LEG

1---

10

~t3

Te - 150°C

V

~

II~

z

..:
Z

-~

::J--'

O::!
W::;;

L
II'TC

./

Z

..:
~

I--

FIG. 5 -

U.

c.

~

2000

uj

U
Z

/

~

D~TY CY1LE

10

TYPICAL JUNCTION CAPACITANCE
PER LEG

..:
fU
..:

00

00

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

-:--.

1-1.0 MHz

I

,! .'

Vsig-50mVp-p

1000
800
600

......

400

..:
U

I I

T,,_25<>C

0.

~

j

I

25'C

tnZ

OC 1

I

-

TJ = 25°C
PULSE WIDTH = 300/Js _
; 2%

4000
0

01

V

01

---

I

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

".,.. i---'"

Ol-

z
<{

r----,f--

~

Te = 75°C

100

C:-=

Z

Ol

01

50

---

f

10

..:

0

U

[U 0..

I

.L_LLi i it

- - f-~ - - -

Ol:;;

oW

,.. Vr::125 C

ffiffi

I I

--

::J":

~[l

i

~-

7

10

Ow

-

~

·
t · ; , 1i

t--':' r-

II II
u.o.

10

w
II
II
::J

r--=--'- -

r--- c----

U

>-'
Z

'

FIG.4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
PER LEG

>-'
z
W

==

+l++-~~

I
I

NUMBER OF CYCLES AT 60Hz

1\

100

20

10

\

10

W

>
..:

,I,

~+

r- - -_L

II~-I
.

100 L

1\

20

W
(')

II

u.1I 200
",II

,

30

I

OW

~

IIW

~f+E~lM+'=rii)11

t
~--,-+-+--+--+-+-+-+-H

W

IIW
::JII

200

....

100

01

04

10

10

40

80 lOa

REVERSE VOLTAGE, VOLTS

-165-

INs8~

-166-

FAST EFFICIENT
RECITFIERS
1.0 AMPERE TO 30.0 AMPERES
SEE
NEW

ISOLATED
PACKAGES

....- - - - - - INsrilM'r ....
-167-

, LOW CURRENT AXIAL FAST EPITAXIAL RECTIFIERS

TYPE
PACKAGE
IO(A)
VR.511(V)
VR.1011(V)
VR.1611(V)
VR-2OO9V)

....

....

....

....

. ..

....

....

.

. ..

....

FEIA

Gll00l

FE2A

8YV21-50

Gl1101

FDA

8YV_

FEEA

FEEA

GiI301

FEIA
DO-204AP
1.0
FEIA

Gll004
DO-204AP

FE2D
DO-204AP
2.0
FE2A

8YV21-200
DO-204AP
2.0
BYV27-50

G111D1
DO-204AP
2.5
GI1101

8YV:za.200
GI
3.5
BYW8-SO
BYV28-100
BVW8-1SO
BVV28-200

FEED
GI
5»
FE5A
FE58

GII304
GI

FESD

FESD
GI
6.0
FESA
FE6B
FE6C
FE6D

30

36

36

3(1150

me

8\(27-100

FE1D

GllOO3
GllOO1

FE2C
FE2D

8Y27·1SO
BYV27-200

Gil102
Gi1103
Gll104

FE3D
GI
3.0
FE3A
FE3B
FE3C
FE30

35

25f.I5

35

25

2!i135

36

FEIB

mc

1.0
GilOO1
GI1002

""

FESC

M
GI1301
G11302
GII303
GII304

VR-3011(V)
VR.4011(V)
VRo5OII(V)
VR-6011(V)
VR.8OO(V)
VR.10011(V)
TRR(n$)

LOW CURRENT AXIAL FAST EFFICIENT RECTIFERS
(cont.)

....

....

....

..

....

EGP10A

EGP20A

EGP30A

EGPSOA

UF4001

UF5400

EGP200
DO-15
2.0
EGP20A

EGP30D
GP-20
3.0
EGP30A

EGP50D
GP20

lOlA)
VR.6II(V)

EGPlOO
00-41
1.0
EGPIOA

Uf.4007
00·41
1.0
UF4001

UF544B
DO-201AO
3.0

VR.1011(V)
UV.1611(V)

EGP10B
EGPIOC

EGP20B
EGP20C

EGP30B
EGP30C

EGPSOB
EGPSOC

UF4002

VR.2011(V)
VR.3011(V)
VR-4011(V)
UV.5OII(V)
VRo5OII(V)
VR.8OO(V)
VR.l000(V)

EGPIOD
EGPIOF
EGPIOG

EGP20D
EGP20F
EGP20G

EGP300
EGP30F
·EGP3OG

EGPSOD
EGPSOF
EGPSOG

UF4003

TYPE
PACKAGE

TRRlnS)

"".
~O

EGPSOA

UF4004
UF4005
UF4006
UF4007

so

so

so

-168-

so

50175

UF5400
UF5401
UF5402
UF5403
UF5404
UF5405
UF5406
UF5407
UF5408

sons

MEDIUM CURRENT FAST EFFICIENT RECTIFIERS
SINGLE RECTIFIERS
FESFIAT
TYPE
PACKAGE
lOlA)
VR-5O(V)
VR.l00(V)
VR.15O(V)
VR-200(V)
VR-300(V)
VRo4OO(V)
VR-5OO(V)
VR-6OO(V)
TRRlnS)

FES8AT

GlI401

IYY/2I.511

FESFllAT

FESIIAT

1IIru

1IIru

1IIru

1IIru

1hru

1IIru

FESRIJT
1T0-220
8
FESF8AT
FESFB&T
FESFBCT
FESF8DT
FESF8FT
FESFaGT
FESF8HT
FESF&IT
351511

FES8JT

GI14D4
TO-220
8
GI1401
GII402
GII403
GII4114

BYY/2I.11ID
TO-220
8
B'IW2HO
BVW29-100
BVW29-1511
BVW29-200

FESF1NT
ITO-220
16
FESFI8AT
FESFI68T
FESFI6CT
FESFI8DT
FESFI8FT
FESFI6GT
FESF16HT
FESFI6JT

FESINT
TO-220
16
FESIBAT
FESI8BT
FESI8CT
FESI6DT
FES16FT
FESI8GT
FES16HT
FESl&IT

35

25

35/50

35/50

TO-220

a
FES8AT
FES8BT
FESIICT
FES8DT
FES8FT
FESaGT
FES8HT
FES&IT
35/50

MEDIUM CURRENT FAST EFFICIENT RECTIFIERS
DUAL REC11F1ERS
I'EPF8AT
TYPE
PACKAGE
lOlA)
VR.5O(V)
VR-1001Vl
VR.15O(V)
VR-2OO(V)
VR..3QO(V)
VR-4OO(Vl

FEPaAT
1IIru

1IIru

FEP8DT
TO-22OCT
6
FEP6AT
FEP6BT
FEP6CT
FEP6DT

35

35

FEPF1NT
1T000000T
16
FEPFI6AT
FEPFI6BT
FEPFI8CT
FEPF16DT
FEPFI8FT
FEPFI8GT
FEPF16HT
FEPF1&IT
351511

VR-5OO(V)

VR-6OO(V)
TRR(nS)

FEPF1BAT

1IIru

FEPF8DT
ITO-22OCT
6
FEPFBAT
FEPF8BT
FEPF6CT
FEFF6DT

FEP.IAT
1hru
FEP.NT
TO-22OCT
16
FEP16AT
FEP616CT
FEP16DT
FEPI8FT
FEPI8GT
FEPI6HT
FEP1&IT
35150

-169-

GIII01
1IIru

GI_
T0-22IlCT
16
GI2401
GI2<02
GI2403

-

FEPRlOAP

FEPSUAP

FEPRIOJp
iTO-30

FEPaOIP
TO-3I'
30
FEP3ClAP
FEP30BP
FEP16CP
FEP30DP
FEP30FP
FEI'3OGP
FEP30HP
FEP31lJP
351511

1IIru

l_

GI2404

TO-22OCT
18
BVV32-50
BM2-100
BYV32-150
BYV32-200

35

25

30

FEPF30AP
FEPF30BP
FEPF30CP
FEPF3QDP
FEPF30PT
FEPF30GP
FEPF311HP
FEPF3QJP
351511

-170-

GLASS PASSIVATED
FAST EPITAXIAL
RECTIFIERS
1.0 AMPERE TO 6.0 AMPERES

_______
-171-

INsr
«U
0::
w
>
«

--1'0m i--

SETTIME

BASE FOR lOns/em

50 ohms

::J

100

U

t--'~

W
0::
W
0..

(!J
4:

Z

TJ:= 100°C

V

1.0

/

10

~
0::

Ul
=>

./

TJ '" 25°C

01

ow

/

01

z
«
Z

«

I-

I

Ul

Z

01
20

40

80

60

100

120

01

140

04

PERCENT OF PEAK REVERSE
VOLTAGE,VOLTS

U
W
(!JUl
o::W

::JO::
W
Ul 0..

c::;;
~4:

25

20
15

""

90
8.3ms SINGLE HALF SINE-WAVE
JEDEC METHOD

0::

10

12

14

18

16

TYPICAL JUNCTION CAPACITANCE

a.

IIIJ)lllJ

f'.

!

I.

f" 1MH,
VSI9 = 50mVp-p

75

W

U
Z

«

60

I-

..............

a4:

~ r---- ...

:i:
0

LL.

TA = 55°C

~r-.

08

105

FIG. 5 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

W

0.6

INSTANTANEOUS FORWARD
VOLTAGE, VOLTS
FIG. 6 -

~
Z
30

Pulse Width - 300M s
2% Duty Cycle

I-

4:

0::
0::

1,1'" 25°C

oLL.

IZ

::J

.......

150 175

./

100

C
0::

oW

tii
z

125

0::
0::

::J

4:

100

500

U

Ul~
Z

75

::J

10

~~
~U

50

w

Wo..

~:i?

25

AMBIENT TEMPERATURE, °C

«

I-

~ffi

o

::;

TJ - 150°C

W

~~

i'..

RESISTIVE OR
INDUCTIVE LOAD
0375", 9 Smm LEAD LENGTH

FIG 4·TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

Ul

F= ~TJ ~ 175°C

Z

W
0::
0::

,,,-

05

TYPICAL REVERSE CHARACTERISTICS

1000

1-"

f'.

:i: "

(approx)
(.)

10

««

·0 25 f---I-.~---+

50 Vdc

15

Uw
wo::
O::W

D.U.T

(.)

_

~O

FIG 2·MAXIMUM AVERAGE
FORWARD CURRENT DERATING

c
w

~

f'.

45

0..

«

U

10

30

-......

LL.
:.(

15

Ll0..i

........

.......
10

20

50

100

NUMBER OF CYCLES AT 60Hz

10

20

50

100 200

500 1000

REVERSE VOLTAGE. VOLTS

INsBMIr
-173-

GI1001 THRU GI1004
MINIATURE GLASS PASSIVATED FAST EPITAXIAL RECTIFIER
Voltage - 50 to 200 Volts

Current - 1.0 Ampere
FEATURES

+ Glass passivated cavity-free junction
+ Superfast recovery times-epitaxial construction
+ Low forward voltage, high current capability
+ Capable of meeting environmental standards
of MIL-S-19500
+ Hermetically sealed
+ Low Leakage
+ High surge capability
+ High temperature metallurgically
bonded, no compression contacts
+ High temperature soldering guaranteed
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

DO-204AP
.034 (.86l ,
.028 (.71l

+

1
~

1.0 (25.4l

2L
L.l

(6.ll
MAX.

.lS0(3.8l
.100 (2.Sl

I

r

I.O(\S.4l

MECHANICAL DATA
Case: JEDEC DO-204AP Unitized glass hemetically
sealed
Tennlnals: Plated Axial leads, solderable per MILSTD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.02 ounce, 0.6 gram

Dimensions in inches and (millimeters)

• Brazed.Le.d ....mbIy is ""wed by Patent No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive .Ioad.
For capacitive load, derate current by 20%.

SYMBOLS

Maximum RecurJent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TL= 75°C
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 1.0A
Maximum DC Reverse Current TA=25°C
at Rated DC Blocking Voltage
TA=100°C
Maximum Reverse Recovery Time
TJ=25°C (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

GltOO1
50
35
50

GIt002
100
70
100

GIt003
150
105
150

GltOO4
200
140
200

UNITS

Volts
Volts
Volts

I(AV)

1.0

Amps

IFSM
VF

30.0
0.975
2.0
50.0

Amps
Volts

IR
TRR
CJ
R8JL
TJ.TsTG

25.0
45.0
20.0
-65 to +175

NOTES:
1. Reverse Recovery Test Conditions: IF=
«

BASE FOR 10ns/em

50 ohms

15

o iii
LLa:

---1 1em f--

seT TIME

««

50

75

100

125

~

150

175

LEAD TEMPERATURE.' C

TYPICAL REVERSE CHARACTERISTICS

F
1000~~~
I~

FIG. 4 • TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

en

TJ~175'C

UJ
a:
UJ

D~O-'C~~~~

50

"-

::<

100~ftI!

«

./

fZ 10.0

UJ
a:
a:
::l
U

il

o

a:
 Inpl!llmpedance ~
1 m(!gohm, 22pF
Z Rls',! Time 10ns max. Source Impeoance = 50 ohms

FIG. 2· MAXIMUM AVERAGE
FORWARD CURRENT DERATING

V

\

[_~ll
BASE FOR 10nslcm

OL-~~~~__~~~~~

o

f--

--1

SET TIME

25

1em

50

75

100

12b

TeMPERATURE °C

FIG. 3 - TYPICAL REVERSE CHARACTERISTICS
'00

>-

-

0

Z
w

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

T,

175°C

50
(/)

T,

I~

w
w

2: 1U.u

a:
a:

a:
a:

:::J

:::J
U

TJ'" 100°C

lL

o

0

IT:

."
w

(/)

w

>
CD
a:

,

8

25°C

25°C

=

QI

Z

i'"
z
i'"

:::J

o
w
z

J

(/)

:e;

1

00
20

40

60

80

100

120

140

, I

0,6

0,4

Cl.R

I,D

'.6

1.4

(f)

z

FIG. 6 - TYPICAL JUNCTION CAPACITANCE

~ FIG. 5 - MAXIMUM NON·REPETITIVE PEAK FORWARD SURGE
~

::J
0

I--

SETTIME

25

~~
~~
«W
0:((

- f---

TYPICAL REVERSE CHARACTERISTICS

r:z

..,-.,---r--r-------,---,

3.0

«0:

~~

i-"""

/

-_.

OSCILLOSCOPE
(NO'fE 1)

NOTES. ,. Rise Time = 7ns max, Input Impedance co
1 megohm, 22pF
2 Rise Time"" 10ns max, Source Impedance = 50 ohms

,
\
1J-J

3.5

\:

tapprox t
(,1

r:-Z

FIG. 2 - MAXIMUM AVERAGE
FORWARD CURRENT RATING

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM

500

500 1000

FE3A THRU FE3D
GLASS PASSIVATED FAST EPITAXIAL RECTIFIER

Voltage • 50 to 200 Volts

Current· 3.0 Amperes
FEATURES
•
•
•
•

G4

•
•
•
•
•

.042 (1.07),
.0381.962)

Glass passivated cavity-free junction
Superfast recovery times-epitaxial construction
Low forward voltage, high current capability
Capable of meeting environmental stanClards
of MIL-S-19500
Hermetically sealed
Low leakage
High surge capability
High temperature metallurgically
bonded, no compression contacts
High temperature soldering guaranteed:
3S0°C/10 seconds/.37S", (9.Smm) lead length at
Sibs., (2.3kg) tension

4-

MECHANICAL DATA
Case: Unitized glass hermetically sealed
Terminals: Plated Axial leads, solderable per MILSTD- 202, Method 208
Polarity: Color band denotes cathode
Mounting PosItion: Any
Weight: 0.037 ounce, 1.04 gram

Dimensions in inches and (millimeters)
• 8razsd./Hd assembly II coowod by Patent No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise speoified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Vokage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectffied Current
.375", (9.5mm) Lead Lengths at TA= 55°C
Peak Forward Surge Current
8.3 ms single half sine-wave superimposed
on rated foad (JEDEC Method) TA-55°C
Maximum Instantaneous Forward Voltage at
MaxImum DC Reverse Current TA= 25°C
at Rated DC Blocking Voltage
TA .. 150°C
Maximum Reverse Recovery Time (NOTE 1) TJ=25°C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

SYMBOLS

FE3A

FE38

FE3C

FE3D

VRRM
VRMS
Voc

50
35
50

100
70
100

150
105
150

200
140
200

UNITS
Volls
Volts
Volts

f(AV)

3.0

Amps

IFSM

125.0

Amps

VF

0.95
5.0
50.0
35.0
100.0
55.0
-65 to +175

Volts

fR
TRR
CJ
RaJA
TJ,TsTG

NOTES:
1. Reverse Recovery Test Conditions: IF=O.5A, IR=1.0A, recover to 0.2SA.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board mounted.

-182-

itA
nS
pf
°cm
°c

RATINGS AND CHARACTERISTIC CURVES FE3A THRU FE3D

FIG. 1 -

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM
100

NON INDUCTIVE

NONINDUCnVE

+05A

FIG. 2 - MAXIMUM AVERAGE
FORWARD CURRENT DERATING

o
w

1--. ,,, --1

soo

u::

r\

0

&l ~

2.5

~~

2.0

a:w

~

·0.25
OSCILLOSCOPE
(NOTE I)

~,..:

oil]

LLa:
Wa:

\ 1/

~1.0

C)::l

«0

----1

SET TIME
BASE FOR 10ns/cm 1em

",,-

««

I

NOTES- 1 Rise Time = 7ns max, Input Impedance =
1 megohm, 22pF.
2. Rise Time'" 10ns max., Source Impedance'" 50 ohms.

~

i=Ul

a:

f..-

W

:(

1.5

10
RESISTIVE OR

05 INDUCTIVE LOAD

o

"

"

~

0.375", (9.5mm) LEAD LENGTH

o

25

50

75

100 125 150 175

AMBIENT TEMPERATURE.·C

FIG. 3 - TYPICAL REVERSE CHARACTERISTICS

1000~m

FIG. 4 -

rn

TYPICAL FORWARD CHARACTERISTICS

50 0

W

v

a:

TJ = 175"C

UJ

tl.

:;

«

100

~

z
UJ

a:
a:

10

V

::l

o
C

= 2500

~

a:

Ul

./

::l

Z

~
~
~

150

II

::l

o

125

~f3
a:

100

w

::l

Ul~

~ ~

.............. ~

75

io

so

~

25

I TA

.155'6

I I I I

J
0.4

06

08

10

1.2

1.4

1.6

1.8

INSTANTANEOUS FORWARD
VOLTAGE. VOLTS

FIG. 6 - TYPICAL JUNCTION CAPACITANCE

'a

8 3ms SINGLE HALF SINE-WAVE
JEDEC METHOD

" ...

250 r--r"T"n-ITTTr--rT'rnTm-T''''TTITTT-'-TT'TT11T1

~ ~~H+ttH+--+++++HH--+ tl.IJJI!1 I~
" ..
~
~-+~++HHt--+~~~~~~H4#H--4-444+#H
200

~

I--

~

(3

to- 1-0.

f= 1MHz
Vsig = 5OmVp-p

150

100

LL

LlD..i

.01

FIG.5 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

Z
w

a:

Pulse Width::: 300 IlS 1% Duty Cycle

II

0.1

@

PERCENT OF PEAK REVERSE VOLTAGE. VOLTS

a:

1

oLL

01~.

,..:

TJ::: 25 C1 C

a:

',O~-""_.
TJ

1.0

I"'-..~

5°r-~4-HH#H--+-~H+~-4-+~~~~444+~
~t-

0
1.0

2.0

6.0

10

20

50

100

OL-~LU~L-J-LU~L-~LULW~~~~
.5
1.0 2.0 5.0 10 20
50 100 200
SOD 1000
.1

REVERSE VOLTAGE. VOLTS

NUMBER OF CYCLES AT 60Hz

-183-

I~

BYV28-50 THRU BYV28-200
GLASS PASSIVATED FAST EPITAXIAL RECTIFIERS
Voltage . 50 to 200 Volts Current· 3.5 Amperes
FEATURES

*

~~ 'I
.

•
•
•
•

G4

f

•
•
•
•

1.0 MIN.
(25.4)

.180 (4.6)
.115 (2.9)

!

•

Glass passivated cavity-free junction
Superfast recovery times-epitaxial construction
Low forward voltage, high current capability
Capable of meeting environmental standards
of MIL-S-19500
Hermetically sealed
Low leakage
High surge capability
High temperature metallurgically
bonded, no compression contacts
High temperature soldering guaranteed:
350°C/10 secondsl.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

.042 11.07), +
.038 1.962)

MECHANICAL DATA
Case: Unitized glass hemetically sealed
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
PolarIty: Color band denotes cathode
Mounting Position: Any

Dimensions in inches

and
(millimeters)
• Brazed-lead 888B111b/y is covslid by Pal.", No. 3,930,306 of llJ76

Weight: 0.037 ounce, 7.4 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
.
For capacitive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Voltage
VRRM
Maximum RMS Voltage
VRMS
Maximum DC Blocking Voltage
Voc
Minimum Reverse Breakdown Vottage at 100 IL A VBR
Maximum Average Forward Rectified Current
.375', (9.5mm) Lead Lengths at TL=85°C
I(AV)
Peak Forward Surge Current
10ms single half sine-wave superimposed
on rated load (JEDEC Method) TA=175°C
IFSM
Maximum Instantaneous Forward
TJ=175°C
Voltage at 3.0A \
TJ",25°C
VF
Maximum DC Reverse Current TA=26°C
at Rated DC Blocking Voltage
TA=165°C
IR
Maximum Reverse Recovery Time (NOTE 1)
TJ-25°C
TRR
Typical Junction Capacitance (NOTE 2)
CJ
Typical Thermal Resistance (NOTE 3)
R9JL
OJ;lerating and Storage Temperature Range
TJ,TsTG

BYV2(1.S0

50
35
50
55

BYV28·100 BYV28·1S0 BYV28-200

100
70
100
110

150
105
150
165

UNITS

Votts
Volts
Votts
Volts

3.5

Amps

90.0
0.89
1.1
1.0
150.0

Amps

30.0
100.0
20.0
-65 to +175

nS
pf
°CfW
°C

NOTES:
1. Reverse Recovery Test Conditions: IF=O.5A, IR=I.0A, recover to 0.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Lead at .375" (9.5mm) Lead Lengths, botih leads attached to heatsinks.
-184-

200
140
200
220

Votts
!J.A

RATINGS AND CHARACTERISTIC CURVES BYV28·50 THRU BYV28·200
FIG. 1 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM

~NINDUCTIVE

~~INDUCTIVE

+05A

1\

D.U. T.

(+)
.::. 50 Yde
(appox.)
(-)

10

1\
1\

OSCILLOSCOPE
(NOTE 1)

NON·
INDUCTIVE

-lOA
NOTES 1 Rise Time"" 7ns max, Input Impedance ~
1 megohm, 22pF
2 Rise Time = 1Dns max, Source Impedance =

m

\1cm\

~

60'r--r--r--r~r--r-'~

G

50~~--~~~~~-4--4

~ ~40

~

-025

FIG. 2 - MAXIMUM AVERAGE
FORWARD CURRENT DERATING

I-"

I--- Iff ---I

~ ~ ~:t~~:t~~J--J--J

a: ~ 30~TAAMBIENT

1/

~«

2 0 TEMPERATURE

~
a:

'V

LU

~

SET TIME BASE FOR

10 ns/cm

TEMPERATURE,' C

50 ohms

ITI
a:

FIG. 3 - TYPICAL REVERSE CHARACTERISTICS
~ooo

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

w

0..

:;;

50 0

C§

5

/

TJ = 17soe

100 0

CIJ

a:

~

a.

Z

T,

w

150'C

:;; 10 0

-b

«
r-

a:

LU

cr:
cr:

W

~

T,

100'C

:::J
U

-I;;i

o

cr:

i1i
...J
CIJ

a:
w

a:

T,

01

~

~

~

CIJ

1

Z

m

~

CIJ
~

@

00

:::J
U

~

60

w

(!)

~

..... ~

,

T, ~ 175.1

~

I
06

08

12

14

16

18

FIG. 6 - TYPICAL JUNCTION CAPACITANCE
250

't
§;1

"'-

10

I

150

~

r"'-

30

(3

100

u

0

r;r:
«

t'oo""

IIII

I

200 ' -

ui

..........

a:

1
04

INSTANTANEOUS FORWARD VOlTAGE,
VOLTS

I I III

to.....

50

o

~

~

~

lpmoSINGLE HALF SINE WAVE

CIJ

0..

®

PERCENT OF PEAK REVERSE VOlTAGE, VOLTS

.......

70

2:.:

~

00

FIG. 5 - MAXIMUM NON-REPETITIVE PEAK FORWARD SURGE
CURRENT

w

a:

II

Z

Z

«

~

Z

:::J

:::J

I

:::J

@ 01

CIJ

a:
a:

s:
CIJ

'I

25 D C

ow

I-"
Z

TJ = 25 D C
Pulse Width
300us
2% Duty Cycle
:

cr:

[ij

90

"

10

~

10

W

w
a:
w
0..
:;;

,

Z

10 0

U

CIJ

V

LU

I-"

~

~

LU

1' ..

II J~lJJI
f = lMHz
VSlg = 50 mVp-p

t"--.""

r-

20
1

10

20

50

10

100

20

50

100

REVERSE VOLTAGE, VOLTS

NUMBER OF CYCLES AT 60 Hz

-185-

200

500 1000

FE5A THRU FE5D
GLASS PASSIVATED FAST EPITAXIAL RECTIFIER

Voltage - 50 to 200 Volts

Current - 5.0 Amperes
FEATURES

*

•
•
•
•

G4

•
•
•
•
•

Glass paSSivated cavity-free junction
Superfast recovery times-epitaxial construction
Low forward voltage, high current capability
Capable of meeting environmental standards
of MIL-S-19500
Hermetically sealed
Low leakage
High surge capability
High temperature metallurgically
bonded, no compression contacts
High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

.042 (LOn, +
.038 1.962)

MECHANICAL DATA
. case: Unitized glass hemetically sealed
Terminals: Axial leads, solderable per MIL-STD202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.037 ounce, 1.04 gram

Dimensions in inches and (millimeters)

"8tazed./ead ....nmbly III Patem No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient. temperature unless otherwise specified.
Resistive or inductive .load.
For capacitive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Vottage
VRRM
Maximum RMS Voltage
VRMS
Maximum DC Blocking Voltage
Voc
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TL=55°C
I(AV)
Peak Forward Surge Current
8.3ms single haij sine-wave superimposed
on rated load (JEDEC Method) TA= 55°C
IFSM
Maximum Instantaneous Forward Voltage at 5.0A
VF
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=150°C
IR
Maximum Reverse Recovery Time (NOTE 1)
TJ=25°C
TRR
Typical Junction Capacitance (NOTE 2)
CJ
Typical Thermal Resistance (NOTE 3)
R8JL
Operating and Storage Temperature Range
TJ,TsTG

FESA
50
35
50

FE5C
150
105
150

FESB

100
70
100

UNITS

200
140
200

Volts
Volts
Volts

5.0

Amps

135.0
0.95
5.0
50.0

Amps
Volts

35.0
100.9
20.0
-65 to +175

nS
pI
°CIW
°C

NOTES:
I. Reverse Recovery Test Conditions: IF=O.5A, IR=I.OA, recover to 0.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Lead at .375" (9.5mm) Lead Lengths, both leads attached to heatsinks.

-186-

FE5D

!lA

RATINGS AND CHARACTERISTIC CURVES FE5A THRU FE5D

FIG. 1 -

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM
~

100
NONINOUCTIVE

500
NQNINOUCTIVE

Trr __

_.--'_-""''-.l_-L_~

__..J

"

'k

201--4-+---+-+-+'1.-+-1
RESISTIVE OR
I '\
10 INDUCTIVE LOAD
0.375". 9 5mm LEAD LENGTH

25

>

«

50

75

100

125

~
'\,

150

175

LEAD TEMPERATURE," C

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
100 0

W

t--

W
0..

-'

-.

:i:

V

«
~

= 150"C

10.0

W

II:
II:

I

~

tl

---

I

' ... - I L I 30

W

II:

0

Cu

r""bmmfj ~

II:

SET TIME
--1 I--BASE FOR 10n8\cm lcm

CI)

TJ :: 175°G

'r--.... (~~~~~~~~~~1.

40

C(J)
«W
Wa:

... w

,0

We..
(J)::;:
a:«
Wo

Gj5
a:_

1.0

---

m~

I-

«

'7SoC

::;:

/'

10.0

a:
a:
::l

Tj: ,soo'C

~

o

o

TJ: 25°C

a:

1.0

~

a:

f2
(J)
TJ:

0.'

@

?SoC [:.I

~
~

.01
60

'00

0.'

~

«
~
(J)
60

,20

,40

.0'

I
0.4 0.6

PERCENT OF PEAK REVERSE
VOlTAGE,VOlTS

5

a:
a:
::l

'5a

W

12

zW
o

5i'-....

(!)(J)
a:W
::l a: '00
(J)W

~!lE
««
~
oLL
!>C

U1
e..

75

Pulse Width = 300 IJ S
1% Duty Cycle

II

::l

z

17

150 175

W

W

t-=

100 125

FlO. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

«

TJ.: 'OO°C

40

75

W

IZ

-

20

50

W

ITJ :

Z

~

25

LEAD TEMPERATURE,·C

e..

0

~

o

>

a:

(J)::;:
::l

«

1--+-f-+-1I--~rlH

o~~~~~~~~~

W

,00

(J)

75 ~~r-l-+

««

FIG. 3 - TYPICAL REVERSE CHARACTERISTICS
1000

90

~t-= 4.51--+-f-+~iE-+-1H

II

SET TIME
---1
BASE FOR 10na/em lem

NOTES- 1 Rise Time'" 7ns max, Input Impedance =
1 megohm, 22pF
2 Rise Time = 10ns max, Source Impedance = 50 ohms

ffi

~!lE

V-

-025

$OVdc

u:

r\

D.U. T.

(.)

-=-

+05A

W

,,,---1

f---

FIG. 2 - MAXIMUM AWRACIE
FORWARD CURRENT DERATING

o

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM

0.8

1.0

1.4

1.2

1.6

1.8

INSTANTANEOUS FORWARD
VOLTAGE, VOLTS

FIG. 5 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

II
II
~

r-..

II

FIG. 6 -

l:5I I III

LL
Q.

JEDEC METHOD

t-.....

oZ

200

~

ISO

~

.... ~

50

2SO

ui

8 3ms SINGLE HALF SINE-WAVE

I !WIII

~

TJ" 25°C
f= 1 MHz
Vslg 5OmVp-p

=

........

e..

o«

.... "'"

TYPICAL JUNCTION CAPACITANCE

100

r-...

50

25

10

20

50

100

.,

.5

1.0

2.0

5.0 10

20

r50 100 200

REVERSE VOLTAGE, VOLTS

NUMBER OF CYCLES AT 60Hz

-189-

500 1000

GI1301 THRU GI1304
GLASS PASSIVATED FAST EFFICIENT RECTIFIER
Voltage . 50 to 200 Volts Current· 6.0 Amperes
FEATURES
•
•
•
•

G4

•
•
•
•
•

Glass passivated cavity-free junction
Superfast recovery times-epitaxial construction
Low forward voltage, high current capability
Capable of meeting environmental standards
of MIL-S-19500
Hermetically sealed
Low leakage
High surge capability
High temperature metallurgically
bonded, no compression contacts
High temperature soldering guaranteed:
350°C/10 seConds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

.042 11.07), +

MECHANICAL DATA

.038 (.962)

Case: Unitized glass hemetically sealed
Terminals: Plated Axial leads, solderable per MILSTD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.037 ounce, 1.04 gram

Dimensions in inches and (millimeters)
• Blazed • !sad assembly is covered by Pate'" No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (g.5mm) Lead Lengths at TL=75°C
Peak Forward Surge Current
10ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward
Voltage at 6.0A
Maximum DC Reverse Current TA=25'C
at Rated DC Blocking Voltage
TA=100'C
Maximum Reverse Recovery lime (NOTE 1)
Typical Junction Capacitance

(NOTE 2)

Typical Thermal Resistance (NOTE 5)
Operating and Storage Temperature Range

SYMBOLS

GI1301

G1t302

G1t303

G1t304

UNITS

VRRM
VRMS

50
35

100

150
105

200

Volts
Volts

Voc

50

70
100

140
200

150

Volts

(NOTE 3)

I(AV)

5.0

6.0

Amps

150.0

IFSM

Amps

(NOTE 4)

VF

0.925

1.25

Volts

IR

5.0
150.0

20.0
500.0

(.l.A

30.0

50.0

nS

TRR
CJ
R8JL
TJ,TsTG

95.0

pf

'cm

18.0
-65 to +175

I -65 to +150

NOTES:
1. Reverse Recovery Test Conditions: IF=O.5A, IR = 1.0A, recover to 0.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. TL = 55'C, .375" (9.Smm) Lead Length.
4. IFM = 3.0Aoc.
5. Thermal Resistance from Junction to Lead at .375" (9.5mm) Lead Lengths, both leads attached to heatsinks.
-190-

'C

RATINGS AND CHARACTERISTIC CURVES GI1301 THRU GI1304

FIG. 2 - MAXIMUM AVERAGE
FORWARD CURRENT DERATING

f-C

z

FIG. 1 - REVERSE RECOVERY TIME CHARACATERISTIC AND TEST CIRCUIT DIAGRAM

W

50 II

10 II

N!

NI

~--l

~)
J.::. ~O

-=-

I-;~l

OUT
Vd'

+ 0 SA

\

cr:
cr:

,

:J

oU)

cr: W
..:cr:

GENERATORI

/OSC~l~~~~OPE

~g:

V'

'=rOTE
2

lapprOl I!

(-(

- 0 25

i2 ~

V

+

W

(!)

i\
NOTES
1 RISE TIME
2 RISE TIME

FIG.3 -

..:
cr:

---1'0m f---

TYPICAL REVERSE CHARACTERISITCS

f-C

f-

cr:
cr:

~

:J
10

<.)

W
(!)

t= t== TJ "100°C :: ~

~ffi

~

~t3

W 0....

1.0

-"'"

r=

cr:

~~

:J

TJ - 25°C

V

U)

W

cr:

W
0.

::;;

..:
f-C

W

Z

W

cr:
cr:

125

W
(!)

cr:

:J

~

0,01

o

20

40

60

80

100

cr:

..:

120 140

.01

PERCENT OF PEAl< REVERSE
VOLTAGE, VOLTS
FIG. 4 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

a

100

1.0

r-.

"

<.)

Z

r-.....

..:

250

~

0.

1.2

1.4

I

f '" 1MHz
Vsig = 50mVp-p

200 J"...

l-

t)

r-.....

50

..:
0.

"'~

150

1" . .

..:

<.)

100

........
50

25

........

LL

..:
W

_

IJ))!!l~

0-

ui

75

s==

III ""I

300
LL

......

CYClE

TYPICAL JUNCTION CAPACITANCE

350

~

cr:

0

2%

.6.8

FIG. 6 -

SI~GLE JALF~W;VEI

,~

TJ" 25°C

our

PULSE WIDTH = 3001-1

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

8.3m'
I
SINE-WAVE (JEDEC) METHOD

I

U)

0

,

U)

:J

<.)

0.1

Z

..:

175

150

::;;

..:

I-

U)

GI1304

Z

Z

~

1.0

0.

..:
I-

..:

I-

W

0

IZ

..:

./

1.

11/

U)

~
cr:
cr: W

0,1

V"

t--- t-~~~~

0

0

U)~

10.0

<.)

LL
U)

oW

100 125 150 175

:J

lQ~

::J

75

~
GI1301

cr:
cr:

..:

~<.)

50

500

IZ

w

..:

25

LEAD TEMPERATURE,' C

FIG. 5 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

...

TJ " lS0"C

o

>
..:

SETTIME
BASE FOR 10ns\cm

100

zw

40

20

w

~ IL

- 10

ins MAX INPUT IMPEDANCE 1 MEGOHM 22 pF
IOns MAX SOURCE IMPEDANCE 50 OHM

GI1301 THRU
GI1303

100

<.)

I

....

1.0

2.0

5.0

10

20

50

100

.5

NUMBER OF CYCLES AT 60Hz

1.0

2.0

5.0

10

20

50

100

200

500

1000

REVERSE VOLTAGE, VOLTS

-191-

INsr~MIr

-192-

~PASSIVATED
PLASTIC ,FAST EFFICIENT
RECTIFIERS
7.0 AMPERE TO 5.0 AMPERES

_ _ _ _ _ _ INsft8Bir --193-

EGP1 OA THRU EGP10G
MINIATURE GLASS PASSIVATED FAST EFFICIENT RECTIFIER
Voltage - 50 to 400 Volts Current - 1.0 Ampere
FEATURES
•
•
•
•
•
•

Glass passivated cavity-free junction
Superfast recovery times for high efficiency
Low forward voltage, high current capability
Low leakage
"'~
High surge capability ~
High temperature
~.
metallurgically bonded,
.~
no compression contacts
• Plastic package has Underwriters Laboratories
Flammability Classification 94V-0
• High temperature soldering guaranteed:
300°C/10 seconds/.37S", (9.Smm) lead length at
Sibs., (2.3kg) tension

D0-41

r-

1.0 (25 .~)

MIN

.107(2.7)
.080(2.0)

~I

I~
.205 5.2)
.180(4.1)

--t-

1.0(25.4)

MIN
.034(.88) , . . .
.028(.71)

I

..

MECHANICAL DATA
Dimensions in inches and (millimeters)

case: JEOEC 00-41 Molded plastiC over glass
Terminals: Plated Axial leads, soiderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
WS/fJht 0.012 """"",03 ,


TJ

100

()
W

W

{C

EGP1QA
thru EGP100

0..

~



100 C

Wo..

~~

()

~

I

a:

::>

o

oW

"-

TJ

Z

1

25 C

7J

o. 1

Ul
::>

V

Z

a:
UlW
00..
a:::;

........ r---.

15

::
a:
0

"-

'"W

()

Z



Pulse Width = 300 /-I S _

04 0.6

PERCENT OF PEAK REVERSE
VOLTAGE ,VOLTS

~
Z

TJ = 25~C

oW

Z

~

EGP10F
EGP10G

a:

0

Ul~

~

/V

0

o

~g

~()

V l/

I-

TJ I

10.0

./

10 0

20

50

100

200

I
500

REVERSE VOLTAGE, VOLTS

NUMBER OF CYCLES AT 60Hz

-195-

IN_MIr

!

Ill!,

m
1000

EGP20A THRU EGP20G
MINIATURE GLASS PASSIVATED FAST EFFICIENT RECTIFIER
Voltage • 50 to 400 Volts Current - 2.0 Amperes
FEATURES
•
•
•
•
•

Glass passivated cavity-free junction
Superfast recovery times for high efficiency
Low forward voltage, high current capability
Low leakage "-._","High surge
,
capability
,_,.
• High temperature
~
metallurgically bonded,
....
no compression contacts
• Plastic package has Underwriters Laboratories
Flammability Classification 94V-O
• High temperature soldering guaranteed:
300°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

DO-15

f

1.0
MIN.

-+-

+

:~~: l:~~~

~

.23015.81

t

1.0

1,·140(3.6)
.104(2.6)

MIN.

(25.4)

1

MECHANICAL DATA
Case: JEOEC 00-15 Molded plastic over glass
Tennlnals: Plated Axial leads, solderable per
MIL-STO-202, Method 208

Dimensions in inches and (millimeters)
'Gfass.p/asIIcom:apsul.rion rechnique is covered by PatenlNo. 3,996,6020/ 1976;

brazed ·lead asssmbIy to Patent No. 3,930,306 0/ 1976

~ ®

Polarity: Color band denotes cathode
MountIng Position: Any

~

_'0.015

~MUM

RAnNGS AND

OU""'. 0.4 gram

ELECTRI~L

CHARACTERISTICS

Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

EGP EGP
Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
.375", (9.5mm) Lead Lengths at TA= 55'C
Peak Forward Surge Current
8.3 ms single hall sine-wave superimposed
on rated load TA=55'C
Maximum Instantaneous Forward Voltage a 1.0A
Maximum DC Reverse Current TA-25'C
al Rated DC Blocking Voltage TA=150'C
Maximum Reverse Recovery lime (NOTE 1) TJ-25'C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

SYMBOLS
VRRM
VRMS

Voc

lOA
50
35
50

lOB
100
70
100

EGP

ZOO IOF
200 300
140 210
200 300

400
280
400

0.95

1.25
5.0
50.0
50.0

I

70.0
30.0
-65 to +150

NOTES:

t. Reverse Recovery Test Conditions: IF=O.5A, IR=1.0A, Irr = .25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Ambient, .375"(9.5mm) lead lengths, P.C. board mounted.
-196-

tOG

UNITS
Volts
Volts
Volts

Amps

75.0

IFSM

IR
TRR
CJ
R8JA
TJ,TsTG

EGP EGP

20C
150
105
150

2.0

I(Av)

VF

EGP

40.0

Amps
Volts
itA
nS
pi
'CIW
'C

RATINGS AND CHARACTERISTIC CURVES EGP20A THRU EGP20G

FIG.1 -

FIG.2· MAXIMUM AVERAGE
FORWARD CURRENT DERATING

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM
~trr~

500

100

NONlrJDUCTIVE

NONINDUCTIVE

1

D.U. T.
-025

1 ()
NONINDUCTIVE

OSCILLOSCOPE
(NOTE 1)

-

25

SETTIME
--ilcml~
BASE FOR 10ns/em

"

f'\..

0

50

75

100

'\.

125

150

175

AMBIENT TEMPERATURE. 'C

TYPICAL REVERSE CHARACTERISTICS

- -

w

.~

0

FIG. 4 • TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

1000

a:
a:

i3

0

"".- --

~I

·10

RESISTIVE OR
INDUCTIVE LOAD
0.375" (9.5mm) LEAD
LENGTH

..

-

NOTES 1. Rise Time = 7ns max" Input Impedance ~
1 megohm. 22pF
2 Rise Time'" 10ns max., Source Impedance = 50 ohms.

..:
z

\

-\ -1J

i-I

FIG. 3 -

3. 0

+0 SA

..

10 0

EGP20A
THAU
EGP20D

W

Q.

FE:

TJ-l5O"C

50

en
W
a:

1
~

~

10. 0

/'

i--'

fZ
W

a:
a:

0

;:)
()

f-

TJ.l00'C

VI

1.0

o

EGP20F
EGP20G

a:

~
a:
o
"-

0

en

"=

1

o

20

40

ao

60

~
~

0.4

Z

;:)
()

W
Clen
a:W
;:)a:
enW
OQ.
a::<

..:..:
:'i:

~ r-....
60

0

120

......

"-

100

()

80

a.
W

.... r-.

Z

..:
f-

4S

.............

30

1.6

1.4

U
..:
Q.

r-.... ....

..:
()

r-.

(,

II

'\

T...2500
f.. 1.0MHz
Vsig..50mVp-p

"'

lhru
EGP20D

"-

'"

60
EGP20F.
EGP20G

40

.....

......... ~

/

"....... r--

15

20

/

1""'-" ...

//

1.0

2.0

5.0

10

20

1.8

TYPICAL JUNCTION CAPACITANCE

..:
W
Q.

1,2

EGP20A

iI.3ms SINGLE HALF SINE-WAVE
JEDEC METHOD

a:

"><:

140

ITAolJ IIIII

75

1.0

INSTANTANEOUS FORWARD
VOLTAGE. VOLTS

FIG. 5 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SUROECORRENT'
90

0.8

0.6'

FIG. 6 -

W
a:
a:

==

1-

I

01

en

140

PERCENTAGE OF PEAK INVERSE
VOLTAGE. VOLTS

..:
z

25"C -

0

Z
Z

120

TJ

oW

I
100

/1

0.1

;:)

TJ.25OC=

.01

I

Pulse Width'" 300/-15
2% Duty Cycle

50

100

0.1

0.5

1.0

5.0

"

10

20

50

100

200

500 1000

REVERSE VOLTAGE, VOLTS

NUMBERS OF CYCLES AT 60Hz

IN~M'r
-197-

EGP30A THRU EGP30G
GLASS PASSIVATED FAST EFFICIENT RECTIFIER

Voltage • 50 to 400 Volts

Current - 3,0 Amperes
FEATURES
• Glass passivated cavity-free junction
• Superfast recovery times for high efficiency
• Low forward voltage,
high current "-~<.
capability
~
• Low leakage
~<""'''''''''
• High surge capability
~<'"
• High temperature metallurgically bonded, no
compression contacts
• Plastic package has Underwriters Laboratories
Flammability Classification 94V-O
• High temperature soldering guaranteed:
300°C/10 seconds/.37S", (9.Smm) lead length at
Sibs., (2.3kg) tension

DO-201AA
MODIFIED

.210 (5.3J
.190 (4.83J

OIA.

f

1.0m.4J

L.I ~
t

.37519.5J
.28517.2J

-t-

1.0 [25.4J

'.042 (1.07J ,
.on (.94J

:i

'(Not to JEDEC Dimensions)

Dimensions in inches and (millimeters)

MECHANICAL DATA
Case: JEDEC DO-201M Molded plastic over
glass
Terminals: Plated Axial leads, solderable per MILSTD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.03 ounce, 0.8 gram

, Glass·plasUe ern;apsufation lechnique is covered by Palent No. 3,996,602 of 1976;
/Hazed ·feed _fylo Palm No. 3,930,306 011976

®

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
SYIIBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=55°C
Peak Forward Surge Current
8.3 ms single half sine-wave superimposed
on rated load TA=55°C
Maximum Instantaneous Forward Voltage a 3.0A
Maximum DC Reverse Current TA=25°C
at Rated DC Blocking Voltage
TA=150°C
Typical Reverse Recovery Time (NOTE 1) TJ=25'C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRM~

Voc

EGP
30A

EGP
30B

EGP
30C

EGP
30D

EGP
SOF

EGP
SOG

UNITS

50
35
50

100
70
100

150
105
150

200 300
140 210
200 300

400
280
400

Volts
Volts
Volts

3.0

I(AV)

IFSM
VF
IR
TRR
CJ
RaJA
TJ,TsTG

125.0
0.95

1.25
5.0
50.0
50.0

90.0
55.0
-65 to +150

1. Reverse Recovery Test Conditions: IF=0.5A, IR =1.0A, Irr=.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.

3. Thermal Resistance from Junction to Ambient, .375"(9.5mm) lead lengths, P.C. board mounted.

Amps
Volts

!LA
55.0

NOTES:

-198-

Amps

nS
pf
°CNI
°C

RATINGS AND CHARACTERISTIC CURVES EGP30A THRU EGP30G
FIG. 1 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM
50(:'

10

NONINDUCTIVE

NON INDUCTIVE

,~

2.5

\.

_./-

,

\.

20

<',5
~f-

~

015

f---

I\"

10

LL~

0.5



\.

RESISTIVE OR

~~
~

---1

SETTIME
IBASE FOR lOna/em lcm

50 ohms

1;l~
~~

~

\. /

·10
~

3.0

~W

J

NOTES 1 Rise Time" 7ns max. Input Impedance 1 megohm. 22pF
2 Rise Time = 10ns max. Source Impedance

FIG. 3 -

\
\
-r----

OSCILLOSCOPE
(NOTE 1)

u:

i=en

+05A

-025

FIG. 2 - MAXIMUM AVERAGE
FORWARD CURRENT RATING

o
w

' - - - trr . - - - :

25 50

75

100

125

150

175

AMBIENT TEMPERATURE, 'C

_

DO-201AA
MODIFIED

.210 (S.3J
.190 (4.93)

OIA.

L.I

f

1+

1.0

~Ii'4J

• Low leakage
""",
• High surge capability
"<,
• High temperature metallurgically bonded. no
compression contacts
• Plastic package has Underwriters Laboratories
Flammability Classification 94V-O
• High temperature soldering guaranteed:
300°C/10 seconds/.375"; (9.5mm) lead length at
5 Ibs., (2.3kg) tension

--t.375 (9.5J
.295 (7.2J

--+-

i

1.0 (25.4J
,.042 (1.07J •

.037(.94J

~

'(Not to JEDEC Dimensions)

MECHANICAL DATA

• GIass-pfilsOc encapsulation technique is covered by Patent No. 3,996,602 of 1976;
brazed ·lead assembly to Patent No. 3,930,306 011976

~

,,,,m

•

~XlMUM

case: JEDEC DO-201AA Molded plastic over glass
Terminals: Axial leads, solderable per MIL-STD202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
WeIght, 0.030""00,0.•

RAnNGS ANO ELECTRICAL CHARACTERISTICS

Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current" by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
,375", (9.5mm) Lead Lengths at TL=55°C
Peak Forward Surge Current
8.3 ms single half sine-wave superimposed
on rated load TL=55°C
Maximum Instantaneous Forward Voltage a 3.0A
Maximum DC Reverse Current TA=25°C
at Rated DC Blocking Voltage TA=150°C
Maximum Reverse Recovery lime (NOTE 1) TJ=25°C
Typical Thermal Resistance (NOTE 3)
Typical Junction Capacitance (NOTE 2)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

EGP

EGP

EGP

EGP

EGP

SOA

SOB

SOC

SOD

$OF

50G

UNfTS

100
70
100

150
105
150

200 300
140 210
200 300

400
280
400

Volts
Volts
Volts

50
35
50

5.0

I(AV)

IFSM
VF
IR
TRR
RaJ L
CJ
TJ,TsTG

5.0
50.0
50.0
20.0
100.0
-65 to +150

NOTES:
1. Reverse Recovery Test Conditions: IF=0.5A, IR=1.0A, Irr=.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4,0 Volts.
3. Thermal Resistance from Junction to Lead at .375", 9.5mm Lead Lengths, both leads to heatsink.

-200-

Amps

150.0
0.95

EGP

1.25

Amps
Volts
J.lA
nS
°C\W
pI
·C

RATINGS AND CHARACTERISTIC CURVES EGP50A THRU EGP50G
FIG. 2 - MAXIMUM AVERAGE
FORWARD CURRENT RATING

FIG. 1 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM
saO

100

NONtNDUCTIVE

NON INDUCTIVE

-

+OSA

\

D.V.T.

1+1

_

L.-_Irr

sovdc.

-025

10
NONINDUCTIVE

OSCILLOSCOPE
(NOTE 1)

\V

·10
NOTES- 1 Rise Time = 7ns max, Input Impedance =
1 megohm, 22pF
2 Rise Time = tOns max .. Source Impedance = 50 ohms

FIG. 3 -

,

\

-rr-- ~

(appro)!.)
(-)

~

SET TIME

I'
--

-

o

---jlcm I--

25

50 75 100 125 150 175

LEAD TEMPERATURE,·C

BASE FOR lOnol...

TYPICAL REVERSE CHARACTERISTICS

FIG. 4 - TYPICAL FORWARD CHRACTERISTICS

1000

en

,00

W

W
<
~en
a:

Cl

a:
W
Il.

::;

I-

....

'0.0

-

::J
0"=
wZ
ZW
-'
Z

CIl
W

a:
W
a.
:::;;
,...<

,

1.0

I'>.

W

a:
a:

::J

()

<
a:

LENGTH

W

20

>

<

40

60

./
1.0

/
TH~G~~~007

i

I

80

100

::J

a:

~-

120

I /

0

I-- I--

~

0.1

==

TJ = 25°C
Pulse Width:: 300 jJ S
2% Duty Cycle

()

a:

...
0

140

160

CIl

I

::J

AMBIENT TEMPERATURE, ·C

0

I

W

Z

~

0.01

,

Z

FIG. 3 - TYPICAL REVERSE CHARACTERISTICS

~

100.0

~

0.001

>-'
z

0.4

W

a:
a:
::J
u

/

W

SINGLE PHASE
'\
HALF WAVE 60HZ
RESISTIVE OR
INDUCTIVE LOAD
0.375" {9.5mm) LEAD

Cl

UF4001
THRU UF4004

-

a:
a:

'\

0.5

W

=

Z

OCil

a: W


U

Clen
a:: UJ
::>a:

8.0

~~ 6.0
4.0

\

UJ

2.0

~

~§

oo

50

~t-

-

~

f.. .. t-

25

0



a

FIG. 3- TYPICAL REVERSE
CHARACTERHrnCSPERLEG

::13
g; ffi 2.0

'00

I

I

u.

75

!:..:
a: z

50

50

100

I.............. ........

--

:-

u.a:

~

0

8.3m. Single Hall Sine-Wave
(JEDEC Method)

OW

~

2.0

W

<

~~

«<

i\~

~~4 0
W

~
a:

100

::>a:

8.0

III

111

FORWARD CURRENT DERATING CURVE

~!5 25
wO

T....TJ max.

r- ""'roo

0

!l.

~

1.0

10

5.0

2.0

20

50

100

NUMBER OF CYCLES AT 60Hz

150

CASE TEMPERATURE, ·C

.-:Z
w
a:
a:
::>
0

100

'/

TJ-25OC
4.0

m::<

1.0

::><

~

cL /I
I

I

2.0

V 1/

o

-

~

.4

~
Z
<

.2

:n

.......

r.,..125o

~
~ffl

15u.Q.ffi
r--r- T... '25~ jooo"'"
1--'1""

~

20

10.0

o

FIG. 3- TYPICAL REVERSE
CHARACTERISTICS PER LEG

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG
40

~

..,. T.,..1000c

I

I

PULSE WIDTH-SOO,..
2% DUTY CYCLE

II I

.1

0.4

0.8

0.6

1.0

1.2

1.4.

1.6

1.8

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG. 5 - TYPICAL JUNCTION CAPACITANCE PER LEG
0

I
u.

~

1

ui

0

z
<
i3

0

o

., .,

./

TJ-25"C-

r--

40

...
<
Q.

1
20

60

80

100

01'

C.

120 140

<
o

r"-r-o.

TJ • 2S'C
I.1MHz
V.ig • SOmVp-p

r-....

2

i-...

10

PERCENT OF RATED PEAK
REVERSE VOLTAGE

0
.1

5

10

20

5.0

10

20

50 100 200

REVERSE VOLlAGE. VOLTS

-213-

500

1000

FESF8AT THRU FESF8JT
FAST EFFICIENT GLASS PASSIVATED RECTIFIER
Voltage • 50 to 600 Volts Current· 8.0 Amperes
FEATURES
ITD-220

.13 t .008
13.300.2)

,.107 ..008
12.7 t 0.2)

• Isolated Plastic package has Underwriters
Laboratory Flammability Classification 94V-O
• Glass passivated chip junctions
• Low power loss
• Low leakage,
high voltage
• High surge capability
• Superfast recovery times
for high efficiency
• High temperature soldering guaranteed: 250°C,
.25", (6.35mm) from case for 10 seconds
• Internal Insulation: 1.5K VRMS

MECHANICAL DATA

case:

ITO-220 fully overmolded plastic
Terminals: Plated Lead solderable per MIL-STD202, Method 208
Polarity: As marked
Mounting Position: Any
Mounting Torque: 5 in.- Ibs. max.
Weight: 0.08 ounce, 2.24 grams

.. ..4° REF... ...
PIN1·~

PINl-~

o---w-J

PIN 2 • ~

PIN 2 -

(Cas. PosHive)
Standard Polarity

IFESFsl

(Case Negative)
Suffix -R- Reve,. Polarity

IFERFSI

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25CC ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

FEBF FESF FESF FESF FESF FESF FESF FESF
SYMBOLS 8AT 88T 8eT 80T 8FT 8GT 8HT 8JT UNITS

Maximum, Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectffied Current
at Tc=100°C
Peak Forward Surge Current
8.3ms single han sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 8.0A
Maximum DC Reverse Current
Tc=25°C
at Rated DC Blocking Voltage
Tc=100°C
Maximum Reverse Recovery Time (NOTE 2)
TJ=25°C
Typical Junction Capacitance (NOTE 1)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM 50
VRMS 35
Vee 50

100 150 200 300 400 500 600 Volts
70 105 140 210 280 350 420 Volts
100 150 200 300 400 500 600 Volts
8.0

I(Av)

125.0

IFSM

VF

0.95

TJ,TSTG

NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 voils.
2. Reverse Recovery Test Conditions: IF=O.5A. IR= 1.0A. recover to 0.25A.
3. Thermal Resistance from Junction to Case.

-214-

1.3

I

1.5

10.0
500.0

IR
TRR
CJ
R8JC

Amps

35.0

jlA

50.0
85.0
3.0
-65 to +150

Amps
Volts

nS

I

60.0

pf

°CIW
°C

RATINGS AND CHARACTERISTIC CURVES FESFBAT THRU FESFBJT SERIES
FIG.2-MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
150

8.3msec single sine wave
(JEDEC method)
125

FIG. 1 -

~

W

FORWARD CURRENT DERATING CURVE

a::

HJATSI'NK
Tc

§-

'0

(.)

\

000

~~

60

f2 ~

40

~~
FREE AMB1FNT. TA

W
(!)

<
a::
W

~

20

o

REISISi'VE ~OA~

o

50

100

~~

75

«
;;=~

50

~ff

25

a:Z
OW

1\

-- --"....

INDUCTIVE OR

~

en

C)

a:W
::la:
cIlW

100

W

~

100

~B

Cl.

............. ........

T"..T" max.

..

~

........

0

--- ...."'"

10

1

100

50

20

NUMBER OF CYCLES AT 60Hz

~

FIG. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

~
Z

150

TEMPERATURE. 'C

W

a:
a:
::l

U

o

a:

~f3

FIG.3 - TYPICAL REVERSE
CHARACTf.RISTICS

a: a:

frM:

100

cIl~

::l<
~

Z
W

::l

(.)

W
<
:.coo
a:
~O

....~~

..". 'r"""'""1

a::
a::

10

..... io-"""'1••\'/,O~
~~'1-

f-!>O'

(!)

oW
Z

<

I-

Z

~

;:CIJ

!=

~

1

V,~/

~ f-'
1.0

~~~~L--A

.2

__

.6

.6

.4

~

__

1.0

~

__

12

~

__

1.4

~

__

1.6

~~~

1.6

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

~

~ F!>O'~

FIG 5
1000

-

TYPICAL JUNCTION CAPACTIANCE

cIl~

::l
W
Z
<
IZ
<
0

//)

0.1

LL

t--

"ui

500

Z
<

200

(.)

U

~

...!::

.c

_W·'t!

.01

J/I'
20

40

<
Cl.
<

~~"
60

100

(.)

100

120

I'--... 6O-4OOV
500-Il0011

50

0:

H~AT~INK

80

o

w

~~

8 3msec slnqll
IJEDEC method)

-......... ........

125

~§

75

25

wtJ

~
t-

0..

~

1.0

2.0

5.0

~
Z

' \ 'n. ~.J

§ '0.0

l/

,

I

i

'I # III

I

. . . 5O-200V

00::" .0

f----i,

-I •

J ,1k r,' 1/

Ow

"-0..

30Q.400V./_5~V

:::>«

~
Z

r-::

ow

r

~'i-::

~

W
~
0:
a:
... ~\~oC·
:::>
~~
,0.0 F==.1. .'
0
E
~~'= rW
Fi~
C)
«
lLa:

Z

«

I •

2

II!

m
Z

..

.2

.6

,

,;
~

I,·

Ilii Ij

,

I-

PULSE WIOTH-25"C

'I
.8

2% DIUTY cvrLE
1.0

,.2

1.6

1.4

t----J,,

1.8

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

~

~S:?

A

I-

s

FIG 5
1000

-

TYPICAL JUNCTION CAPACTIANCE

"7

00::;

IZ

SOO

V

'1/:2

0.'

«

't2OO

1:::::=

I00

~

i

TJ.25"'C

4.0

~ffl
0: 0: 2.0

'00

100

, ._, ...
1-..... "

tJ

FIG.3 - TYPICAL REVERSE
CHARACTERISTICS

50

~:~

0:

o
0:

20

/ II" AI'

T,.125·C ----

f--

20

W

10.0

NUMBER OF CYCLES AT 60Hz
FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

40

150

TEMPERATURE,OC

:::>
0
w
z
«

-- r-... ,.....""

50

ui

tJ

-

Z

«

l-

..!:...f-:.c:

t)

~~ ~'ISil~T
!P"j
40

60

80

100

~

1-0 ..

r-...

100

5O-400V

500-600\

50

Il.

J

.0'
20

«
«

....

.......

tJ

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

20

f-

TJ

-

,.

25'

f..,. lMHz
VSlg -:: 50mVp-p
lU

0.1

0.5

1.0

5.0

10.0

so

100

REVERSE VOLTAGE, VOLTS

-217-

INsrBMlr

2.0

GI1401 THRU GI1404
FAST EFFICIENT GLASS PASSIVATED RECTIFIER
Voltage . 50 to 200 Volts Current· 8.0 Amperes
FEATURES
TO-220

• Plastic package has Underwriters Laboratory
Flainmability Classification 94V-O
• Glass passivated cavity-free junction
• Low power loss
• Low leakage
• High surge capability
"
• Superfast recovery times •
for high efficiency
• High temperature soldering guaranteed:
250°C,.25", (6.35mm) from case for 10 seconds

+-+j:mltm

....1 ..... 055 Cl.40)
......--*,.--1.045 U.14)

1

.150(3.81)
.130(3.30),_--.1 .600U'.24)

-P-r'-

PIN

t

~

1

•360 (9.14)
•320 13)

PIN

r

1.163 (29.54)
1.103 (28.02)
.. .,025
.560 C124.22i
MAX •

1

.530(t 46 )

_

--I I,:m
~g:::i
.210(5.33),

MECHANICAL DATA

.~.,+'102
.014(0.36) ...,~)

.090(2.29)

.190(4.83)

PIN 1 + <>----t..J;
PIN 2 . o---tr-ICRSE
(Case Positive)

standard Polarity
IGI14011

case: JEDEC TO-220 molded plastic
Terminals: Lead solderable per MIL-STD-202,
Method 208

PINl'~

PIN 2+ o---t4--ICRSE

Polarity: As marked
Mounting Position: Any
Weight: 0.08 ounce, 2.24 gram

(Case Negative)
Suffix ~R" Reverse Polarity

IGI140mi

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load. derate current by 20%.
UNITS

SYMBOLS

G/1401

G/1402

G/1403

G/1404

Maximum Recurrent Peak Reverse Voltage

VRRM

50

100

150

200

Volts

Maximum RMS Voltage

VRMS

35

70

105

140

Volts

Maximum DC Blocking Voltage

Voc

50

100

150

200

Volts

Maximum Average Forward Rectified Current
at Tc=125°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at
IF=4A, TJ=100°C
IF=8A. TJ=100°C
IF=4A. TJ";25'C
IF=8A, TJ~25°C
Maximum DC Reverse Current
at Rated-DC Blocking Voltage

Tc=25°C
Tc=100°C

Maximum Reverse Recovery Time (NOTE 1)
TJ=25°C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)

I(AV)

8.0

Amps

IFSM

125.0

Amps

VF

0.800
0.895
0.900
0.975

Volts

IR

5.0
150.0

JlA

TRR

35.0

nS

CJ
R8JC

85.0

pf

2.5

°CIW

Operating and Storage Temperature Range
TJ,TsTG
NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 volts.
2. Reverse Recovery Test Conditions: IF= 0.5A. IR=1.0A. recover to 0.25A.
3. Thermal Resistance from Junction to Case.

-218-

-65 to +150

°C

RATINGS AND CHARACTERISTIC CURVES GI1401 THRU G11404
FlO.2 -

MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT

150

a.3m.!: single sine wave·
tJEOECmOlhadI

125
W

....zW

a:
a:
::J
U

8.0

~ ill

6.0

~~
..:..:

,.... f-. .....
l""- I-

FREE AIR RATING, TA

W

P.~.B~DIM~NTI~

~

50

OW
LL a:

25

50

1"\

1.0

2.0

6.0

l-I- t-

100

~

a:
~ 20

TJ-12ro

::i:

150

..:
f--

if)

0

T".25'C

U

I

o
a: 10

Fig. 3 - TYPICAL REVERSE CHARACTERISTICS

~
a:
ou.

100

Ul 03

::ii

..:

0

a:
U

oW

--+-""r
T,

I

::J

ToI:: 125°C

.

0..

~1100ocl

II

Z 01

Z

~

C/)

~

03

Z

j

~

Z

1

W

a:
a:
::J
U

PULSE W1DTHo3OO...
2% DUlY CYCLE

~

If

J..,..o

10

50

Z

W

I--

20

,

~ 40

a:

a:

10.0

0

I\.

!S3 0

W

"""

NUMBER OF CYCLES AT 60Hz
Fig. 4-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

TEMPERATURE. DC

Ul
W

-r--.. .....

wU

0..

~

~~ 4.o I- ~NE~~~-:YvEE~~AD

a:

3: ~

~§

1\ I\.

2.0

~

75

a:Z

~ffi
a: 0..
~

r-r-

UlW

INFINITE HEAT·
SINK MOUNTING
T.

W

i"'"

::Ja:

IIII

10 .01-

ffll00

~

Fig. 1-FORWARD CURRENT DERATING CURVE
12 .0

T".T.. max.

~ t---....

0.4

j

0.5

0.6

07

08

0.9

1.0

1.2

1.1

INSTANTANEOUS FORWARD VOLTAGE, VOLTS
1.0

W
Ul

FIG. 5 • TYPICAL JUNCTION CAPACITANCE

a:
W

1000

>
W

a:
Ul

::J

0

I)

TJ= 25°C

0.1

'!i

500

W

W

U
Z

Z

~

.....

Z

~
Ul

~

200

..:

100

U
~

~

U
.0

o

20

40

60

80

100

120

140

~ ~I-

........

60

PERCENT OF RATED PEAK
REVERSE VOLTAGE
20

I-~.~~~

i rr

VsI,005O V
0
.1

.5

1.0

5.0

10.0

REVERSE VOLTAGE. VOLTS

·219·

60

100

100

BVW29-50 THRU BVW29-200
FAST EFFICIENT GLASS PASSIVATED RECTIFIER
Voltage - 50 to 200 Volts

Current - 8.0 Amperes
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Glass passivated chip junctions
• Low power loss
• Low leakage
• High surge capability
• Superfast recovery times
for high efficiency
• High temperature soldering guaranteed:
250°C, (6.35mm) from case for 10 seconds

TO-220
190(4.83)
~~
.05511.40)
.045!1.141

-.I '

:L
.150 (3.811
.130(3.30)

-rr W

.360(9.14)
.320 (8.131

.600J5.24)
.575114.611

1

l

3

. 4)1
128. 2)
[.5601124.22)
.530It 4G )

l8::;l

+1 I' :8~~
---.. .21015.331
.190(4.83)

:miS:Ul·II!;

MECHANICAL DATA

case: JEDEC TO-220 molded plastic

.110 (2.79)
.09012.29)

Terminals: Plated Lead solderable per MIL-STD202,Method 208
Polarity: As marked
Mounting Position: Any
Weight: 0.08 ounce, 2.24 gram

(CASE POSITIVE)
PIN 1 +<>-t..;;
STANDARD POLARITY PIN 2 - ~ CASE

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperatu~ unless otherwise specified.
Resistive or inductive load.
For capacitive load. derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
atTe- 125·C
Peak Forward Surge Current
10ms single half sine-wave superimposed
TJ=150·C
Maximum Instantaneous Forward Voltage
IF=20A, TJ-25°C
IF-8A, TJ=150·C
Maximum DC Reverse Current
Te=25°C
at Rated DC Blocking Voltage
Tc=100°C
Maximum Reverse Recovery lime (NOTE 2)
Typical Junction Capacitance (NOTE 1)
Maximum Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

BYW29-50 BYW29-100 BYW29-150 BYW29-200 UNITS

VRRM
VRMS
Voc

50
35
50

100
70
100

150
105
150

200
140
200

Volts
Volts
Volts

I(AV)

8.0

Amps

IFSM

100.0

Amps

VF
IR
TRR
CJ
R9JC
TJ.TsTG

NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 volts.
2. Reverse Recovery Test Conditions: IF=IA to VR=30V. with dVdt=100Alfl$.
3. Thermal Resistance from Junction to Case.

-220-

1.3
0.8
10.0
500.0
25.0
45.0
3.0
-65 to +150

Volts
~

nS
pf
·CIW
·C

RATINGS AND CHARACTERISTIC CURVES BYW29-50 THRU BYW29-200
FIG.3 100
UJ
(')(/)

a:w
::Ja:
(/)w
00..
a:::2'
,,;«
S:f-'
a:z
OW
u..a:
",a:
«:::>
wU

FIG. 1 - FORWARD CURRENT DERATING CURVE
100

f-'
Z
UJ

aD

a:
a:
::J

U
0'"

a:

R~8IStVEIOR IN.JmJE LO~

1\

6.0

UJ

~ffi

a: 0..
0::;:
u..«

4.0

~

2D

o

......

1JJ

T.,.TJmax.

r... ~i'"

10,... SINGLE HALF ,
SINE-WAVE

...............

40

r-....

20

-

~

0..

,

1.0

5.0

2_0

10.0

20

50

100

NUMBER OF CYCLES AT 60HZ
FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
80

\

UJ

~

.............. ......

60

\

UJ

a:

aD

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

o

50

iBa:
w
"::;:

150

100

CASE TEMPERATURE, °C

<{

40

/'

20

L

10

f-'
Z

,

w

a:
a:
::J

30

U

/

o

FIG. 2 - TYPICAL REVERSE
CHARACTERISTICS

(/)

03

:::>

--

ow

.Tc=25°C

-""'"

10

~
a:
ou..

1000

100

a:

..,
..,
Z

Tc""!OOOC

f

.-----

TJ

1

-

25° C

Pulse Width = 25G C
2% Duty Cycle

1

Z

~

(/)

:;::;

03

IL

01
04

05

06

07

08

09

10

11

12

INSTANTANEOUS FORWARD VOLTAGE, VOLTS
10

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
aD

1.0

.,
1

u..
e.
w'

20

40

U
Z

60

(3

50

u

40

..,

T.,..25~

60

80

rt
«

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

70

~

' .... r"o

TJ

""

25° C

I

f = lMHz
Vsig "" SOmVp-p

.......

~~
~

30

20

01

02

05

10

20

50

10

REVERSE VOLTAGE, VOLTS

-221-

20

50

100

FESF16AT THRU FESF16JT
FAST EFFICIENT GLASS PASSIVATED RECTIFIER

Voltage - 50 to 600 Volts

Current - 16.0 Amperes
FEATURES
• Isolated plastic package has Underwriters
Laboratory Flammability Classification 94V-0
• Glass passivated chip junctions
• Low power loss
• Low forward voltage,
high currE!nt capability
• High surge capability
• Superfast recovery times
for high efficiency
• High temperature soldering guaranteed:
250°C, .25",( 6.35mm) from case for 10 seconds
• Internal Insulation: 1.5k VRMS

ITD-220

.13 •• 008

[3.3 to.2)

... ,.107t.008

12.7 ± 0.2)

MECHANICAL DATA
Csse:JEOEC ITO-220 Fully overmolded plastic
Terminals: Plated Lead solderable per MIL-STO202 Method 208
Polarity: As marked
Mounting Position: Any
Mounting Torque:5 in. - lb. max.
Weight: 0.08 ounce, 2.24 gram

....4° REF•.,. ..
PIN 1 + 0----,
PIN 2 -

PIN 1 - 0----,
PIN 2 • ~

o--...-J

(Case Poskive)
Standard Polarity

(Case Negative)
Suffix ·R· Reverse Polarity

jFESF1SI

IFERF161

Dimensions in inches and millimeters

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load. derate current by 20"A..

FESF FESF FESF FESF FESF FESF FESF FESF
SYMBOLS t6AT 168T 16CT 16DT 16FT 16GT 16HT t6JT UNITS
Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
at Tc=100·C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 16A
Maximum DC Reverse Current
at Rated DC Blocking Voltage

Tc=25°C
Tc=100°C

Maximum Reverse Recovery lime (NOTE 2)
TJ=25°C
Typical Junction Capacitance (NOTE 1)
Typical Thermal Resistance (NOTE 3)

VRRM
VRMS
Voc

50
35
50

100
70
100

150 200 300
105 140 210
150 200 300

CJ
R8JC

Operating and Storage Temperature Range
TJ.TSTG
NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 volls.
2. Reverse Recovery Test Conditions: IF=O.5A. IR=I.0A. recover to 0.25A.
3. Thermal Resistance from Junction to Case.
-222-

600 Volts
350 420 Volts
500 600 Volts

AriIPS

250.0
0.95

I

1.3

I

1.5

10.0
500.0

IR
TRR

500

16.0 .

I(AV)

IFSM
VF

400
280
400

35.0

I

175.0

Amps
Volts
/LA

50.0

nS
145.0

1.7

pi
·CIW

-65 to +150

·C

RATINGS AND CHARACTERISTIC CURVES FESF16AT THRU FESF16JT

FIG.2 -

MAXIMUM NON REPETITIVE PEAK
FORWARD SURGE CURRENT

300

250

~CI)
a:w
:::.a:

FIg.1-FORWARD CURRENT DERATING CURVE

!5
o
c

U)

a: W
a:

.~,

.~

-~

,..:
:J

,,'

/

T.. '25'CI~

IU
a:
a:

100

50

20

NUMBER OF CYCLES AT 60 Hz

1\

W


<

150

II
8 3ms SINGLE HALF SINE-WAVE
JEDEC METHOD

~.,.:

1\

a: W
0::

,

.:;

.~

I

en::E

:::I

.

-, .... l.......

~ "~r-...

1".125-0 ~

:::I

!l!2

'00

FIG. 4· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG
Z

,.''tJl

50

150

..,:

-""

,...",
20

NUMBER OF CYCLES AT 60Hz

CASE TEMPERATURE, ·C

..,:

f'. ,....,

50

~

o

JEOEC METHOD
ATT....r .. rnax.

o::Z
OW 100
u.o::
><:0::
<:::I 75
wO
Il.

1'1\

8.0

125

I
8.3mo SINGLE HAlF SINE-WAVE

50

100

1.8

2.0

GI2401 THRU GI2404
GLASS PASSIVATED FAST EFFICIENT RECTIFIER
Voltage· 50 to 200 Volts Current· 16.0 Amperes
FEATURES
• Dual rectifier construction, positive centertap
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Glass paSSivated chip junctions

TO-220CT
1"-l160 [4.0 )
.../ •. 015 [1.40l
.0 5[1.14)
~

.150 [3.81)
.130[3.30)

-p-

.640 (1626)
.620 [15.75)

1 PIN
2 3

4
.16"Ol4.rn

1

J4013.56i

.360(9.14)
.320 [8.13)

!

3 [29.54)
~
1.10 3 [28.02)

t

PIH3'~E
P08j~

~

!

i

.022 [0.56)+
.014[0.36)

·:~~Htm

J>IN1'~

• High surge capability
• Superfast recovery
times for high efficiency
• High temperature soldering guarenteed:
250°C, .25",(6.35mm) from case for 10 seconds

[t46)

1I·:m:g::::

_ _ .210 [5.33)
.190 [4.83)

.600)5.24)
.575 [14.61l

[.560 U24.22)
.530

1-+
..j

• Low power
loss

W

.

I::.

MECHANICAL DATA

.110 (2.79)
.090(2.29)

case: JEDEC TO-220 molded plastic
Tennlnals: Plated Lead solderable per MIL-STD-

+

PIK1~

202, Method 208

PIN3~E

PolarIty: As marked
Mounting Position: Any
WeIght: 0.08 ounce, 2.24 gram

NegativeCT
Suffix"R"

@l240R1

Dimensions in inches and millimeters

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 26°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Vottage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tc=125°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage per leg
IF=4A, TJ =100°C
IF=8A, TJ=100°C
IF=4A, TJ=25°C
IF=8A, TJ=25°C
Maximum DC Reverse Current
Tc=25°C
at Rated DC Blocking Voltage
Tc=100°C
Maximum Reverse RecOvery Time per leg (NOTE2)
Typical Junction Capacitance per leg (NOTE 1)
Maximum Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

GI2401

GI2402

G12403

GI2404

50
35
50

100
70
100

150
105
150

200
140
200

UN"S
Volts
Volts
Volts

I(AV)

16.0

Amps

IFSM

125.0

Amps

VF
IR
TRR
CJ
R8JC
TJ,TsTG

NOTES:
1. Measured at t MHz and applied reverse voltage of 4.0 volts.
2. Reverse Recovery Test Conditions: IF =0.5A, IR=I.0A, reoover to 0.25A.
3. Thermal Resistance from Junction to Case per leg.
-230-

0.800
0.895
0.900
0.975
5.0
150.0
35.0
85.0
1.75
-65 to + 150

Volts
5.0
500.0

jJ.A
nS
pf
°CN{
°C

RATINGS AND CHARACTERISTIC CURVES GI2401 THRU GI2404
FIG.2 -

MAXIMUM NON-REPETITIV-E PEAK
FORWARD SURGE CURRENT

150
8.:3msec Single sina wav.'

125
W
ClCIl 100

a:W
::la:

Fig. l-FORWARD CURRENT DERATING CURVE
""
Z

w

a:

~

00..

««

~t-='

1\

(,)

COO
12

~~
u. «

8.0

~ffi

(!)

w

AMBIENT AIR RATIN~. TAl

4.0

~

o

a:Z
OW
u.a:
:.:a:
<,::l
wO

,

~

w

«
a:

o

T".T" IMX.

r--.....
i""'~to-

'-

75

a:::2

18

a: w

CIlW

IINJ'NIT~ HJAT lINK~ Tc

20

IJEDEC rne1I1odl

..............

50

"'r-... 1--- ....

25

Cl.

1.0

6.0

2.0

10.0

20

50

NUMBER OF CYCLES AT 60Hz
FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

\

80
({)

150

100

50

:il

40

~

20

w

TEMPERATURE. °C

«

f'

I
T,.I2&'C

~ 10.0

VI

w

a:
~4.0
()

I

C

a:

Fig. 3 - TYPICAL REVERSE
CHARACTERISTICS PER LEG
00

~
a:
ou.

100

W

00 0.4

w

ow

a:

:::J

0..

::2

~

~

10.0

I

II

PULSE WIDTH-2S'C_
2% DUTY CYClE

~

,.....-"

= F=1"'\~ -

Z

~
CIl.04
Z

t-='
Z

I
01

W

II:

./

a:
::l
(,)

W

T..-2!i'C

Z 01

a:
(,)

J

10

./

1.0

I

0.2 0.4
0.8
0.8
1.0
1.2
1.4
1.8
INSTANTANEOUS FORWARD VOLTAGE. VOLTS

"'-..,.,~

CIl

FIG. 5 - TYPICAL JUNCTION CAPACITANCE PER LEG

a:
w

lCOO

[ij
a:

CIl

:::J

ow
Z

0.1

Z

,

~
~

T...25"C

(,)

~
i3

-

«
Cl.
«
(,)

1/10"
o

20

40

60

500

0.

ui

z

~

.01

u.

I

200

I-....

100

-

.........

50
80

100

120

140

f- T...2Ii'C

PERCENT OF RATED PEAK
REVERSE VOLTAGE

20

t-UIMHz

f-Viilil

10.0
0.1

0.5

1.0

5.0

10.0

50

100

REVERSE VOLTAGE. VOLTS

-231-

IN~

100

BVV32-50 THRU BVV32-200
FAST EFFICIENT GLASS PASSIVATED RECTIFIER
Voltage· 50 to 150 Volts Current· 18.0 Amperes
FEATURES
To-220CT

:j

.160 4. )
•. 05511.40l
.04SII.14!

r\@) ~

.600(124)

• .Dual rectifier construction, positive centertap
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Glass passivated chip junctions
• Low power loss
• Low forward voltage,
high current capability
• High surge capability
• Superfast recovery times
for high efficiency
• High temperature soldering guaranteed:
250°C, .25" (6.35mm) from case for 10 seconds

ci
.15013.8ll

·lJ
.640116.26)
.620115.75)
PIN

19!'FFffi=!l.1'6~

.36019(14)
.32018.13)

:s'i5Ci4.Gii

1

1~l
3

\/,.1",4"-j01..,3."'56....
) .L-

t

9. 4)1
128.02)

1.5601124.22)
.530T·46)

l"II·:m::::~
+I .:~~~\tm

.02210.56).
.014!O.361

'!!.

.11012.79)
.09012.29)

MECHANICAL DATA

~

case: JEDEC TO-220 molded plastic

.19014.83)
PINl-~

PIN3-~E
PIN2

PO$/tiveCT
ISYV32-501

PINl~

PIN~ ~E
- Negative CT
Suff~

'N'

ISYV32·2001

Terminals: Plated Lead solderable per MIL-STD-

PINl~

202, Method 208

PIN3~E

PIN2

Polarity: As marked
Mounting Position: Any
Weight: 0.08 ounce, 2.24 gram

PIN2
Doubler

Suffix 'D'

ISYV32-5001

Dimensions in inches and millimeters

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS

BYVS2-5IJ

Maximum Recurrent Peak Reverse Voltage
VRRM
Maximum RMS Voltage
VRMS
Maximum DC Blocking Voltage
Voc
Maximum Average Forward Rectified Current
at Tc-120'C
I(AV)
Peak Forward Surge Current
1Oms single half sine-wave superimposed
TJ-150C
IFSM
Maximum Instantaneous Forward Voltage per leg
at IF=20A,
IF-5.OA, TJ=100°C
VF
Maximum DC Reverse Current
Tc=25°C
at Rated DC Blocking Voltage
Tc-l00°C
IR
Maximum Reverse Recovery Time per leg (NOTE 2)
TJ-25°C
TRR
Typical Junction Capacitance (NOTE 1)
CJ
Maximum Thermal Resistance per leg (NOTE 3)
ReJC
Operating and Storage Temperature Range
TJ,TsTG
NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 volls.
2. Reverse Recovery Test Conditions: IF=lA to VA=30V, with dVdt=100AljlS.
3. Thermal Resistance from Junction to Case per lag.

-232-

50
35
50

BYV32-111O BYV32-150 BYV32-211O UNITS

100
70
100

150
105
150

200
140
200

Volts
Volts
Volts

18.0

Amps

150.0

Amps

1.15
0.85
10.0
600.0
25.0
45.0
3.0
-65 to +150

Volts

IIA
nS
pf
°CIW
°C

RATINGS AND CHARACTERISTIC CURVES BYV32·50 THRU BYV32·200
FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
150
W

(9Ul

a: w

125

:::>0:

~
I'-."-

(f)W

~~

FIG. 1 - FORWARD CURRENT DERATING CURVE

,0:<1:
S:>-'

20.0

>-'
Z

W

0:
0:
:::>

O::i!

8.0

~ffi
0:0..

~ ~

1\

16.0

120

I"

o:Z

18.0

()
OUl
o:W

100

TJ_15O"C
10ms SINGLE HALF
SINE-WAVE

1"-1"-1"-

...........

75

",,0:

~a

\

a..

50

t"'--- r-

25

~

1.0

2.0

10

5.0

20

50

NUMBER OF CYCLES AT 60HZ

LL
()

I

o

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS PER LEG

0:

~
0:
ou..

1000

10

To 25°G
Pulse Width 300ILs
2% DUTY CYCLE

(f)

:::>

@
01
Z

j

>'Z
>'

1.,....000 II'

Te == 100°C
0

(f)

~

o1

I
04

~
06

08

10

1.2

14

16

18

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG. 5 - TYPICAL JUNCTION CAPACITANCE
PER LEG

0
0

Te

=

u..
"-

25 0 C'j

~

0

.........

40

JJII

r-...

f = lMHz
VSIQ = SOmVpp

Z

..

>'
~

~



40

ca:
~en
W

10,

lit

10.

~

~"

I-~ ~

P

T...25'C

I

L-,

17

1.0.

-3OQ..4OOV

-5OO-«lOV
,

;

ril r,-

.1

0.'"

0..6

!

PULSEWlO_JII_

1 ~OUTYFI
0..8

1.0

1.2

1...

1.8'

FIG. 5. TYPICAL JUNCTION CAPACITANCE PER LEG
1000

u.Q.
iii

3IJO.ioov.

l-

(/)

f:
0..1
40

.arc,;, , .,
"V ~
60

SOD

0
Z

«

I-

80

100

120

(3

2DO , -

(§

100

«
Q.

T•

20

1,./','

l/

INSTANTANEOUS FORWARD VOLTAGE, VOlTS

....

0.

~7

I

0..2

--.~btl

===-

I

11"-

I.

~

't,.~

'1/ ;~

I

.4

~
en
f:

II

:. ... 1-

..

~,.

II'~' ~

/

T... ':WC!~

Z

rr

~

/'
'(

~'t,.~

1.0.

~

I

I

20.

a:
offi
u.Q.
en:::E
::::>«
0
W
Z

.,.:

.,.

80.

.,.:

F(G.3 - TYPICAL REVERSE
CHARACTERISTICS PER LEG

..

100

50

20

FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

0

100

10..0

NUMBER OF CYCLES AT 60Hz

CASE TEMPERATURE, 'C

z
W
a:
a:
::::>
0
W
(!l
«
:.:(/)
«W
Wa:
... w
WQ.
(/):::E
a:«
Wo
>a:
~Q
(/):::E
::::>
0
W
Z
«
IZ
«

5.0.

'\

TT'Vj OJ REtr rDI

.... ......

50

140

~iv

5OO-«lOV

~'~I-i

~

50

PER'CENT OF RATED PEAK
REVERSE VOLTAGE
20

I-~

.,,-eo;n~~·1

10..0
0.1

0..5

1.0.

5.0.

10..0

50'

100

REVERSE VOLTAGE. VOlTS

-235-

I~

FEP30AP THRU FEP30JP
FAST EFFICIENT GLASS PASSIVATED RECTIFIER
Voltage .. 50 to 600 Volts Current .. 30.0 Amperes
FEATURES
• Dua' rectifier construction, positive centertap
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Glass passivated chip junctions
• Superfast recovery times,
high voltage
• Low forward voltage,
high current capability
• Low thermal resistance
• Low power loss, high efficiency
• High temperature soldering guaranteed:
250°C,.17", (4.3mm) from case for 10 seconds

T0-3P

l'REF=~;=+"'I-rr-'=;;:' I' REF
,.118(3.0)
.108(2.7)

~

L--,

22SiS~!

+

,.04BU.22)
.044 (1.12)

MECHANICAL DATA

.205(5.2)

PIKI~;t.
PIN 3 O--t+-fCAsE
POSITIVE CI PIN 2

+

PINI~

case: JEDEC TD-3P molded plastic

•
AC
PINl~

PIN3~~ PIN3~E
NEGATIVE CI
SUFFIX 'N'

!FEN30!

PIN 2

DOUBLER
SUFFIX '0'

Tennlnals: Plated Lead solderable per MIL-STD202, Method 208
Polarity: As marked
Mounting Position: Any
Weight: 0.2 ounce, 5.6 gram

PIN 2

!FEDOO!

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25·C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
FEP FEP FEP FEP FEP FEP FEP FEP
SYMBOLS 3DAP 3DBP 3DCP 3DDP 3DFP 3DGP 3DHP 3DJP UNITS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
at Tc-l00·C
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage per leg
at 15.0A
Maximum DC Reverse Current
Tc=25·C
at Rated DC Blocking Voltage
Tc= 100·C
Maximum Reverse Recovery Time (NOTE 2)
per leg
TJ=25°C
Typical Junction Capacitance per leg (NOTE 1)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM 50
VRMS 35
Voc 50

100 150 200 300 400 500 600 Volts
70 105 140 210 280 350 420 Volts
100 150 200 300 400 500 600 Volts

I(AV)

30.0

Amps

IFsM

300.0

Amps

. VF

0.95

1.3

IR
TRR
CJ
R9JC
TJ,TSTG

NOTES:

1. Measured at 1 MHz and applied reverse voltage of 4.0 vollS.
2. Reverse Recovery Test Conditions: IF=O.5A, IR=1.0A, recover to O.25A.
3. Thermal Resistance from Junction to Case per leg.
-236-

I

1.5

10.0
500.0
35.0
175.0

ItA
50.0
1145.0

1.0
-65 to +150

Volts

nS
pi
·CIW
°C

RATINGS AND CHARACTERISTIC CURVES FEP30AP THRU FEP30JP
FIG.2 -MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT PER LEG
300

FORWARD CURRENT DERATING CURVE

~

250

UJ

FIG. 1 -

C)'"

a:W

ijl ffi

200

011.

~~

II

"-

8.3ms SINGLE HALF SINE·WAVE
JEOEC METHOD

T".TJmBX.

1'.....

150

~

;;:~

a:Z

\

OW 100

,

u.a:

>I::

i1i
11.

a:

a

:\.

o

5

~

TT'Tol REtTE rDI
o

100

10

20

50

NUMBER OF CYCLES AT 60Hz

\

50

....... .........

50

FIG. 4 _TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER LEG

150

CASE TEMPERATURE, ·C

eo.

~
Z

.'~"''''''

f

W

a:
a:
::>
u
o
a:

FIG.3 - TYPICAL REVERSE
CHARACTERISTICS PER LEG
1000

~ffl

oW

100

-

~ffi

(/l::i:

~

,

10

.50Q.600V
•

~

~.

i ! PULSEWIOTH-300JIO_
i'---'L'----Jic...oU_TY.....F_E..L..-I---I

n.'. . .

'---"~Ulr,

.1

0.4

0.2

~

V,dJG

(/l~

0.8

0.8

1.8

u.Q.
u.i

Z

500

U
Z

<

(/l

T'-r:~,

~

40

60

80

<

..L

,.f....... V
20

1.4

FIG. 5 - TYPICAL JUNCTION CAPACITANCE PER LEG

• i'- 5G-2OOV
I::::::!! ~~

o

1.2

1000

I-

0.1

1.0

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

-"". ~
1.0

- 3OQ.4(JQ\/

I

~

",. .#11

:i!u
::>
0
w
Z
<
I-

~1/1r:17IL'iJ~2fK1V~"-"

.4

Z

-,. fI
~~

1-- 1 11"?JIC

T...25'C
I
I
r--t----t1'f~~,~~l_r1VI-::.,~--;-l-t

4.

1.0

Z

Wll.

a:<
Wo
>a:

10.

a: a:
Ow
u.1l.
(/)::i:
::><

z~

w
a:
a:
::>
U
w
C)
<
>I::(/l
0..
UJ::!;
a:«
(/)0
::Ja:
00
UJZ::!;
~..:ZZ
«UJ
f-a:
(/)a:
Z::J

TYPICAL JUNCTION CAPACITANCE

~

0

'"

OUJ
u.a:

~a

FIG. 4 6.0

1.0

4.0

10

40

REVERSE VOLTAGE, VOLTS

-

FIG. 6 - SUPERECTIFIER
BRAZED- TEMP ;>- 600 C

0.1

==

.01

f=:TJ = 25'C

.,..,...
20

40

60

80

100

120

140
COMPLETELY

PERCENT OF RATED PEAK
REVERSE VOLTAGE

ENCAPSULATED
BRAZED CONSTRUCTION

OPAQUE
GLASS

I~
-245-

100

G1250-1 THRU G1250-4
MINIATURE HIGH VOLTAGE GLASS PASSIVATED
JUNCTION RECTIFIER
Voltage - 1000 to 4000 Volts Current - 0.25 Amperes
FEATURES
• High temperature metallurgically bonded constructed rectifiers
• Plastic package
'~" __
has Underwriters Lab-___
oratory Flammability Classifi----.~
cation 94V-0
• Glass passivated cavity-free junction in 00-41
package

00-41

---r
1.0 (25.4)
MIN

.107(2.7) ~
.080 (2.0)

1+ ~

1

.20~5.2)
.160(4.1)

• Capable of meeting environmental standards of
MIL-S-19S00

1.0(25.4)
MIN

• High temperature soldering guaranteed: 3S0°C/10
seconds/.37S", (9.Smm) lead length at Sibs.,
(2.3kg) tension

-t.034 1.86)
.028 (.70

~

+

~

MECHANICAL DATA
Dimensions in inches and (millimeters)
• Glass·plasVc encapsulation technique is covered by Patent No.
3,996,602011976 and brazed ·Iead assembly to Patent No. 3,930,306
01/976

~®

Case: JEOEC 00-41 Molded plastic over glass
Tennlnals: Plated Axial leads, solderable per MILSTD-202, Method 208

Polarity: Color band denotes cathode
Mounting Posit/on: Any

Weight, 0.012 OW""• .3.mm

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS

GI2So-1

G125O-Z

GIZ50-3

G125O.f

Maximum Recurrent Peak Reverse Voltage
VRRM
Maximum RMS Voltage
VRMS
Maximum DC Blocking Voltage
Voc
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA = 75°C
I(AV)
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load at TA = 75°C(JEDEC Method)
IFSM
Maximum Instantaneous Forward Voltage aI 0.25A
VF
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA = 100°C
IR
Typical Reverse Recovery Time (NOTE 2)
TRR
Typical Junction Capacitance (NOTE1)
CJ
Typical Thermal Resistance (NOTE 3)
ReJC
Operating and Storage Temperature Range
TJ,TsTG

1000
700
1000

2000
1400
2000

3000
2100
3000

4000
2800
4000

0.25

Amps

15.0
3.5
5.0
50.0
2.0
3.0
130.0
-65 to +175

Amps
Volts

NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 Volts.
2. Reverse Recovery Test Conditions: IF = O.5A, IR = 1.0A, Irr = 0.25A.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.

-246-

UNITS
Volts
Volts
Volts

IIA
Ils
pi

°CIW
°C

RATINGS AND CHARACTERISTIC CURVES G1250-1 THRU G1250-4
FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT
15

o

W

u::

FIG. 1 - FORWARD CURRENT
DERATING CURVE
.2 5

\.

i=oo

Ow 20

Wo::
o::w

~~

~

.15

"W::>

ct:
000

II:

1.0

::JO::

00

~~

~ I-~

--TJ

0.1

~t5
t;~

~ a .01

20

40

60

:=

2S"C

80

100

120

140

COMPLETELY
ENCAPSULATED
BRAZED CONSTRUCTION

PERCENT OF RATED PEAK
REVERSE VOLTAGE

-247-

OPAQUE
GLASS

40

100

GP08A THRU GP08J
MINIATURE GLASS PASSIVATED JUNCTION
PLASTIC RECTIFIER

Voltage - 50 to 600 Volts

Current - 0.8 Amperes
FEATURES

D0-41

-r
1.0 (25.4)

MIN

:~~~I~:~\ -I

I.. ~

.205~5.2)
.180(4.1)

-+-

t

1.0(25.4)

MIN

.034(.86)...
.028 (.71)

I

..

• High temperature metallurgically bonded constructed rectifiers
• Plastic package
-'-x., ~
has Underwriters Lab~~
oratory Flammability Classification 94V-0
• Glass passivated cavity-free junction in 00-41
package
• O.S Ampere operation at TA= 55°C with no thermal runaway
• TypicallR less than 0.11-1 A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed: 350°C/10
secondsl.375", (9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

Dimensions in inches and (millimeters)

MECHANICAL DATA
• Glass-plastic encapsulation technique is cevered by Patent No.
3,996,6fl2011976 and brazed -lead assembly to Patent No. 3,930,306
011976

case: Molded plastic over glass
Terminals: Plated Axial leads, solderable per MILSTD-202, Method 20S
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.012 ounce, .3 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at2S0e ambient temperature unless otherwise specified. 60 Hz Resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS GPOBA

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA = 55°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method) at TA=55°C
Maximum Instantaneous Forward Voltage at 0.8A
Maximum Full Load Reverse Current Full Cycle
Average 375" (9.5mm)Lead Lengths at TA= 55°C
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA= 125°C
Typical Reverse Recovery Time (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

50
35
50

GPOB8

GP08D

GPOBG

GPOBJ

UtITS

100
70
100

200
140
200

400
280
400

600
420
600

Volts
Volts
Volts

I(AV)

0.8

Amps

IFSM
VF

25.0
1.3

Amps
Volts

IR(AV)

30.0
5.0
50.0
1.0
8.0
45.0
-65 to +175

itA

IR
TRR
CJ
RaJA
TJ,TsTG

NOTES:
1. Measure on IF = O.SA, IR = 1.0A, Irr =.2SA.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Ambient at.37S" (9.Smm) Lead Lengths, p.e. Board Mounted.

-248-

I1A
I1S
pf
°elW
°C

RATINGS AND CHARACTERISTIC CURVES GPOBA THRU GPOBJ

....
z

FIG. 1 - FOR_RD CURRENT
DERATING CURVE

FIG. 2 TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS

w

1.0

,.:

20

~

08

aJ

10

fE {3

06

a:
a:

o

~ffic..
fi

f2~

0.4
02

~

o

~

~

~

W

W

a:
a:

I' i"'oo

. . "'r"1Bf""'I
=~m:soi.~~~.
LEAD LENCllHS

20

40

60

60

" i""'""
120

100

o

2

o

a:CI)

~ll!

10

f- T...-25'C
Pol.. WIdIho3OOI'"

f=

Iluly Cycte.2%

a:W 04

f2~

f'

140

AMBIENTTEMPERATURE, ·C

"""

160

3«
ow

160

V'

02

Li

01
4

Z

~

02

Z

"

1

f;!;

04

02

'"~

06

08

10

12

14

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

FIG. 3 - MAXIMUM NON·REPETITIVE
PEAK FOR\'MRD SURGE CURRENT
25

I'

20

5

"" i'"

8.3ms SINGLE HALF SINE-WAVE
JEDEC METHOD

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

l~.55 "C

~ 100

W
~ 50

~

f;!;

0

6810

20

1,.25"0

~

1'""

10

()

'0

~

5,0

~...,
~

40 60 80 lbo

Vlra • &0 \Ip.p

III

1,0

1.0

1

NUMBER OF CYCLES AT 60Hz

to ,.oUHz

...... 1"-

'0

'00

REVERSE JUNCTION POTENTIAL liou'S

FIG. 8 -

SUPE/IECTIFIER

CAVITY-fREE
IGLASS-PASSIVATED
JUNCTION)

10

10

'00

'20

'40

PERCENT OF RATED PEAK REVERSE VOLTAGE

~~~~:~E~fEO

BRAZED CONSTRUCTION

OPAQUe

GLASS

IN~
·249·

1N3611 GP THRU 1N3614GP AND 1N3957GP
MINIATURE GLASS PASSIVATED JUNCTION PLASTIC RECTIFIER
Voltage - 200 to 1000 Volts
Current - 1.0 Ampere
FEATURES
• High temperature metallurgically bonded constructed rectifiers
• Plastic package
has Underwriters Laboratory Flammability Classification 94V-0
• Glass passivated cavity-free junction in 00-41
package
• 1.0 Ampere operation at TA=75°C with no thermal
runaway
• Typical IR less than 0.1 11 A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

00-41

~

1.0 (25.4)

MIN

.107(2.7) ~
.080(2.0)

1 I" +I

.20~5.2)

.180(4.1)

-r-

1.0(25.4)

.034 (,861 ~..
.028 (.71)

MIN

I

..

MECHANICAL DATA

Dimensions in inches and (millimeters)

·

:

.

Case: JEOEC 00-41 Molded plastic over glass
Terminals' Plated Axial leads solderable per
"
MIL-STO-202, Method 208
Polarity: Color band denotes cathode

..

GIass-plas/lCencapsulatlonl8chnrqueISCilvelOdbyPalenlNo.3,996.602011976and

brazsd ·lead assembly CO Palent No. 3,930,31J6 011976

_n."""',An,

~®

Weight: 0.012 ounce, .3 gram

."

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

IN
• Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
• Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (g.5mm) Lead Lengths at TA-75°C
'Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 1.0A
• Maximum DC Reverse Current
at Rated DC Blocking Voltage

TA=25°C
TA=150°C
Typical Reverse Recovery Time (NOTE 1)
Typical Junction Capacitance (NOTE 2)

SYMBOLS 3611GP
200
VRRM

VRMS
Voc

140
200

tN

IN

1N

1N

3612GP

3613GP

3614GP

39S7GP

400
280
400

600
420
600

800

1000
700
1000

560
800

UNITS
Voks

Volts
Amps

I(AV)

1.0

Amps

IFSM

30.0

Amps

VF

1.0

Volts

IR

1.0
300.0

IJA

TRR

2.0

~

CJ
RaJA

10.0

pf

45.0
-6510+175

°cm
·c

Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range
TJ,TsTG
NOTES:
1. Reverse Recovery Test Conditions: IF=O.5A. IR = 1.0A, Irr =.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths,
• JEDEC Registered Values

-250-

p.e. Board Mounted.

RATINGS AND CHARACTERISTIC CURVES
1N3611GP THRU 1N3614GPAND 1N3957GP

FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG. 1-FORWARD CURRENT
DERATING CURVE

o

w

,

1. 0

u:
i=Ul

UW
Wa:
a:w
OD..
a::2
««
::: a:f-

~fil

~

8

a: a:
Ow

!LD..
00:2

I\.

.6
SINGLE PHASE

.2

60Hz
RESISTIVE OR
INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS.

HALF WAVE

!La:

wa:
(!):::J
«U

'\

a:

W

25

>
«

50

:::J«
0WfZZ
«W
f-a:
Za:
«=>
f-U

'\

.4

Oa::

75

20
10

0

a:

100

125

I'\.

150

00

"

5

T.

Pulse WIdth" 300 !..Is
2% Duty Cycle

0.8

1.0

1.2

1.4

1.6

FIG. 4 - TYPICAL JUNCTION CAPACITANCE
~100

W

U

~ ~5od

~

TJ ;·2S;C~-

I

0.6

SINE-WAVE (JEDEC Method)

0

.04

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

8.3~~1 SINGLE HALF
"-

I

0.1

.Q1 'I

FIG. 3 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

5

0.4
0.2

175

AMBIENT TEMPERATURE

Of'

"'"

1.0

.02

~

~

4.0
2.0

Z

~

50

~

TJ=25°C

D..

«
U

,,~

Z

ai=

r"~

f = lMHz
Vsig SOmVp-p

=

10
5.0

U
Z

:::J
-,
1.0

2.0

4.0 6.0

10

20

1.0
.1

40 60 80100

NUMBERS OF CYCLES AT 60Hz

~

a::
0

13

4.0

a:

wOO

TJ

ulW

a:
a:
WW

10

100

FIG. 6 - SUPERECTIFIER

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

a:

1.0

REVERSE VOLTAGE, VOLTS

100°C

1.0

>D..
W:2 0.4

a:«

000

55
~::1

~

Z

~

00
Z

0 •1

.04

TJ

25°C

.01
0

20

40

60

80

100

120

140

COMPLETELY
ENCAPSULATED
BRAZED CONSTRUCTION

OPAOUE
GLASS

PERCENT OF RATED PEAK REVERSE VOLTAGE

-251-

INsr~

1N4001 GP THRU 1N4007GP
MINIATURE GLASS PASSIVATED JUNCTION PLASTIC RECTIFIER
Voltage - 50 to 1000 Volts

Current -1.0 Ampere
FEATURES

• High temperature metallurgically bonded constructed rectifiers
• Plastic package
has Underwriters Laboratory Flammability Classification 94V-0
• Glass passivated cavity-free junction in DO-41
package
• 1.0 Ampere operation at TA= 75°C with no thermal runaway
• TypicallR less than 0.1 J.1 A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed: 350°C/10
seconds/.375", (9.5mm) lead length at 5Ibs.,
(2.3kg) tension

D0-41

-r
1.0 (25.4)

MIN

1+ ~

.107(2.7) ~ 1
.080 (2.0)

.20~5.2)
.160(4.1)

---L-

t

1.0(25.4)

NIN
.034(.86) ~
.028 (.71)

+

L

MECHANICAL DATA

Dimensions in inches and (millimeters)
·GIass-plaslicencapsulationrechniqueiscovemdbyPatentNo.3,996,602ofI976and
brazed·leedllSS6mb1ylaPat6l1lNo.3,930,306of1976

•
• ®
~

~

Case: JEDEC D0-41 Molded plastic over glass
Terminals: Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Posit/on: Any
Weight: 0.012 ounce, 0,3 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS

Ratings at 25°C ambient temperature unless otherwise specified. Resistive or inductive (oad.
For capacitive load, derate current by 20%.

IN

IN

IN

IN

IN

IN

IN

SYIIBOLS 4001GP 400ZGP 4OD3GP 4OO4GP 4OD5GP 4D06GP 4007GP

'Maximum Recurrent Peak Reverse Voltage
'Maximum RMS Voltage
'Maximum DC Blocking Voltage
'Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=75°C
'Peak Forward Surge Current
S.3ms single hall sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 1.0A
'Maximum Full Load Reverse Current, Full Cycle
Average .375", (9.5mm) Lead Length TA= 75°C
'Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=125°C
Typical Reverse Recovery Time (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
'Operating and Storage Temperature Range

VRRM
VRMS
Voc

50
35
50

I(AV)

1.0

Amps

IFSM
VF

30.0
1.1

Amps
Volts

IR(AV)

30.0
5.0
50.0
2.0
S.O
45.0
-65 to +175

(lA

IR
TRR
CJ
RaJA
TJ,TsTG

NOTES: 1. Reverse Recovery Test Conditions: IF=0.5A, IR=I.0A, Irr= 0.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Ambient al .375" (9.5mm) Lead Lengths, P.C. Board Mounted.
• JEDEC Registered Values
-252-

UNITS

100 200 400 600 SOO 1000 Volts
70 140 2S0 420 560 700 Volts
100 200 400 600 SOO 1000 Volts

(lA
(lS
pi
°CfW
°C

RATINGS AND CHARACTERISTIC CURVES 1N4001GP THRU 1N4007GP

FIG. 2 - TYPICAL INSTANTANEOUS

FORWARDCHARACTERISlICS
20

FIG. 1 - FORWARD CURRENT
DERATING CURVE

o

10

o

a:

~

1.0

§LUa:III

.8

O~

.6

~~

.4

OLU
LLa:
LU a:

.2

r\

a:LU

~«

L = .3?S" (9.~mm)

~A

~i3

0
0

a:

~

«

25.

50

100

125

~~

~a

l\.

150

~

~

II

.0'

TJ=25°C

.02

Pulse Width = 300~s
2% Duty Cycl. -'

J
0.8

1.0

1.2

1.4

1.6

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

FIG. 3 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

5

I.ol

O. 1

.01
0.6

175

AMBIENT TEMPERATURE

30

•

~z 0.2

1,\

75

L

O~ .0 .

Cu leafs

RESISTIVE OR
INDUCTIVE LOAD

1.0

CI):;

5mm.le 5mm)

HALF WAVE
60Hz

4.D

a..

::>«

,.20" •. 20"

SINGLE PHASE

~ III

a: a: 2.0
OLU

LL

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

~.~~~ SINGLE HALF

SINE-WAVE (JEDEC Method)

.1 III

~

TA: 75D C

"" ~"'"

0.1

0.4

1.0

10

40

80100

REVERSE VOLTAGE. VOLTS

5.0
1.0

2.0

4.D 8.0

10

20

40

60 80100

NUMBERS OF CYCLES AT 60Hz

~
LU

FIG. 6 - SUPERECTIFIER
FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

a:
a:

i3

BRAZED-TEMP .. 6OO'C

10

LUCI)
Cl)LU

.-

a: a:

LULU
>
Q.

LU:;
a:«

1.0

-

TJ·'00'C

~~D.4

0°01
~~.

~
Z

~
~

0.4

TJ· 25· C

I

.01

o

20

40

60

80

100

~~~:~l~ED

120

BRAZED CONSTAUCTIO"

140

OPAQUE
GLASS

PERCENT OF RATED PEAK REVERSE VOLTAGE

-253-

I~

1 N4245GP THRU 1 N4249GP
MINIATURE GLASS PASSIVATED JUNCTION PLASTIC RECTIFIER
Voltage- 200 to 1000 Volts Current-1.0Ampere
FEATURES
• High temperature metallurgically bonded constructed rectifiers~,
• Plastic package
-'~'-'
has Underwriters Lab~
oratory Flammability ClaSSification 94V-0
• Glass passivated cavity-free junction version of
1N4249 in 00-41 package
• 1.0 Ampere operation at TA..55°C with no thermal runaway
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

D0-41

.-r
1.0 (25,4)

MIN

.107(2.7) . ,
.080(2.0)

,~ ~
.205t5.2)
.180(4.1)

-t-

1.0(25.4)

.034 (,86) ~
,028 (.7Il

~

MIN

~

Dimensions in inches and (millimeters)
• Gfass.plastic 6I/C8pSufaJfon lIlcIm/que Is CDvered by Patent No. 3,996,602 of 1976 and
blllBd ·lead assembly by Patent No. 3,930,306 of 1976

; ;®
~

~AXIMUM

MECHANICAL DATA
Case: JEOEC 00-41 Molded plastic over glass
Terminals: Plated Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.012 ounce, .3 gram

RATINGS AND ELECTRICAL CHARACTERISTICS

Ratings at 25°C ambient temperature unless otherwise specified. 60 Hz Resistive or inductive load.
For capacitive load, derate current by 20%.

IN
SYMBOLS 4245GP

IN
4246GP

IN
4247GP

IN
4246GP

IN
4249GP

UNrrS

• Maximum Recurrent Peak Reverse Voltage

VRRM

200

400

600

SOO

1000

Vo~s

• Maximum RMS Voltage
• Maximum DC Blocking Voltage

VRMS
Voc

140
200

2S0
400

420
600

560
SOO

700
1000

Volts
Volts

• Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA-55°C

I(Av)

1.0

Amps

• Peak Forward Surge Current
S.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
• Maximum Instantaneous Forward Voltage at 1.0A

IFSM
VF

25.0
1.2

Amps
Volts

• Maximum Full Load Reverse Current Full Cycle
Average .375" (9.5mm) Lead Length TA=55°C

IR(AV)

50.0

I1A

IR

1.0
25.0

IlA

CJ
RaJA

S.O
45.0

pi
°CIW

-65 to +160
-65 to +175

°C
·C

• Maximum Reverse Current at Rated
DC Blocking Voltage
Typical Junction Capacitance (NOTE 1)
Typical Thermal Resistance (NOTE 2)

TA=25°C
TA-25°C

• Operating Temperature Range
TJ
• Storage Temperature Range
TSTG
NOTES:
1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.

2. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.
• JEDEC registered values
·254-

RATINGS AND CHARACTERISTIC CURVES 1N4245GP THRU 1N4249GP

FIG.2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
10

FIG.1 -

FORWARD CURRENT DERATING CURVE

10

\.

u.
f-({)

.8

Ow
w([
([w

,

I

\.

0
W

SINGLE-PHASE,

HALF-WAve,60Hz,

i\.

\.

0"-

([::<

««
3:e-:

r--

IN~tS~~i~~Elg~D- f-,37L5~:~;H~ LEA~ f--

\,1

([Z

OW

'{

U.([

w([

CD:::J

I\.

([

1\

«0
w

I r\
18 lW

>

«

W

~

100

~

TJ '" 25°C
PULSE WIDTH =300 ~s
2% DUTY CYCLE

I
.01

0,6

10

1.2

1.4

-

1.6

1.8

INSTANTANEOUS FORWARO VOLTAGE.
VOLTS

_

1~

0.8

=
-

AMBIENT TEMPERATURE. 'C

25

FIG. 3 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

~({) I"'~

I I I ITJ ~

FIG. 4 30

wc

r"'-SINE-WAVE (JEDEC METHOD)

([w

u.

:::J([

a.
ui

(/)w

~~ 15~--t-t-rt~tR~~~-t-HHi~
I ~, ~

u.([

10

~--t-t-rt~+H---+-+-t~~~

6

~--t-+-rt~+H---+--j-t+f+I-11

",([

~ i3

"-

10

f = 1.0MHz
Vsig =50mVp-p

to-....

o
z
~
U

................

~~

TJ~125!cllll

8.3ms SINGLE HALF

20

««
3: f-

TYPICAL JUNCTION CAPACITANCE

~

~

«
o

100

10

10

100

REVERSE VOLTAGE. VOLTS

NUMBER OF CYCLES AT 60Hz

FIG. 6 - SUPERECTIFIER

~
Z

w

a:
a:

FIG. 5 -

TYPICAL REVERSE CHARACTERISTICS

10

:::>

o

UJ({)

a:([
UJUJ
>"UJ;:E
a:«

10

3~

01

00

.0'

(l)W

!i!~

~
z
~
CJ)
Z

01

f---- +-- TJ

20

0

100'C

TJ

40

60

=:

25°C

80

100

120

140

COMPlETELY
ENCAPSlA.ATEO
BRAZED CONSTRUCTION

OPAQUE
GLASS

PERCENT OF RATED PEAK REVERSE VOLTAGE

INsHM\-255-

I

GP10A THRU GP10Y
MINIATURE GLASS PASSIVATED JUNCTION PLASTIC RECTIFIER
Voltage - 50 to 1600 Volts Current - 1.0 Ampere
FEATURES
• High temperature metallurgically bonded constructed rectifiers
.~ __
• Plastic package
'~
has Underwriters Laboratory Flammability ClaSSification 94V-O
• Glass passivated cavlty·free Junction in 00-41
package
• 1.0 Ampere operation at TA-55·C with no thermal runaway
• TypicallR less than 0.1 11 A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350·C/10 secondsl.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

00-41

-r
1.0 (25.4)

MIN

.107 (2.7) ~

.080(2.0)

I 1+ +I
.20515.2)
.160(4.1)

-t.034 (,88) ~ +
.028 (.71)

1.0(25.4)
MIN

I

..

Dimensions in inches and (millimeters)

MECHANICAL DATA

'G/sss-jJ/aslJcencrpsu/BJilnlllchnique/sCllVSllldbyPBllHtND.3,9II6,602atl97Band - - - - - - - - - - . . . ; . . . - - - - - bIaz6d -lead UIIBfItJ/y by PaIent ND. 3,930,306 at 1978
CBse: JEOEC 00-41 Molded plastic over glass

Tennlnals: Plated Axial leads, solderable per

MIL-STO-202, Method 208
PolBrIty: Color band denotes cathode
Mounting Position: Any
Weight: 0.012 ounce, .3 gram

• ~ ®
~

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Single phase, haW wave 60Hz. resistive or Inductive load.
For capacitive load, derate current by 20%.
Sl'I/BOLS

Maximum Recurrent Peak Reverse Voltage
VRRM
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA-55"C
I(AV)
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed
on rated load (JEDEC Method)
IFSM
Maximum Instantaneous Forward Voltage at 1.0A
VF
Maximum Full Load Reverse Current, Full Cycle
Average, .375", (9.5mm) Lead Lengths at TAm75°C IR(AV)
Maximum DC Reverse Current
TA=25"C
at Rated DC Blocking Voltage
TA=125"C
IR
Typical Reverse Recovery Time (NOTE 1)
TRR
Typical Junction Capacitance (NOTE 2)
CJ
Typical Thermal Resistance (NOTE 3)
R9JA
Operating and Storage Temperature Range
TJ,TsTG

IAIBIDIGIJIKIAfINIQITIVIWIVI

UNITS

50 to 1600 Volts, See Fig 5.

Volts

1.0

30.0
1.1

8.0

I

I

1.2

25.0

I

30.0
5.0
50.0
2.0
I 7.0 I
45.0
-65 to +175

NOTES:
1. Reverse Recovery Test Condition: IF=O.5A, IR=1.0A, Irr=.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal ResistanOB from Junction to Ambient at.375· (9.5mm) Lead Lengths, P.C. Board Mounted.
-256-

Amps

1.3

Amps
Volts

j1A
j1A
I1S
5.0

pf
"CNI
"C

RATINGS AND CHARACTERISTIC CURVES GP10A THRU GP10Y

o

FIG. 1 - FORWARD CURRENT DERATING CURVE

w

~
~~

ffi

a:

...... "'-

1.0
,8

OQ.

~~

.6

I' ~

~>-'

O~ .4
u.a:

~~

ffi

~

f' 10....

SINGLE PHASE HALF MWAVE 60Hz
RESISTIVE OR INDUCTIVE LOAD,
375" (95mm) LEAD LENGTHS

,2

«t.l

>

.......

I'

0

0

«

60

40

80

100'

120

r-..

'60

'40

'80

AMBIENT TEMPERATURE. 'C
1.0

2.0

4.0 6.0 8.010

20

40 60 80'00

NUMBER OF CYCLES AT 60Hz

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG. 4 - TYPICAL REVERSE CHARACTERISTICS
0

20

I-

Z

~ !=:TJ ~ '25"C

10

a:
a:

:l
0
a
a:
«

~en

a:1JJ
Oa:

>-'
zw

/. ~,,: ...

2.0

)

1.0

~I

woo
ooW

ww

en~

Z

«

I-

Z

10'"
L..,....oooo

a: a:
>Q.

w~.

:l«
IJJ

1.0

a:
a:
:::l
t.l

u.~

0

-I-- GP'OA to GP'OJ,

II.

.2

en
~

~ (§ o.

_

-

GP10T

~

.0'
.6

«.
t-

..

.7

7

,

~~

to GP1QV

,

~

Z

~

1111

.02

TJ = 75 D C

:::la:
Ot.l

GPK10 to GP10a

_

~~/

0.1

«
I-

.- .....

-

IJJ

TJ

~

~

2S'C...,.

.01

TJ = 25°C
Pulse Width ::: 300~ s
2% Duty Cycle

.8

,9

1.0

1.1

1.2

1.3

1.4

1.5

1.6

INSTANTANEOUS FORWARD VOLTAGE
VOLTS

.001

o 20 40 60 80 100 120 140
PERCENT OF RATED 'PEAK REVERSE VOLTAGE

Fig. 5 -MAXIMUM RECURRENT PEAK REVERSE VOLTAGE
GP10A - 50V
GP10B - 100V
GP10D - 200V
GP10G - 400V
GP10J - 600V
GP10K - 600V
GP10M - l000V
GP10N - ll00V
GP10Q - l200V
GP10T - l300V
GP10V - l400V
GP10W - l500V
GP10Y - l600V

FIG. 6 - TYPICAL JUNCTION CAPACITANCE
20

"'1-- ""'"

~ 10

u.i 8.0

TJ

~ 8.0

«
t:

~

1.0

0.'

-257-

I

-

~ :""Iii

4.0

~2.0

=25°C

~.i~~p-

_GP10A to GP10J
--GP10K to GP10Q
--GP10T to GP10Y
0.4

1.0
4.0
'0
REVERSE VOLTAGE. VOLTS

.....

40

INsBMIr

'00

1N4383GP THRU 1N4385GP
1N4585GP AND 1N4586GP
MINIATURE GLASS PASSIVATED JUNCTION PLASTIC RECTIFIER
Voltage • 200 to 1000 Volts Current· 1.0 Ampere
FEATURES
• High temperature metallurgically bonded constructed rectifiers
~
• Plastic package
has Underwriters Laboratory Flammability Classification 94V-0
• Glass passivated cavity-free junction in 00-15
package
• 1.0 Ampere operation at TA=100°C with no thermal runaway
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

DO-15

1

~i~.

[25.41

±

~3I81+1

I'

.140 13.61

.104[2.61

MIN.

[25.41

1
Dimensions in inches and (millimeters)
·Gfllss.plBslicsncapsu/BJionlBchniqueiscolletlldbyPaleTtNo.II.996.B02atI9761llJd
blllSd -Ieirf assembly by PaIeTt No. 11.930.3116 at 1976

•
®
~
~.

MECHANICAL DATA

---------.;.;.;..;=~..;....;..;;...-;;....;;;..;..;;..;.;..;..

case: JED EC 00-15 Molded plastic over glass
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.015 ounce,0.4 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25·C ambient temperature unless otherwise specified. Single half wave .60 Hz. resistive or inductive load.
Far capacitive load. derate current by 20%.
1N

1N

1N

1N

1N

4384GP

4385GP

4585GP

4585GP

UNITS

1000
Maximum Recurrent Peak Reverse Voltage
200
400
600
800
VRRM
280
140
700
420
560
Maximum RMS Voltage
VRMS
200
400
600
800
1000
Maximum DC Blocking Voltage
Voc
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=100·C
1.0
I(Av)
• Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method) at TA-1 OO·C
50.0
IFSM
Maximum Instantaneous Forward Voltage at 1.0A
VF
1.0
Maximum DC Reverse Current
TA=25·C
5.0
at Rated DC Blocking Voltage
TA-150·C
250.0
IR
• Typical Reverse Recovery lime (NOTE 2)
2.0
TRR
Maximum Full Load Reverse Current Full Cycle
Average at .375"(9.5mm) Lead Lengths TA-1(iIO·C
275
250
225
200
IR(AV)
200
Typical Junction Capacitance (NOTE 1)
15.0
CJ
Typical Thermal Resistance (NOTE 3)
RaJA
25.0
• Operating and Storage Temperature Range
-65 to +175
TJ,TsTG
NOTES: 1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volls.
2. Reverse Recovery Test Conditions: IF=O.5A. IR= 1.0A. Irr= 0.25A.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.
• JEDEC registered values

Volts
Volts
Volts

SYIIIBOLS 438SGP

•
•
•
•

-258-

Amps

Amps
Volts

J.LA
IlS

J.LA
pf
·CIW
·C

RATINGS AND CHARACTERISTIC CURVES 1N4383GP THRU 1N4385GP
1N4585GP AND 1N4586GP

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

1.0

0

W
;;:
i=Ul
Uw
Wa:
a:W
Oa.
a:::i!
««
:i: a:t-

50

FIG. 1 - FORWARD CURRENT
DERATING CURVE

~

0.9

\

0.8
0.7

\
\

0.5

,

\

0.3

SINGLE PHASE

0.2

60Hz
RESISTIVE OR
INOUCTIVE LOAD
.375", (9.q,mm) LEAD LENGTHS

HALF WAVE

0.1

25

50

75

100

rJ) UJ

125

~~

««
:i:
a:
o
lL

1\
\.

,

150

'!I;

TA 10 1OO'C
8.3ms SINGLE HALF
SINE-WAVE (JEDEC Method)

I""r"o

~~

0.4

lLa:
Wa:

«

40

Uw
UJ a..
0..

li!~

=25°C

TJ

10

~

TYPICAL JUNCTION CAPACITANCE

PERCENT OF RATED PEAK REVERSE VOLTAGE
FIG. 6 -

1oo~~

SUPERECTIFIER

BRAZEO-TEMP

;;!=

600°C

lL

a.

~

TJ

0

~Ioo.

25'C

iZ10~~.
='

U

~
«

-

"'"""'""-'---

U

f-1MHz

Vsig ;: 50mVp-p

I

I I IIIII

COMPLETELY
ENCAPSULATED
BRAZED CONSTRUCTION

OPAQUE
GLASS

1.0 ,-----,--,-I.J....LL
1111Ll.l.L111----L...L.l..JL1.lill

1.0

10

100

REVERSE VOLTAGE, VOLTS

-259-

IN~M'r

1 N5059GP THRU 1 N5062GP
MINIATURE GLASS PASSIVATED JUNCTION/PLASTIC RECTIFIER
Voltage - 200 to 800 Volts Current - 1.0 Ampere
FEATURES
• High temperature metallurgically bonded constructed rectifiers
"~"_
• Plastic package
.....'""",-.....
has Underwriters Lab'",
oratory Flammability Classifi"~
cation 94V-0
' ...• Glass paSSivated cavity-free junction version of
lN5059 thru lN5062in 00-15 package
• 1.0 Ampere operation at TA=75°C with no thermal runaway
• TypicallR less than 0.1 11 A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/l0 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

00-15

1

+

,.0341.86)
.0281.71)

1.0

MIN.

125.4)

1
,·14013.6)

1 .10412.6)

lID

MIN.

125.4)

1
Dimensions in inches and (millimeters)

MECHANICAL DATA

'GIJss-pfasticem;apsuJationtechniq..,isCDvelBdbyPatenlNo. 3,996.602oft976and
brazsd-leadusemblybyPatenlNo.3.930.3IJ6oft976

~
••

• ®

Case: JEOEC 00-15 Molded plastic over glass
Terminals: Plated Axial leads, solderable per MIL8TO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.015 ounce, 0.4 gram

" ' M A X I M U M RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. 60 Hz Resistive or inductive load.
For capacitive load. derate current by 20%.
SYMBOLS

'Maximum Recurrent Peak Reverse Vo~age
VRRM
Maximum RMS Vo~age
VRMS
'Maximum DC Blocking Voltage
Voc
'Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=75°C
I(AV)
'Peak Forward Surge Current
8.3ms single half sine·wave superimposed
on rated load (JEDEC Method)
IFSM
'Maximum Instantaneous Forward Vo~age at 1.0A
TA=75°C
VF
'Maximum Full Load Reverse Current, Full Cycle
Average, .375" (9.5mm) Lead Lengths at TA=25°C
TA=75°C IR(AV)
'Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=175°C
IR
Typical Reverse Recovery Time (NOTE 1)
TRR
Typical Junction Capacitance (NOTE 2)
CJ
Typical Thermal Resistance (NOTE 3)
ReJA
'Operating and Storage Temperature Range
TJ,TsTG

lN5059GP

lN5060GP

lN5061GP

lN5062GP

UNn-5

200
140
200

400
280
400

600
420
600

800
560
800

Vo~s

1.0

Amps

50.0

Amps

1.2

Volts

5.0
150.0
5.0
300.0
2.0
15.0
25.0
·65 to +175

NOTES.

1. Reverse Recovery Test Conditions: IF=O.5A, IR=I.0A, recover to 0.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted .

• JEDEC Registered Value

-260-

Volts
Volts

IJA
IJA
ILS
pf
°CNI
°C

RATINGS AND CHARACTERISTIC CURVES 1N5059GP THRU 1N5062GP

FIG. 2 50

FIG. 1 - FORWARD CURRENT
DERATING CURVE

~

,,

SINGLE PHASE

RESISTIVE OR

75

100

40

~~

11111

TJ = 75°C
8 3ms Single Half
Sine-Wave (JEDEC Method)

30

I.........

~..:

a:: z

20

~ gj

10

OLU
LLa:
LUO

125

....

Q.

1,\

INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS

SO

,~

««

\

HALF WAVE
60Hz

25

LU
(!l (I)
a:LU
:::la:
(l)LU

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

o

1.0

10

100

NUMBER OF CYCLES AT 60Hz

150 175

AMBIENT TEMPERATURE. ·C

FIG. 3 - TYPICAL INSTANTANEOUS
FOWARD CHARACTI!!RISTICS

FIG. 4 - TYPICAL JUNCTION CAPACITANCE
3Q

10

c

a:

LLQ.

~ffi

a: a:
OLU

1.0

LLQ.

0

1- 0
(I)

~

1.0

-

TJ ~ 25°C

I

1.0

Pulse Width = 3001J s 2% Duty Cycle

.6

.8

1.0

1.2

1.4

10

100

REVERSE VOLTAGE, VOLTS

-

.01

.4

Vsig "" 50 mVp-p

0

I

0.1

f = m 1.0 MHz

W
Z
«
I(3
«
Q.
«

/

(1)::0

:::l«
oLUI-.
zZ
«LU
I-a:
Za:
«:::l

10

TJ~I25~4H

""'" r--.r-.

1.6

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG. 6 - SUPERECTIFIER
FIG. 5 - TYPICAL REVERSE CHARAcTERISTICS
TJ

....

125'C

---

TJ

7S'C

TJ

-

25"C

20
40
eo
80
100
120
PERCENT OF RATED PEAK REVERSE VOLTAGE

140

-261-

~~~~:~mED

BRAZED CONSTRUCTION

OPAQUE
GLASS

I~

1N5391 GP THRU 1N5399GP
MINIATURE GLASS PASSIVATED JUNCTION PLASTIC RECTIFIER
Voltage - 50 to 1000 Volts

Current - 1.5Amperes
FEATURES

• High temperature metallurgically bonded constructed rectifiers
• Plastic package
has Underwriters Laboratory Flammability Classification 94V-0
• Glass paSSivated cavity-free junction
• 1.5 Ampere operation at TA=70°C with no thermal
runaway
• Typical IR less than 0.1 ~A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

DO-15
..

,.0341.86)
.028 (.71)

I'

.14013.6)
.104(2.6)

Dimensions in inches and (millimeters)

MECHANICAL DATA

•Glass-pfaslic encapsulation technique Is covered by Patent No. 3,996,602011976 and

brazed ·Ie.d assembly by Patent No. 3,930,306 011976

~
•

•

• ®

Case: JEDEC DO-15 Molded plastic over glass
Terminals: Plated Axial leads, solderable per MILSTD-202, Method 208
Polarity: Color band denotes cathode
Mounting POSition: Any
Weight: 0.015 ounce,O.4 gram

~AXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS

Ratings at 25'C ambient temperature unless otherwise specified. Single phase, half wave 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
1N53 1N53 1N53 1N53 1N53 1N53 1N53 1N53 1N53
SYMBOLS 91GP 92GP 93GP 94GP 95GP 96GP 97GP 98GP 99GP

Maximum Recurrent Peak Reverse Voltage
VRRM so 100 200
Maximum RMS Vottage
70 140
VRMS 3S
Maximum DC Blocking Voltage
Voc SO 100 200
Maximum Average Forward Rectified Current
.37S", (9.Smm) Lead Lengths at TA=70°C
I(AV)
• Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
IFSM
• Maximum Instantaneous Forward Voltage
at 1.SA,TA=70°C
VF
• Maximum DC Reverse Current TA=2SoC
at Rated DC Blocking Vokage TA=lS0°C
IR
• Maximum Full Load Reverse Current
Full Cycle Average, 37S", (9.Smm)
Lead Length atTA=70°C
IR(AV)
Typical Reverse Recovery Time (NOTE 2)
TRR
Typical Junction CapaCitance (NOTE 1)
CJ
Typical Thermal Resistance (NOTE 3)
RSJA
• Operating and Storage Temperature Range
TJ.TSTG
NOTES: 1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voc.
2. Reverse Recovery Test Condition: IF=O.5A, IR=I.0A, Irr=O.25A.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead
• JEDEC registered values

•
•
•
•

-262-

300 400 500 600 800 1000
210 280 3S0 420 S60 700
300 400 SOO 600 800 1000

UNITS

Volts
Volts
Volts

1.S

Amps

SO.O

Amps

1.4
S.O
300.0

Volts

300.0
2.0
lS.0
30.0
-65 to +17S

I1A

Lengths, P.C. Board Mounted.

I1A

115
pf
°cm
°C

RATINGS AND CHARACTERISTIC CURVES 1N5391GP THRU 1N5399GP

FIG. 2· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG. 1 - FORWARD CURRENT

~

DERATING CURVE

z

~

20r--.r--.---,---.---r---,

a:

::l

o
o

a:

~ -'
W

o

150

~

ffi

~ffi

o a..

12

5

0:::;:

~~
(!):::>

50

LU

25

0 2

00..

0:::;:

0:
ooW

1\

-'

::J

"\

LU

u::

0['..

0:
0:

FIG. 1 - FORWARD CURRENT
DERATING CURVE

4.0 6.0 8.010

2.0

20

40 60 80100

NUMBER OF CYCLES AT 60Hz

175

AMBIENT TEMPERATURE, °C
FIG. 4 - TYPICAL JUNCTION CAPACITANCE
FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

>-'

Z
LU

30

10

r-......

0:
0:

:::>

u.

U

C.

o

a:
~

TJ ~ lS0°C /

ffi

~~JJ

ui

/

10

"

.... ""

10

U
Z

«
@

'\

SINGLE PHASE

ffi

0:: a:
Ow

~
\1\.

««

u.~

10

o

0::::;:

~,.:

Z
W

0::

a:

1\
I\.

W

u:

FIG.2 - TYPICAL INSTANTEOUS
FORWARD CHARACTERISTICS

,..:

0::
0::
:::J
()

TYPICAL REVERSE CHARACTERISTICS

0
4.0

i"""I

TJ

~

0

I'--~

=125"C

~TJ"75'C
1

TJ-TJmBX.

'-

8.3ms SINGLE HALF

.01

SINEjWiVi '111111 METHfD)1

1

10

o

-

TJ = 25"C

i
20

40

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

100

NUMBER OF CYCLES AT 60Hz
FIG. 5-MAXIMUM NON·REPETITIVE REVERSE
AVALANCHE POWER DISSIPATION

S
Ul

5: ,00D
a:'
W

s:~
W

I

()

8fJO
600

400

FIG. 6 -

"'" ,...,

I I
]""0",

TJ = 25"C

200

1"-""

Z

:'5
«

100
80

w

60
40

~

.......

J""'oo.,

Ul

0::

w

[;j
0::

><:

;;5
0..

SUPERECTIFIER

...

0
0
10

20

40

100

200

400

1000 2000

4000

10000

COMPLETELY
ENCAPSUlATED
BRAZED CONSTRUCTIO ....

OPAQUE
GLASS

PULSE DURATION, MICROSECONDS

-267-

IN~M'r

GP20A THRUGP20J
GLASS PASSIVATED JUNCTION PLASTIC RECTIFIER
Voltage - 50 to 600 Volts Current - 2.0 Amperes
FEATURES

f

.210 (5.3)
.190 (4.83)

T

1.0 (25.4)

DIA.

L-I

• High temperature metallurgically bonded constructed. rectifiers
• Plastic package
"'-"',,has Underwriters Lab"'~
oratory Flammability Classifi~,
cation 94V-0
'""'''''''
• Glass passivated cavity-free junction
",
• 2.0 Ampere operation at TA= 55·C with no thermal runaway
• TypicallR less than 0.1 jl A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350·C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension
.

+

.375 (9.5)
.285(7.2)

--~-

r

1.0 (25.4)
.1!42(1.07) ,
.037 (.94)

~

Dimensions in inches and (millimeters)

MECHANICAL DATA

•G/ass-plasllc encapsulation tschnique is coV8led by Patent No. 3.996.602 of 1976 and
brazed -lead assembly by Patent No. 3,930,3/16 of t976

Case: JEDEC DO-201' Molded plastic over glass
Terminals: Plated Axial leads, solderable per
~®
I,

.

'

•

.'

~XlMUM

. •

,.,."ny,

MIL-STD-202, Method 208'
Bond ••oot.. "tho••
Mounting Position: Any
Weight: 0.03 ounce, 0.8 gram

RATINGS AND ELECTRICAL CHARACTERISTICS

Ratings at 25°0 ambient temperature unless otherwise specified 60 Hz.
Resistive or inductive load.
For capacitive load, derate current by 20%.

GP

GP

GP

GP

GP

SYMBOLS

lOA

lOB

20D

20J

Maximum Recurrent Peak Reverse Voltage
VRRM
Maximum RMS Voltage
VRMS
Maximum DC Blocking Voltage
Voc
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=55°C
I(Av)
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
IFSM
Maximum Instantaneous Forward Voltage at 2.0A
VF
Maximum Reverse Current
at Rated DC Blocking Voltage
TA=25°C
IR
Maximum Full Load Reverse Current, Full Cycle
Average, 375" (9.5mm) Lead Length TA=55·C
IR(AV)
Typical Reverse Recovery Time (NOTE 1)
TRR
Typical Junction Capacitance (NOTE 2)
CJ
Typical Thermal Resistance (NOTE 3)
R9JA
Operating and Storage Temperature Range
TJ,TsTG

50
35
50

100
70
100

200
140
200

20G
400
280
400

600
420
600

2.0

Amps

65.0
1.2

UNITS
Volts
Volts
Volts

1.1

Amps
Volts

5.0

J.1A

100.0
2.5
40.0
16.0
-65 to +175

J.1A
J.1s
pf

NOTES:

1. Measured atl MHz and applied reverse voltage of 4.0 volts.
2. Reverse Recovery Test Conditions: IF=O.5A, IR= 1.0A, Irr=O.25A.
S. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.
-268-

°CIW
·C

RATINGS AND CHARACTERISTIC CURVES GP20A THRU GP20J
FIG.2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

0

w

ti 20
o:ffi 15
I"" "OCl.
«« 1
~
. 0 S'' 'GILE PHisE
60Hz
om
',u.o: 05
wo:

W
0:
0:

60
:::JO: 40

:::J
0

u::

1

~

HALF WAVE

(!)::l

RESISTIVE OR
INDUCTIVE LOAD
0.375" (9.SmmJ LEAD LENGTHS

«0

AMBIENT TEMPERATURE, °C

100

125

~
0:
0

150

20

U.

"

«

75

i".

0::2'

««

25

50

......

OCl.

0:
W

>

TJ = 55°G
8.3ms Single Half
Sine-Wave (JEDEC Method)

UlW

"

0:>-

..........

w
(!)Ul
o:w

Ul
WW

0::2'

,

100

>-'
Z

FIG. 1 - FORWARD CURRENT
DERATING CURVE

'"w«
Cl.

175

10
100

10

1.0

NUMBER OF CYCLES AT 60 Hz

FIG. 3 - TYPICAL JUNCTION CAPACITANCE

'2;100rs~g~EmI

ui

TJ = 250C

50

Z 10

~ ~---==jL~... tii1~~~~Elll~
~ 10~~~V~S~ig!"~5~0~m~v~p.~P~~~~~~~
;3.
(3

..:
W

0:
0:
::l

t= 1MHz

5.0

50

10

,

o
o

0:

6.0
1.0

FIG.4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

~

100

ffi

j
10

a: a:

REVERSE VOLTAGE, VOLTS

Ow
u.Cl.

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

:::J«
@

Ul:2'

20

..- ..- ~

10

~

..:
z

.

w

a:
a:
::l

u

woo
ooW

TJ

Z

-

~
~

TJ

I

25°C

Pulse Width'" 300 u s
1% Duty Cycle

01

10

12

1.0

FIG. 6 - SUPERECTIFIER

TJ=7SoC

>Cl.
w::;

.,"""'"

a:«
000

::la:

.10

TJ=~5OC

V

«

>-

z

«
>-

00

~

.010

/ ~
o

20

~
40

60

14

1.6

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

TJ = 125°C

a: a:
ww

OU
wz::;

>-

= lS0ac

~

I

01

Z

«

-

t-"""

80

100

120

140

~~~~i~EliEO

PERCENT OF RATED PEAK
REVERSE VOLTAGE

BRAZED CONSTRUCTION

-269-

OPAQue
GLASS

1 N5624GP THRU 1 N5627GP
GLASS PASSIVATED JUNCTION PLASTIC RECTIFIER
Voltage - 200 to 800 Volts Current - 3.0 Amperes
FEATURES

f

.210 [5.3)

·18~1~~·8)

• High temperature metallurgically bonded constructed rectifiers
• Plastic package
has Underwriters Laboratory Flammability Classification 94V-0
• Glass passivated cavity-free junction in
00-201 AD package
• 3.0 Ampere operation at TA= 70·C with no thermal runaway
• Typical IR less than 0.1 ~ A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350·C/l0 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

r

1.0 [25.4)

LI 1+--'It:--.375 [9.5)
.285f·2)

1.0 [25.4J
.052[1.31 , +
.048 [1.2)

T

Dimensions in inches and (millimeters)
'G/ass-pllJsticencapsulaJionlOchniqwiscoveredbyPatentN•• 3,996,602ofI976and

brazed .feed BSSIlmbly by Patent No. 3,930,306 of 1976

~®

..'

MECHANICAL DATA

.;..;...--------..;.;;.;.;;;;.;;;.;..;.;;..;.;..~.;...;.;~;.;;".;~

case: JEDEC DO-201AD Molded plastic over glass
Terminals: Axial leads, solderable per
MIL-STD-202, Method 208
Polatlty, Cob, band d,""es ,othod.

:~~~~~~~s~~~~~, ~~2 gram

~AXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at2S'C ambient temperature unless otherwise specified. Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS

• Maximum Recurrent Peak Reverse Voltage
VRRM
• Maximum DC Blocking Voltage
Voc
• Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=70'C
I(Av)
• Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
IFsM
• Maximum Instantaneous Forward
Voltage at 3.OA
TA=25'C
TA=70°C
VF
Maximum Reverse Current
TA=25°C
at Rated DC Blocking VoHage
TA-150°C
IR
Maximum Full Load Reverse Current, Full Cycle
Average,.375" (9.5mm) Lead Leng1h at TA=70°C IR(AV)
Typical Reverse Recovery Time (NOTE 2)
TRR
Typical Junction Capacitance (NOTE 1)
CJ
Typical Thermal Resistance (NOTE 3)
R8JA
Operating and Storage Temperature Range
TJ,TsTG
NOTES:

1N5624GP

200
200

1N5625GP

I
I

300.0

400
400

1N5626GP

I
I

600
600

UNITS

VoHs
Volts

800
800

3.0

Amps

125.0

Amps

1.0
0.95
5.0

Volts

I
200.0
3.0
40.0
15.0
-65 to +175

1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voc.
Reverse Recovery Test Conditions: IF =O.SA, IR = 1.0A, recover to 0.2SA.
Thermal Resistance from Junction to Ambient at .37S" (9.Smm) lead Lengths, P .C. Board Mounted.
• JEDEC Registered Value
-270-

2.
3.

1N5627GP

I
I

200.0

J.IA
~A
~S

pf
°CNoI
°C

RATINGS AND CHARACTERISTIC CURVES 1N5624GP THRU 1N5627GP

FIG. 1 - FORWARD CURRENT DERATING CURVE

W
(!)(/l
a:w
::>a:
(/lW
00.
a::::;
",,,,

~
o

SINGLE PHASE
HALF WAVE 60Hz
RESISTIVE OR
INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS

o

25

50

75

'" " ~

100

125

150

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

;:..,:

a:Z
OW
... a:
",a:
",::>
wU
a.

175

200

100

i'oo..

8.3ms SINGLE
HALF-SINE WAVE
(JEDEC) Method

r- ....

""'"

50

10

AMBIENT TEMPERATURE, ·C

10

50

100

NUMBER OF CYCLES AT 60Hz

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
100
Pulse Width = 3OO/J S
2% Duty Cycle

..,:

Z
w
a:
a:
::>

U
0

a:

~ffi

a: a:
Ow
"':::;
::>'"
0
w
Z

TJ

30

=

FIG. 4- TYPICAL JUNCTION CAPACITANCE.

25°C

,/
10

~
~

3.0

'"Z

1-

'"

tt

~ l°EEM~
E=t:::::i

0.3

a:

W

°w::J<

.4

mO .2

~m

m::E

1.0

Cl)W

~

o
a:
1.1.

~

U

30

W

T,.12&C

4.0

a:
a:
::J

~

i

~~WIDTH-300J'O -

I

1

~:!

.04
.02

-

T..75"C

,"'"

~

T~-

-

.01

2% DUTY CYCLE

20

40

60

80

100

120

140

PERCENT OF RATED PEAK'REVERSE VOLTAGE

03

.L

.01
0.6

I

07

0.8

0.9

10

11

1.2

1.3

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG. 6 FIG. 5 -

SUPERECTIFIER

TYPICAL JUNCTION CAPACITANCE

100
L1.

c.
~50
Z

§

!LtG

('j

==

-

T..-25'C
f-1.DMHz

r-.. ....

~

' - - Valgoo5OmVp-p

5.0

1.0

5.0 10
50
REVERSE VOLTAGE, VOLTS

~~~:~mED

100

BRAZED CONSTRUCTION

OO\QUE
GLASS

IN~
·273·

-274-

SUPERECTIFIER ZENER
REGULATOR DIODE
1.5 WATT
100 VOLTS TO 200 VOLTS

------275-

INsr~M\r

-

ZGP1 0-1 00 THRU ZGP10-200
MINIATURE GLASS PASSIVATED JUNCTION PLASTIC ZENER
REGULATOR DIODE
Voltage - 100 to 200 Volts Power Rating - 1.5 Watts
FEATURES
• High temperature metallurgically bonded constructed rectifiers
• Plastic package
has Underwriters Laboratory Flammability Classification 94V-0
• Low zener impedance
• Excellent clamping capability
• Glass passivated cavity-free junction
in 00-41 package
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

D0-41

---r
1.0 (25.4)

MIN

.107(2.7)
.080(2.0)

~

1 1+ +I
.205t52)
.160(4.1)

---t1.0(25.4)

.034 (.86) ~
.028 (.71)

MIN

I

+

..

MECHANICAL DATA

Dimensions in inches and (millimeters)

Case: JEOEC 00-41 Molded plastic over glass
Terminals: Plated Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.012 ounce, .3 gram

•Glass-plastic encapsulation technique iscoveredby Patent No. 3,996,602of 1976 and
brazed -lead ....mbly by Patent No. 3,930.306 of 1976

~
•

~,

®

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.

OPERATING AND STORAGE TEMPERATURE TJ, TSTG -65°C to +175°C

TYPE

ZGP10-100
ZGP10-110
ZGP10-120
ZGP10-130
ZGP10-140
ZGP10-150
ZGP10-160
ZGP10-170
ZGP10-180
ZGP10-190
ZGP10-200

Zener
Breakdown
VoRage
at SmA
MIN
MAX
Volts
80
120
88
132
96
144
104
156
112
168
180
120
140
170
136
204
144
216
152
228
160
240

Maximum Zaner
Dynamic

Izr
mA
5
5
5
5
5
5
5
5
5
5
5

IlI1)8dance
Zzr
IZK
Ohms
mA
500
.25
600
.25
700
.25
800
.25
900
.25
1000
.25
1100
.25
1200
.25
1300
.25
1400
.25
1500
.25

ZzK
Ohms
5000
5000
5000
5000
5500
6000
6500
7000
7000
7500
8000

Maximum Reverse
Current at
Measurement
Voftage, VR
25'C
l00'C
VR
VoRs
ItA
ItA
60
0.5
100
70
0.5
100
80
0.5
100
90
0.5
100
100
0.5
100
110
0.5
100
120
0.5
100
130
100
0.5
140
0.5
100
150
0.5
100
160
0.5
100

Slandard+/- 20%, Suffix A=+/-l 0%, Suffix B+/-5%.
'Temperature rating at specified regulator current is TL=30'C.
"Maximum continuous power dissipation at TL=75'C lead length .375", 9.5mm is 1.5 Watts.

-276-

Mexlmum
Forwerd
Voltage
at .SOA
VF
Volta
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

Maximum
Continuous

Regulator
Current'
lzu
mA
10.0
9.1
8.3
7.7
7.1
6.6
6.3
5.9
5.6
5.3
5.0

RATINGS AND CHARACTERISTIC CURVES ZGP10-100 THRU ZGP10-200

'"
o

FIG. 2-TYPICAL ZENER IMPEDANCE

:>
I

FIG. 1 -

MAXIMUM CONTINUOUS POWER DISSIPATION

10000
5000

TJ-25°C

o
z
«
o

1.50

0

f=

UJ
Il.

«
Il.
iii
(f)

::.
o
~
«
z
>o

1.125

O(f)

a: IUJI-

.76

~«

O~
Il.

N

UJ
a:
UJ
>
UJ
a:

25

75

50

100

UJ

:;:)

o
o

a:
~~
a: a:
OUJ

1.

UJOl
OlUJ
a: a:
UJUJ
>Il.
UJ::'
a:«
OlO
:;:)a:
00
UJ-

z::'
~,.:

/

01

ZZ

F=
TJ'" 25°C
Pulse Width" 300 f..J. s
1% Duty Cycle

I

lLll.

u::::'

/

:;:)«

@

Vz - laDV

8

200
100
50

10

0.5 1.0

0.1

Vz - 150V

Vz'" 10DV

2.0

5.0 10

20

50 100

200

500

FIG. 4-TYPICAL REVERSE CHARACTERISTICS

10

a:
a:

500

175

150

125

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

,.:

Vz:: 200V

1000

Iz. ZENER TEST CURRENT (rnA)

LEAD TEMPERATURE, °C

Z

2000

N

.375

(f)

=

IZI(r~S)"O.lIZ(~

UJ

Z

10
4.0

0.4

TJ:: 25°C

0.1

«UJ
I-a:
Ola:

.04

-0

.01

Z:;:)

-

TJ= 100"e

1.0

0

20

40

60

80

100

120

140

PERCENT OF RATED ZENER VOLTAGE

Z

«

IZ

~~

.0',4

.6

.8

1.0

1.4

1.2

1.6

INSTANTANEOUS
FORWARD VOLTAGE, VOLTS

I-

FIG. 6 - SUPERECTIFIER

FIG. 5-TYPICAL TEMPERATURE COEFFICIENTS

CAVlTy·rAEE
lGlASS-PASSIVATEO
JUNCTION)

Z

UJ

220

u:

200

o
lL

UJ

o
o

~6
:;:)~

~~

a:UJ
Il.

::.
UJ

I-

&

~

Vz@lzt

160

~

..",

..",

150

".

120

100

~

I'"

80
100 110 120

COMPLETELY
ENCAPSULATED
BRAZED CONSTRUCTION

130 140

150 160

170

180

190 200

Vz, ZENER VOLTAGE (VOLTS)

-277-

OPAQUE

GLASS

,SOLID BRAZING, lOW
RESlsr... NCE, EXCELLENT
SURGE CAPABILITIES

-278-

FAST -RECOVERY
SUPERECTIFIERS
0.5 AMPERES THRU 3.0 AMPERES
50 VOLTS TO 2000 VOLTS

....- - - - -279-

INsr~M\-

-

RGP02-12E THRU RGP02-20E
MINIATURE GLASS PASSIVATED JUNCTION FAST
SWITCHING PLASTIC RECTIFIER
Voltage . 1200 to 2000 Volts Current· 0.5 Amperes
FEATURES
• High temperature metallurgically bonded constructed rectifiers
• For use in high frequency rectifier circuits
• Plastic package
has Underwriters Laboratory Flammability Classifl- ". '-" "

00-41

f

1.0 (25.4)
.107(2.7)
.080(2.0)

cation 94V. .O

IIIN

.1

1+ ~

~
.205(5.2)
.IBO(U)

---L-

t

1.0(25.4)
.034 (.8B) ~
.028 (.71)

+

IIIN

I

..

Dimensions in inches and (millimeters)

'-,

effiCienCy~""'~"'"

• Fast switching for high
• Glass passivated cavity-free junction in 00-41
package
• 0.5 Ampere operation at TA= 55°C with no thermal runaway
• TypicallR less than 0.111 A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 seconds/.375" (9.5mm) lead length at
5 Ibs. (2.3kg) tension

·Gfass.plaslicencapsulalionlllChniqueiscollf1ll3dbyPaJentNo.3,996.602ofI976and _ _ _ _ _ _ _ _ _ _M_'S_C_H._~_N_JC_:A_L_D_A_T._:4
brazed .Jeed aSSlllllbly by Patent No. 3,930.306 of 1976

Case: J EDEC 00-41 Molded plastic over glass
Tennlnals: Axial leads, solderable per MIL-STD202, Method 208

~AXIMUM

.

ba"" d• .,.,,, oathod.
Mounting Position: Any

Polar'ty, Cor"

~®
••
.
•
.
.

Weight: 0.012 ounce, .3 gram

RATINGS AND ELECTRICAL CHARACTERISTICS

Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load. For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum PC Blocking Voltage
Maximum Average Forward Rec@ed Current
.375", (9.5mm) Lead Lengths at TA-55·C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 1.0A
Maximum DC Reverse Current
TA=25·C
at Rated DC Blocking Voltage
TA=125·C
Maximum Reverse Recovery Time (NOTE 1)
TJ-25·C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

RGPOI

RGPOI

RGP02

RGP02

RGP02

SYMBOLS -t2E
1200
VRRM
840
VRMS
1200
Voc

·t4E
1400
980
1400

·t6E
1600
1120
1600

·tBE
1800
1260
1800

·20E
2000
1400
2000

UNITS
Volts
Volts
Volts

I(Av)

0.5

Amps

IFSM
VF

Amps
Volts

IR

20.0
1.8
5.0
50.0

TRR
CJ
R8JA
TJ,TsTG

300.0
5.0
50.0
-65 to +175

nS
pi

NOTES:

1. Reverse Recovery Test Conditions: IF=O.SA, IR=I.0A, Irr =.2SA.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Ambient at .37S- (9.Smm) Lead Lengths, P.C. Board Mounted.
-280-

!LA

·cm
·C

RATINGS AND CHARACTERISTIC CURVES RGP02-12E THRU RGP02-20E
Ul

~
UJ
a.

«
zUJ

I-

~
UJ

FIG.1-FORWARD CURRENT
DERATING CURVE

a:
a:

0.5

a
o

0.4

UJ

u:
§

II

@

z
«
I-

z
«

/

001

.8

~

175

1.2

1.0

=
-

TJ

= 25° C
PULSE WIDTH = 300tJ.s
2% DUTY CYCLE

1.4

1,6

18

2.0

-

22

2.4

INSTANTAN EOUS FORWARD VOLTAGE, VOLTS

?

AMBIENT TEMPERATURE.·C

UJ

>

/

01

«

RESISTIVE OR
INDUCTIVE LOAD
.375 (9.5mm) LEAD LENGTHS

!L
UJ

1/

a:

50 Hz
0.1

10

a:
a:

"""""

-

FIG. 2-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

::;:

FIG. 3-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG. 4 -MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
TJ "125·0- r--

,

25

~ ~ 20

:::>a:
UlUJ

TJ" 75'0=

, ./

..,.

TJ = ~~
25'C

.01

o

"

20

15

o a5

10

"-~

~..,

~

!La:
>0: a:

J

~

~~
««

I I I II II

5~'~

1.J "
8 3ms SINGLE HALF
SINE WAVE (JEDEC METHOD)

UJ

I'--...

I'

«:::>

il:' <..l

6.0

o

I--

1.0

~""

10

100

NUMBER OF CYCLES AT 60 "lz

40

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE
FIG.6-SUPERECTIFIER
FIG. 5 -

TYPICAL JUNCTION CAPACITANt;E
CAVITy-rREE
(GLASS-PASSIVATED
JUNCTION)

10

u..

BRAZED-TEMP

<..l
Z

~

«

<..l

~~AL~~N~E~~~:~JND

-....

6.0
TJ

«
I-

13
~

Ul RECOGNIZED
600 C

(UL 94V-OI

Q.

ui

~

=2S"C

I I
f= 1 MHz
Vsig = 50mVP-=E

1.0
1.0

5.0

10

50

100

REVERSE VOLT AGE, VOLTS

COMPLETELY
ENCAPSULATED
BRAZED CONSTRUCTION

-281-

OPAQUE
GLASS

SOUD Sr:&'ZING. LOW
RESISTANCE, EXCELLENT
SURGE CAPABILITIES

IN~MIr

BA157GP THRU BA159GP
MINIATURE GLASS PASSIVATED JUNCTION FAST SWITCHING
PLASTIC RECTIFIER
Voltage - 400 to 1000 Volts· Current - 0.5 Ampere
FEATURES
• High temperature metallurgically bonded constructed rectifiers
• For use in high frequency rectifier circuits
• Plastic package
has Underwriters Laboratory Flammability Classification 94V-0
• Fast switching for high efficiency
• Glass passivated cavity-free junction in 00-41
package
• 0.5 Ampere operation at TA=55°C with no thermal runaway
• Typical IR less than 0.1 IJ. A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/l0 seconds/.375", (9.5mm) lead length at
Sibs., (2.3kg) tension

00-41

-r
1.0 (25.4)

MIN

.107(2.7)
.080(2.0)

~

1 I.!

.205~5.21
.160(4.1)

......i.-

t

1.0(25.4)
.034 (.86) ~.
.028 (.71)

MIN

I

+

Dimensions in inches and (millimeters)
'GIass-pIaslic""capoulaJion technique iscoveredbyPatentNo. 3.996.602of 1976 and
blazed .Jsed aSS6lllbly by Patent No. 3.931!.306 of 1976

~
• ~

®

MECHANICAL DATA
Case: J EOEC 00-41 Molded plastic over glass
Terminals: Plated Axial leads, solderable per MILSTO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.012 ounce,O.3 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Reelified Current
.375", (9.5mm) Lead Lengths at TA=55°C
Peak Forward Surge Current
10ms single half sine-wave superimposed
on rated load at TA=25°C
Maximum Instantaneous Forward Voltage at 1.0A
Maximum DC Reverse Current
at Rated DC Blocking Voltage
Maximum Reverse Recovery Time (NOTE 11
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

SYMBOLS

BAf57GP

VRRM
VRMS
Voc

400
280
400

BAf58GP BAf59DGP

600
420
600

800
560
800

BAf59GP

UNITS

1000
700
1000

Volts
Volts
Volts

I(AVI

0.5

Amps

IFSM
VF

20.0
1.5

Amps
Volts

IR
TRR
CJ
ReJA
TJ,TsTG

5.0
150

250

500

15.0
50.0
-65 to +175

NOTES:
1. Reverse Recovery Test Conditions: IF= O.SA, IR= 1.0A, recover to 0.2SA.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voe.
3. Thermal Resistance from Junction to Ambient at .375" (9.Smm) Lead Lengths, P.C. Board Mounted.

-282-

500

itA
nS
pf
°cm
°C

RATINGS AND CHARACTERISTIC CURVES SA 157GP THRU SA 159GP

FIG. 2 - TYPICAL INSTANTANEOUS
FORMRD CHARACTERISTICS

I-'Z

FIG. 1 - FORMRD CURRENT
DERATING CURVE

fil
u::

0.5

~ffl
wa:
a:w

fE ~

Q.3

leI-'
o~

0.2

~a

0.

,g:
u
o
a:

I ' r-.....

0.4

0

w

125

rJ)::;

::>
o

FIG. 1 -

FORWARD CURRENT DERATING CURVE

1.0

"- ~

0.75

0.50

0.25
RESISTIVE OR INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS

25

50

75

100

o
«

'.0

oa:
IL.~
en::;:
::>«

0.'

a:

~ffl

ow

'"'"

125

150

r

,

/

J

Z

-

~
z
«

tn

.0

2% DUTY CYCLE

,II
0.6

~

175

TJ==25°C
PULSE WIDTH'" 300.uS-

I

AMBIENT TEMPERTURE. 'C

FIG. 3 -

..,...-

'0.0

0.8

1.0

1.2

1.4

1.6

1.8

2.0

(NSTANTANEOUS FORWARD VOLTAGE VOLTS

TYPICAL JUNCTION CAPACITANCE

10.0

FIG. 4 -

TYPICAL REVERSE CHARAQrI'ERISTICS

20
IL.
0-

W 5.0

.,:
w
a:
a:
::>
0
wen
enw
a:
a:
ww
>0..
w::;:
a:«
enO
::>a:
00
wz::;:
«

o

z

Z

~

TJ-25'C
1-1.0 MHz
V8iS-50mVi\'

(3

a:

«
o

1.0
1.0

5.0

10.0

50

100

REVERSE VOLTAGE, VOLTS
FIG. 5 -

REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

t-

"'"

w.

~

'0.0

,

TJ

-

-

'.0

TJ

~

-

7S'C -

V"

J

0.'

Z

NON-ltOOUCTIV€

«ten

UNIT
UNDER TEST

~

M"'~

TJ =25°C

-

/

VOLTAGE SUPPLY

RIPPLE. JrnVrm5

NON-IIIIOUCTIVE

..-

L

10'-'dcfROM
CONSTANT

r;~

=125°C

io"'"

.0'

o

20

40

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE
A-TEKTRONIX 545'" K PLUG IN
PRE AMP P6000 P~BE OR EO' IVAlENT

R2_TEN·l W 10 () ",CARB(.N CORE

R,-AOJUSTED FOR \ 4 (l BETWEEN

T ... m 25 ~ ~O"C FOR RECTIFIER

1.0A

'FM

jet)

\;

FIG. 6 -

SUPERECTIFIER

II\IP... RALLEl

POINT 20F RELAY AND RECTIFIER
INDUCTANCE· 38 ~H

CAVITY-fREE
(GLASS-PASSIVATED
JUNCTION)

J-1Vd,~soLs
I I Ir\I'''V ......

'VI
I I

'RM(REC)

--i,ct1

COMPLETELY
ENCAPSULATED
BRAZED CONSTRUCTION

SET TIME BASE FOR
50/1 DOns/em

-285-

OPAQUE
GLASS

1 N4942GP THRU 1 N4948GP
MINIATURE GLASS PASSIVATED JUNCTION FAST
SWITCHING PLASTIC RECTIFIER
Voltage - 200 to tODD Volts Current - 1.0 Ampere
FEATURES
• High temperature metallurgically bonded constructed rectifiers
• For use in high frequency rectifier circuits
• Plastic package
has Underwriters Lab'~"
oratory Flammability Classifi"'~
cation 94V-O
'.~
• Fast switching for high efficiency
'~'"
• Glass passivated cavity-free junction in 00-41
package
• 1.0 Ampere operation at TA=55°C with no thermal
runaway
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

00-41

t

1.0 (25.4)
.107(2.7)
.080(2.0)

IIIN

.1

1+

!

~

.205(5.2)
.160(4.1) ,

-*--

t

1.0(25.4)
.034 (.86) ~
.028 (.71)

IIIN

I

+

..

Dimensions in inches and (millimeters)

MECHANICAL DATA

•G/ass-pfasllc encapouIaJion IBChniqus Is covered by PaJsnt No. 3,996,602 of 1976 and
blazed ·lead assembIyby Patent No. 3,930.306 of 1976

~
•

~.

®

Case: JEOEC 00-41 Molded plastic over glass
Terminals: Plated Axialleads,solderable per MILSTD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.012 ounce, 0.3 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.Resistive or inductive load.
For capacitive load, derate current by 20%.
fN
SYMBOLS 4942GP

•
•
•
•

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Vottage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=55°C
• Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
• MaxilT\um Instantaneous Forward Vottage at 1.0A
• Maximum DC Reverse Current TA-25·C
at Rated DC Blocking Voltage
TA=150°C
• Maximum Reverse Recovery Time (NOTE 1)
TJ=25°C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
• Operating and Storage Temperature Range

VRRM
VRMS
Voc

200
140
200

fN
4944GP

fN
4946GP

fN
4947GP

fN
4948GP

UNITS

400
280
400

600
420
600

800
560
800

1000
700
1000

Votts
Votts
Volts

I(AV)

1.0

Amps

IFSM
VF

25.0
1.3
1.0
200.0

Amps
Volts

IR
TRR
CJ
R8JA
TJ,TsTG

150

150

250
15.0
50.0
-65 to +175

NOTES:

1. Reverse Recovery Test Conditions: IF=0.5A, IR=I.OA, Irr=O.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead lengths, P.C. Board Mounted.
• JEDEC registered values
-286-

ItA
250

500

nS
pi

·cm
°C

RATINGS AND CHARACTERISTIC CURVES 1N4942GP THRU 1N4948GP

FIG. 2 - MAXIMUM NON-REPEllTVE PEAK
FORWARD SURGE CURRENT

FIG. 1 - FORWARD CURRENT
DERATING CURVE

"'"

30

'"'\

RESISTIVE OR
INDUCTIVE LOAD
0.375" (9 Smm) LEAD LENGTHS

50

75

100

TJ = 5S"C

r:
z

83 ms SINGLE HALF SINE-WAVE
(JE DEC METHOD)

w
a:
a:

25

aW
WW
C)a:
a: W

20

00::'

15

:::J

1\
1\

125

150

~

l'

:::Ja.

0<

1"- .......

a:
<

3:

10.0

a:
0

u.

175

6.0

AMBIENT TEMPERATURE. °C

1.0

2.0

4.0 0.6 10.0

20

40

60 100

NUMBER OF CYCLES AT 60Hz

r:
z

w
a:
a:

FIG. 3 - TYPICAL INSTANTEOUS
FORWARD CHARACTERISTICS

FIG. 4 -

10

:::J

a

o

~

~10.0

/

1.0

~ 6.0
(3

Ow

u.a.

00::'

<

a.

0.1

w

a<

TJ = 25°C

Z

<
f-

Pulse Width::: 300Ms
2% Duty Cycle

I

Z

<

~

""'"

a
z

a: a:

o

,..........

ui

3:ffi

:::J<

TYPICAL JUNCTION CAPACITANCE

30

II

f-1.0MHz

II~t60~VP'1

1.0
1.0

5.0

10.0

50

100

REVERSE VOLTAGE, VOLTS

01

~

TJ = 25°C

A

.8

.6

1.0

12

1,4

1.6

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

FIG. 5 -

REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

500

100

NON INDUCTIVE

NONINDUCTIVE

+ 05A

FIG. 6 -

SUPERECTIFIER

CAVITy-rREE

,

(GLASS·PASSIVATED
JUNCTION)

1\

,./

- 0 25
OSCILLOSCOPE
(NOTE 1)

=

NOTES 1 Rise Time
7ns max Inpul Imp""dance =
1 megohm 22pF
2 Rise Time = lOns ma~ Source Impedance '"
50 ohms

-10

\.J./
~

-287-

1em

I-

COMPLETELY
ENCAPSULATED
BRAZED CONSTRUCTION

OPAQUE

GLASS

RGP10A THRU RGP10M
MINIATURE GLASS PASSIVATED JUNCTION
FAST SWITCHING PLASTIC RECTIFIER
Voltage - 50 to 1000 Volts
Current - 1.0 Ampere
FEATURES
00-41

-j
1.0 (25.4)

MIN

1+ ~

.107(2.7) ~ 1
.080(2.0)

.205'5.2)
.160 (4.1)

--L-

t

1.0(25.4)

MIN
.034 (.86).
.028(.71)

+

I

'"

Dimensions in inches and (millimeters)

• High temperature metallurgically bonded consti'Ucted rectifiers
• For use in high frequency rectifier circuits
• Plastic package
has Underwriters Laboratory Flammability Classification 94V-0
• Fast switching for high efficiency
• Glass passivated cavity-free junction in 00-41
package
• 1.0 Ampere operation at TA=55°C with no thermal
runaway
• TypicallR less than 0.1 J.L A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed: 350°C/10
seconds/.375", (9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

:G/ass·plasticem;apsulation techniqooiscoveredbyPatentNo. 3.996,602ofI976aOO _ _ _ _ _ _ _ _ _...;.;.M,;.;'S;;;,.C;;..;.,H;;;,!A,.;;H;.,;;;,;lC;;,.A;.,.;,;;;L;,..D;;..;.,A,;.;T...;,;4.;;,.
brazed ·lead assembly by Patent No. 3,930,306 of 1976

Case: JEOEC 00-41 Molded plastic over glass
Terminals: Plated Axial leads, solderable per MILSTO-202, Method 208

~®
•••

_ " , Col.,

b,"" d....' .. "".....

Mounting Position: Any
Weight: 0.012 ounce, 0.3 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load. For capacitive load, derate current by 20%.

RGP RGP RGP RGP RGP RGP RGP

lOB 10D lOG IOJ 10K 10M UNITS
Maximum Recurrent Peak Reverse Voltage
VRRM 50 100 200 400 600 800 1000 Vo~s
Maximum RMS Vottage
70 140 280 420 560 700 Volts
VRMS 35
Maximum DC Blocking Voltage
Voe 50 100 200 400 600 800 100 Votts
Maximum Average Forward Rectified Current
Amps
.375", (9.5mm) Lead Lengths at TA=55°C
1.0
I(AV)
Peak Forward Surge Current 8.3ms single half sine-wave
30.0
Amps
superimposed on rated load (JEDEC Method)
IFSM
1.3
Votts
Maximum Instantaneous Forward Vottage at 1.0A
VF
Maximum Full Load Reverse Current, Full Cycle Average
.375", (9.5mm) Lead Length TA=55°C
100.0
IR
itA
5.0
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=150°C
200.0
IR
itA
250
500
nS
Maximum Reverse Recovery Time TJ=25°C (NOTE 1) ~
150
TRR
Typical Junction Capacitance (NOTE 2)
15.0
pf
CJ
RaJA
50.0
°CIW
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range
-65 to +175
°C
TJ,TSTC
NOTES; 1. Reverse Recovery Test Conditions: IF=D.5A, IR=I.0A, recover to 0.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.
SYMBOLS IDA

-288-

RATINGS AND CHARACTERISTIC CURVES RGP10A THRU RGP10M

FIG. 4 -TYPICAL JUNCTION CAPACITANCE

FIG. 5 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM
lOU

50"

NONINOUCTIVE

NONINDUCTIVE

_
-

+O.5A

,

r\

D.U.T

(+)

100

f-,',,--j

iOVdC
(approx.)

LL

a.

,.

ui

~f"

-0.25

()

z
«

t:l0.0

(-)

III
NON-

OSCILLOSCOPE
(NOTE 1)

r,.25oo

if.

INDUCTIVE

-1.0A
NOTES: 1. Rise Time = 7ns max., Inpullmpedance
1 megohm, 22pF

r-.. t--.

()

=

2. Rise Time = 10ns max., Source Impedance

(§

I\. J

=

50 ohms.

1.0

1.0

10.0

REVERSE VOLTAGE, VOLTS
FIG. 1_ FORWARD CURRENT
DERATING CURVE

,..:
Z
w

100

0::
0::

........

ao
w

u:
§'"
w~

,a:

W

75

1-'

~

50

00.
0::::;:

««

~

f2w

~w
~

60Hz

.25

in

25

50

75

:::J

1\
1\

100

125

()

o

"

~

0::

« '"
~w

1.0

offi
u.a.

"'::;:

/

:::J«

'"

150

@
z
~
z

o. 1

~

.01

g

175

AMBIENT TEMPERATURE,·C

FIG. 2 -

10.0

0::
0::

RESISTIVE OR
INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS

o

FIG.3 - TYPICALINSTANTANEOUS
FORWARD CHARACTERISTICS

~L~~~lg~~1'8

,

I

I
.6

.8

1.0

1.2

1.4

1.6

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

FIG.6-SUPERECTIFIER
CAVITv-rREE
(GLASS-PASSIVATED
JUNCTION)

.........

T".25OC

-1-,

Ul RECOGNIZED

BRAZED. TEMP

.

;o!=

600°C

rLAME-RETARDANT
MOLDING COMPOUND
(UL 94V-Ol

~-'>"'---I\

.......1"--...

T....5&C
8.3mo SINGLE HALF·WAVE
SINE-WAVE (JEDEC) METHOD

, , ".
6

8 10

20

40 60 80 100

NUMBER OF CYCLES AT 60 Hz

~~~~§~E~iED

BRAZED CONSTRUCTION

-289-

OPA~UE
GLASS

INsr~

100

1N5615GP THRU 1N5623GP
GLASS PASSIVATED JUNCTION FAST
SWITCHING PLASTIC RECTIFIER
Voltage - 200 to 1000 Volts Current - 1.0 Ampere
FEATURES
00-15

Jo

MIN.

+1

,·140(3.6)

1 .10412.61

125.41

1
Dimensions in inches and (millimeters)

• High temperature metallurgically bonded constructed rectifiers
...........
• Plastic package
~
has Underwriters Laboratory Flammability Classification 94V-0
• Fast switching for high efficiency
• Glass passivated cavity-free junction
• 1.0 Ampere operation at TA=55°C with no thermal
runaway
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed: 350°C/10
seconds/.375", (9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

'GiIJss.p/aBllcsncspsulslionlSChn/quolscolllHBdbyPaleltNo.3,996,60201I978and _ _ _ _ _ _ _ _.-;M='S~C.;;.H,;;,;;!A..;;;H;.,;,;;.;'C.;;.;:A...;,;;;;L..;;D;.;:A..;;T.;.;:4..;.

btusd:tead ....ntJ/yby Pa/atlt No. 3,930,306 of 1978

~ '"
."

Case: J EDEC 00-15 Molded plastic over glass
Tenninals: Axial leads, solderable per MIL-STD202, Method 208

_ , Colo,

ba"''''''''' '01"'"

Mounting PosUlon: Any
Weight: 0.015 ounce, .4 gram

M:AXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
IN
SYAfBOLS 5f16GP

IN

IN

IN

IN

Sf17GP

5119GP

5621GP

562laP

UNITS

1000
700
1000

Volts
Volts
Amps

600
Maximum Rscurrent Peak Reverse Voltage
200
400
VRRM
140
280
420
Maximum RMS Voltage
VRMS
200
400
600
Maximum DC Blocking Voltage
Vee
Maximum Average Forward Rectified Current
1.0
.375", (9.5mm) Lead Lengths at TA-55'C
I(AV)
• Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
50.0
IFSM
Maximum Instantaneous Forward Voltage at 1.0A
1.2
VF
Maximum DC Reverse Current
0.5
TA=25'C
at Rated DC Blocking Voltage
25.0
IR
TA=100'C
• Maximum Reverse Recovery Time (NOTE 1)
150
150
250
TJ-25'C
TRR
Typical Junction Capacitance (NOTE 2)
25.0
CJ
Typical Thermal Resistance (NOTE 3)
RaJA
30.0
-6510 +175
• Operating and Storage Temperature Range
TJ,TsTG
NOTES:
1. Reverse Recovery Test Conditions: IF= O.SA, IR=I.0A, Irr=O.2SA.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Ambient at .375' (9.5mm) Lead Lengths, P.C. Board Mounted.
• JEDEC registered values
•
•
•
•

-290-

800
560
800

Amps

Amps
Volts

I1A
300

500

ns
pf

'cm
'c

RATINGS AND CHARACTERISTIC CURVES 1N5615GP THRU 1N5623GP

FIG. 1-REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM
IiOO

100

NONINDUCTIVE

NONINDUCTIVE

OUT

1+)

_

+O.5A

,

1\

6OVqo

/'

-0.25

-(appnIX>
1-)
10
NONINDUCTIVE

OSCILLOSCOPE
(NOTE 1)

~
-1.0A

NOTES 1 Rise Time = 7ns max
1 megohm. 22pF
2 Rise Time = 10ns max Source Impedance =
50 ohms

lJ

"

FIG. 3 _ TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

.,.:

FIG. 1-FORWARD CURRENT
DERATING CURVE

Z

w

'0

a:
a:

=>

"

o

o

a:

,

a: a:
Ow
u.o..

0::1

=>-ill

""', "'"

~~6

~~
a:
w

,4

Oa:
u.a:

iiw

D.-

;:;;

«

60

40

,

~

100

120

140

:;)

()

o

a:

160

«

180

AMBIENT TEMPERATURE, °C

~

03

Z

50

Z

~

r'"'o

o
z

TJ

I

=25°C

TJ '" 25°c

=

Pulse Width 30011 s
2% Duty Cycle

If

01

~

~ 25°c'_

TJ

03

~

f-1.DMHz
VsIg-50mVp-p

.....

J

o
ill

100

u.
n

04

06

0.8

10

1.2

14

16

18

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

...............

~ 10
(3

ct«

~
a:

o
u.

Ul 01
::>

FIG. 3- TYPICAL JUNCTION CAPACITANCE

ill

/

a:
a: 10

r--..

80

/

Z

w

RESISTIVE OR INDUCTIVE LOAD
0,375" (S.Smm) LEAD LENGTHS

20

30

>-

--

~a

10

ill

""'~

frlffie
a:D.-

FIG. 2"":TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

ffi
a:

FIG. 1- FORWARD CURRENT DERATING CURVE

FIG. 4 -

5

MAXIMUM NON- REPETITIVE PEAK
FORWARD SURGE CURRENT

40

o

II!!!TALL!III

f-'"
w

z

a:
a:

30

:;)

............

~u)

5

10

50

(!)::l!

100

a:W 20
:;)D.Ul;:;;

REVERSE VOLTAGE, VOLTS

8.3ms Single Half
SinewWave (JEDEC Method)

r--i'

...........

0«

FIG. 5- REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

a:

«

~
a:

10

t--- i"-~

0

»"
"w

u.

NON·tNDUCTIVE

UNIT

10

UNDER TEST

20

40 60

100

NUMBER OF CYCLES AT 60 Hz
IOAdcfROM
CONSTANT
VOLTAGE SUPPLY

~tl
'OW
NON·INDUCTIVe

C,

Ml&F

SUPERECTIFIER

+

A- TEKTRONIX ~5A. K PLUG IN
PRE AMP. P6000 PROBE OR EQUIVALENT

Zoull'I.U MAX
oc 10 2kHz
R:!_ TEN·' W 10 II 1% CARBON CORE
IN PARALLEL

~iN~~~~~~~~=~~ ~le~~~::N

TA""

INDUCTANCE

FIG. 6 -

RIPPLE. 3mV.ms MAX

~ ~O'C FOR RECTIFIER

= 38pH

'F. ..!..(~

d'rd1 :50~ Js

f-+--

~~.' i/
I

\L/I

COMPLETELY
ENCAPSULATED
BRAZED CONSTRUCTION

I I

lCM~

I_

r--

OPAQUE
GLASS

SET TIME BASE FOR
5O/100nslcm

-293-

IN~~

RGP15A THRU RGP15M
GLASS PASSIVATED JUNCTION
FAST SWITCHING PLASTIC RECTIFIER
Current - 1,5 Ampere

Voltilge - 50 to 1000 Volts

FEATURES
D0-15

f

+

1.0

,.0341.86)
.0281.71)

MIN.

-+.300 17.6)
.23015.8)

+1

.14013.6)
.10412.6)

1.0

MIN.

125.4)

"

1

• High temperature metallurgically bonded constructed rectifiers
"'''''''"-......
• Plastic package
has Underwriters Lab~
oratory Flammability Classifi~"
cation 94V-0
"
• Glass passivated cavity-free junction in 00-15
package
• 1.5 Ampere operation at TA=55°C with no thermal
runaway
• Typical IR less than 0.1 J.L A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed: 350°C/10
seconds/.375", (9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

Dimensions in inches and (millimeters)
'G/ass-pf8stlcIlllCBpBJJlaIim/eChniqJJeiscoveredbyPalemNo.3,996,6IJ2ofl976and
bNsd·1ead sssembIy by Pa/eIt No. 3,930,3116 011976

~

• 0: ®

MECHANICAL DATA
Case: JEOEC 00-15 Molded plastic over glass
Tennlnals: Plated Axial leads, solderable per MILSTD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.015 ounce, 0.4 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20"A..
RGP

RGP

RGP

SYIIBOLS 1SA

RGP RGP RGHP RGP

15B

150

15G

15J

15K

1511 UNITS

VRRM 50
VRMS 35
Voc 50

100

200

400

600

800 1000 Volts

70 140
100 200

280
400

420 560 700 Volts
600 800 1000 Volts

I(Av)

1.5

Amps

IFsM
VF

50.0

Amps

1.3

Volts

5.0
200.0

I1A

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum AVerage Forward Rectified Current
,375", (9.5mm) Lead Lengths at TA=55°C
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 1.5A
Maximum DC Reverse Current
at Rated DC Blocking Voltage

TA=25°C
TA=150°C
Maximum Full Load Reverse Current, Full Cycle Average
.375", (9.5mm) Lead Length TA= 55'C

IR(AV)

Maximum Reverse Recovery Time (NOTE 2) TJ=25°C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)

TRR
CJ
R8JA

Operating and Storage Temperature Range

TJ,TSTG

IR

12501

500

nS
pf

25.0
30.0

°cm

-65 to +175

°C

NOTES: 1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
2. Reverse RecoverY Test Conditions: IF=.5A, IR=lA, Irr=.25A.
3. Thermal Resistance from Junction 10 Ambient at .375" (9.5mm) Lead lengths, P.C. Board Mounted.
-294-

I1A

100.0
150

RAnNGS AND CHARACTERISTIC CURVES RGP15A THRU RGP15M

FIG. 1- REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM
SOli

lOU

NON INDUCTIVE

NONINDUCTIVE

+O.5A

D.U.T

(+)

_ 60 Vdc
-

\

,

"\
~'

-0.25

(appro)!;.)

,

~

OSCILLOSCOPE
(NOTE 1)

INDUCTIVE
-1.0A

NOTES 1. R•• 1imB-7na max. Input Iq»dance-

I\.

I\, ..J

\

I

, rnogaohm22pF.

2. RIoe TI __ ,OnI max. SoulOOln1>Odan_
SOoh....

o
25

FIG. 3- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

~
w

I\.

I(

( -)

1U
NON-

FIG. 2-FORWARD CURRENT
DERATING CURVE

RESISTIVE OR
INDUCTIVE LOAD
0.376"(9.5mm) LEAD LENGTHS
SO

75

100

125

'\
1110

AMBIENT TEMPERATURE,·C

10

a:
a:

FIG. 4- TYPICAL JUNCTION CAPACITANCE

ao

100

,/

a:

~ffi
a: a:

1.0

...c-

Ow

... 0.

ell:'
;,«
@
z

o

I- 10

~

~

i

PULSE WIDTHo3OOi
01

" "-

1.0

II:
W

u-a.

::>

1.5

ou-II:
a]

v

10

(I)::!:

oW

2.0

««
~..:

::J

II:

t f3
WII:
([ W

~~

10

W
II:
II:

10'"

12

10

14

1.6

INSTANTANEOUS. FORWARD VOLTAGE,
VOLTS

50

-

r-f= lMHz
V5;g

0

lomi"!" I

TJ

0

25:C 1-

"""- -r--I-

10

50

10

100

REVERSE VOLTAGE. VOLTS
FIG. 5 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

FIG. 6 -

SUPERECTIFIER

CAVITY-fREE
(GLASS-PASSIVATED
JUNCTIONI

..........
t---TJ

0

wc

r---I-

8.3ms SINGLE HALF

a

SliE-WjVE I(JEID~~ ~it~Odl
10

50

100

NUMBER OF CYCLES AT 60Hz
COMPLETELY
ENCAPSULATED
BRAZED CONSTRUCTION

-297-

OPAQUE
GLASS

IN~M'r

RGP25A THRU RGP25M
GLASS PASSIVATED JUNCTION
FAST SWITCHING PLASTIC RECTIFIER
Voltage . 50 to 1000 Volts Current· 2.5 Amperes
FEATURES
DO-201AD

.05211.31
.04811.21

Dimensions in inches and (millimeters)
• GJsss.pIaSlic 8IICIJ!IBUIalio tschnIquo Is _ b y PIIlttr No. 3,998,602 011976
and bralJld ·lead ~ by PIIlttr No. 3,930,306 at 1976

~"
•

~MUII

• High temperature metallurgically bonded constructed rectifiers
• Plastic package
has Underwriters Laboratory Flammability Classification 94V-0
• Glass passivated cavity-free junction in
DO-201AD package
• 2.5 Ampere operation at TA=55°C with no thermal
runaway
• Typical IR less than 0.1 J.I. A
• Capable of meeting environmental standards of
MIL-S-19500 .
• Fast switching for high efficiency
• High temperature soldering guaranteed: 350°C/l0
seconds/.375", (9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

MECHANICAL DATA

case: JEDEC DO-201AD Molded plastic over glass
Terminals: Plastic Axial leads, solderable per
MIL-STD-202, Method 208
'

_,Colo<
band .....te. cathod.
Mounting PosUlon: Any
Weight: 0.04 ounce, 1.12 gram

RATINGS AND ELECTRICAL CHARACTERISTICS

Ratings al 25°C ambient temperature unless otherwise specifled. Resistive or inductive load.
For capacitive load, derate current by 20%.

RGP RGP RGP RGP RGP
260 25G 25J
VRRM 50 100 200 400 600
VRMS 35 70 140 280 420
Voc 50 100 200 400 600

SYMBOLS 2SA 258

RGP RGP
16K

2511 UNITS

Maximum Recurrent Peak Reverse Voltage
800 1000
Maximum RMS Voltage
560 700
Maximum DC Blocking Voltage
800 1000
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA-55"C
2.5
I(AV)
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
100.0
IFSM
Maximum Instantaneous Forward Voltage at 2.5A
1.3
VF
Maximum DC Reverse Current TA=25"C
5.0
at Rated DC Blocking Voltage TA=125"C
200.0
IR
Maximum Full Load Reverse Current, Full Cycle Average
.375", (9.5mm) Lead Length TA=55"C
IR
100.0
Maximum Reverse Recovery Time (NOTE 2) TJ=25"C
150
250
500
TRR
Typical Junction Capacitance (NOTE1)
60.0
CJ
Typical Thermal Resistance (NOTE 3)
RaJA
16.0
Operating and Storage Temperature Range
·65 to +175
TJ,TsTG
NOTES: 1. Measured all.0 MHz and applied reverse voltage of 4.0 Volts.
2. Reverse Recovery Test Conditions: IF=O.5A, IR=1.0A, Irr=.25A.
3. Thermal Resistance from Junction to Ambienl al .375" (9.5mm) Lead Lengths, P.c. Board Mounted.
-298-

Volts
Volts
Volts
Amps
Amps
Volts

!lA
!lA
nS

pf
"Cm
"C

RATINGS AND CHARACTERISTIC CURVES RGP25A THRU RGP25M

FIG. 1 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM

SOO

'00

W

+05.A

,.,
_

-

u::

\

tffl

1

OUT

~ffi

)f'

50 Vdc
(approx)

-025

'-I
10
NON-

1'IG. 2 - FORWARD CURRENT
DERATING CURVE

o

NONINDUCTIVE

NON INDUCTIVE

OSCILLOSCOPE
(NOTE 1)

INOUCTIVE
NOTES 1 Rise Time = 7ns maK
1 megohm. 22pF
2 Rise Time = 10ns mall Source Impedance =
50 ohms

-'0

,

Ca.

~,

a:::;

I(

««
3:1a: z ,
OW
Wa:

-t

~5
ffi

f-

SO/lOOns/em

~"'"

RESISTIVE OR
INDUCTIVE LOAO
.375" (9.Smm) LEAD LENGTHS

u.a:

./

0

50

20

~

,~

,,~

150

'00

AMBIENT TEMPERATURE,·C

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

..,:
Z

'0

W
a:

a:

::J

o
o

a:

~(I)

FIG. 4 - TYPICAL JUNCTION CAPACiTANCE

v

1.0

100
U.

a: W

c.
W

offi

u.a.
(I)::;

::J«

@

0

(3

;:

«a.
«

TJ - 25·C
PULSE WIDTH 3OO,us
1% DUTY CYCLE

z
«

=

.01

~

0.4

0.6

VliQiiij,

«

I-

Z

Ii;

I. 1.0 MHz

z

I

0.1

50

0.8

12

'.0

1.4

TJ =25-0-

'0

0

10

50

100

REVERSE VOLTAGE, VOLTS

16

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

FIG. 6 - SUPERECTIFIER

FIG. 5 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT
'00

CAVlTy-rREE
(GLASS-PASSIVATED
JUNCTION)

50

......... ......
TA = 5~C
a.3rne SINGLE HALF SINE~WAVE
JEOEC METHOD

10

1

10

50

100

~~~~~~CkfEO

NUMBER OF CYCLES AT 60Hz

BRAZED CONSTRUCTION

-299-

OPAQUE
GLASS

IN~

180

RGP30A THRU RGP30M·
GLASS PASSIVATED JUNCTION
FAST SWITCHING PLASTIC RECTIFIER
Voltage - 50 to 1000 Volts Current - 3.0 Amperes
FEATURES

.J!lli.ll

125.4)

1+

•188 (4.8)
DIA.

1.0

LI

~

~
1.0 (25.4)

.052U.3)
.048U.2)

T

+

• High temperature metallurgically bonded constructed rectifiers
• Plastic package
~
has Underwriters lab......_
oratory Flammability Classlfl-- ~
cation 94V-0
.""'..
• Glass passivated cavity-free junction
• 3.0 Ampere operation at TA=SSoC with no thermal
runaway
• TypicaliR less than 0.1 11 A
• Capable of meeting environmental standards of
Mll-S-19S00
• Fast switching for high efficiency
• High temperature soldering guaranteed:
350°C/10 seconds/.37S", (9.Smm) lead length at
Sibs., (2.3kg) tension

MECHANICAL DATA

Dimsnsions in inchss and (mi//imstsrs)
'GJass.pIasli:/lllClflBlJlllllII:IInIqwltcoVsrBdbyPaMNo.8,IJIIB,fI(J2DtI9781J1Jd
brazed -IHd l/S/I8IIlbIy by PaIIl/f No. 8,930,306 Dt 1978

~
• ~,

®

case: JEDEC D0-201AD Molded plastic over glass

Tennlnals: Plated Axial leads, solderable per MllSTD-202, Method 208
Polarity: Color band denotes cathode
Mounting Posman: Any
Weight: 0.04 ounce, 1.12 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specifllld. Resistive or inductive load.
For capacitive load, deraIB current by 20%.
RGP RGP RGP RGP RGP RGP RGP
SYIIBOLS 30A _
SOD 30G 3DJ 3DK 3DII UNITS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths atTA-SS"C
Peak Forward Surge Current 8.3ms single half sine-wave
superimposed on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 3.0A
Maximum DC Reverse Current TA-25"C
at Rated DC Blocking Voltage TA=I25"C
Maximum Full Load Reverse Current, Full Cycle Average
.375", (9.5mm) Lead Length TA-SS"C
Maximum Reverse Recovery lime (NOTE 2) TJ-25"C
Typical Junction Capacitance (NOTE1)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM 50
VRMS 35
Vee 50

100 200 400 600 800 1000 Volts
70 140 280 420 560 700 Volts
100 200 400 600 800 1000 Volts

I(AY)

3.0

Amps

1F8M
VF

125.0
1.3
5.0
100.0

Amps
Volts

IR
IR(AV)
TRR
CJ
R8JA
TJ,T8T(

150

100.0
12501
60.0
16.0
-65 to +175

NOTES;
t. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
2. Reverse Recovery Test Condttions: IF=O.5A, Ill- t.OA, In: .25A.
3. Thermal Resistance from Junction 10 Ambient at .375" (9.5mm) Lead Lengths, P.C. Board MounlBd.
-300-

!LA
!LA
500

nS
pf
"Cm
"C

RATINGS AND CHARACTERISTIC CURVES RGP30A THRU RGP30M

FIG.3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

~
w

10

a:
a:

ao

FIG. 1 - FORWARD CURRENT
DERATING CURVE

a:

« (f.I
~w

't'

10

offi
u.(L

t'....
RESISTIYEOR

1

INDUCTIVE LOAD

(/)::;

f'

0.376" (9.6rrm) LEAD LENGTHS
25

50

75

:::l«
@

100

125

L

L

1

Z

~

""" t'....
150

TJOO25"C
PULSE WlDTH-300,.s
2% DUTY CYCLE

«

~

175

~

AMBIENT TEMPERATURE, ·C

01

1
4

6

10

12

14

16

INSTANTANEOUS FORWARD VOLTAGE. VOLTS

,FIG.2 _ MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

r--. ....

r--. r-.
I==~T~I
0

"C

8.3mI SINGLE HALF .
SINE·WAVE (JEDEC MElHOD)
5

10

50

100

NUMBER OF CYCLES AT 60 Hz

FIG. 6 FIG. 5 -

5011
NON INDUCTIVE

1011

NQNINDUCTIVE

+O.5A

~

DU.T.

1+1

_ 50 Vdc
-

SUPERECTIFIER

REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

(approx.)

/

-0.25

I-I
111
NONINDUCTIVE

=

OSCilLOSCOPE
(NOTE 11

NOTES: 1. Rise Time 7n8 max .. Input Impedance =
1 megohm, 22pF.
2. Rise Time = 10ns max" Source Impedance =

50 ohms.

1
-t.OA

~~~:~ruE~fED

1/

"

BRAzeD CONSTRUCTION

OPAQUE

GLASS

INsBMir
-301-

-302-

MINIATURE GLASS
PASSIVATED CHIP
PLASTIC RECTIFIER
1.0 AMPERE
50 VOLTS TO 1000 VOLTS

------IN~
-303-

...

MPG06A THRU MPG06M
MINIATURE GLASS PASSIVATED JUNCTION
PLASTIC RECTIFIER
Voltage - 50 to 1000 Volts Current - 1.0 Ampere
FEATURES

.100 (2.54)
.090 (2.29)

• Plastic package has Underwriters Laboratory
Flammability Classification 94 v-o
• Low forward voHage, high current capability
• Glass passivated chip Junctions
• High Surge CapabliHy
• 1.0 Ampere operation
at TA=25°C with no thermal runaway
• Typical IR less than 0.1 j.1 A
• High temperature soldering guaranteed:
250°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

1

r

1.0 (25.4)

LIi-U1...j---%t'--.125 (3.18)

~
1.0 (25.4)

T

MECHANICAL DATA
case: Molded plastic over glass passivated chip
Terminals: Plated Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.0064 ounce, .181 gram

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specHied.
Single phase, half wave, 60Hz. resistive or inructive load.
MPG MPG MPG MPG MPG MPG MPG

SYMBOLS 06A 06B 06D 06G 06J OIIK II1II
VRRM 50 1100120014001600 180011000
VRMS 35 I 70 1140 I 280 I 420 I 560 I 700
Voc 50 1100120014001600180011000

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current, .375"
(9.5mm) Lead Length at TA=25°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method) TA-25°C
Maximum Instantaneous Forward Voltage at 1.0A
Maximum DC Reverse Current TA=25°C
at Rated DC Blocking Voltage
TA=125°C
Typical Junction Capacitance (NOTE 1)
Typical Reverse Recovery Time (NOTE 2)
Thermal Resistance
Typical
Maximum (NOlE 3)
Operating and Storage Temperature Range

I(AV)

1.0

IFSM
VF

40.0
1.1
5.0
50.0
10.0
0.6
65.0
85.0
-5010+150

IR
CJ
TRR
ReJA

TJ.TSTG

NOTES:

1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
2. Reverse Recovery Test Conditons: IF=O.5A, 1.0A, Irr = 0.25A.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead lengths, P.C. Board Mounted.

-304-

utITS
Volts
Volts
Volts

AIIIIIS
AIIIIIS
Volts

IlA
pf

IJ.S
°CNI
°C

RATING AND CHARACTERISTIC CURVES MPG06AI THRU MPG06M

FIG. 2 - MAXIMUM NON REPETITIVE
PEAK FORWARD SURGE CURRENT
50

Iini Single Hall s'feiTe

'"

At No Load

....... 1'
I"- .......
FlG.1 • FORWARD CURRENT
DERAnNG CURVE

ow
ii:

f=(/)
OW
Wa:
a:w

condi

V

1.2r-........ . . . . , . - - - - - - - ,

V
t'--- .....

TA

........

At Rated
Load
(JEDEC Method)

25°C

..... r-.

II

~~

««
~~
O~
LLa:
wa:
(!l:::>
«0
a:

=

o
1.0

10

100

NUMBER OF CYCLES AT 60Hz

W

>
«
FIG. 4 -

LL

a.
u.i
0

0

...........

~ 10§~'~~~~~~~

FIG. 3· TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS

.......:: ~

~Q.

i3

~

5.0

~-~~++~~-+-+~~~

Z

o

t

TJ"25"C

. , 1.0 ...,.._L-.JL..L. . . . .
Z

LLJJ'---'-..J....J...J...LJ..w

Z

r-TJ" 150°C

W

a:
a:
:::>
0

"'

TJ = 25°C

Duly Cycle" 2%

FIG. 5 -

wen

WW 4.0
W::!;

>Q.

1-

Z

~C5

l-

:::>a:

«

00

(/)

J
·.6

TYPICAL REVERSE CHARACTERISTICS

10

a: a:

o. 1

.4

100

(/)W

«

.0 1

50

==

.1 1/

~

10

~~

I

:::>«

5.0

REVERSE VOLTAGE, VOLTS

Pulse Width = 300 jJ

OW
LLQ.
(/)::!;

z

1.0

/

'\;. V

1. 0

a:
«(/)
~W
a: a:
0
W

f:1MHz
Vsig = 50mVp-p

:>

1-

0

TYPICAL JUNCTION CAPACITANCE

~r--r-rTTTnTr-"""'~","Tn

.8

1.0

1.2

1.4

1.8

INSTANTANEOUS FORWARD VOLTAGE
VOLTS

§TJ = 125°C

1.0

~

.•

!M~
;: ~ o. 1
Zw

.In

" 75"C I

;: ~ .0'

~ao 1

TJ = 25°C

o

20

40

60

80

100

---f

120

PERCENT OF RATED PEAK REVERS\:..VOLTAGE

·305·

140

RMPG06A THRU RMPG06J
MINIATURE GLASS PASSIVATED JUNCTION FAST
SWITCHING PLASTIC RECTIFIER
Voltage . 50 to 600 Volts Current· 1.0 Ampere
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94 v-o
• Low forward voHage drops, high current
capability
"
• Glass passivated chip junctions "

1

.100(2.54)
.090 (2.29)

r

1.0 (25.4)

LI

1+

: ~;i8~~~~r: ~;~::~~

. 125(3.18)
.1l5f92)

1.0 (25.4)
.0251.635)
. 0231.584)

..

""'-.

at TA=25°C with no ther"""-.,
mal runaway
' ...
• TypicallR less than 0.1 J.1 A
',.,
• HigJ:! temperature soldering guaranteed:
"
250°C110 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

t

T

MECHANICAL DATA
case: Molded plastic over glass passivated chip
Terminals: Plated Axial leads, solderable per
MtL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Posff/on: Any
Weight: 0.0064 ounce, .181 gram

Dimensions in inches
and
(millimeters) .

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S'C ambient temperature unless otherwise specified.
Resistive or inductive load.

RMPG

RMPG

RMPG

RMPG

SYMBOLS

O6A

068

060

Maximum Recurrent Peak Reverse Voltage
VRRM
Maximum RMS Voltage
VRMS
Maximum DC Blocking Voltage
Voc
Maximum Average Forward Rectified Current, .375"
(9.5mm) Lead Length atTA=25°C
I(AV)
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method) TA-25°C
IFSM
Maximum Instantaneous Forward Voltage at 1.0A
VF
Maximum DC Reverse Current TA=25°C
at Rated DC Blocking Voltage
TA=125°C
IR
Typical Junction Capac~ance (NOTE 1)
CJ
Typical Reverse Recovery lime (NOTE 2)
TJ=25°C
TRR
Thermal Resistance
Typical
Maximum (NOTE 3)
R8JA
Operating and Storage Temperature Range
TJ,TsTG

50
35
50

06G
400
280
400

I
I
I

100
70
70

I
I
I

200
140
200

I
I
I

I
I
I

06J
600
420
600

UNITS

Volts
Volts
Volts

1.0

Aml>s

40.0
1.3
5.0
50.0·
6.6

Aml>s
Volts

150
67.0
85.0
-50 to +150

NOTES:

1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
2. Reverse Recovery Test Conditons: IF= O.SA, IR=I.0A, Irr = 0.2SA.
3. Thermal Resistance from Junction to Ambient at .37S" (9.Smm) Lead Lengths, P.C. Board Mounted.

-306-

RMPG

J.LA
pf

I

200

nS
°CIW
°C

RATING AND CHARACTERISTIC CURVES RMPG06A THRU RMPG06J

FIG. 2 - MAXIMUM NON REPETITIVE
PEAK FORWARD SURGE CURRENT
50

0,

FIG. 1 • FORWARD CURRENT
DERATING CURVE

!1Hr~;ngle 7 L~-H
all

,

At No Load
Condition

IT.

~125~~ I

0 ..........

...... ""

0

0

t"-.....

r-.... 1""',..
I'--

AI Rated
Load
(JEDEC Method)

0

'.0

10

100

NUMBER OF CYCLES AT 60Hz

25

50

75

100

125

150

AMBIENT TEMPERATURE,

175
0

C
FIG, 4 -

TYPICAL JUNCTION CAPACITANCE

FIG, 3· TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS
0

.J'

0

7

Vj

TJ = 150°C
0

1.0

/

7

/ II

1

Pulse Width - 300 iJ S

UJUl
UlUJ
UJ w

Duty Cycle" 2%

a: a:

01

4

a:

I

<{

UlO

0

TA

00

4

TA - 10Qc

~~

10

12

14

16

18

INSTANTANEOUS FORWARD VOLTAGE
VOLTS

;::~

0

«ZUJ
a:

.04

~G

01

r-a:

,

= 150°C

10

~a:

I

II II

100

TYPICAL REVERSE CHARACTERISTICS

4. 0

UJ:2

I

50

0

>0..

I

10

TJ = 25°C

FIG. 5 -

j

5.0

REVERSE VOLTAGE, VOLTS

e

1

.-.20

40

TA=25°C

60

80

100

"

-t120

PERCENT OF RATED PEAK REVERSE VOLTAGE

·307·

140

-308-

GLASS PASSIVATED
RECITFIERS
0.2 AMPERE TO 3.0 AMPERES
50 VOLTS TO 7600 VOLTS

_ _ _- - - INsrUM\- --309-

GLASS PASSIVATED RECTIFIER
0.2 to 0.3 Amperes 50 Volts to 7600 Volts
Device Design
The Glass Passivated Rectifier Is a hermetically sealed. cavltyfree. diffused Junction rectifier with
unsurpassed operating and surge characteristics at high temperature.
Cavltyfree construction with a specially developed extremely pure glass In direct contact with
the silicon junction plus durable heat sink design obviate the need for solder joints and
compression contact parts. The carefully matched expansion characteristics of the glass and
metal parts In combination with the direct contact of the glass and silicon junction make the
active rectifying elements impervious to surface contamination. moisture or other external
chemical agents. Further. the long term degradation associated with organic Junction protection is avoided.
There are many steps necessary to produce such a device:

Diffused Slice

I-Diffuse a PN junction into a slice of silicon.

"P"

Metallized Slice

2-Evaporate aluminum on both sides of
the sli~to make metallurgical contact.

EVAPORATED
ALUMINUM

3-Sandblast the slice to produce a round beveled die.

SAND BLASTED
ROUND DICE

-310-

INsr~

LEADS BRAZED TO MOL YBDENUM
4. Braze the die betwflfln two molybdenum heat sinks
to which leads have been attachfld at approximatfJly 700 'C,

5-Clean the assembly by chemically etching,
washing and drying.

LEADS BRAZED TO MOL YBDENUM

6-Apply glass in the form of a frit to the die and
molybdflnum assembly.
GLASS PASSIVA TED RECTIFIER

7-Melt the glass by heating in an oven to
approximatfJly 600 0 C.
GLASS BODY & PASSIVATION FIRED AT 6OO'C
8-Overmold glass passivated construction
with UL recognized flame-retardant
94 V-O classification epoxy.

Package Design
The small size of the glass package with its capability up to 3 Ampere permits greater packing
densities In electronic assemblies and equipment, while Increasing reliability. Furthermore, only
high temperature brazing operations are used to withstand the 600 C required to melt and fuse
the glass. This technique eliminates solder construction and tremendously enhances mechanical strength and temperature cycling capability, Increasing operating and storage temperature range while reducing thermal resistance.

Reliability
Specified reliability data on Glass Passivated Rectifier devices are available from the General Instrument Semiconductor Components Division Reliability Department. The basic design of the
Glass PaSSivated rectifier and the strict positive controls over materials and manufacturing
processes provide assurance of failure free performance under the most severe conditions.
Processing facilities have been geared to follow the procedural requirements of Military Standard 75D.Glass Passivated rectifiers are capable of withstanding environmental extremes in excess of MIL-S-19500E and of meeting requirements of MIL-STD-883, MIL-Q-9858 and MIL-I-45208.
Assurance of production uniformity and reliability is provided by a test technique called "Operational Load Line Testing: which has proven product reliability with over 1 Billion Glass PaSSivated
rectifiers now in use.

-311-

FAMILIES OF GENERAL INSTRUMENT
GLASS PASSIVATED RECTIFIERS
Glass Passivated Junction Diodes 0.2 to 0.4 AMPERES
Types:
lN483B thru lN486B
1N645 thru 1N649

Features:
• High Temperature Metallurgically Bonded
• High Efficiency and Rectification Radio
• Ideally Suited for Miniaturized Equipment
• Case:One Piece Glass, Hermetically Sealed
• Tin Plated Axial Leads, Solderable per MIL-STO-202120B
• Operating from -65 °C + 175
• Low Leakage
• Glass Passivated Silicon Rectifiers 1.0 to 3.0 AMPERES

Glass Passivated Junction Recltlfiers 1.0 to 3.0 AMPERES
Types:
lN4245thru lN4249
lN5059thru lNS062
1N5614 thru 1N5622
lN5550 thru 1N5554
lN5624 thru lN5627
G1AthruG1M
G2AthruG2M
G3AthruG3M
G4AthruG4M

Features:
• Glass Passivated Junction
• High Mechanical Strength
• Storage up to 200°C
• Voidless Construction
• Hermetically Sealed
• Avalanche Operation
• Low Leakage
• High Conductance
• Tin Plated Axial Leads, Solerable per MIL-STD-202120B

Glass Passivated Fast Recovery Junction Rectifiers 1.0 to 3.0 AMPERES
Types:
1N4942 thru 1N494B
lN5615thru lN5623
lN5415thru lN5420
RGIA thru RGIM
RG2A thru RG2M
RG3A thru RG3M
RG4A thru RG4M
BYV95 thru BYV96
BYW32 thru BYW36
BYW72 thru BYW76

Features:
• Glass Passivated Junction
• Fast Switching for High Rectification Efficiency to 100 kHz
• High Mechanical Strength
• Low Leakage
• Hermetically Sealed
• Storage up to 20(J>C
• Tin Plated Axial Leads, Solderable per MIL-STO-202l20B

High Voltage Glass Passivated Junction Rectifiers 1.0 to 3.0 Amperes
Types:
CGl. OGI
CG2.0G2
CG3.0G3
GIl-1200 thru GIl-I600

Features:
• All Advantages of a Hermetically Sealed Glass Passivated
Junction
• Specially designed for ClamperlOamper Applications in
Television/CRT circuitry
• Low Leakage, VR ratings oft400 volts to 1600 volts
• High Mechanical Strength
• Tin Plated Axial Leads, Soiderable per MIL-STO-202l20B

-312-

QUICK GUIDE TO GLASS PASSIVATED RECTIFIERS
TYPE
CASE
to(A)

l_

...

IN4«IB
hu
IN488B
DOaMII8
0.2

....

IN_
hu
IN_

IN4I42'

IN5058

IN5814

IN_

IN_

DOaMII8
0.4

25

25

IlO204AP
1.0
55

D0204AP
1.0
55

IN5062
D0204AP
1.0
55

D0204AP
1.0
55

IN5815'
Ivu
IN5I123'
D0204AP
1.0
55

l_

IN_

IN41M2

1_

IN5614

IN4Z46

IN4944

IN5060

IN42I1
IN4216
l_

IN4946
IN41M1
IN_

IN5061
IN5062

25

30
1.3

50
1.2

50
1.2

OTA(e)
'/Ro1O(V)
'/RolOO(V)

l_

IN4«IB
IN485B
IN4888

'/Ro2OO(V)

'/Ro300(V)
'/Ro4OO(V)
VRo5OO(V)
VRo5OO(V)
'/Ro6OO(V)
'/RoltlOO(V)
SURGE(A)
VF(V)
FaoIR_

IN648
IN641
IN646
IN649

15
1.0

~O

1.0

....

t2

....

....

IN5615

GIA
hu
GIM
D0204AP
1.0
100
GIA
GIB
GID

RGIM'
D0204AP
1.0
55
RGIA
RGIB
RGID

RGIA'

IN5616

IN56t1

GIG

RGIG

IN5618
IN5620
IN_

IN56IS
IN5621
IN5623
50
1.2

GIJ
GIK
GIM
50
t.t

RGIJ
RGIK
RGIM
30
1.3

QUICK GUIDE TO GLASS PASSIVATED RECTIFIERS
TYPE
CASE
10(,\)
TA(C)
VRaIO(V)
VIl-too(V)

VIWOO(V)
'/Ro300(V)
VR-4OO(V)
VRa5OO(V)
VRo5OO(V)
VR-8OO(V)
VR.lOOO(V)
Vll>tooo(v)
SURGE(A)
VF(V)

CGI
ond
DGI
D0204AP
1.5
55

CGliDGl
40
1.0

G2A

RGZA'

G2M
D0204AP
2.0
10
G2A
G2B
G2D

RGZM'
D0204AP
2.0
55
RG2A
RG2B
RG2D

G2G

....

....

...

CG2

IN5624
IIvu
IN5627

IN5550
hu
IN_

IN5415'

GPR3

GPR4

GPR4

3.0
70

3.0
55

IN!i824

IN5550

3.0
55
IN5415
IN5416
IN5417

RG2G

IN5625

IN5551

IN_
IN_

IN5552
IN5553
IN5554

G2J

RG2J

G2K
G2M

RG2K
RGZM

50
t2

50
1.3

DG2
D0204AP
2.0
50

CG2iDG2
40
1.1

125
1.0

100
1211.3

FIIIR-..y

-313-

RG4A

....
RG4M

CG3
1116

GPR4
3.0
50
RG4A

GPR3
3.0
50

G4D

RG3A'
IIvu
RG3M'
GPR3
3.0
55
RG3A
RG3B
RG3D

RG4D

G3G

G4G

RG3G

RG4G

G3J
OOK
OOM

00
G4K
G4M

RG3J
ROOK
RG3M

ROO
RG4K
RG4M

125
1.1

125
1.1

100

100
1.3

G3A
Ivu
OOM
GPR3
3.0
70
G3A
OOB
OOD

G4A
III..
G4M
GPR4
3.0
10
G4A

IN5416
IN54IS
IN5420

60
1.1

....
IN542O'

G4B

t.3

DG3

RG4B

CG3IIlG3
100
t2

1N483B THRU 1N486B
LOW POWER MINIATURE GLASS PASSIVATED
JUNCTION RECTIFIER
Voltage - 70 to 225 Volts Current - 200 Milliamperes
FEATURES
• High temperature metallurgically bonded constructed rectifiers
• 0.2 Ampere operation atTA= 25°C
with no thermal runaway
• TypicallR less than 0.1 11 A
• Hermetically sealed package
• Glass passivated cavity-free junction
• Ideally suited for miniaturized equipment
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed: 350°C/1 0
seconds/.375", (9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

DO-204MB

.02310.6),
.018(0.5)

:-r

1.0 (25.4)

+
HI".

.300(7.6)
.23015.8)

!

.115 (2.92)DIA+1
080(2.0)

•

1~.ol.4)
MIN.

i

MECHANICAL DATA
case: JEDEC DO-204MB One piece glass sleeve
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 gram

Dimension in inches
and

(millimeters)
• BrazecJ.lead assembly Is coverad by Patsnt No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive /oad, derate current by 20%.
SYMBOLS

'Maximum Recurrent Peak Reverse Vokaae
Maximum RMS Voltage
'Maximum DC Blocking Voltage
'Minimum Reverse Breakdown Voltage at 100 IL A
'Maximum Average Forward Rectified Current TA=25°C
.375", (9.5mm) Lead Lengths at
TAo-150°C
'Peak Forward Surge Current 8.3ms single half sine-wavesuperimpased on rated 10adjJEDEC Method)
'Maximum Instantaneous Forward Voltage at 100mA
'Maximum DC Reverse Current
TAs25°C
at Rated DC Blocking Voltage
TA=150°C
T~cal Reverse Recovaery Time (NOTE 4)
Typical Junction Capacnance (NOTE 1)
Typical Thermal Resistance (NOTE 3)
'Operating and Storage Temperature Range

VRRM
VRMS
Voc
VBR
ICAVl
IFSM

VF
IR
TRR
CJ
RaJA
TJ,TsTG

1N483B
70
50
70
80

1N48SB
180
127
180
200
200.0
50.0

2.0
1.0
25.0
5.0
2.0
15.0
81.0
-6510+200

NOTES:

1. Measured at 1 MHz and applied reverse voltage of 4.0 Voc.
2. Available to JAN and JANTX Military Specificaitons Mll-S-I9500/118C.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) lead lengths, P.C. Board Mounted.
4. Reverse Recovery Test Conditions: IF=O.5A, IR=1.0A, Irr=.25A
.·JEDEC Registered Values

-314-

1N486B
225
159
225
250

UNITS

Volts
Volts
Volts
Volts
Mili
Amps
Amps
Volts
nA

!LA
IJ.S
pi
°CIIN
°C

RATING AND CHARACTERISTIC CURVES 1N483B THRU 1N486B

FIG. 2 -

r:
z

10.0

w

,,~

a:
a:

::J

~

I'

w
FIG. 1 -

fa

tlffi

l:! ~

200

FORWARD CURRENT DERATING CURVE

...........

150

00<{

~:::! 100
a:::;:
50

~~

wu

" ....... r-........

60Hz
RESISTIVE OR INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS

WW

0

50

25

~

~~

~~
:s:a:

o<{o<{

r-.......

(!)a:

(!l(/)

TJ = 25°C

6.0

~~

(/)w

.......

a::J

Or:
u. Z

8.3ms SINGLE HALF
SINE-WAVE
(JEDEC) Method

BO

U

fil

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

75

12

40

2.0

l.:

;Ii

........

0..

2

..........
125

100

175

150

i'"

n
11t

TA"I 15

4

6 8 10

20

40

60 80 100

NUMBER OF CYCLES AT 60Hz

200

FIG. 4 - TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS

AMBIENT TEMPERATURE, 'C

100

r:

zw

5.0

a:

L

a:
::J
U

o

.FIG. 3 -

a:

1.0

gjffi

.50

~ff3

TYPICAL REVERSE CHARACTERISTICS

1/

~

pulse Width'" 300 j.J.s
1% Duty Cycle

_=.:::

u.o..

5.0

(/)::;:

I--

TJ - 150°C

~

1.0

(/)W

ww
>0.
w::;:

~

a: 0<{

TJ

aw

"

~

-

W(/)

a: a:

" . i"""

z
~
z0<{

=125oc

r-

.05 0

I

I

~

.01

)1
0.6

(/)0 0.1

TJ

.100

~

'-

125°C -

IL

::Jo<{

0.8

1.0

1.2

1.4

1.6

1.8

2.0

::Ja:

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

~~

FIG. 5 - TYPICAL JUNCTION CAPACITANCE

au

~r:

50

~~

~~

~a

00 1

TJ

0001

n

o

-

25°C

~

20

40

60

80

J

!"...

u.
a.

I'

TJ = 25°C

uj 10
U
Z

~
~

100

120

140

5

0.

(3

PERCENTAGE OF PEAK REVERSE VOLTAGE

f= lMHz
VSIG = 5OmVp-p max.

10

100

REVERSE VOLTAGE, VOLTS

-315-

IN~

I

1N645 THRU 1N649
MINIATURE GLASS PASSIVATED JUNCTION RECTIFIER
Voltage - 225 to 600 Volts Current- 400 Milliamperes
FEATURES
• High temperature metallurgically bonded
constructed rectifiers
• 0.4 Ampere operation
at TA=25·C with no therrmal runaway
• Hermetically sealed package
• Glass passivated cavity-free junction
• Ideally suuited for miniaturized equipment
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed 350·C/l 0
secondsl.375", (9.5mm) lead length at Sibs.,
(2.3kg) tension

DO-204MB

.023£0.6),
.018 (0.5)

.--11.0 (25.4)

+
MIH.

.300(7.6)
.230(5.8)

1~.01.4)
MIN.

MECHANICAL DATA

1

Csse:JEDEC DO-204MB One piece glass sleeve
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 gram

Dimension in inches
and
(millimeters)
• Brszed.fsad assembly Is covered by Patent No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at2S'C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

SYMBOLS
"Maximum Recurrent Peak Reverse VoHage
VRRM
Maximum RMS VoHage
VRMS
Maximum DC Blocking VoHage
Voc
"Minimum Reverse Breakdown VoHage at 100(.!A
TAzl00·C
VBR
"Maximum Average Forward Rect~ied Current
.375", (9.5mm) Lead Lengths at TA=25·C
TA=150·C
I(AV)
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method) IFSM
"Maximum Instantaneous Forward VoHage at 400mA VF
"Maximum DC Reverse Current TA=25·C
at Rated DC Blocking Voltage
TA=100·C
IR
T~pical Junction Capacitance (NOTE 1)
CJ
Typical Thermal Resistance (NOTE 3)
RaJA
Operating Temperature Range
TJ
Storage Temperature Range
TSTG

1N64S
225
156
225

1N646
300
210
300

1N647
400
280
400

1N646
500
350
500

1N649
600
420
600

UNITS
VoHs
VoHs
VoHs

275

360

480

600

720

VoHs

15.0

400.0
150.0

MiIiAmps

15.0
1.0
200.0
20.0
15.0
81.0
-65 to +175
-65 to +200

Amps
VoHs
nA
(.!A
pf

NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 Voe.
2. Available to Jan and Jan TX Military Specifications MIL-STD-19500I240.
3. Thermal Resistance from Junction to Ambient at.37S" (9.Smm) Lead Lengths, P.C. Board Mounted.
" JEDEC Registered Values
-316-

25.0

·CtIN
,·C
·C

RATING AND CHARACTERISTIC CURVES 1N645 THRU 1N649

FIG. 1 - FORWARD CURRENT DERATING CURVE

o
W

~~

400

~

f-o:

OW
Wo..
0:::;:

.......

300

0<

0::::;

~~

FIG. 3 - TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS

~m

o:::J

wO
:;(

/

0
0

100

a

a

25

Ow

15

1/
J

::J<

w

.01
.005

Z
Z

50

75

'\
100

125

150

175

FIG.2 - MAXIMUM NON-REPTITIVE PEAK
FORWARD SURGE CURRENT

u.a.
"'::;:

<
f-

I\.

AMBIENT TEMPERATURE, 'C

.05

0

... I"

60Hz
RESISTIVE OR
INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS

if

0.1

0:
<",
~w
0:0:

.......

200

~~

.5

Z

W

0:
0:
::J

I'" i"oo..

O~

1.0

~

i"oo..

TJ "25°C

Pulse Width =300/.ls
1% Duty Cycle

"

1111

r-....

"

I

.001
0.4

q,S

0.6

0.7

0.8

0.9

1.0

I I III

JEOEC Method

r--.r-.

<
f-

'"

~

I

8.3 ms Single Half Sine-Wave

1.1

r-.... r--.~

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
10

20

40

60

100

NUMBER OF CYCLES AT 60 Hz
FIG, 5 - TYPICAL REVERSE

~

LEAKAGE CHARACTERISTICS

Z
W

0:
0:
::J
0

W'"
",W
0:0:
WW
>a.
W::;:

0:<
",0
::JO:
00

WZ::;:

<
f-

10.0
8.0

4.0

2.0

*

1.0

0--

'"
05

I

:;

I

x

"

I

::;

Z

<
f-

'"

~

w

wI--

100

200

>
~:;~-

r-~

::;

r-

300

1~

~f-

;:r-

;r- ~I

~r-

;;1-~r-

~
~
~
::;

r-

50

~

~r-

~ -- ~r- ~r-

/

5.0

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

-~

150"C

!--

w·-

7.0
6.0

3.0

--

I
II

9.0

§2

oui

x

I-- ::;"

r--.~

TJ

=25"C

10

Z

~

100"C

500

......

C-

(3

~

2S"C
400

I'-..

u.

600

o<

INSTANTANEOUS REVERSE VOLTAGE
VOLTS
1
10

100

REVERSE VOLTAGE, VOLTS

-317-

INsBMIr

1N4245 THRU 1N4249
MINIATURE GLASS PASSIVATED JUNCTION RECTIFIER
Voltage - 200 to 1000 Volts Current - 1.0 Ampere
FEATURES
• High temperature metallurgically bonded constructed rectifiers
'"
• 1.0 Ampere operation "'~
at TA=55°C with
no thermal runaway
• TyplcallR less than 0.1 IJ. A
• Hermetically sealed package
• Capable of meeting environmental standards of
MIL-8-19500
• High temperature soldering guaranteed: 350°C/1 0
seconds/.375~, (9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

DO-204AP

.0341.86) ,
.0281.71)

+

MECHANICAL DATA

Dimensions in inches
and

(millimeters)
• 8razfJd.lead assembly is covered by Pal9nl No.3,9(J(),306 of 1976

Case:JEDEC DO-204AP One piece glass
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 grams

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2SC ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load. For capacitive load, derate current by 20%.
SYMBOLS fN4245

"Maximum Recurrent Peak Reverse VoHage
Maximum RMS VoHaae
"Maximum DC Blocking VoHage
"Maximum Average Forward RectHied Current
.37S", (9.5mml Lead Lengths at TAa5SoC
"Peak Forward Surge Current
8.3ms single haR sine-wave superimposed
on rated load (JEDEC Method)
"Maximum Instantaneous Forward VoHage at 1.0A
"Maximum Full Load Reverse Current, Full Cycle
Average .37S", (9.Smm) Lead Lengths at TAa55°C
"Maximum Reverse Current
TA=25°C
at Rated DC Blocking VoHage
TA_125°C
Typical Junction Capac~ance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
"Operating Temperature Range
"Storage Temperature Range

VRRM
VRMS
Voc

200
140
200

fN4246

I
I
I

400
280
400

fN4247

I
I
I

600
420
600

fN4248

I
I
J

800
S60
800

fN4249

UNITS

11000
I 700
J 1000

Volts
VoHs
VoHs

ICAY)

1.0

Amps

IFsM
VF

SO.O
1.2

Amps
VoHs

IR(AV)

SO.O
1.0
25.0
lS.0
40.0
-65 to +160
-6Sto +200

ItA

IR
CJ
R8JA
TJ
TSTG

NOTES:
1. Available to JAN and JAN TX Military Specifications MI L-S-19500 I 2B6C.
2. Measured at 1 MHz and applied reverse voltage of 4.0 volts.
3. Thermal Resistance from Junction to Ambient at .37S" (9.Smm) Lead Lengths, P.C. Board Mounted.
*JEDEC Registered Values

-318-

ItA
pi
°cm
DC
DC

RATING AND CHARACTERISTIC CURVES 1N4245 THRU 1N4249

FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG. 1 1.0

o

I\,

w

~

off]
Wo:
O:w

.50

0<'

lLf-

,

\

0:

W

>
«

25

50

75

125

.10

«0

05

f-

T

«

I

Z

f-

150

06

50

W

CJ

(fJ

40

O:W

::>0:

U)W

~~

30

««

;;:,.:
a: z

OW

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

"

~

12

10

14

16

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

I I '811~s SINlLE' HJLJ ' II

30

r........

SINE-WAVE (JEDEC METHOD

"'~

lL

a.
u.i

I

I--.

TJ

I 25(C'

10.0

o
z
«
fG

........
...... 1--.

20

~

lLO:
",0:

~B

08

«
o

10

f" lMHz

11.

1.0

VS1G = SOm Vp-p max

1.0

1.0

10.0

10.0

100

f-'

z

W

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS
10.0
TJ - 125°C

0:

::>

o

wU)
U)W
0: 0:

WW

> a..

4.0
10
.

I

."

~

0.4

W::<

TJ - 75°C

0:«

3~

0.1

00
~~

04

~
Z

01

~

U)

...
20

100

REVERSE VOLTAGE. VOLTS

NUMBER OF CYCLES AT 60Hz

0:

18

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

AMBIENT TEMPERATURE. 'C
FIG. 3 -

PULSE WIDTH = 300115 2% DUTY CYCLE
I

Z
175

-

25°C

TJ

01

U)

\
100

5~

~~

\.

60Hz
RESISTIVE OR
INDUCTIVE LOAD .375"
(9.Smm) LEAD LENGTH

0.2

I

U)Z

\.

OA

lLo:
wO:

~G

-7

I

>11.
11:::<

~«

~f-'
oai

./

~~
«W

\.

O~ 0.8

20

10.0

0:U)

).

0·8

o

u:
i=
oW

w

FORWARD DERATING CURVE

TJ

40

60

80

~

25°G

100

120

PERCENT OF RATED PEAK REVERSE VOLTAGE

Z

-319-

140

1N5059 THRU 1N5062
MINIATURE GLASS PASSIVATED JUNCTION RECTIFIER
Voltage - 200 to 800 Volts Current - 1.0 Ampere
FEATURES
• High temperature met~lIurgicallY bonded constructed rectifiers '."

DO-204AP

.0341.86)
• 0281.71)

I

• 1.0Ampereoper~
ation at TA=75°C
with no thermal runaway
• TypicallR less than 0.1 11 A
.
• Hermetically sealed package
• Glass passivated cavity-free junction DO-204AP
package
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/l0 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

+

MECHANICAL DATA

case: JEDEC DO-204AP One piece glass

Dimensions in inches
and

Tennlnals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting PosUlon: Any
Weight: .02 ounce, .56 grams

(millimeters)
• Brazed-lead assembly Is _ered by Parent No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load. For capacitive load, derate current by 20%.

"Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
"Maximum DC Blocking Voltage
"Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA-75°C
"Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
"Maximum Instantaneous Forward Voltage at 1.0A
"Maximum Full Load Reverse Current, Full Cycle
Average .375", (9.5mm)
TA-25°C
Lead Lengths at
TA=75°C
"Maximum DC Reverse Current
,TA-25°C
at Rated DC Blocking Voltage
TA=175°C
Typical Reverse Recovery Time (NOTE 1)
Typical Junction Capacnance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
"Operating and Storage Temperature Range

SYMBOLS

1N5DS9

1N5l160

1N5061

VRRM
VRMS
Voc

200
140
200

400
280
400

600
420
600

1N5062

I
I
I

800
560
800

UNITS
Volts
Volts
Volts

ICAVl

1.0

Amps

IFSM

50.0
1.2

Amps
Volts

VF

5.0
IR(AV)

150

I

100

I1A

a:

~

.... a:
wa:

~a

W
ell/)

....

,,~

50

FIG. 1 - FORWARD CURRENT
DERATING CURVE

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

o
1.0

10.0

100

NUMBER OF CYCLES AT 60Hz

150 175

AMBIENT TEMPERATURE.·C

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

30

0

....

Q.

ui
0

J

0

III

"""

roo..

ITJ I.

Js!J

10.0

Z

«

I-

0
~

1

-

,,

.01
.4

.6

.8

1.0

1.2

1.4

FIG. 8 -

W

o
Z

a: a:

:5~

WW

« I~~

>Il.

1.0

0A

600
600

.....

400

100
90

ilio
a:1l.

40

~

.01101£:::::.......L_ _..1.._---JL-_....I.._ _.L._---1_----l
20

40

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

'"

200

.........

~
:"01

l'iiio...
"'II

80

TJ '" 25°C

l<:

.04

IWIUIUII NON-REPE1111VE REVERSE
AVALANCHE POWER DISSIPATION

1000

lJla:Wci
W:=

~:i

ia

100

1.6

:I:

~!:!

10.0

REVERSE VOLTAGE. VOLTS

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

55

III m
1.0

WI/)
I/)W

!:!~

f-1.DMHz
VIig-6Om\lJ>p

1.0

TJ 25'C
Pulse Width = 3OO1J s 2% Duty CyCle

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

1/)0

r-

«
0

J

20

Il.

10
10

20

40 60 90 100 200 400 600 1000 2000 4000 10000

PULSE DURATION MICROSECONDS

I~
-321-

1N5614 THRU 1N5622
MINIATURE GLASS PASSIVATED
MEDIUM-SWITCHING JUNCTION RECTIFIER
Voltage - 200 to 1000 Volts Current - 1.0 Ampere
FEATURES
• High temperature metallurgically bonded constructed rectifiers
"~,

DO-204AP
.034 (,861
.0281.711

I

• 1.0 Ampere operation '~
at TA= 55°C with
no thermal runaway
• TypicaliR less than 0.1 ~A
,
• Hermetically sealed package
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C110 secondsJ.375", (9.5mm) lead length at
5Ibs., (2.3kg) tension

+

MECHANICAL DATA
Dimensions in inches
and
(millimeters)
• Brazed.fead assembly is covered by Patent No. 3,930,306 of 1978

case: JEDEC D0-204AP One piece glass
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 grams

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S·C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load. For capacitive load, derate current by 20%.
SYMBOLS IN5614

'Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
'Maximum DC Blocking Vokage
'Minimum Reverse Breakdown Voltage at 50 11 A
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=55·C
'Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
'Maximum Instantaneous Forward Voltage at 1.0A
'Maximum DC Reverse Current TA=25·C
at Rated DC Blocking Voltage TA=100·C
TA=200·C
'Maximum Reverse Recovery Time (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 4)
'Operating Temperature Range
'Storage Temperature Range

VRRM
VRMS
Voc
VBR

200
140
200
220

INSSIS

1N5618

400
280
400
440

600
420
600
660

1N5S20
800
560
800
880

1N5S22
1000
700
1000
1100

UNITS
Voks
Voks
Voks
Volts

I(AV)

1.0

Amps

IFSM
VF

50.0
1.2
0.5
25.0
1500
2.0
35
25
20
40.0
-65 to +175
-65 to +200

Amps
Volts

IR
TRR
CJ
RSJA
TJ
TSTG

45

I

IlA
jlS

I

NOTES: 1. Reverse Recovery Test Conditions: IF=O.SA, IR=1.0A, Irr=.2SA.
2. Measured at 1 MHz and applied reverse voltage of 12 volts.
3. Available to Jan and Jan TX Military Specifications MIL-S-19500/427.
4. Thermal Resistance from Junction to Ambient at .37S" (9.Smm) Lead Lengths, P.C. Board Mounted .
•JEOEC Registered Values

-322-

15

pf

°CIW
·C
·C

RATING AND CHARACTERISTIC CURVES 1N5614 THRU1N5622

FIG. 2- MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT

FIG. 1 - PORWARD CURRENT
DERATING CURVE

'"
60Hz

W

0375" (9.5mm) LEAD LENG~HS

75

100

125

00

~fB

"1\1\

RESISTive OR
INDUCTIVE LOAO

50

50

f'"

~

;:)11:

enl£l
0::::E
~c(

30

offi

20

~.,.:

TA = 55-C,
8.3ms SINGLE HALF
tNE-WAVE (j-,roec
Mo1had)

' ....

... 11:
~II:

~i3

10

a..

r\

150

10

100

NUMBER OF CYCLES AT 60 Hz

175

AMBIENT TEMPERATURE.·C
FIG. 3-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG. 4- TYPICAL JUNCTION CAPACITANCE
30

...

T..lliO"C

i~

T..-25"C

J_

tS

PUlSE W1DTH-3OOpo
2%DUTYCVCU;

I
6

II

~.JJT

'1-0

~'0.o

J I

.4

.......

Q.

8

10

12

1.4

-1a1.aMHz
-

Voig-SOmlfl>p

1.0
5.0

1.0

10.0

50

100

REVERSE VOLTAGE, VOLTS

16

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

~

FIG. 5- TYPICAL REVERSE CHARACTERISTICS

w

I~~~

i3wen

K!~

10

~~

0.4

~g

01

1I:c(

Z::::E 04

~

W

~
;1!:

w

1;!lil~I~~ii~~~;~;

.01 ~_~_---:/;----,.,\-_-.!;_--::::/;----,±-_~

PERCENT OF RATED PEAK REVERSE VOLTAGE

-323-

I~

G1ATHRU G1M
MINIATURE GLASS PASSIVATED JUNCTION RECTIFIER
Voltage- 50 to 1000 Volts

Current- 1.0Ampere
FEATURES

• High temperature metallurgically bonded
constructed rectifiers
• Glass passivated cavity-free Junction in
DO-204AP package
• Hermetically sealed case"
• 1.0 Ampere operation
~
at TA=55°C with no thermal runaway
• TypicallR less than 0.1 Jl A
.
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 secondsl.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

DO-204AP

C"

MECHANICAL DATA
C8se:JEDEC D0-204AP One piece glass
Tennlnals: Plated Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 grams

Dimensions in inches
and
(millimeters)

• Brazed.Jead assembly is covered by Patent No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%
SYMBOLS GIA

Maximum Recurrent Peak Reverse Vokage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current, .37S"
(9.Smm) Lead Length at TA=SSoC
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Vokage at 1.0A
Maximum Full Load Reverse Current, Full Cycle
Average, .37S",{9.Smm) Lead Length at TA=100°C
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=lS0°C
Maximum Reverse Recovery Time (NOTE 1) TJ=2Soc
TY!>ical Junction Capac~ance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

GIB

IR{AV)
IR
TRR
CJ
R8JA
TJ,TSTG

GIG

GlK

GIAf UNITS

Amps

1.0

SO.O
1.1

1.21

200.0
2.0
100.0
2.0
15.0
40.0
-6S to +17S

NOTES:
1. Measured with IF= 0.5A, IR=I.0A,lrr=.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.

-324-

GU

180011000 Volts
IS60 1700 Volts
SO 1 70 120014001600 180011000 Volts

I(Av)

IFSM
VF

GID

so L100J200 14001600
3S 1 70 1140 1 280 I 420

Amps
Volts

I1A
I1A
lIS
pf
°cm
°c

RATINGS AND CHARACTERISTIC CURVES G1A THRU G1M

FIG. 2- MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
50

FIG.1-FORWARD CURRENT
DERATING CURVE

W
Clen
a:W
::Ja:

r\,

C ...

50

75

100

a:~

"

«

\
125

a:Z
OW
u.a:
:.:a:

1:58
...

\

150

20

10

175

FIG. 3- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG. 4- TYPICAL JUNCTION CAPACITANCE

10.0
30

8
c
a:

T"..15O"C
rJ)

@

J

0.1

Z

~

J

II
.4

r--

1.0

2% DUTY CYCLE

6

1.0

III

t. ~.hl

""'r--

0t-- ,"",.OMHz
Vsig-50mVp-p

TJ_25OC

PULSE WIDTHoo3OO~.
.01

r-....

0

1.0

a: W
oBi
u.
...
en~
::J<

~
~

'00

NUMBER OF CYCLES AT 60 Hz

a:
a:

~

Mel"ad)

~

10

AMBIENT TEMPERATURE,·C

!iw

TA co 55°C
.8.3ms ~lNGLE HALF
INE-WAVE (~_EOEP

30

5;~

\

25

f'"

enw

1\

60Hz
RES)STIVE OR
INDUCTIVE LOAD
0.375- (9.5mm) LEAD LENG"THS

40

1.2

1.0

5.0

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

!i

FIG. 5- TYPICAL REVERSE CHARACTERISTICS

8

wen
enw
a:: ex:

WW

1.0

a; ~ 0.4
a:<

eno
a::
@!,;!

:J

0.1

Z::;; .0'

~
Z

~
~

.01

10.0

50

REVERSE VOLTAGE, VOLTS

141.6

nL---.~.--.k---.~--~.-~d,--~~--~
PERCENT OF RATED PEAK REVERSE VOLTAGE

-325-

100

G2A THRU G2M
MINIATURE GLASS PASSIVATED JUNCTION RECTIFIER
Voltage - 50 to 1000 Volts Current- 2.0 Amperes
FEATURES
• High temperature metallurgically bonded
constructed rectifiers
• Glass passivated cavity-free junction in
DO-204AP package
• Hermetically sealed case
• 2.0 Ampere operation
at TA= 75°C with no thermal runaway
• TypicallR less than 0.1 11 A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5Ibs., (2.3kg) tension

DO-204AP

.034 (.86) •
.028 (,71)

MECHANICAL DATA
C8se:JEDEC DO-204AP One piece glass
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 grams

Dimensions in inches

and

(millimeters)

• Brazed·/ead assembly is covered by Patent No. 3,930,306 011976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%
SYMBOLS

Maximum Recurrent Peak Reverse Vokage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current, .375"
(9.5mm) Lead Length at TA=75°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 2.0A
Maximum Full Load Reverse Current, Full Cycle
Average, .375", (9.5mml Lead Length at TA=100°C
Maximum DC Reverse Current
at Rat.ed DC Blocking Voltage
Maximum Reverse Recovery Time (NOTE 1) TJ=25°C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

G2A

G2B

G2D

G2G

G2J

G2K

G2M UNITS

50 11001200 14001600180011000 Volts
35 I 70 1140 1280 1420 1560 1700 Volts
50 1100 1200 1400 1600180011000 Volts
2.0

I(AV)

IFSM
VF

Amps

50.0
1.2

I

1.1

Amps
Volts

IR~V)

100.0

~

IR
TRR
CJ
RaJA
TJ,TsTG

1.0
2.0
15.0
40.0
-65 to +175

IIA

NOTES:
1. Measured with IF=0.5A, IR=1.0A, Irr=.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 VDC.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths,

-326-

p.e. Board Mounted.

..

J.1S
pf

°CIW
°C

RATINGS AND CHARACTERISTIC CURVES G2A THRU G2M

FIG.2_MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
50

FIG. 1 - FORWARD CURRENT
DERATING CURVE

0

UJ

UJ
elCll
a:UJ
:::la:
CIlUJ
00.
a:::'
««
~o--'
a:Z
OUJ
u.a:
",a:
«:::l
UJU

u:

i=CIl
UUJ
UJa:
a:UJ
00.
a:::'
««
~.
a:f-

om

u.a:
UJa:
el:::l
«U
a:
UJ
>
«

2.0
1.5
1.0
0.5

40

~~
i'"

30

TJ.7f;0.
UJ::;:
.4
a:«
CIl0
::l

a:

@g

~

~

~

~

===

T....7SOC

01

Z::;: 04

g
«

t;
~

TJ-25"C

r--

~

.01

0

20

40

60

60

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

-327-

IN~MIr

1N5550 THRU 1N5554
GLASS PASSIVATED JUNCTION RECTIFIER
Voltage • 200 to 1000 Volts Current· 3.0 Amperes
FEATURES
•
•
•
•

Glass passivated cavity-free Junction
High temperature metallurgically bonded
Hermetically sealed package
Capable of meeting
environmental
standards of
MIL-S-19500
• Medium switching for
good efficiency
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length
at 5 Ibs., (2.3kg) tension
.042 11.07J +
.038 1.962) •

MECHANICAL DATA
Csse:One piece glass
Tennlnals: Plated Axial leads, solderable per

MIL-STO-202, Method 208

Dimensions in inches and (millimeters)

Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .037 ounce, 1.04 grams

• Brazed4ead assmnbly is coveted by Patent /Va. 3,930,306 of 1976

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

SYMBOLS INSSSO
"Maximum Recurrent Peak Reverse Vottage
200
VRRM
Maximum RMS Vottage
140
VRMS
"Maximum DC Blocking Voltage
200
Voc
"Minimum Reverse Breakdown Voltage at 50 11 A
240
VBR
"Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA-55'C
itA\/}
Peak Forward Surge Current
8.3ms single half sine·wave superimposed
on rated load (JEDEC Method)
IFSM
" Maximum Instantaneous Forward Vottage at 3.0A
VF
"Maximum DC Reverse Current TA~25'C
at Rated DC Blocking Voltage TA-100°C
TA=200°C
IR
"Maximum Junction Capacitance (NOTE 2)
CJ
150
"Maximum Reverse Recovery Time (NOTE 1) TJ=25°C
TRR
Typical Thermal Resistance (NOTE 4)
RaJA
"Operating and Storage Temperature Range
TJ,TsTG

INSSSI

400
280
400
460

1NS552
600
420
600
660

lN5S53
800
560
800
880

1N5SS4
1000
700
1000
1100

3.0

Amps

100.0

I

1.0

I

120
2.0

1.0
25.0
1500.0
100

IINITS
Votts
Votts
Volts
Volts

1.1

Amps
Volts

I1A

I

15.0
·65 to +200

90

I

85
4.0

pi
Jl.S
°cm
·C

NOTES:
1. Reverse Recovery Test Conditions: IF=O.5A, IR=I.0A, Irr=25A.
2. Measured at 1 MHz and appned reverse vol1age of 12.0 vollS.
3. Available to JAN and JAN TX Military Specifications MIL·ST·19500/420A.
4. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead lengths, with both leads mounted between heat sinks.
"JEDEC Registered Values

·328·

RATINGS AND CHARACTERISTIC CURVES 1N5550 THRU 1N5554

FIG. 2 200

FIG. 1 - FORWARD CURRENT
DERATING CURVE

fa

5.n

u::

§ fa

Wa:
a:w

"'-""-K"lrT;:;-L~.L:-;;E~A;:D-;:T~EM;;:P;'E;;;R:;AT:;;U-';R;;;E:--'
L ::

w
a:W
::Ja:
(l)W
00.
a:;';

.37.~~.5mm)

"'"

4.0 1--+--+--'lI'Io::-1r-lr-_[1=O{lILI--

o~u

!i «

~ .,.: 2.0

l5 ~

~!Ii 1.0
::J

o

......

~~~~~
TA, AMBIENT
TEMPERATURE

. mm x 20mm

+-"''''Io::::-+-......:l-x 1mm Cu.

25

>
0(

50

75

100

....

:.....

Q.

RES\STlVE'OR IN'DUCTIVE LOAD·
0.375" (9.5mm) LEAD LENGTHS

a:

-

50

~

.375"(9.5"",) LEAD LENGTHS -\.-":~OO::=~:--I

W

8.3Js Sinr,e !alf lila I

Wave IJEOEC Method)

100

a:Z
OW
u.a:
",a:
.. ::J
wU

P.c SoARDMOUNTED.

..::( ()

MAXIMUM NON·REPETITIVE
PEAK FORWARD SURGE CURRENT·

10.0
1.0

125

150

175

5.0

200

10.01

50

100

NUMBER OF CYCLES AT 60 Hz

TEMPERATURE.oC
Fig. 4-TYPICAL JUNCTION CAPACITANCE
100
TJ::2S"C

50

......... ~

u.
0.
ui
Z

u

..
if

U

50

~
Z

TJ:: 150"C

10.0

...........

;:!:

Fig. 3-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

I-

""""

10.0

A

1.0

5.0

FIG. 5 3.0

J J

a:

~~

a: a:
Ow
u.Q.

10.0

50

n

30

TJ= 1500~

10.0

1..1

(I);';

::J ..

oW

..
..
Z

TJ "12S'C-O. 3

I

II-

(I)

1

~

1

II I

Z

I

Pulse Width:: 300t,.( S
2% Duty Cycle

I

i

I

1::
3

1

I-'" ,

I

I
0.2040.608

1012

100

TYPICAL REVERSE CHARACTERISTICS

TJ = 25°C

1'1

10

"""

REVERSE VOLTAGE. VOLTS

a:
a:
::J

o

I"-r-

5.0

W

U

I. 1.0 11Hz
V oIg .1iOml/pf>

i"'"

U

TJ = 75~C

0. 1

1416

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

c---".

V

1

,
TJ = 25°C

./
o

20

40

60

80

-[

100

r-120

140

PERCENT OF RATED PEAK REVERSE VOlTAGE

·329·

1N5624 THRU 1N5627
GLASS PASSIVATED JUNCTION RECTIFIER
Voltage - 200 to 800 Volts Current - 3.0 Amperes
FEATURES
• Glass passivated cavity-free junction
• High temperature metallurgically bonded constructed rectifiers
• Hermetically sealed package
• Capable of meeting
environmental
standards of
MIL-S-19500
• TypicallR less than 0.1 11 A
• 3.0 Ampere operation at TA=70°C with no thermal
runaway
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length
at 5 Ibs., (2.3kg) tension

1

1.0 MIN.
[25.41

.170 'I

1~01.61

.250 [6.31
[4.31

+

.%~Cl.31 , . .
•
(1.21

1.0 NIN.
(25.4)

1

MECHANICAL DATA
case: One piece glass
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .04 ounce, 1.1 grams

Dimensions in inches
and

(millimeters)
• Brazed-lead assembly is covered by Patent No. 3,930,306 of 1976

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, hall wave. 60Hz. resistive or inductive load.
For capacitive load. derate current by 20%.
SYMBOLS

'Maximum Recurrent Peak Reverse Vokage
Maximum RMS Volt~ge
'Maximum DC Blocking Voltage
'Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=70°C
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
'Maximum Instantaneous Forward Voltage at 3.0A

VRRM
VRMS
Voc

1N5624
200
140
200

I

1
I

1N5625
400
280
400

I
I
I

1N5626
600
420
600

I
I
I

1N5627
800
560
800

UNITS
Volts
Volts
Volts

ICAV)

3.0

Amps

IFSM

125

Amps

TA~25°C
1.0
Volts
0.95
TA=70°C
VF
'Maximum Reverse Current
TA=25°C
5.0
at Rated DC Blocking Voltage
300.0
TA=175°C
IR
200.0
JIA
I
'Maximum Full Load Reverse Current, Full cycle
150.0
Average, .375", (9.5mm) lead length at TA=70°C
100.0
IR(AV)
IlA
Typical Junction Capacitance (NOTE 1)
40.0
CJ
pf
Typical Thermal Resistance (NOTE 3)
RSJA
15.0
°CIW
'Operating Temperature Range
TJ
-65 to +175
°C
'Storage Temperature Range
-65 to +200
TSTG
°C
NOTES: 1. Measured at 1.0 MHz and applied reverse voltage 01 4.0 Vec.
2. Available to JAN and JAN TX Military Specifications MIL-S-19500I432.
3. Thermal Resistance lrom Junction to Ambient at .375" (9.5mm) Lead Lengths. with both leads attached between
heatsinks.
'JEDEC Registered Values

I

-330-

RATINGS AND CHARACTERISTIC CURVES 1N5624 THRU 1N5627

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT
FIG. 1 -

..:
z

FORWARD CURRENT DERATING CURVE

Ul

a:
a:

.0

:::J

200
8 3ms SINGLE HALF
SINE-WAVE
(JEDEC METHOD)

t'-.......
100

o

w

0

"'HALF WAVE
60 Hz

0

§~

50

25

'"

100

75

50

(/)Ul

~~
««

~

~
ou..

~

RESISTIVE OR INDUCTIVE LOAD
0.375" (9.5mm) LEAD LENGTHS

0

.....

(!l(/)

125

150

10

'"

175

s.o

1.0

~

AMBIENT TEMPERATURE. ·C

100

50

10.0

NUMBER OF CYCLES AT 60Hz

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

- ,

100

u..
c.
ui

FIG. 3- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
30

~

~

A

10.0

~

~

w

a:

,,

3.0

a:

«

~~

offi
u..a.

1.1MHz
VIlg • 50mVp·p

TJ = 25°C

.... ~~

10.0

s.0

If

TJ • 150'C /

""'"

~

Z

aoa:

50

o
~
I-

1.0

5.0

10.C

,00

50

REVERSE VOLTAGE. VOLTS

1.0

Ul::;

=> «

0

z

O. 1

@
z
...«

~

I

I

I

I

/ I

,..:

Pulse Wtdth" 300/.1.5
2°0 Duty CYCle

a:
a:

a

~

UlUl
(/)w

I

a: a:

I
.01
.02

ww

I

0.6

4.0
:TJ • 100":'C

,

>a.
w::;

I
004

FIG. 5- TYPICAL REVERSE CHARACTERISTICS

Z

Ul

a:«

08

10

12

14

16

INSTANTANEOUS FORWARD VOLTAGE. VOLTS

'TJ' '5·C

UlO

~

::>a: 0

00
~::;

...«z

~

~

-

20

. Tr 25°C
40

60

80

'00

r--'20

'40

PERCENT OF RATED PEAK REVERSE VOLTAGE

IN~
-331-

G3ATH·RU G3M
GLASS PASSIVATED JUNCTION RECTIFIER
Voltage - 50 to 1000 Volts Current- 3.0 Amperes
FEATURES
• High temperature metallurgically bonded
constructed rectifiers
• Glass paSSivated cavity-free junction
• Hermetically sealed package
• 3.0 Ampere operation
at TA= 70°C with no thermal runaway
• TypicallR less than 0.1 J.l A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 secondsl.375", (9.5mm) lead length at
5Ibs., (2.3kg) tension

i

1.0 MIN.
(25.4)
250 (6.3)
.110 (4.3)

1~01.61

'I

+

.052 (1.3) , . .

•048 n.21

1.0 NIN •

(25.41

1

MECHANICAL DATA

Dimensions in inches

Case: One piece glass, hermetically sealed
Terminals: Plated Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .04 ounce,1.1 gram

and

(millimeters)
• Brazed-lead assembly is covered by Pal9fl1 No. 3,930,306 of 1976

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
SYlltBOI.S G3A

Maximum Recurrent Peak Reverse Voltaae
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current, .375"
(9.5mm) Lead Length at TA=70'C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 3.0A
Maximum Full Load Reverse Current, Full Cycle
Average, .375", (9.5mm) Lead Length at TA=70'C
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=150°C
Typical Reverse Recovery Time (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

G3B

G3D

I(AY)

IFSM
VF
IRcAy)
IR
TRR
CJ
ReJA
TJ,TsTG

G3G

G3J

G3K

G311 UNITS

50 1100J200 14001600 180011000 Volts
35 I 70 1140 1280 1420 1560 1700 Volts
50 1100 1200 1400 1600 1800 11000 Volts
3.0

Amps

125.0
1.2

I

1.1
200.0
5.0
100.0
3.0
40.0
15.0
-65 to +175

Amps
Volts

r.tA

ItA
I1S

pi
°CIW
'C

NOTES:
1. Measured with IF=O.5A, IR=IA.lrr=.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voe.
3. Thermal Resistance from Junction to Ambient at.375" (9.5mm) Lead Lengths, with both leads mounted between healsinks.

·332-

RATINGS AND CHARACTERISTIC CURVES G3A THRU G3M

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

zt-'
w
a:
a:

200

lltllllil

a '100

8.3 mSec Single Half

w

Sine-Wave
(JEDEC) Method

c.?(I)

~

a:w

FIG. 1-FORWARD CURRENT DERATING CURVE

iil ffi

w
a:
a:

a

4.0

~(I)

3.0

'"LiS

~

~ffi2.o
a:::;;

««
w

~

HALF WAVE

1.o

0

I

~~~~STIVE OR

INDUCTIVE LOAD
0375" (S.Smm) LEAD LENGTHS

25

0

50

75

10

Q.

ClQ.

~

'"

~

w

u::

......

~

Cl

ou.

....

50

~~

««

'"

100

~

~

125

10.0

100

50

NUMBER OF CYCLES AT 60 Hz

~

150

FIG. 4- TYPICAL JUNCTION CAPACITANCE

175
100

AMBIENT TEMPERATURE. °C

W

>

5.0

1.0

«

......

....
TJ = 25°c

.......... ~

!"iii""

t-1.OMHz

FIG. 3- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

Vslgo5O""",,

0
30

t-'

z

~

A

10.0

5.0

1.0

a:

FIG. 5- TYPICAL REVERSE CHARACTERISTICS

Ow
u.Q.

0

(I)::;;

I

::J « o.3
@
z

z

100

50

I

TJo15QOC /

~ffll.o
a: a:

~

10.0

,,

ao

Cl

~

5.0

REVERSE VOLTAGE, VOLTS

w
a:
a:

a

~

I

I

I

TJ '; 1000C

I I

o.1

a

Pulse Width = 300 /J. S
2% ~uty Cycle

_ T J 0 7 50 C

~

1

I

I

4

I

I

.01

.02

OA

0.8

1

0.8

10

1.2

14

-

20

1.6

",- 25°C _
40

6D

6D

100

-

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

INSTANTANEOUS FORWARD VOLTAGE. VOLTS

INsHMir
-333-

G4A THRU G4M
GLASS PASSIVATED JUNCTION RECTIFIER
Voltage - 50 to 1000 Volts

Current· 3.0 Amperes
FEATURES

+ High temperature metallurgically bonded
constructed rectifiers

+ Glass passivated cavity-free junction

.042 (1. 07)
.038 £.962) ,

• Hermetically Sealed package
• 3.0 Ampere operation
at TA=7SoC with no thermal runaway
• TypicallR less than 0.1 ~ A
• Capable of meeting environmental standards of
MIL-S-19S00
• High temperature soldering guaranteed:
3S0°C/10 seconds/.37S", (9.Smm) lead length at
Sibs., (2.3kg) tension

4-

MECHANICAL DATA

case: One piece glass

Dimensions in inches
and
(millimeters)

Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
PolarIty: Color band denotes cathode
Mounting Position: Any
Weight: .037 ounce, 1.04 grams

• Brazed.fead assembly is covered by Patent No. 3,930,306 of 1976

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25"C ambient temperature unless otherwise specified.
Single phase, half wave, 60Hz, resistive or inductive load.
For capacitive load, derate current by 20%
SYMBOLS G4A

Maximum Recurrent Peak Reverse VoHage
Maximum RMS VoHage
Maximum DC Blocking VoHage
Maximum Average Forward Rectified Current, .375"
(9.5mm) Lead Length at TA=70"C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 3.0A
Maximum Full Load Reverse Current Full Cycle
Average, .375", (9.5mm) Lead Length at TA=70°C
Maximum Average Reverse Current at Peak TA=25°C
Reverse Voltage TA=100°C
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=100°C
Typical Reverse Recovery Time (NOTE 2) TJ=25°C
Typical Juncticn Capacitance (NOTE 1)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

G4B

G40

G4G

G4J

G4K

G4M UNmJ

50 110012001400 600 1 800 11000 vons
35 1 70 1140 1280 420 1560 1 700 Volts
50 11001 200 I 400 600 1800 11000 Volts

I(AV)

3.0

Amps

IFSM
VF

100.0
1.1

Amps
Volts

IR(AI!)

200.0
5.0
100.0
1.0
100.0
3.0
40.0
15.0
-65 to +175

J,LA

IR(AV)
IR
TRR
CJ
R8JA
TJ,TsTG

J,LA
J,LA
J.lS
pf

°CfW

NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 Volts.
2. Reverse Reoovery Test Conditions: IF=O.SA, IR=I.0A, Irr=.25A.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths with both leads mounted between heatsinks.
-334-

°C

RATINGS AND CHARACTERISTIC CURVES G4A THRU G4M

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK
FORWARD SURGE CURRENT
-200

831. S'~,. !." J,l. I

Wave (JEOEC MethOd)

Fill. 1-FORWARD CURRENT DERATING CURVE
0

i'...
8CiHz

,......

~ro...

25

50

75

10.0

"- ~

Resistive or
Inductive Load
.375". (9.Smm) Lead Lengths

100

125

150

1.0

6.0

10.0

50

'00

NUMBER OF CYCLES AT 60 Hz

175

Fill. 4-TVPICAL JUNCTION CAPACITANCE

AMBIENT TEMPERATURE, "C

'00
TJ = 25°C

....C>

50

ui

.......... 10...

I. 1.0 MHz

YoIg.1iOmI/J>1>

(,)

z

(3

if

«
(,)

50

~

~
w

TJ = IS0DC

10.0

U

~

~(/)
II:O~
u..~

/'
,
I
I
/ I

1.0

(/)::i!
::J«

fil

z
«

!z

«
t;;
~

~

TJ

~

,

,

.03

I

I

,
0.2

04

30

TJ = 150°;"""-

........,

.,

TJ

~

'25°C-

-

Pulse Width = 300 p. s
2% Duty Cycle

0

_........
0.8

100

./

10.0

,
06

50

TYPICAL REYERSE CHARACTERISTICS

25"C

I

0.3

10.0

5.D

~

REVERSE VOLTAGE, VOLTS
FIG. 5 -

ao

II:

~ f..

10.0

5.0
1.0

A

II:
II:
::J

o

......... ~

~

Fill. 3-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

1.0

1.2

14

o.

1.6

,

TJ = 75°C

,

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

,

I.......... k-""
o

20

40

60

--

TJ
"""

80

= 2rC-

100

~

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

IN~
-335-

-336-

HIGH VOLTAGE GLASS
PASSIVATED RECTIFIERS
1.0 AMPERE TO 3.0 AMPERES
1200 VOLTS TO 1600 VOLTS

I

- - - - - - - INsrn.

tl! ~
enO

0.4

::lao

fil~ 0.1

~
LU ~
LU

.04
1.0

~

«

~

.01

===

TJ

~ 125"C

!~~I!![~~~~~i~i~~~~~
TJ

~ 25"C

I.!---=-:'---L---c'---...:':----:~--L---'
20

40

60

80

100

120

140

~

PERCENT OF RATED PEAK REVERSE VOLTAGE
FIG. 6 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM
INPUT

--.r-;=6:: I

INPUT

u',

J-C:sL

PULSE GENERATOR
HP MODEL 214

OR eQUIVALENT

SQUARE WAVE

OUTPUT
CURRENT PROBE TEKTRONIX TYPE 134
OR eQUIVALENT TO OSCILLASCOPE

-339-

OUTPUT

idJ,
t;-

1-.-

INsr~

G11-1200 THRU G11-1600
MINIATURE HIGH VOLTAGE GLASS PASSIVATED JUNCTION RECTIFIER
Voltage - 1200 to 1600 Volts
Current - 1.0 Ampere
FEATURES
0o-204AP
.0341.86) ,
.0281.71)

• High temperature metallurgically bonded constructed rectifiers
"'<
• Glass passivated cavity- '~
free junction in DO-204AP
package
• 1.0 Ampere operation at
TA= 75°C with no thermal runaway
• TypicallR less than 0.1 J.L A
• Hermetically sealed package
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C/10 secondsl.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

MECHANICAL DATA
Dimensions in inches and (millimeters)

• 8razed-lead assembly is covered by Patent No. 3,930,306 of 1976

case: JEDEC DO-204AP One piece glass
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 grams

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
60 Hz Resistive or inductive load. For capacitive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=75°C
Peak Forward Surge Current 8.3ms single half sine
-wave superimposed on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 1.0A
3.14A
Maximum DC Reverse Current TA=25°C
at Rated DC Blocking Voltage TA=100°C
Maximum Reverse Recovery Time (NOTE 1)
Maximum Forward Recovery Time (NOTE 2)
Typical Junction Capacitance (NOTE 3)
Typical Thermal Resistance (NOTE 4)
Operating Storage Temperature Range

VRRM
VRMS
Voc

GI1·1200
1200
840
1200

G11·14OD
1400
980
1400

G11·16OD
1600
1120
1600

I(AV)

1.0

Amps

IFSM

30.0
1.1
1.3
10.0
100.0
25.0
1.0
15.0
40.0
-65 to +175

Amps

VF
IR
TRR
TFR
CJ
RaJA
TJ,TsTG

NOTES:
1. Measured on Tektronix Type os· recovery plug-in Tektronix 545 Scope or equivalent IFM=20 rnA, IRM= 2mA.
2. Measured on Tektronix Type oS· recovery plug-in, Tektronix 545 or equivalent, IFM = 2OmA.
3. Measured at 1 MHz and applied reverse voltage of 4.0 Voc.
4. Thermal Resistance from Junction to Ambient at .375' (9.Smm) Lead Lengths. P.C. Board Mounted.

-340-

UNITS
VoHs
Volts
VoHs

Volts

IIA
Jls
JlS
pf
°CIW
°C

RATINGS AND CHARACTERISTIC CURVES G11-1200 THRU G11-1600

FIG. 2 - MAXIMUM NON REPETITIVE
PEAK FORWARD SURGE CURRENT

FIG. 1 - FORWARD CURRENT
DERATING CURVE

50

W
(!)C/l
a:W
::Ja:
C/lW
0""

a:::;

40

30

«

3:":a:Z
OW
LLa:

""

.......

TJ-25'C

""

At No Load

TJ = 175°C
At Rated Load I
'0

1

""'~Vron
I"......... 1--.",

~r-.I'-

20

~a:

<::J
wU

""~

8.3ms Single Halt Sine-Wave
(JEDEC Method)

crri Ii

10

100

NUMBER OF CYCLES AT 60Hz
60

20

AMBIENT TEMPERATURE, °C

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

FIG. 3 - TYPICAL INSTANTANEOUS
FOWARD CHARACTERISTICS
10.0

f

TJ:: 150°C

0'

j

,

I I

j

I

TJ'" 25°C

I

.01
.4

.6

-

10

-

REVERSE VOLTAGE, VOLTS

TJ - 25°C
Pulse Width co 300/J s 2% Duty Cycle

I

I

II
.8

1.0

1.2

1.4

100

1.6

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

PERCENT OF RATED PEAK REVERSE VOLTAGE

IN~MIr
-341-

CG2AND DG2
MINIATURE CLAMPER I DAMPER GLASS PASSIVATED
JUNCTION RECTIFIER
Voltage - 1400 to 1500 Volts
Current- 2.0 Amperes
FEATURES
DO-204AP
.034 (.86)
.028 (.71)

I

Dimensions in inches
and
(millimeters)
• Brszed.Jead assembly is coV9red by Patent No. 3.930,306 of 1976

• Specially designed for clamping clrcuHs in horizontal deflection systems and damper applications
• High temperature metallurgically bonded
• Glass passivated
cavHy-free junction in a
DO-204AP package
• 2.0 Ampere operation
at TA=SO°C with no thermal runaway
• TypicallR less than 0.1 11 A
• Hermetically sealed package
• Capable of meeting environmental standards of
MIL-S-19S00
• High temperature soldering guaranteed: 3S0°C/10
seconds/.37S", (9.Smm) lead length at Sibs.,
(2.3kg) tension

MECHANICAL DATA
case: JEDEC D0-204AP One piece glass
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 grams

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
60 Hz. resistive or inductive load. For capacitive load. derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=50·C
Peak Forward Surge Current 8.3ms single half sine
-wave superimposed on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 2.0A
Maximum DC Reverse Current TA=25·C
at Rated DC Blocking Voltage TAz100·C
Maximum Full Load Reverse Current Full Cycle
Average, .375", (9.5mm) Lead Length
TA=100·C
Maximum Reverse Recovery Time (NOTE 1) TJ=25·C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating Storage Temperature Range

VRRM
VRMS
Voc

002
1400
980
1400
2.0

Amps

IFSM
VF

40.0
1.1
5.0
100.0

Amps
Volts

IR(Av)
TRR
CJ
R8JA
TJ,TsTG

I1A
I1A

200.0
15.0

20.0

15.0
40.0
-65 to +175

2. Measured at 1 MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.

-342-

UNITS
Volts
Volts
Volts

I(Av)

IR

NOTES:
1. Measured with IF=O.5A. IR=50mA.

1500
1050
1500

lIS
pf

·CNI
·C

RATINGS AND CHARACTERISTIC CURVES CG2 AND DG2
FIG. 2 - MAXIMUN NON REPETITIVE
PEAK FORWARD SURGE CURRENT

W

0"

o::W o

CJ(I)

::)0::
(l)W

O~

FIG. 1 - FORWARD CURRENT
DERATING CURVE

0::..:

~~

O::Z

OW
u.o::

=

~".........
TA =50"C
8.3ms SINGLE H ALF

10

SINE-WAVE

(J~DEC ~eth~~) II
1

10

20~~--~--~~~~

50

75

100

125

150

10

100

NUMBER OF CYCLES AT 60Hz

I
0.375 (9.5mm) LEAD LENGTHS

,25

,~

0

~~~~~itive -s.to-j'-f''''!i:~~od---t--1
IpkilAV

2S!C
NO LOAD

30

~o::

L1i6
a.

TA!

I'.

175

FIG. 4- TYPICAL JUNCTION CAPACITANCE

AMBIENT TEMPERATURE, 'C
30

1'-0...
u.

"-

U.r

II II
!

r...

TJ = 25"C
f = 1.0MHz
VSI!l '" 50mVp-p

10

U
Z

..:

I-

o..:

FIG. 3- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

~
Z

5

a.

0

W

..:
u

0::
0::
::)

U

o
~(I)

TJ

= 150"C

10

V V

TJ=25°C

10

:S:w

gjffi
u.a.
::)..:

o. 1

J

W

FIG. 5-;- TYPICAL Rf:VERSE CHARACTERISTICS

0::
0::

/

::)

U

Z

W(I)

~
Z
..:

t;

100

1-Z

II

(I)::;:

oW

50

REVERSE VOLTAGE, VOLTS

(l)W

0::0::

Pulse Width = 300jJ S
1% Duty Cycle

WW 1.0

>a.
W::;:

.0 1

~

6

.8

1.0

1.2

1.4

0::..:

1.6

(1)0

::)0::

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

no

~~
..:

0.1

.04

I-

Z

..:

.01~O~~~--~~--~60~--~~~~--~~--~

~

PERCENT OF RATED PEAK REVERSE VOLTAGE

I(I)

FIG. 6 -

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM
INPUT

INPUT
PULSE GENERATOR
HP MODEL 214

_ + 200 I1F

~60H'-rll
1---10 ""5

·10V

OR EQUIVALENT

SOUARE WAVE

OUTPUT
CURRENT PROBE TEKTRONIX l.YPE 134
OR EQUIVALENT TO OSCILLASCQPE

-343-

BY228 SERIES
CLAMPER I DAMPER GLASS PASSIVATED
JUNCTION RECTIFIER
Voltage - 1500 Volts
Current - 2.5 Amperes
GENERAL DESCRIPTION
These silicon Glass Passivated Clamper /
Damper Rectifiers are designed for TV Applications, such as clamping circuits in
horizontal deflection systems and damper

applications. The glass passivated constructIon and Dual Heat-Sink design assures reliable and stable operation.

FEATURES
• High temperature metallurgically bonded constructed rectifiers
• Glass paSSivated cavityfree junction
• 2.S Ampere operation
at TA=SO·C with no thermal runaway
• TypicallR less than 0.1 ~A
• Hermetically sealed package
• Capable of meeting environmental standards of MIL-S-19S00
• High temperature soldering guaranteed: 3S0·C/l0
secondsl.37S", (9.Smm) lead length at Sibs., (2.3kg) tension

MECHANICAL DATA
Dimensions in inches and
(millimeters)

Csse: One piece glass, hermetically sealed
Terminals: Axial leads, solderable per MIL-STD-202,
Method 208
Polarity: Color band denotes cathode
MountIng Position: Any
Weight: .04 ounce, 1.1 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Single phase, half wave, 50 - 60 Hz, resistive or inductive load..
For capacitive load, derate current by 20%.
SYMBOLS

BY228

Maximum Non Repetnive Peak Reverse Voltage
1650
VRSM
1500
Maximum Recurrent Peak Reverse Voltage
VRRM
1050
Maximum RMS Voltage
VRMS
1500
Maximum DC Blocking Voltage
Voc
Maximum Average Forward Rectified Current
2.5
.375", (9.5mm) Lead Lengths at TA- 50·C
I(AV)
Peak Forward Surge Current 10ms single half sine
-wave superimposed on rated load
50.0
IFSM
Maximum Instantaneous Forward Voltage at 5.0A
1.6
VF
Working Peak Forward Current at TA-75'C
5.0
IFWM
10.0
Peak Repetitive Forward Surge Current at TA-75'C
IFRM
5.0
Maximum Peak Reverse Current TA=25'C
at Rated Peak Reverse Voltage TJ=140'C
200
IR
Maximum Reverse Recovery Time (NOTE 1)
20.0
TRR
Maximum Forward Recovery Time (NOTE 3)
1.0
TFR
Typical Junction Capacitance (NOTE 2)
40.0
CJ
Typical Thermal Resistance (NOTE 4)
RaJA
20.0
Operating Temperature Range
-65 to +150
TJ
Storage Temperature Range
-65to +200
TSTG
NOTES; 1. Measured with IF = 1.0A, lAo SOmA, cflldt=50mAiJu; ..
2. Measured at 1 MHz and applied reverse voltage of 4.0 Voc.
3. Measured with IF=5.0A with tr - 0.1 lIS
4. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.
-344-

UNITS

Volts
Volts
Volts
Volts
Amps
Amps
Volts
Amps
Amps

I1A
jI.S
ILS
pf
'CIW
'C

'c

RATING AND CHARACTERISTIC CURVES BY228 SERIES
FIG. 2 - MAXIMUM NON REPETITIVE
PEAK FORWARD SURGE CURRENT

>-'

200

Z

W

a:
a:
::>

oW

u:

B~
wa:
a:w

@~

«<{

I
I

2[J

:s:a:>--

::2 ~

u

FIG. 1 - FORWARD CURRENT DERATING CURVE
3D

,,,I

1,0

~E~0~iY;E~~~D

~~
~G

(f)W

w
~

25

50

..........

50

Oel.

""

0375" (95mm) LEAD LENGTHS

75

100

2l·c

10ms SINGLE SINE WAVE
AT RATED LOAD

W
C)(f)

a:W
::>a:

I

SINGLE PHASE
HALF WAVE
50-60 Hz

T••
100

a::;;
«<{
:s:a:

,.....

0

u.

~

125

'"<{W

150

~

I

10

"-

175

r-.....

""'"

Tj.lj""T

10

50

100

NUMBERS OF CYCLES AT 50Hz

AMBIENT TEMPERATURE, °C

FIG. 4 - TYPICAL JUNCTION CAPACITANCE
100

:--..

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
30

LL

.L

<>:
u

W

"

3.0

/

10

10

TJ = 2 5 ° C PULSE WIDTH = 300 itS
1% DUTY CYCLE
10

a: a:

u.el.

03

FIG. 5 - MAXIMUM PEAK REPETITIVE
FORWARD SURGE CURRENT

0

W

J

Z

;:f
Z

01

100

W
>'"
-0t::<{

,
I
II

en

""

100

50

REVERSE VOLTAGE, VOLTS

OW

en:;;
::><{

= 25°C
f.l,OMHz

...............~50mVP1>

""~

Z

~ffl

TJ

W

>-'

a:
a:
::>
u
0
a:

......

U
Z

/'

10

50

0-

~

.03

01
04

0.2

06

>->-'

~Z

-

50

WW

08

10

12

14

a: a:
",a:
<>:::>
wU
"-0
::;;a:

16

::>~
~a:

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

Xo

!"'- ...

T•• 7S·C

10

~u.

5

FIG. 6 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM

10

50

100

DUTY CYCLE, PERCENT

OUTPUT
INPUT
PULSE GENERATOR
HP MODEL 214
OR EOUIVAI.ENT

OUTPUT
CURRENT PROBE TEKTRONIX TYPE 134
OR EQUIVALENT 10 OSCILLASCOPE

-345-

INsIBM\-

CG3AND DG3
CLAMPER I DAMPER GLASS PASSIVATED
JUNCTION RECTIFIER
Voltage - 1400 to 1500 Volts
Current- 3.0 Amperes
FEATURES

t

1.0 HIN.
(25.4)

250 (6,3)
.170(4.3)

1~01.6)

'I

+

.052 (1.3) , .

.040 11.2)

1.0 MIN.

(25.4)

!

Dimensions in inches
and
(millimeters)

• Brszed.Jead assembly is covered by Patent No. 3,930,306 of 1976

• Specially designed for clamping circuits horizontal deflection systems and damper applications
• High temperature metallurgically bonded constructed rectifiers
• Glass passivated
cavity-free junction
• 3.0 Ampere operation
at TA=SO°C with no
thermal runaway
• TypicallR less than 0.1 J.l A
• Hermetically sealed package
• Capable of meeting environmental standards of
MIL-S-19S00
• High temperature soldering guaranteed:
3S0°C/10 secondsl.37S", (9.Smm) lead length at
Sibs., (2.3kg) tension

MECHANICAL DATA
Case: One piece glass
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .04 ounce, 1.1 gram

MAXIMUM RATINGS AND. ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
60 Hz, resistive or inductive load. For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
.375", (9.5mm) Lead Lengths at TA=50·C
Peak Forward Surge Current 8.3ms single half sine
-wave superimposed on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 3.0A
Maximum DC Reverse Current TA=25·C
at Rated DC Blocking Voltage TA=100·C
Maximum Full Load Reverse Current Full Cycle
Average, .375", (9.5mm) Lead Length
TA=70·C
Maximum Reverse Recovery Time (NOTE 1) TJ=25·C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating Storage Temperature Range

SYMBOLS

CGS

VRRM
VRMS
Voc

1400
980
1400

DG3
1500
1050
1500

I(AV)

3.0

Amps

IFSM

100.0
1.2
5.0
100.0

Amps
Volts

VF
IR
IR(AV)
TRR
CJ
R8JA
TJ,TsTG

ItA

200.0
15.0

ItA
20.0

40.0
20.0
-65 to +175

NOTES:
1. Measured with IF=O.5A, IR=50mA.
2. Measured at 1 MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.

-346-

UNITS
Volts
Volts
Volts

its
pf

·CIW
·C

RATINGS AND CHARACTERISTIC CURVES CG3 AND DG3

,...:
Z

200

W

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

8.3m~t:~~~rHALF-S'NE WAVE

er:
er:

z
w

FIG. 1- FORWARD CURRENT DERATING CURVE

100

W
<:)(/)

er:
er:

er:W

G

~

ffi
~~
<{<{

4.0

Cl
W

!!:;

"

~ ffi2.0

Clo.

er:::;
<{

s:
w

~

........

"'~.......

60Hz
RESISTIVE OR
INDUCTIVE LOAD
0.375" (9.Smm) LEAD LENGTHS

1.0

o

o

er:
w
>
<{

25

75

50

100

'"W

...........
.... 1-0

<{

AMBIENT TEMPERATURE. C

"

30

10

50

100

FIG. 4- TYPICAL JUNCTION CAPACITANCE

175

100

tt. 50

....

u.i

U
Z

./

TJ - 25;:

l~H~

I I

---"":::':':' SQmVp-p max,

>==

(3

r-

~

./

10

5

NUMBER OF CYCLES AT 60 Hz

150

125

10

0.

FIG. 3- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

,...:

50

5:
er:
o
u.

3.0

0ffi

i

(JEDEC Method)

d

,...:

<{

U 10

Z
W

er:
er:

::>

l>

.I

3.0

Cl

er:

~~
er:er:

10

I

1.0

u.o.

0

w

10.'
0.3

4.0

Z

1

<{

I-

Z

<{

100

FIG. 5- TYPICAL REVERSE CHARACTERISTICS

Ow

<{

50

REVERSE VOLTAGE. VOLTS

0.1

TJ-25°CPULSE WIDTH 0: 300l-'s
1% DUTY CYCLE

I

FIG. 4 - TYPICAL REVERSE CHARACTERISTICS

<

20

AMBIENT TEMPERATURE, °C

Z

W
a:
a:
:::l

30
8.3ms SINGLE HALF

UJ(/)
(/)UJ
a: a:
UJUJ

(JEDEC METHOD)

TA" 55"C

TJ ~ 125°C

,

U

HALF-WAVE

r-.... t-....

10

.,.:

FIG. 3 -MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

=

10

>11.

UJ:::t
a:<

r-.... r--..

0

TJ "7S"C

(/)0

./

:::la:

OU
~~

~

~
01

Z

<

l-

,

(/)

0
4

6

8

10

20

40

~

60 80100

~

TJ "1250C

I--

~."

NUMBER OF CYCLES AT 60 Hz
.01

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
30

LI.

"-

10

PERCENT OF RATED PEAK REVERSE VOLTAGE
FIG. 6 -

II

i"-- ....

TJ

!25~cl

soo

REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

,

100

NONINOUCTIVE

NONINOUCTIvE

~

W

u
z
<
l-

DVT

t)

::<

,

-025

l-

u

10

1.1MHz
Vslg • 50mVp·p

OSCILLOSCOPE

NONINDUCTIVE

INOTE 11

11111ll1l

1
1

10

50

REVERSE VOLTAGE. VOLTS

lDC

NOTES 1 Rise TIme::; 7rfs mal! Input Impedance1 megohm 22pF
2 Rise TIme
IOns max Source Impedance"
50 ohms

=

_-351-

- ,0

f-o-

~

fern

1/
J

.I

SET TIME BASE FOR

5OIl00nslcm

INsr~

1N5615 THRU 1N5623
MINIATURE GLASS PASSIVATED JUNCTION FAST SWITCHING RECTIFIER
Voltage - 200 to 1000 Volts Current - 1.0 Ampere
FEATURES
• High temperature metallurgically bonded
constructed rectHiers
• Hermetically sealed case
• Glass passivated cavity-free junction in a
DO-204AP package <",<
• 1.0 Ampere operation ~
at TA= 55°C with no
thermal runaway
• TypicallR less than 0.1 IJ. A
• Capable of meeting environmental standards of
MIL-S-19500
• Fast switching for high efficiency
• High temperature soldering guaranteed:
350OC/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

DO-204AP

.034 (,86)
.028 (,711

I

+

MECHANICAL DATA

case:

Dimensions in inches
and
(millimeters)
• 8razed.fead assembly Is covered by Pa!9nt No. 3,930,306 of 1978

JEDEC DO-204AP One piece glass

Tennlnals: Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 grams

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load. For capacitive load, derate current by 20%.
SYMBOLS fN56f5

'Maximum Recurrent Peak Reverse Voltage
VRRM
Maximum RMS Voltage
VAMS
'Maximum DC Blocking Voltage
Voc
'Minimum Reverse Breakdown Voltage at 50 J1 A
VBR
'Maximum Average Forward RectWied Current
.375", (9.Smm) Lead Lengths at TA..ssoC
I(AY)
'Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
IFSM
'Maximum Instantaneous Forward Voltage at 1.0A
VF
TAa2SoC
'Maximum DC Reverse Current
at Rated DC Blocking Voltage
TAa 100°C
IR
TAa200°C
'Maximum Reverse Recovery Time (NOTE 1)TJ=25°C TRR
'Maximum Junction Capac~ance (NOTE 2)
CJ
Typical Thermal Resistance (NOTE 4)
R8JA
'Operating Temperature Range
TJ
'Storage Temperature Range
TSTG

200
140
200
220

fN56f7 fN56f9 fN56tlf

400
280
400
440

600
420
600
660

fN56tl3

UNITS

1000
700
1000
1100

Volts
Volts
Volts
Volts

1.0

150

45

50.0
1.2
0.5
2S.0
1500.0
\ 150 \250\300\ 500
35
25
20
15
50.0
-65 to +175
-65 to +200

NOTES:

1. Reverse Recovery Test Conditions : IF=O.SA,IR=l.OA,lrr=25A.
2. Measured at 1 MHz and applied reverse voltage of 12 volls.
3. Available to JAN and JAN TX Military Specifications MIL-8-195OO1429.
4. Thermal Resislance from Junction to Ambient at .37S· (9.5mm) Lead Lengths, P.C. Board Mounted.
'JEDEC Regis~red Values
-352-

800
560
800
880

Amps

Amps
Volts

JLA
nS
pf
°CIW

°c
°C

RATINGS AND CHARACTERISTIC CURVES 1N5615 THRU 1N5623
FIG.2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
~

10.0

Z

W

r:
z

0:
0:

FIG. 1 - FORWARD CURRENT
DERATING CURVE

W
a:
a:
::>
U

1.00

UJ

i=(/)

UUJ
UJa:
a:UJ
Oa.
a:::;

.75

o

~fB

25

0

LL

OW
LLa.
(J)2
::J « o. 1

z
«

\

>

«

75

50

100

125

\

150

TJ 2S'C
300 jJs
Pulse Width
2"'0 Duty Cycle

I

f-

I

Z

0375" (9 5mm) LEAD LENGTHS

25

I

oW

RESISTIVE
OR INDUCTIVE LOAD

UJ
Cl
«
a:
UJ

,

0:0:

««

:s:a:

1.0

0:

~

.50

/

U

~'\.

0

u::

::J

«
f-

--"-----L
10
12

.0 1

(J)

14

16

~

INSTANTANEOUS FORWARD VDLTAGE,
VOLTS

175

AMBIENT TEMPERATURE, °C

FIG, 4 -

TYPICAL REVERSE CHARACTERISTICS

0

FIG. 3 50

,.:
Z

UJ

i',

40

0:
0:

::J
U(J)
UJUJ
Cla:
o:W
::Ja.
(/)2

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

W

SINE-WAVE
JEOEC METHOD

0:
0:

::J

['..

W(J)
(J)W
0:0:
WW
>a.
W2

,

r-

125'C

0

TJ

0:«

0:

~~

10

«

;'

,.

Z

«
10

f(J)

100

Z

NUMBER OF CYCLES AT 60 Hz

f-

I-

01

f-

0
LL

=

75'C

./

(J)O
::JO:
OU

20

«

:s:0:

TJ

U

TA- 55'C

~

,. .-

Z

8 3ms SINGLE HALF

30

0«

10.0

,.:

./

TJ

25'~

I

_

-

/'
1

FIG. 5 -

TYPICAL JUNCTION CAPACITANCE

30

LL

FIG. 6 -

TJI2~o~

0.

ui

40

60

80

100

140

REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

NQNINDUCTIVE

+05A

U
Z

«
f-

120

100

SOD
NONINDUCTI'IE

10

20

PERCENT OF RATED PEAK REVERSE VOLTAGE

I

. . . r-.

o

1"-

DVT

/

0

«
a.
«

- 025

u

10
NONINDUCTIVE

f_l,OMHz
Vsig _ 50m Vp-p
10

REVERSE VOLT AGE, VOLTS

100

OSCILLOSCOPE
INOTE 11

NOTES 1 Rise Time = 7ns max Input Impedence =
1 megohm. 22 pF
2 Rise Time = 10ns max Source Impedance =
50 ohms

-353-

/

\
·10
----.11

\

cmt---

II

SET TIME BASE FOR

SO/lOOns/em

RG1A THRU RG1M
MINIATURE GLASS PASSIVATED JUNCTION
FAST SWITCHING RECTIFIER
Voltage - 50 to 1000 Volts Current - 1.0 Ampere
FEATURES
• High temperature metallurgically bonded
constructed rectifiers
• Hermetically sealed case
• Glass passivated cavity-free junction in a
DO-204AP package
• 1.0 Ampere operation
at TA=SSoC with no
thermal runaway
• TypicallR less than 0.1 11 A
• Capable of meeting environmental standards of
MIL-S-19S00
• Fast switching for high efficiency
• High temperature soldering guaranteed:
3S0°C/10 seconds/.37S", (9.Smm) lead length at
Sibs., (2.3kg) tension

.0341.861 . . .
.028 (.711

MECHANICAL DATA
Dimensions in inches
and
(millimeters)
• Brazed.fead assembly is covered by Patent No. 3,930,306 of 1976

Csse:JEDEC D0204AP One piece glass
Terminals: Axial leads, solderable per MIL-STD202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .S6 grams

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load. For capacitive laod, derate current by 20%.
SYMBOLS RGIA RGtB RGtD RGtG RGtJ RGtK RGtM UNITS

VRRM 50 1 10012001 4001 6001 80011000 Voks
VRMS 35 1 70 1 1401 280 I 420 I 560 I 700 vons
Vex; 50 11001 2001 4001 6001 80011000 vons

Maximum Recurrent Peak Reverse Vottage
Maximum RMS Vonage
Maximum DC BlockinQ VonaQe
Maximum Average Forward Rectified Current, .375"
(9.5mm) Lead Length at TA=55°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Vonage at 1.0A
Maximum Full Load Reverse Current,
Full Cycle Average, .375", (9.5mm)
TA-25°C
Lead Length at
TA=100°C
Maximum DC Reverse Current
at Rated DC Blocking Voltage
Maximum Reverse Recovery Time (NOTE 1) TJ=25°C
Typical Junction Capac~ance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

I(AV)

1.0

Amps

IFsM
VF

30.0
1.3

Amps
vons

IR(Av)

1.0
100.0

!lA

2.0

!lA

IR
TRR
CJ
ReJA
TJ.TSTG

150

1 200 1 250 1 500
15.0
50.0
-65 to +175

NOTES:

1. Reverse Recovery Test Conditions: IF=O.SA, IR=1.0A, Irr=.25A.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) lead lengths, P.C. Board Mounted.

-354-

nS
pf

°CIW
°C

RATINGS AND CHARACTERISTIC CURVES RG1A THRU RG1M

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT
30

~

r'

zw

a:
a:

FIG. 1 - FORWARD CURRENT
DERATING CURVE

o

w

u::

1.0

Wa:

Ww

cr:

o t5

.6

i

.4

LL

.2

..:U

20

'"

10

o

LLa:

Wa:
C!l:::l

f---+--+--+--+--+---'.Ir-l

1.0

a:

~

50

75

100

125

150

~

Z
W

20

a:

V

10

Z

W
a:
a:
:J

U

".

U

o

a:

/

1.0

TJ

WUl
UlW
a: a:
WW

TJ = 25°C

a: a:
OW

0

.-

1.0

TJ " 75°C

>Il.

W::;;
a:..:
UlO
:Ja:

LLIl.

Ul::;;
:::l":

,V

OU

J

0.1

W-

Z::;;

..:

..:

t-

0.1

t-

Z

..:

Z

Pulse Width'" 300/15
2% Duty Cycle

..:
t-

Ul

.01

.6

.4

.8

1.0

1.2

1.4

1.6

1.8

?;

2.0

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

./
.01

."
20

FIG. 6 -

30

.........

uj 10.0

TJ

=25°C

40

60

80

25'C ~

100

120

140

1O!1

NONINDUCTIVE

+ OSA

U
Z

«
f(3 5.0

_

~

==

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM

50!!
NONINDUCTIVE

'l"-

-

J

TJ ~

PERCENT OF RATED PEAK REVERSE VOLTAGE

FIG. 5 - TYPICAL JUNCTION CAPACITANCE

Q.

=1'25 C'

~

a:

LL

60 80 100

20

10.0

:::l

Iii~

40

20

FIG. 4 - TYPICAL REVERSE CHARACTERISTICS

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

Z

4.0 6.0 8.010.0

175

AMBIENT TEMPERATURE

ow

2.0

~i'

NUMBER OF CYCLES AT 60 Hz

W

~~

TAI~55~CI IIII

8.3ms Single Half
Sine-Wave (JEDEC Method)

C!la:
a:W
:::lll.
Ul::;;
0":

.8

~~
~~

~ ....

:::l
U (/)

r--.,...-""IO""""'--o.:=:::o:::==-'

~~ r-~--~--~~~~-~---+---i
a:W
Oil.

IIIII

-

'"

1\

\

OUT

50 Vdc
(approx I

1/

- 025

I-I

<3

H!

NONINDUCTIVE

f = 1MHz
VSIG = 50mVp-p max.
1.0

1.0

10.0

I

lOA

I I1II1111
5.0

QSCILLOSCOPE
INOTE 1l

50

REVERSE VOLTAGE, VOLTS

100

NOTES 1 Rise Time", 7n" max
1 megohm. 22pF
2 Rise Time = 10ns max Source Impedance-=
50 ohrrrs

-355-

--11( 11'

I~ V

I--- ~g~O~r~~:~,ASE FOR

IN~

BYV95 AND BYV96 SERIES
MINIATURE GLASS PASSIVATED JUNCTION FAST SWITCHING RECTIFIER
Voltage - 200 to 1000 Volts Current -1.5 Amperes
FEATURES
DO-204AP

.0341.86) • +
.028 1.711

• High temperature metallurgically bonded
constructed rectifiers
• Hermetically sealed case
• Glass passivated cavity-free junction in a
DO-204AP package
• 1.5 Ampere operation
at TA=55°C with no
thermal runaway
• TypicallR less than 0.1 Il A
• Capable of meeting environmental standards of
MIL-S-19500
• Fast switching for high efficiency up to 100 KHz
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

MECHANICAL DATA
Dimensions in inches
and

(millimeters)
• 8raZJJd./ead assembly is covered by Pa/8nl No. 3.930.306 01 1976

Csse:JEDEC DO-204AP One piece glass
TermInals: Axial leads, solderable per
MIL-STD-202, Method 208
Polartty: Color band denotes cathode
Mounting PosItIon: Any
WeIght: .02 ounce, .56 grams

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load. For capacitive load, derate current by 20%.
SYMBOLS BYV95A BYV9SB BYV95C BYV96D BYV96E UNITS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Minimum Avalanche Breakdown Voltage all 00 J.L A
Maximum Average Forward Rectffied Current
.375", (9.5mm) Lead Lengths at TA=55°C
Peak Forward Surge Current 1Oms single half sinewave superimposed on rated load
. Maximum Instantaneous Forward
Voltage at 3.DA
TA-25°C
TJ=l65°C
Maximum Full Load Reverse Current,
Full Cycle Average, .375", (9.5mm) TJ=25°C
Lead Length at
TJ=165°C
Maximum DC Reverse Current
at rated DC Blocking Voltage
Maximum Reverse Recovery Time (NOTE 1)TJ=25°C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating Temperature Range
Storage Temperature Range

VRRM
VRMS
Voo
VBR

200
140
200
300

400
280
400
500

600
420
600
800

800
560
800
900

1000
700
1000
1100

Volts
Volts
Volts
Volts

I(AV)

1.5

Amps

IFSM

35.0

Amps

VF

1.6
1.35

Volts

1.0
150.0

IR(Av)

IR
TRR
CJ
RaJA
TJ
TSTG

2.0
250

J.LA
300

10.0
50.0
-65 to +175
-65 to +200

NOTES: 1. Measured with IF=O.5A. IR=I.0A, Irr = .25A.
2. Measured at 1 MHz and applied reverse voltage of 4.0.Voc.

3. Thennal Resistance from Junciton to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.
-356-

J.LA

nS
pf
°cm
°C
°C

RATING AND CHARACTERISTIC CURVES BYV95 AND BYV96 SERIES
FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
35

>-'

FIG. 1 - FORWARD CURRENT
DERATING CURVE

>-'
2.0

15

(!)O1
II:W
::::JII:
O1W

W

cr:

II:
::::J

Z

W
II:
II:
"
::::J«

Z

Uw
wo.

U

o
W
u:

""

i=01

Uw

WII:
II:W
~~

1.0

~«
II:

[2
~

o

W

'l:

25

50

~

75

""

100

10

10

100

"'

125

150

NUMBER OF CYCLES AT 60HZ

175

FIG. 4 - TYPICAL REVERSE CHARACTERISTICS
20

10.0

.-

>-'

Z
W
II:
II:
::::J

10

W

~

0L1.

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

Z

,,~

15

II:

AMBIENT TEMPERATURE, °C

>-'

20

II:::<
««

INDUCTIVE LOAD
0375", (95mm) LEAD LENGTHS

II:

10ms SINGLE HALF
SINE WAVE

'-

25

"-

RESISTIVE OR

UJl1111

\

00.

~

05

W

II:
II:
::::J
U

/

t-

125°C

T"

U

w01

o

/

TJ _ 100 0 C /

II:

~ffl lP

O1W
II: II:
WW
>0.
W::<
II:«

TJ = 25°C

II: II:

OW

L1.0.

01::2'

I

::::J«

oW
z

OU
~::1

I
.01

A

i'!:
Z
i'!:
01

Pulse Width == 300p.s

lJJ

1,.4

T"IOUllll
f = lMHz

:

Vs,g = 50rnVp-p i

o

"

20

I)
F=

.-

40

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE
FIG. 6 - REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

30

~ ....

25·<;;;1

T"

./
01

FIG. 5 - TYPICAL JUNCTION CAPACITANCE

0.

0.1

1.6

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

LL

,

l../"

~

2% DUly.Cycle----:

.s

TJ'" 75°C

::::JII:

I

I

~

1.0

010

0.1

i'!:
z
i'!:
01

ul

30

soo

100

NONINDUCTIVE

NONINDUCTIVE

10

I- Irr
+05A

U

z

i'!:

--.0

\

DUT

(3

(+1
50Vdc

ct«

(-I

J

-025

(approx.)

U

1n
NON·
INDUCTIVE

,V

aSCI LLOSCOPE
(NOTE 1I

1

\
-lOA

10

50

REVERSE VOLTAGE, VOLTS

100

NOTES 1 Rise Time = 7ns max Input Impedance =
1 megohm. 22pF
2 Rise Time = 1Dns max Source Impedance =
50 ohms,

I

~cml

SET TIME BASE FOR
50,IOOns,em

IN~MIr
-357-

RG2A THRU RG2M
MINIATURE GLASS PASSIVATED
JUNCTION FAST SWITCHING RECTIFIER
Voltage - 50 to 1000 Volts Current- 2.0 Amperes
FEATURES
• High temperature metallurgically bonded
constructed rectifiers
• Hermetically sealed case
• Glass passivated cavity-free junction in a
DO-204AP package "'<
• 1.0 Ampere operation '~
at TA=55"C with no
thermal runaway
• TypicallR less than 0.1 ~ A
• Capable of meeting environmental standards of
MIL-S-19500
• Fast switching for high efficiency
• High temperature soldering guaranteed:
350"C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tenSion

OD-204AP

.0341.861 , +
.0281.7l1

MECHANICAL DATA

case: JEDEC DD-204AP One piece glass

Dimensions in inches

Terminals: Axial leads, solderable per MIL-STD202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .02 ounce, .56 grams

and

(millimeters)
• Brazed.f9ad assembly Is covered by Patsnt No. 3,930,306 of 1976

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase,half wave, 60Hz. resistive or inductive load.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA-55'C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 2.0A
Maximum Full Load Reverse Current,
Full Cycle Average, .375", (9.5mm)
TA-25°C
Lead Len!l!hs at
TA-100·C
Maximum DC Reverse Current
at Rated DC Blocking Voltage
Maximum Reverse Recovery Time (NOTE 1) TJ-25·C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

SYMBOI.S

RG2A RG2B RG2D RG2G RG2J RG2K RG2M UNITS

VRRM
VRMS
Vee

50 1100120014001600 180011000 Volts
35 I 70 1140 I 280 I 420 I 560 I 700 Volts
50 1100120014001600180011000 Volts

IIAV)

2.0

Amps

IFSM
VF

50.0
1.3

Amps
Volts

IR(AV)

1.0
100.0

pA

5.0

IlA

IR
TRR
CJ
R9JA
TJ.TSTG

I 200 I 250 I 500

150

15.0
50.0
-65 to +175

NOTES:
1. Measured with IF=0.5A, IR = 1.0A, Irr= 25A.
2. Measured at 1 MHz and applied reverse voltage of 4.0 Vue.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, P.C. Board Mounted.

·358-

nS
pf
·CNI
·C

RATINGS AND CHARACTERISTIC CURVES RG2A THRU RG2M
FlG.3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

~

20

a:
a:

,0.0

W

FIG. 1 - FORWARD CURRENT
DERATING CURVE

!i
W

a:
a:

2.0

/'

::)

o
o

r--.,I<:"""-,----.-....--,.--,

a:

::)

~ffl1.0

U

fil
u:

1.5 f--.p.~'k_~+_-+_-+_--l

::)<

taff3

a:ffi

CI 0.

1.0

aW

I--+--+-'Y'II'.->.<+---I----I

~

~

0.5

.0'

~

W

~

0.375 (9.5mm) LEAD LENGTHS
O'-_.L.-_.L.-_.L.-_-'-_-'-~

a:

Pulse Width = 300/J8
2% Duty Cycle

I

0.1

Z

a::::;:

i<
fr

TJ = 25°C

!§ffi
IJ.Q.
CIl::ii

W

25

>

50

<

75

125

100

150

I
.4

.6

.8

1.0

1.2

1.4

1.6

1.8

2.0

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

175

FIG. 4 - TYPICAL REVERSE CHARACTERISTIC

AMBIENT TEMPERATURE, °C

20
'0.0

FIG.2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT
50

W
(!lCll
a:W
::)a:

40

.-;
z

f'..~

::)

U

WOO
cIlW
a: a:

cnw

00.

a:::ii
«
:S:.-;
a:Z
OW
1J.a:
"a:

~a

0.

, ,

W
a:
a:
1.0

wW

30

>0.

w:::;:

.........

a:<
000
::)a:
00
Wz:::;:
<
IZ
<

r.. ....
20

10

TA" 55°C
8.3ms Single Halt
Sine-Wave (JEDEC Method)

1.0

2.0

4.0 8.0 8.010.0 20

0.1

-

i"""

~

, I'"
20

LL
Co

uj 10

~

40

60

80

25°C

50!!

to!!

NON1NQUCTIVE

NON INDUCTIVE

~

100

120

140

+05A

r-..

U
Z

~
U

25°C

FIG. 5- REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM

I
TJ

TJ -

i""""

PERCENT OF RATED PEAK REVERSE VOLTAGE

TYPICAL JUNCTION CAPACITANCE

r----..r-.

J

00

.01

30

TJ" 75°C

",

I40 60 BO 100

NUMBER OF CYCLES AT 60 Hz

FIG. 5 -

TJ" 125°C

1+,

5

_
-

~

O.U.T.

50 Vdc
(approx)

/

-025

1-)

1 II
NON-

,. ,.0 MHz
VsIG = 50mVp-

I

OSCilLOSCOPE
INOlE 11

INDUCTIVE

max.
10

-10.<\

50

REVERSE VOLTAGE, VOLTS

100

NOTES 1 RIse Time", 7m. max
t megohm. 22pF
2 Rise TIme = 10ns max Source Impedance -:;
500hrns

'\... ~

---...11C"'~ ~~o6'r~~ ~~SE

IN~
-359-

FOR

BVW32 THRU BVW36 SERIES
MINIATURE GLASS PASSIVATED JUNCTION
FAST SWITCHING RECTIFIER
Voltage - 200 to 600 Volts Current - 2.0 Amperes
FEATURES

*DO-204AP

. 034 (,86) ,
.028 1.71)

::-I

1.0 (25.4)

~
210
(6.Il
MAX.

1-1
I 1.0 (\5.4)

r

Dimensions in inches
and
(millimeters)
• Braze-'
Z

w

2.0

o
o
w

15

a::
a::
=>

T"

j

~

V"

100"C

=

T,I

=

u:

25"C

"

>=Ul
OW
Wa::
a::W
00..
a::::;;

j

~

1\

<{«

~

Pulse Width

300

10!0 Duty Cycle

II

1.0

1.2

05

oLL

j =:

50

25

'il'

1.6

1\

INDUCTIVE LOAD
0375" (95mm) LEAD LENGTHS,

W

~
a::

w
1.4

1\

RESISTIVE OR

75

100

150

125

175

AMBIENT TEMPERATURE, °C

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

FIG. 4 - TYPICAL JUNCTION CAPACITANCE
30

LL( l

50

.....
'i"-

T., =

~5O~

W
(!)Ul
a::W
=>a::
UlW
00..
a::::;;
<{«
5'>-'
a::Z
OW
LLa::
",a::
«=>

10

u.i

o

~

Z

~

(3

it«

o

wO
0..

40

30

"

~r-..

........

20

r0TA = 25°C

10
lOme

10

50

o

100

1,0

REVERSE VOLTAGE, VOLTS

Z

W

(3

u::

LL
W

Z

o

li'

10

500

100
N.!.

N.I

"

4,06.06.010.0 20

+.5A

r-.

Standard Recoverv

()

u::

>=

()

DU.T

50Vdc

(-)

10
N1

OSCILLOSCOPEL--r:-:---'
NOTE 1

-t.OA

w

a::
NOTES

10

100

FREQUENCY kHZ

1000

j4""t~

I

1\

1
'I

- 2SA

(APPROX)

'"

40

60 60 100

FIG. 6 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM

II ~IPst Relov~r~

>-

()

2,0

NUMBER OF CYCLES AT 60 Hz

FIG. 5 - TYPICAL RECTIFICATION
EFFICIENCY
12

tnd'e 1al\

Sine Wave

1 RISE TIME = 7nSEC MAX. INPUT IMPEDANCE = 1 MEGOHM. 22pF.
2 RISE TIME = 10nSEC MAX, SOURCE IMPEDANCE = 50 OHM

-361-

1\
'\J.I

1N5415 THRU 1N5420
GLASS PASSIVATED JUNCTION FAST
SWITCHING RECTIFIER
Voltage - 50 to 600 Volts Current- 3.0 Amperes
FEATURES
•
•
•
•

Glass passivated cavity-free junction
High temperaturae metallurgically bonded
Hermetically sealed package
Capable of meeting
environmental
standards of
MIL-S-19S00
• Fast switching for
high efficiency
• High temperature soldering guaranteed:
3S0°C/10 secondsl.37S", (9,Smm) lead length
at Sibs., (2.3kg) tension
.042 (1.07), +
.038 1.962)

MECHANICAL DATA

Dimensions in inches and (millime/ers)
• Brazed..fead assembly Is covered by Patent No. 3,930,306 of 1976

case: One piece glass, hermetically sealed
Terminals: Plated Axial leads, solderable per MILSTD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: ,037 ounce, 1,04 grams

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25"C ambient temperature unless otherwise specified.
Resistive or inductive load. For capacitive load, derate current by 20%.

SYMBOLS IN5415 IN5416 IN5417 IN5418 1N5419 IN542D UNITS

'Maximum Recurrent Peak Reverse Volta.ge
Maximum RMS Voltage
'Maximum DC Blocking Voltage
'Minimum Reverse Breakdown Voltage at SO IL A
'Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=55°C
Peak Forward Surge Current
8,3ms single half sine-wave superimposed
on rated load (JEDEC Method) at TA=100°C
Maximum Instantaneous Forward Voltage at3.0A'
at9.0A
Maximum DC Reverse Current 'TA=25"C
at Rated DC Blocking Voltage
TA=100°C
'TA-175°C
'Maximum Junction Capac~ance (NOTE 2)
'Maximum Reverse Recovery Time (NOTE 1) TJ=25°C
Typical Thermal Resistance (NOTE 4)
'Operating and Storage Temperature Range

VRRM
VRMS
Voc
VBR

50

35
50
55

I(AV)

IFSM

VF
IR
200
CJ
TRR
RaJA
TJ,TsTG

100
70
100
110

200
140
200
220

400
280
400
440

500
350
500
550

3.0

80.0
1.10
1.50
1,0
20,0
2,0
1175 1150 1120 Jll0
150
1250
22,0
-65 to 175

NOTES:
1. Reverse Recovery Test Conditions: IF=O.5A, IR= 1.0A, Irr=25A.
2. Measured at 1 MHz and applied reverse voltage of 12.0 volts.
3. Available to JAN and JAN TX Military Specifications MIL-5-195OO1411 D.
4. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, with both leads to heat sink.
'JEDEC Registered Values
-362-

600
420
600
660

Volts
Volts
Volts
Volts
Amps

Amps
Volts

/LA
/LA

100
400

mA
pI
nS
°cm
°C

RATINGS AND CHARACTERISTIC CURVES 1N5415 THRU 1N5420

FIG. 2 -

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

200

g

FIG. 1 -

FORWARD CURRENT DERATING CURVE

o:w

4.0

000

""" 1'...

..:0:

S;W
0:"-

2.0

100

0"0:::;
..:<

50

T.... l000c

5:>-,
o:z
ow

'08" x 0.8" x .040'''
~mm x 20mm x lmm Cul-

"""'"

wU

~

"-

RESISTIVE OR
INDUCTIVE LOAD
0.37S"(9.5mm) LEAD LENGTHS

1.0

ffi

o

a

50

25

75

........

100

125

l'....

150

10

1.0

175

FIG. 4 -

TYPICAL INSTANTANEOUS FORWARD CHARACTERISTICS

TYPICAL JUNCTION CAPACITANCE

/

10

I

1.0

...........

0
11:
<
u

5.0

1/

50

~

>-'

T....25OC
PULSE WIDTH_300""

TJ-25OC

f_l.0MHz

"r-.

Vsig_50mVp-p

-

10
1.0

2% DUTY CYCLE

5.0

10.0

FIG. 5 -

0.5

-

TYPICAL REVERSE CHARACTERISTICS

30

z

20

J

~
~

0.1

~

.05

100

50

REVERSE VOLTAGE, VOLTS

a
W
Z

100

u.
"W

00::;
:0<

50

100

U
Z

~fB

10.0

NUMBER OF CYCLES AT 60Hz

50

aBi
u.,,-

5.0

200

AMBIENT TEMPERATURE, ·C

FIG. 3 -

Z
W
0:
0:
:0
U
0
0:

........

u.o:

",0:
<:0

u.<

W

Cl

8~i. . SING~E H1LF-~2w! I I

SINE-WAVE (JEDEC) METHOD

125

OOW

~-

3.0

o:W

a::;

:00:

I = .375" (9.Smm)

0:
0:
:0

U

W

Cloo

II

10-"

T... 1SOOC

J......-'"

10.0

~

00

1.,.12500
WOO

oow

0:0:

WW

>"w::;

J

.01

0.4

0.6

0.8

1.0

1.2

1.4

1.6

1.8

0:<
000
:00:

2.0

FIG. 6 -

Ion

NONINDUCTIVE

NONINDUCTIVE

(+1

~~

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM

son

+O.5A

o.v.T.

In
INDUCTIVE

OSCILLOSCOPE
(NOTE 1)

NOTES. 1. Rise Time = 7ns max. Input Impedance ""
1 megohm, 22pF
":'
2. Rise Time = 10ns max. Source Impedance = 50 ohms

-10

~~
~o:

I---

000:

,

z:O
-u

I\.

T..75OC

0.1

,.

-0.25
NON-

1.0

au

INSTANTANEOUS FORWARD VOLTAGE, V9LTS

I
I\J/

-363

./

.01

o

20

V

40

----60

80

T25"O,100

120

140

PERCENTAGE OF PEAK REVERSE VOLTAGE

RG3A THRU RG3M
GLASS PASSIVATED JUNCTION
FAST SWITCHING RECTIFIER
Voltage - 50 to 1000 Volts Current - 3.0 Amperes
FEATURES

f
.250 (G.3)
.170 (4.3)

'I

.052 n.3) , ..
.048 (1.2)

• High temperature metallurgically bonded
constructed rectifiers
• Glass passivated cavity-free junction
• Hermetically sealed package
• 3.0 Ampere operation
at TA=55°C with
no thermal runaway
• TypicallR less than 0.1 ~ A
• Capable of meeting environmental standards Of
MIL-S-19500
• Fast switching for high efficiency
• High temperature soldering guaranteed:
350°C/10 secondsl.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

MECHANICAL DATA
Dimension in inches
and

(millimeters)

• Brazed·tead assembly is covered by Patent No. 3.930,306 011976

case: One piece glass
Terminals: Plated Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: .04 ounce, 1.1 grams

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load. For capacitive load, derate current by 20%.
SYMBOLS RG3A RG3B RG3D RG3G RG3J RG3K RG3M UNI1S

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectnied Current
.37S", (9.Smm) Lead Lengths at TA=SSoC
Peak Forward Surge Current
8.3ms single hall sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 3.0A
Maximum Average Reverse Current
TA=25°C
at Rated Peak Reverse Voltage
TA=100°C
Maximum DC Reverse Current
at Rated DC Blocking Voltage TA=25°C
Maximum Reverse Recovery Time (NOTE 1) TJ=2Soc
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM SO 1100 1220 1400 J 600J800 11000 Volts
VRMS 3S I 70 1140 1280 1420 IS60 1700 Volts
Voc so 1100 1200 1400 16001800 Jl000 Volts
I(AV)

3.0

Amps

IFSM

100.0
1.3
2.0
100.0

Amps
Volts

VF
IRIAVI
IR
TRR
CJ
RaJA
TJ,TsTG

IIA
IIA

S.O
150

1250 400lsoo
40.0
22.0
-6S 10 +175

NOTES:

1. Reverse Recovery Test Conditions: IF=O.5A, IR=I.0A, Ir=.25A.
2. Measured at 1 MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) Lead Lengths, with both leads attached to heat sink.

-364-

nS
pI
°cm
°c

RATINGS AND CHARACTERISTIC CURVES RG3A THRU RG3M

FIG. 2- MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

f-:"

z

200

~
:::J
U

100

w

FIG. 1 -

FORWARD RETIFIED CURRENT DERATING CURVE

of-:"

.......

a:Z
«w
~~en
a::::Jw

U ffi
12
wOo..

1

(!)!!!::;

ffit=
>U

0

«~

"

25

0

75

50

-

Sine Wave (JEDEC Method)

['...~

RESISTIVE OR
INDUCTIVE LOAD
0.376"(9.5mm) LEAD LENGTHS

«LL«

~A)~?ngl~ H]" II III

.......

100

-'25

"

150

AMBIENT TEMPERATURE. °C

175

10

50

100

NUMBER OF CYCLES AT 60 Hz

FIG. 3-TYPICAL JUNCTION CAPACITANCE
100

~
u.i

FIG. 4- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

........

50

.....

U

..... r:/'

30

z

«
....

..............

G

«
0..

r-.....

....-

...

Z
w
a:
a:
:::J

TJ-25"C

() 10

f.'.0MHz

U

Vsig _ 50m Vp-p

30

f

0

a:

~~

a: a:

100

50

10

OW
LLo..
U)::;
:::J«

REVERSE VOLTAGE. VOLTS
FIG. 5 - TYPICAL REVERSE CHARACTERTISTICS

V'"

TJ-125"C

f-:"
Z
UJ

1.0

a:

,. .....

a:
::l
U

UJU)

enw
a: a:
UJUJ
UJ::;

1.0

~

V

.....

V

""'" T.... l00"C

03

«
....
Z
«
....
U)

01

I

I

I

IL /
I

03

I

/
01
02

I

I I
0.4

PULSE WID H.300J'oS
2% DUTY CYCLE
0.6

0 .•

1.2

1.0

1.4

16

TJ-75"C

,.

enO
::la:
OU
W-

FIG. 6 -

Z::;
f-

I

TJ .. 25°C

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

a:«

Z

/

~

>0..

.«

10

0

f

/

W
Z

-

20

./ /

T.I"'15O"C

10

./1

.10

«

TJ.25"C·

f-

en
~

=

~

10!1
NON INDUCTIVE

\--'" --1
+05A

50 Vdc
(approx)

- 0.25

I-I

.01

40

60

80

100

PERCENT OF REVERSE,
PEAK VOLT AGE

120

140

"\

OliT

{+\
_
-

,V
20

REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM

501l
NON1NDUCTlVE

HI
NONINDUCTIVE

-10A

50 ohms.

-365-

,

\

OSCILLOSCOPE
(NOTE 1)

NOTES 1 Rise Time = 7ns max
1 megohm. 22pF
2 Rise Time = 10ns max Source Impedance ""

/
,/

I

RG4A THRU RG4M
GLASS PASSIVATED JUNCTION FAST SWITCHING RECTIFIER
Voltage - 50 to tooo Volts Current- 3.0 Amperes
FEATURES

.042 (1.071
.038 (,9621 '

• High temperature metallurgically bonded
constructed rectifiers
• Glass passivated cavity-free junction
• Capable of meeting environmental standards of
MIL-S-19500
• Fast switching for
fast efficiency
• 3.0 Ampere operation
at TA=50°C with no
thermal runaway
• TypicallR less than 0.1 ~ A
• Hermetically sealed package
• High temperature soldering guaranteed:
350°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

+

MECHANICAL DATA

case: One piece glass
Terminals: Plated Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Posit/on: Any
Weight: .037 ounce, 1.04 grams

Dimensions in inches

and

(milimetersj
• Brazed-lead assembly is covered by Patent No. 3,930,306 of 1976

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load. For capacitive load, derate current by 20%.
SYMBOLS RG4A RG4B RG4D RG4G RG4J RG4K RG4M UNrrs

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Voltalle
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) Lead Lengths at TA=50°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward VoHage at 3.0A
Maximum Reverse Current
at Rated DC Blocking VoHage TA=25°C
Maximum Average Reverse Current
TA=25°C
at Peak Reverse VoHage
TA=100°C
Typical Junction Capacitance (NOTE 2)
Maximum Reverse Recovery Time (NOTE 1) TJ=25°C
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

50 1100 I 200 I 400 I 600 I 80011000 Volts
35 1 70 1140 1280 1 420 1560 1 700 Volts
50 1100120014001600180011000 Volts

I(AV)

3.0

Amps

IFSM
VF

100.0
1.3

Amps
Volts

IR

5.0
2.0
100.0
50.0

IIA

IRtAV).
CJ
TRR
RaJA
J,TsTG

150

IIA
pi

I 250 I 500 I 500
22.0
-65 to +175

NOTES:

1. Reverse Recovery Test Conditions: IF=O.5A, IR=1.0A, Irr=25A.
2. Measured at 1 MHz and applied reverse voltage of 4.0 volls.
3. Thermal Resistance from Junction to Ambient at .375· (9.5mm) Lead Lengths, with both leads to heat sink.

-366-

nS

°cm
°C

RATINGS AND CHARACTERISTIC CURVES RG4A THRU RG4Af

Fig. 1-FORWARD CURRENT DERATING CURVE

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

0

200

i '~
.0
0

W

50

100

-

::>0::

.,W

~~

~~
~~

125

50

-C ..

""~
100

75

TJ = 50°C
8 3ms Single Halt Sine~Wave
(JEDEC Method)

O::w

RESISTIVE OR
INDUC11VE LOAD
D.376'III._ LEAD LENGlllS
25

""

r

150

OW

... 0::

~§

I-

It''-'

176

AMBIENT TEMPERATURE. "C

10

1.0

50

10.0

5.0

100

NUMBER OF C YC LES AT 60 Hz

Fig. 5 - TYPICAL REVERSE
CHARACTERISTICS

Fig. 4-TYPICAL JUNCTION CAPACITANCE

Fig. 3-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

tJl

100'~§a

~

as. 60~
w 1--l-H-OI'IIoId-+l-- TJ" 25'C
~

~

/
TJ = 25°C
Pulse Width = 300 I.l
1% Duty Cycle

10

1

4

I

TJ" 12S'C_
2

~'
~

a:
::J
'-'

0

6
4

2 ., 1 /

.,
W

1.0

2.0

4.0 &.0 10.0

20

40 60 100

~

REVERSE VOLTAGE. VOLTS

1
04

6

~
'-'
:E

~-+-++4+H~~~~~~+4+H~

20

I

10

:::!
..,

~ ~ Vi"; iorrrn

0
3

40

~

It'

1

~ 06

3o

,

~

!;l!

0.6

0.8

1.0

12

14

1.6

TJ"_~'c._

13

0

Tt"T-

21/

~ 0

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

~

20

~

40

60

80

100

120 IoU)

PERCENT OF PEAK REVERSE VOLTAGE

Fig. 6-TEST CIRCUIT DIAGRAM AND REVERSE RECOVERY TIME CHARACTERISTICS
50n
Nl

10 II
Nl

-

+ SA

trr --

'\
~

-25A

-lOA

NCTES:
" RISE TIME 2. RISE TIME -

7n8 MAX, INPUT IMPEDANCE = 1 MEGOHM, 22pF
tOns MAX, SOlACE IMPEDANCE = 50 OHM

I\.

J

~

--j,cm~

SET TllAE BASE FOR
5O/100ns/cm

I~
-367-

BVW72 THRU BVW76 SERIES
GLASS PASSIVATED JUNCTION FAST
SWITCHING RECTIFIER
Voltage - 200 to 600 Volts Current - 3.0 Amperes
FEATURES
• High temperature metallurgically bonded
constructed rectifiers
• Glass passivated cavity-free junction
• Hermetically sealed package
• 3.0 Ampere operation
at TA=45°C with
no thermal runaway
• TypicaliR less than 0.1 IL A
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed:
350°C110 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

1
.250 (6.3)
.170 [4.3)

'I

.052 (1.3) ,
.048[1.2)

+

MECHANICAL DATA
Case: One piece glass
Tennlnals: Plated Axial leads, solderable per MIL-

Dimension in inches
and

(millimeters)

• Brazed·lead assembly is covered by Patent No. 3,930,306 of 1976

STD-202, Method 208
Polarity: Color band denotes cathode
MountIng PosItion: Any
WeIght: .04 ounce, 1.1 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at2S'C ambient temperature unless otherwise specified.
Resistive or inductive load. For capacitive load, derate current by 20%.
Maximum Recurrent Peak Reverse Vo~age
Maximum RMS Voltage
Maximum DC Blocking VoRage
Maximum Average Forward Rectified Current
.375", (g.5mm) Lead Lengths at TA=45'C
Peak Forward Surge Current
1Oms single half sine-wave superimposed
on rated load
Maximum Instantaneous Forward VoRage at 3.0A
Maximum AVerage Reverse Current at
Rated Peak Reverse Voltage TA=100'C
Maximum DC Reverse Current
at Rated DC BlockingVoltage TA= 25'C
Maximum Reverse Recovery Time (NOTE 1) TJ=25'C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating Temperature Range
Storage Temperature Range

SYMBOLS BYW72 BYW73 BYW74 BYW75 BYW7If
200 I 300 I 400 I 500 I 600
VRRM
140 I 210 I 280 I 350 I 420
VRMS
200 I 300 I 400 I 500 I 600
Voc

UNITS
VoRs
VoRs
VoRs

ICAV)

3.0

Amps

IFSM
VF

60.0
1.1

Amps
VoRs

IRrAVl

50.0

I1A

IR
TRR
CJ
R8JA
TJ
TSTG

5.0
200.0
40.0
22.0
-6510+175
-65 to +300

ItA

NOTES:

I. Reverse Recovery Test Conditions: IF=O.SA. IR=I.OA. Irr = 2SA.
2. Measured at I MHz and applied reverse voltage of 4.0 Voc.
3. Thermal Resistance from Junction to Ambient at .37S" (9.Smm) Lead Lengths, with both leads attached to heat sink.

-368-

nS
pi
'CIW
'C
'C

RATING AND CHARACTERISTIC CURVES BYW72 THRU BYW76
FIG. 2 - MAXIMUM NON· REPETITIVE PEAK FORWARD SURGE
CURRENT

I-'

as

"- ........
RESISTIVE OR
INDUCTIVE LOAD
O.37S"(9.6mm) LEAD LENGTHS

1

o

o

50

25

""- ..........

100

75

125

200

110 ... SINGLEHALF.W~.k1 I
INE-WAVE (JEDEC) METHOD

0:
0:
::J

FIG. 1 - FORWARD RECTIFIED CURRENT DERATING CURVE

o

at rated load

,=

_ T..25"<: ,~

~

--",

T'-lI;~

~

150

I III

175

AMBIENT TEMPERATURE. °C

50

10

FIG. 3 - TYPICAL JUNCTION CAPACITANCE

100

NUMBER OF CYCLES AT 60 Hz

100

LL
Q.

50

i""-oo

W

o
z

FIG_ 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

,

I"'-

1'"

~«

30

l_l.0MHz

10

"

T"..15O'"C

UJ

...

0:
0:
::J

Vsig-50mV~p

o
o

I

30

L

V

0:

~[{l

5
1

. / "7

10

I-'
Z

I"""--

T,_2SOC

o

~

I

10

50

100

10

0:0:

I
/

T,-26"<:

OUJ

Ol::>

6 "-

1'z"
1'"

r=.

.0 1

02

I

I

I

I I
0.4

PULSE WIDTH-3001'"
2% DUTY CYCLE
0.6

10

08

14

12

16

INSTANTANEOUS FORWARD VOLTAGE. VOLTS
FIG. 6 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM

::JO:

00

."

~~

1'z"
1'Ol"

I

03

T...7SoC .::

OlO

I II

1

~

1.0

0:«

I

(/)

.-

UJ::>

I

I

Z

.- ~~7'-Y£
",.".

0

UJ(/)
(/)UJ

I

03

UJ

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

10

•

LL"-

REVERSE VOLTAGE, VOLTS

50n

~,
T,_25"<: -

~

.~

,
01

"
20

lOll
NONINOUCTIVE

NONINOUCTIVE

10

"

~

1+)
50 Vdc

(approx)

l

+0 SA

~

OUT

/

-025

I

(-)

40

60

80

100

120

140

10
NONINDUCTIVE

OSCILLOSCOPE
INOTE 1}

\
-lOA

PERCENT OF PEAK
REVEnSE VOLTAGE

NOTES 1 Rise Time = 7ns max. Input Impedance =
1 megohm, 22pF
2 Rise Time = IOns max, Source Impedance =
50 ohms

·369·

I

\ kI

IN~

-370-

PLASTIC RECTIFIERS
1.0 AMPERE TO 8.0 AMPERES
50 VOLTS TO 1000 VOLTS

....- - - - - -371-

INsr~-

PLASTIC RECTIFIERS
7.0 Ampere to 8.0 Amperes 50 to 7000 Volts
Principle of Construction
General Instrument has produced Plastic Rectifiers successfully for many years. The key factor
in the production of our Plastic Rectifiers is the cell concept.
The small size allows many cells to be processed simultaneously in batch form.
This method ensures accurate pretesting of the cells before final assembly, and allows General
Instrument to prodUCE> r.!gh volumes of rectifiers economically.
The cell construction consists of the following steps:

1 - Diffusing a PN junction into a slice of silicon.

Diffused Slice

~
~.N"
"P"

2 - Metallizing the slice of silicon.

Metallized Slice

Gold and
Nickel Plating

,....,- -........,

Sandblasted Round Dice

Scribed Wafer

f

\
\
I

I

J

\

V

...........

'"

-372-

3 - Scribing and breaking the slice into individual dies.
for the 1.0 Ampere devices we use a sandblast technology
for the 3.0 thru 25.0 Ampere devices we use a saw technology.

PLASTIC RECTIFIERS
4 - Soldering the die between two Double Nail Head Leads.

Soft Solder
Double Nail Head Lead

Silicon Die
Soldering between Double Head Lead

Soft Solder

5 - Cleaning the ass9lTlbly by chemical etching,
washing and drying.

Double Nail Head Lead

6 - Passivating the finished rectifier with silas tie.

Silastic Coating

Silicon Die

Plastic Body Soft Solder

7 - Overmolding by General Instrument proprietary 4B flame
retardant molding compound.

8 - Lead tinning, electrical testing, marking and packing.

Silastic

Silicon Die

Double Nail Head Plastic Rectifier

-373-

I~

FAMILIES OF GENERAL INSTRUMENT
PLASTIC RECTIFIERS
. Miniature Plastic Rectifiers 1.0 to 1.5 AMPERES
Types:

lN4001 thru lN4007
1N400 1P thru 1N4007P
M100A thru M100M
1N539 1 thru 1N5399

Features:
• Low Cost
• Diffused Junction
• Low Leakage
• High Current Capability
• Easily Cleaned with Freon, Alcohol, Chlorothene and similar Solvents
• Tin Plated Axial Leads, Solderable per MIL-STD-202120B
• Case: Jedec D041
• High Temperature Soldering Guaranteed 26S>C110 Secondsl.S75"
(10mm) Lead Length at 51bs (2.25 kg) Tension

Plastic Power Rectifiers 3.0 to 8.0 AMPERES
Types:

lN5400 thru lN5408
P300A thru P300M
GI500thru GI510
GI750 thru GI758
P600A thru P600M
NSSATthru NS8MT*

Features:
• High Surge Current Capability
• Void-Free Plastic Packages
• High Current Operation
• Typicallr less than . 1~
• High Temperature Soldering Guaranteed 265 °C11 0 Seconds/.S75"
(10mm) Lead Length at 5 Ibs (2.25 kg) Tension
• This series uses glass passivated chip junctions.

Fast Recovery Plastic Rectifiers 1.0 to 6.0 AMPERES
Types:

BY396P thru BY399
P1N4933thru lN4937
BY500-100 thru BY500-800
SRP100A thru SRP100K
Gl820thru GI826
SRP300A thru SRP300K
GIB50 thru GIB56
SRP600A thru SRP600K
GI910 thru G1917

Features:
• High Surge Current Capability
• Void-Free Plastic Packages
• High Current Operation
• Typicallr less than 1.0 JlA
• High Temperature Soldering Guaranteed 265°C110
Secondsl.S75" (10mm)Lead Length at 51bs (2.25 kg) Tension
• Controlled Soft Recovery Guarantees on SRP100A thru
SRP100K, SRPSOOA thru SRPSOOK, BY500-100 thru BY500BOO and SRP600A thru SRP600K series
• Tin Plated Axial Leads, Solderable per MIL-STD-202l20B

-374-

Q.UICK GUIDE TO PLASTIC RECTIRERS
TYPE

CASE
lo(A)

OTArC)
VR.6O(V)
VR.I~

VR-2OO(V)

IN400I
Ivu
IN_
0041

MIOQA
Iru

IN4933'

SRPIOQA'

IN5391

....

INS4cio

P30QA

GI500

G1910'

Gl85O'

tIw

lu.

"'00M

SRPlDOK'
0041

IN5399
0041
1.5
75a1TL
IN5381
IN5392
IN5393
IN53114
IN5395
IN53116
IN53117
IN53116
IN531111
50

IN540II
1lO201AD
3.0
55
IN5IOO
IN5401
IN5I02
IN5403
IN5404
IN_
IN5408
IN5407
IN54C1I

P300M
D0201AD
3.0
55

GElD
D0201AD
3.0
95
01500
GI501

Iru
G1B58'
D0201AO
3.0

01502

Iru
01917'
1lO201AD
3.0
110
G1910
G1911
01812

P300G

G1504

G191.

P300J
P300K

G/5OI
G/5OI

G1916
G1917

2CXl
12

1110
1.1

Gi510
1110
.1.1

1110

150

125

1.25

....

tIw

75
IN400I
IN4OCI2
IN4CKD

0041
1.0
1110
IIIOQA
MlOOI!
1111100

IN4931'
0041
1.0
75
IN4933
IN_
IN_

IN4004

MlDOG

IN_

SRPlDOG

IN4005
I_

lllOOJ
111011<
11111011
50

IN_

SRPlOOJ
SRPIOII<

I~

I~

55
SRPIOQA
SRPlOOI!
SRPiIlOD

VR-~
VR.~

VR-5OCI(V)
VR.5OCI(V)
VR.5OCI(V)
VR-IOIIO(V)
SURGE(AI
VF(V)

IN4007
30
1.1

30
1.2

I~,I.I

30
1.3

....

fA

P30QA

P300B
P300D

P300M

B'I:I1I6P'
Ivu
B'1:11I6P'
D0201AD
3.0
50

Gl851
G1852

SRP3OOA'
Iru
SRP301IK
DOI!DIAO
3.0
55
SIll'3OM
SRP300B
SRP3110D

-.

SRP300G

B'I:I1I6P

SRP300J
SRP300K

B'1:11I9P

1110
1.3

100
1.25

110
GI850

GIISII

B'I:I1I6P
B'I:I97P

QUICK GUIDE TO PLASTIC RECTIFIERS

...

BY5IIO-IOO'

G1750

1o(A)

~

GI755
P600
8.0

P600M

CASE

B'I51IMlO'
1lO201AD

OT",°O)

.s

II)

II)

BY5IIO-IOO

G1750
Gi751
G/752

P600A
P80IIB
P1IOOD

TYPE

VR-6O(V)
VR-I~

VR-2OO(V)
VR-<1OO(V)
VR-6OO(V)
VR-6OO(V)
VR-IOIIO(V)
SURGE(A)
VF(V)
Fast Recovery

BY5IIO-2CXl

tIw

IIY5OI)

..:

75

50

100

AMBIENT TEMPERATURE.

FIG. 3 30

W
(')(Jl
a:W
:::Ja:
(JlW
00..
a::;;

25

OW
LLa:
",a:
..::::J
wU

06

f'.~

'c

FIG. 4 -

W
(')(Jl
a:W
:::Ja:
(JlW

T" .. 75"C

00..

20

a::;;

10

0..

?;r:
erz

OW
LLer
",a:
..::::J

r--.

6

810

0..

20

PEAK FORWARD SURGE CURRENT

~

100

=
-

60
40

60
40

WW

>0..

~

TJ"f~:C

FIG. 6 -

:::Ja:

00

0.1

«

.04

'1i!~

Vsig _ 50MVp-p

0.1

0.2

0.4

1.0

.4

'.0

, ,-

ff-

Ul

2

4

10

20

40

100

10

TJ - 100°C

TJ~25°C

Z

..:

11111111

2

TYPICAL REVERSE CHARACTERISTICS

-

1.0

UlO

f. 1.0 MHz

I

di

.02 .04

10

W:;;
er..:

10

SQUARE PULSE
d,
200/!J. s

r:

Z

er
a:
:::J
o
W(Jl
UlW
era:

100

-

TJ - 25°C
NON-REPETITIVE

PULSE DURATION. MILISECONDS

W

.2

-

1415

200

10
.01

40 60 80 100

FIG. 5 - TYPICAL JUNCTION CAPACITANCE

-

12

600

20

NUMBER OF CYCLES AT 60Hz

20

10

400

wU

5
1

2°0 DU~_~_~Cle

08

..: .SA, IR=<>.l A. Irr=.25A
3. Thermal Resistance from Junction to Ambient at. 375" (9.Smm) lead lengths, P.C. Board mounted.

-378-

Amps

1.1

Amps
Volts

IiA
IiA
ItS
pI

°CIW
°C

RATINGS AND CHARCTERISTIC CURVES M100A THRU M100M

FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

,.:
FIG. 1 -

o

w

UW

a:

~~

~

08

>
«

10

/

a: a:

Ow

/

u..U.
oo~

\

6«

I

0 1

TJ - 25°C
PULSE WIDTH 300~s
10 /0 DUTY CYCLE

I

Z

W

«

I-

04

SINGLE
PHASE
HALF WAVE

(')::>

«U

./
./

o

1.0

~,.: 06

a:
W

10

U

««

a:Z
Ow
~~

a:
a:
::>

12

Wa:
a:W

~~

20

w

FORWARD CURRENT DERATING
CURVE

u:

~ en

Z

Z

T\

«

60Hz

02

a

25

50

75

110

125

150

.1

01

I00

I-----

RESISTIVE OR
INDUCTIVE LOAD
375" (95mm) LEAD LENGTH

04

Z

08

06

L

10

12

.1

16

14

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

175

AMBIENT TEMPERATURE. ·C
FIG. 3 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

,.:
Z

W
a:
a:
::>

U

W
(')00
a:W
::>a:

40

"-

100
8 3ms SINGLE HALF SINE-WAVE
JEDEC METHOD

r-.

30

u..
CI.

W

U

r-.

.........

ooW
oU.

a:~

Fig. 4- TYPICAL JUNCTION CAPACITANCE

,

50

20

««

Z
«
f-

U

t"-..

0

2S"C

TJ

20
lO

«

Q.

,

«

U

~

a:

60
40

101.0

-

Ie

ViigmT~rp

u..

, 0

"

2

4

10

20

40

100

REVERSE VOLTAGE. VOLTS

«
W
U.

2

6 8 10

20

40

60 80 , 00

NUMBER OF CYCLES AT 60 Hz

FIG. 6_ PEAK FORWARD SURGE CURRENT

,.:

1000

Z

~

a:

::>

Fig. 5- TYPICAL REVERSE CHARACTERISTICS
10

U
wOO

ww

\.0

.,.....

TJ

100"C

a:«
000
::>a:

.4

OU

0.1

««
~,.:

100



wU
Q.

I-

TJ

Z

I00

200

a:Z
Ow

W~

«

aU.

a:~

>U.

~~

400

600

I'

oow

oow
a: a:

W
(')00
a:W
::>a:

'1

.0 1
20

40

60

80

100·

25°C

-

1-

120

Z

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

-379-

.......

=
-

60

--

40
20

TJ

2S"C

'

SQUARE PULSE,

10
01

~

NON*REPETITIVE

.02 .04

d,

dt

200 /.1.S

I

0.1

0,4

0.2

1.0

2

PULSE DURATION. MILISECONDS

10

I

1N5391 THRU 1N5399
MINIATURE LOW CURRENT PLASTIC RECTIFIER
VOLTAGE- 50 to 1000 Volts CURRENT- 1.5Amperes
FEATURES
.• High surge current capability
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
• 1.5 Ampere
operation at
TL= 70"C with
no thermal runaway
• Typical IR less than 0.11!A
• Low cost construction utilizing
void-free molded plastic technique
• High temperature soldering guaranteed:
250°C/10 seconds/.375",(9.5mm) lead
length at 5 Ibs., (2.3kg) tension

D0-41

-r
1.0 (25.4)

MIN

.107(2.7) ~
.OBO (2.0)

1 I"---:J=-:~
.205(5.2)
.16~W

t

1.0 (25.4)
.034 (.86) ~..

.028 (,71)

MIN

I

•

MECHANICAL DATA
Case: JEDEC DO-41 , molded plastic case
Terminals: Plated axial leads, solderable per MIL-

Dimensions in inchtes
and
(millimeters)

STD-202, Method 208

Polarity: Color band denotes cathode end
Weight: 0.012 ounce, 0.3 gram
Mounting Position: Any

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase. half wave. 60 Hz. resistive or inductive load.
For capacitive load. derate current by 20%.

mm

SYMBOLS 5397

"Maximum Recurrent Peak Reverse Vottage
"Maximum RMS Vottage
"Maximum DC Blocking Vottage
"Maximum Average Forward Rectified Current
.SOO, (12.7mm) lead lengths at TL=70°C
"Peak Forward Surge Current
8.3ms single haR sine-wave superimposed on
rated load (JEDEC Method)
"Maximum Instantaneous Forward Vottage
at 1.SA, TA=70°C
" Maximum DC RElverse Current TA=2SoC
at Rated DC Blocking Voltage TA= 1S00C
"Maximum Full Load Reverse Current Full Cycle
Average,.37S",(9.Smm) Lead Length at TL=70°C
Typical Reverse Recovery Time (NOTE 2)
Typical Junction Capacifance (NOTE 1)
Typical Thermal Resistance (NOTE 3)
"Maximum DC Blocking VoHage Temperature
"Operating Junction Temperature Range
"Storage Temperature Range
NOTES.

VRRM 50
VRMS 3S
Voc 50

5392

m mm

5393

5394

5395

m m m m

5396

5397

5398

5399 UNITS

100 200 300 400 500 600 800 1000 Votts
70 140 210 280 3S0 420 560 700 Votts
100 200 300 400 SOO 600 800 1000 Votts

I(AV)

1.S

Amps

IFSM

SO.O

Amps

VF

Votts

IR

1.4
S.O
300.0

IR
TRR
CJ
ReJA
TA
TJ
TSTG

300.0
2.0
1S.0
26.0
+1S0
-so to +170
-so to +175

1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Voe.
2. Measured with IF"O.5A, IR=O.1A, Irr= .25A.
. 3. Thermal Resistance from Junction to Ambient at ,375" (9.5mm) lead lengths, P.C. Board mounted.
"JEDEC Registered Value.

-380-

J.LA
J.LA
ILS
pf

°cm
°C
°C
'C

RATINGS AND CHARACTERISTIC CURVES 1N5391 THRU 1N5399

FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

f--'

FIG. 1 -

zW

FORWARD CURRENT DERATING
CURVE

a:
a:
::>
o

2.' ,......---,,......--r----,,,,,,,,--r----,---,

o

W

Uw

10

/

V

o

u::

f= en

20

a:
~ t3
a: a:
Ow

2.0

Wa:
a:W

~~

1.0

/

/

u.Cl.

en:::;

~~
O~

TJ - 25°C
PULSE WIDTH = 300 u s
1% DUTY CYCLE

I

g
~ U O.

<{

W

Z

f-

Z

<{

'/

.01

fen

>
<{
25

50

75

100

125

150

0.4

I

0.6

0.8

1,0

1
1.2

I
1,4

1,6

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

175

LEAD TEMPERATURE. 'C
FIG. 3 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

f--'

z

W

a:
a:
::>

o

40

W

(!len
a:U!
::>a:
enw

~~

<{<{

0

"

o

100

8.3 ms SINGLE HALF SINE·WAVE

"Q.

(JEDEC METHOD) TL - 70'C

I"-

60
40

ui
0

i'"

TJ= 25°C
20

Z

~

0

;s:

a:

Fig. 4-TYPICAL JUNCTION CAPACITANCE

50

0

«f0<{

""

10

Cl.

«

0

"-

,1

l<:

«

W
Cl.

f_ '.0 MHz
Voig- 5OmVPi>

.2

0

.4

1.0

2.0 4.0

10 20

40

100

REVERSE VOLTAGE. VOLTS
2

10
204060800

6810

NUMBER OF CYCLES AT 60 Hz

'"'

FIG. 5- TYPICAL REVERSE CHARACTERISTICS

Z

~

E::"':

10

a:

i3

--

W(I)

~~

10

WW

>Cl.

w:::;
a:«

4

~
TJ--='

l{)()-°G~

eno

::>

ct 0'

<{

.

@2
z:::;
!z

~
~

o.

TJ~25
«

......

0.37& (lI.1invn) lAod

1.0

o

~~.c. ~ mounting

40

60

,
"" , ,

120

40
1.0

.....

~

140

•

160

C.

0
Z

«~

30

TJ~

10

(3

«

«0..
«

/

10

0

f=-1MHz

VSl9f51Tn

W

ce
ce

3.0

I

o

TJ "25°C
PULSE WIDTH = 300 j.Ls
2% DUTY CYCLE

If

ce
1.0

-

5

0.3

Z

0.1

10

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

,•

10

W0..

W::;:

ce«

a:
00

.03

./

T•• l00·C

I

«~

0.6

0.8

1.0

12

1.4

1.6

~Z

1.8

Zw

"

---

WZ::;:

.01

0.4

50 100

REVERSE VOLTS, VOLTS

-

ce

f2
CJ)
5W

~

,

ui

::;:


~O

.01

~~
o
20
40

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE
VOLTAGE

-383-

I~

I

GI500 THRU GI510
MEDIUM CURRENT PLASTIC RECTIFIER
VOLTAGE - 50 to 1000 Volts CURRENT - 3.0 Amperes
FEATURES
• High surge current capabliHy
• Plastic package has UnderwrHers Laboratory
Flammability Classification 94V-O

Do-2D1AD

.21015.31

":lIOi4.ii
DIA.

• TypicallRless
than 0.1 IlA

f

."

• Void-free molded plastic package

1.0125.41

L, I~

,.

• High current operation of 3 Amperes
'"
at TA- 95°C with no thermal runaway
• High temperature soldering guaranteed:
250°C/10 secondsl.375",(9.5mm) lead lengths at
5 Ibs., (2.3kg) tension

~

*T

MECHANICAL DATA

1.0 125.41

.05211.31
.04811.21

~

Csse:JEDEC DO-201AD Molded plastic
Terminals: Plated Axial leads, solderable per MILSTD-202, Method 208
Polarity: Color Band denotes cathode
Weight: 0.04 ounce, 1.1 gram
Mounting Position: Any

Dimensions in inches
and
(mOl/meters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2500 ambientlBmperatul8 unless olherwlse specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Vo~age
Maximum RMS Vollage
Maximum DC Blocking Vollage
Maximum Average Forward Rectified Current
.375", (9.5mm) lead lengths at TA- 95°C
Peak Forward su~e Current
B.3ms single half s ne-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Vollage TJoo 25°C
at9.4A
TJ-175°C
Maximum DC Reverse Current
TA-25°C
at Rated DC Blocking Vo~ge
TA-l00"C
Typical Junction Capaci1ance (NOTE 2)
TJ-25°C
Typical Reverse Recovery Time (NOTE 3)
Typical Thermal Resistance (NOTE 1)
Operating Temperature Range
Storage Temperature Range

VRRM 50
VAMS 35
Voc 50

100 200 400 600 BOO 1000 Vo~s
70 140 2BO 420 560 700 Voks
100 200 400 600 BOO 1000 Vofts

I(Av)

3.0

Amps

IFSM

100.0
1.1
1.0
5.0
50.0
2B.0
2.5
15.0
-50 to +150
-5010+175

Amps

VF
IR

OJ
TRR
ReJA
TJ
TsrG

NOTES:
1. Thermal Resistance from Junction to applied at ambient .375" (9.5mm) lead lengths. P.C. Board mounlBd.
2. Measured at1 MHz and applied reverse voltage of 4.0 volts.
3. Reverse Recovery Test Conditions: IF=O.5A,1R=1.0A.lrr= 0.25A.

-384-

Vofts

pA
pi

J1S
0ON{

°C
°C

RATINGS AND CHARACTERISTIC CURVES G1500 THRU GI510

FIG. 2 -

W
ClCll
a:W
:::la:
CIlW
00.
a:::i!
««

:;:~

a:Z
OW
!La:
><:a:
«:::l
wO
0.

MAXIMUM PEAK FORWARD
SURGE CURRENT

200
8 3ms SINGLE HALF
SINE·WAVE \JEDEC Method!

100

NoN:REPEm-IVE

......

50

-

r-

10

"WJJI

T...,,",:,,

"'-III

r"""

J.J..~

ITiI'WiI

..
50

10

100

NUMBER OF CYCLES AT 60Hz

FIG. 4 - TYPICAL JUNCTION CAPACITANCE
100

!L0W
Z
«

50

0

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

TJ • 25"0

VIig.jmi'i

0

«
0.
«

100

100..

I.,.oMHz

I-

.........

10

~

0
I-

Z
W
a:
a:
:::l
0

5

30

/

10

10

50

100

REVERSE VOLTAGE. VOLTS

TJ = 25°C

0

a:

~13

a: a:
Ow
!Lo.
CIl::i!
:::l«
0
W
Z
«
IZ
«
ICIl

:!:

3.0

I

1.0

TJ = 25°G
Pulse Width 300 jJ. S
1% Duty Cycle

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

0

IZ

~
0.3

I

a:
:::l
o
WCIl
CIlW
a: a:

0.1

.03

.01

10

- ---

T•• ,oo·O

g! ~

1.0

CIlO
::> a::

0.1

I-"""

~~

J
0.6

0.8

,.0

,.2

1A

'.8

,.8

@~

2.0

-

z::i!

«

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

IZ

«

!ii
~

01

I-T,.·2S·C

~

0

20

I
40

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

IN~
-385-

I

P300A THRU P300M
MEDIUM CURRENT PLASTIC RECTIFIER
VOLTAGE-SO to 1000 Volts CURRENT-3.0Amperes
FEATURES
• High surge current capability

DO-201AD

• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• TypicallR less
-',
than 0.111A
"
• Void-free molded plastic paCkage' ,

1

.210 (5.3)
.190 (4.8)

1.0 (25.4)

OIA.

~r

LI

.3.0 Ampere operation at TA=90°C
with no thermal runaway

t

"""""'"
"

• High temperature soldering guaranteed:
2S0°C/10 seconds/.37S",(9.Smm) lead lengths at
Sibs., (2.3kg) tension

.375 (9.5)
.2851'.2)

f

1.0 (25.4)
.052(1.3)
.048 n.2)

+

T

MECHANICAL DATA
Case:JEDEC DO-201AD Molded plastic

Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Dimensions in inches
and
(millimeters)

Polarity: Color Band denotes cathode
Weight: 0.4 ounce, 1.1 gram
Mounting Position: Any

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse VoHage
Maximum RMS VoHage
Maximum DC Blocking VoHage
Maximum Average Forward RectHied Current
.375", (9.5mm) lead lengths atTA=55°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Vottage
at 3.0A
TJ-25°C
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking VoHage
TA=100°C
Typical Junction Capacitance (NOTE 1)
TJ=25°C
Typical Reverse Recovery Time (NOTE 2)
Typical Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM 50
VRMS 35
Voc 50

100 200 400 600 800 1000
70 140 280 420 560 700
100 200 400 600 SOO 1000

I(AV)

3.0

Amps

IFSM

200.0

Amps

VF

1.2
5.0
25.0
2S.0
2.5
15.0
-50 to +150

VoHs

IR
CJ
TRR
R8JA
TJ,TSTG

NOTES:
1. Measured at 1 MHz and applied reverse voltage of 4.0 Volts.
2. Reverse Recovery Test Conditions: IF=O.5A, IR=1.0A, Irr=.25A
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) lead lengths, P.C. Board mounted.

-386-

VoHs
VoHs
VoHs

J.LA
pf

lIS
°CIW
°C

RATINGS AND CHARACTERISTIC CURVES P300A THRU P300M

FIG. 2MAXIMUM PEAK
FORWARD SURGE CURRENT

r--..

FIG. 1-FORWARD CURRENT DERATING CURVE

NON.lEpl),v~

~"'"
"'"

r---

REPETITIVE

T...T;",..: iT

1"-1-

(JEDEC

8.3ms Single Half Sine Wave
method)

10

5

10

50

100

NUMBER OF CYCLES AT 60 Hz

FIG. 4-TYPICAL JUNCTION CAPACITANCE
100
50

FIG. 3-TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

u..

cui

~

100

~

0

!zw
a!E 3.0

I

a:
1.0

en

03

Z
«

0.1

Iii
;!;

.03

=25°C

T•• 26·C

II IIII
1-0

-'-

Pulse Width

=3OO1J, S

&.0

10

50

100

REVERSE VOLTAGE, VOLTS

2% Duty Cycle

FIG. 5-TYPICAL REVERSE CHARACTERISTICS

I

§

I

I

!z«

TJ

.01
0.4

I

f-- 1.1.0 MHz
' - - Voig • 6OMVp-p

1

TJ

I

c

~

f---

5

~

/

::E

«

~

~

30

~

f'.. r--.

10

I
=lllO"C

.."".

1....,...000' ~

II
0.6

0.8

1.0

1.2

1.4

1.6

1.8

INSTANTANEOUS FORWARD VOLTAGE, VOLTS
TJ - 25" C ::;;;

.01

o

--

20

40

60

80

100

C

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

IN~
-387-

I

GI750 THRU GI758
HIGH CURRENT PLASTIC RECTIFIER
VOLTAGE - 50 to 800 Volts CURRENT - 6.0 Amperes
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O

0)I..

_I

• High Current Capability

J60 19.11
.4018.61

• Diffused Junction
• Completely Insulated Case

l

• Uniform Molded Body

1.0 MIN.

X

• High Surge Current Capability
• High temperature soldering guaranteed:
250'C/10 seconds/.375",(9.5mm) lead lengths at
5 Ibs., (2.3kg) tension

.36019.11

•05211.31.
.04811.21

+

~
1.0M[N•
125.41

1

MECHANICAL DATA
case: Void-free Molded plastic
Terminals: Plated Axial leads, solderable per MILSTD-202, Method 208

Dimensions in inches

and

(millimeters)

Polarity: Color Band denotes cathode
Weight: 0.07 ounce, 2.1 grams
Mounting Position: Any

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS G1750 GI751

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at
TA-SO'C P.C. Board Mounting (FIG. 1)
TL-SO'C .125", (3.18mm) Lead Lengths (FIG. 2)
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at S.OA
100A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=100'C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

50
35
50

I(AV)

IFSM
VF
IR

OJ
R8JL
TJ,TsTG

NOTES:

1. Thermal Resistance from Junction to Lead at .50"(12. 7mm) lead lengths,
with both leads attached to heat sinks.
2. Measured at 1.0 MHZ and applied reverse voltage of 4.0 volts.
-388-

100
70
100

Gl752 G1754 Gl756 G1758 UNITS

200
140
200

400 SOO
280 420
400 SOO

800
5S0
800

S.O
22.0

400.0
0.90
1.25
5.0
1.0
300.0
10.0
-50 to +150

Volts
Volts
Volts

Amps

Amps
0.95
1.30

Volts

I1A

mA
pf

'CIW
·C

RATINGS AND CHARACTERISTIC CURVES GI750 THRU GI758

FIG. 1 -

OUl
etW
«et
!';W
eta.
0::;;
"-«
Wrt')Z
«W
a:et
wet
>::J
«u

I"

1 1
6. a

"-

"

4. a
3.

'" 1'-

2. 01--

!

1\."-

80

120

«u

140

160

et
a:
::J

rZ
W
et
et
::J
U
WUl
UlW
eta:
Ww
>a.
W::;;
et«
UlO
::Jet
OU
WZ::;;
«
rZ
«
fUl

o

a:

oSi
"-a.
Ul::;;
::J«

l - I--

oW
Z

I

10

TJ - 25°C

I-- I--

Pulse Width = 300.u5
1% Duty Cycle

.0

«

40

L_.62S- 15.8mm}
20

FIG. 4 -

U

«
~fil

"'

~

.....

L_.376"
(9.5mm)

40

60

80

100

120

160

140

180

200

200

./

100

BOTH LEADS ATTACHED
TO HEAT SINKS WITH
LENGTHS AS SHOWN L

LEAD TEMPERATURE °C

~

W

.......

2
80

I~DU~TIVE ~0ADj!_

"
"

"""

o

1000

Z

80 H< RESISTIVE OR

0

AMBIENT TEMPERATURE °C
FIG. 3 - TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS

f-

(6.35mm)

16

I
180

L •• 125"(3.18m~).

,L••25-

20

wr'

t')Z
«~
Sia:
>::J

ECOMMENOEO
I PC BOARD _
MOUNTING

"I' ' I

100

"-«

.05;(1.~~
T
I
PC BOARD

-60

0::;;

sue'ace .,ea

'" 1'-

f-- -U

a: W
«a:
;;;:W
a:"-

d

"-

PC BOAR
1.0 r~tOARD
MOUNTING

40

o Ul 24

MAXIMUM FORWARD CURRENT
DERATING CURVE

...... I'IiO:

8

1

60Hz
RESISTIVE OR INOUCTI\(E LO~D
I
Ground plane
'" x 1" Copper

""IiIP

1"'\:

o~

20

FIG. 2 -

MAXIMUM FORWARD CURRENT
DERATING CURRENT

TYPICAL REVERSE CHARACTERISTICS

100~m
TJ = 100°C

10

~

10

TJ

25 C

0.1

~

r-

Z

«

rUl

01 !;-0---;;2!;-0-;4\;-0-;60;,--;t80~,;i;oo""'-;\;20...-i'40

Z

l

1
.6

W

et
a:
::J

.8

1.0 1.2

1.4

1.6

1.82.0

FIG. 6 - TYPICAL STEADY STATE
THERMAL RESISTANCE

INSTANTANEOUS FORWARD
VOLTAGE DROP VOLTS
FIG. 5 - MAXIMUM PEAK FORWARD
SURGE CURRENT

r-

Z

PERCENT OF RATED PEAK REVERSE VOLTAGE

40
35

6OO~;:+::+::H~~~

W
U
Z
«rf-rUl«
iii!';
Wo
a:
o

U

W

t')Ul
etw
::Ja:
Ulw

~~

o
"-

'"«

w
a.

l,
\

«..,
a: a:
W
I
f-

::;;0

throuqh ot

25
20

60:~~
1.0

2.0

5.0

10

20

50

5.0

~

.... t.."

~

'"

.125

100

lead

....V
~

V

_V

j.V

15
10

.... V

I-- insignificant heat flow

.J.J

««
!';
et

30

t..'
Single lead to heat sink,

V

10'"
j",oo""

.250

.500

l

Both loads 10 heat s:nk.

eqr
.375

.,

.6-25

longt

.750

.875

1.0

EQUAL LEAD LENGTHS TO HEAT SINK INCHES

NUMBER OF CYCLES AT 60Hz

-389-

P600A THRU P600M
HIGH CURRENT PLASTIC RECTIFIER
VOLTAGE - 50 to 1000 Volts CURRENT - 6.0 Amperes
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O

_IB I,

• High Current Capability
• Diffused Junction

.36019.11
.34018.6)

• Completely Insulated Case

1

• Uniform Molded Body

1.0 MIN.

X

• High Surge Current Capability
• High temperature soldering guaranteed:
250°C/10 secondsl.375",(9.5mm) lead lengths at
5 Ibs., (2.3kg) tension

.36019.11

. 05211.3) ,
.04811.2)

+

T

1.0 MIN•
125.4)

1

MECHANICAL DATA

case: Void-free Molded plastic
Terminals: Plated Axial leads, solderable per MILSTD-202, Method 208

Dimensions in inches
and
(millimeters)

Polarity: Color Band denotes cathode
Weight: 0.07 ounce, 2.1 grams
Mounting Position: Any

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at
TA=60°C .375" (9.5mm) Lead Lengths (FIG 1)
TL=60°C .125" (3.18mm) Lead Lengths (FIG 2)
Peak Forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 6.0A
100A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=100°C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range

SYMBOLS P60DA
VRRM 50
VRMS 35
Voc 50

P600B
100
70
100

P600D
200
140
200

P600G
400
280
400

P600J
600
420
600

I(AV)

6.0
22.0

IFSM

400.0
0.90
1.30
5.0
1.0
300.0
10.0
-50 to +150

VF
IR
CJ
R9JL
TJ.TSTG

P600K
800
560
800

UNITS
Votts
Votts
Votts

Amps

Amps

I

NOTES:
1. Thermal Resistance from Junction to Lead at .50"(12. 7mm) lead lengths, with both leads attached to heat sinks.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 volts.
'

-390-

P60DM
1000
700
1000

1.0
1.4

Votts

I1A
mA
pf
°CIW
°C

RATINGS AND CHARACTERISTIC CURVES P600A THRU P600M

FIG. 1 "FORWARD CURRENT
DERATING CURVE
6.0

Oen
«a:
~W
a: ~

60 Hz. RESISTIVE OR

!

([ UJ 5.0

INDUCTIVE LOADS

~

~~+PCBOARD
,

ClZ

~~
Wa:

2.0

;( a

I

M9UNTING

o

20

40

60

80

+PCBOARD

100

140

160

180

~ RESISTIVE OR INDUCTIVE LOAD_

1.-.26"(6.35mm)--'

I

...

NIl

20
15

I 160.HZ I I I I
BOTH LEADS ATTACHED
TO HEAT SINKS WITH
LENGTHS AS SHOWN L

L••376'"(9.6mm)

,..

WI-

10

""~

1.-.825" 15.8mm)

Wa:
>::J S
«U

MOUNTING I-

"

120

«

ClZ
«
w
a: a:

PC BOARD

"

\

~~S"(3.18mmlJ\
2S

0::;:
LL

I- RE~OMMENDED

~

I

o

o en
a:w
«a:
~W
a: 0..

I surtace area_

+

I

FT~DARO PC BOARD

1.0

t:!rOUnd
plane~
1 . xl' COpp.. "

0~"(1.27mm)M~

4.0

12«
WI- 3.0

FIG. 2" FORWARD CURRENT
DERATING CURVE

I I

200

"IS

I I

20

40

AMBIENT TEMPERATURE 'C

60

80

100

120

140

160

160

200

LEAD TEMPERATURE 'C

FIG. 3" TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS

FIG. 4 -

TYPICAL REVERSE CHARACTERISTICS

100

"

100

r.:

I-

Z

J'

w

a:
a:
::J

W
a:
a:
::J
U
wen
enW
a: a:
WW
>0..
w::;:
a:«
enO
::Ja:
OU
WZ::;:
«

/

100

U

Z

o
a:
«

~ffl

oa:

10

u.il:

~

§

TJ"2S'C

PULSE WIDTH = 300 i-l S

1% DUTY CYCLE

en::;:

::J«

&l
Z

~

1.0

10

1.0

~

«

,

0.1
.6

.8

l-

(/)

£:
1.0

1.2

14

1.6

.01

1.8 2.0

o

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

en
w
a:
w
0..
::;:
«

FIG. 5 -

SOD

Z

W
a:
a:
::J
U
W
Cl
a:
::J
en
:.:
«
w
0..

MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

FIG. 6 -

400

~

1"0.

300
200

(3

""

a:

8.3 ms Single Half Sine-Wave
JEOEC Method

.......
......

r-r-

TJ-150'C

....

a:U

....

.J '

«
::;:
W

10

20

50

80

100

120

100

I-

NUMBER OF CYCLES AT 60 Hz

-391-

"iii'

THROUGH OTHER LEAD

"

~«

fB ~

a:

5.0

60

I- SINGLE LEAD TO HEAT SINK.
I- INSIGNIFICANT HEAT FLOW

I- I- 20

r-....

40

TYPICAL THERMAL RESISTANCE VS LEAD LENGTH

U
Z
«l-

I
2.0

40

w

TJ 2 S'C

100

1.0

20

PERCENT OF RATED PEAK
REVERSE VOLTAGE

600

I-

I

0.1

Z

£:

-

TJ = 100°

TJ = 25°C

I-

Z

-

-

\,.000

10

\,.000
~

~~
,3

BOTH LEADS TO HEAT SINK,
EQUAL LENGTH
.6

.7

8

.9

1.0

EQUAL LEAD LENGTHS TO HEAT SINK INCHES

NSF8AT THRU NSF8MT
HIGH CURRENT GLASS PASSIVATED RECTIFIER
VOL TAGE - 50 to 1000 Volts
CURRENT - 8.0 Amperes
FEATURES
• Fully Isolated Overmolded Package

ITO-220

• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• High surge current capability
• High current capability
• Low forward voltage
• Glass passivated drop chip junctions
• Internal Insulation: 1.5k VRMS\
• High temperature soldering guaranteed:
26!5°C/10 seconds .160" (4.06 mm) lead lengths
at 5 Ibs/ (2.3 kg) tension

MECHANICAL DATA
case: ITO-220 fully overmolded plastic

PIN 1 0-----,
.,. ....4°REF.........

PIH2~

Terminals: Plated Lead solderable per MIL-STD202, Method 208

Dimensions in inches
and
(millimeters)

Polarity: As marked
Weight: .08 ounces, 2.24 gram
Mounting Position: Any
Mounting Torque: 5 in. - Ibs. max.

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'0 ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Vokage
Maximum DC Blocking Vokage
Maximum Average Forward Rectified Current
at Tc=100'C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 8.0A
Maximum Reverse Current
Tc=25°C
at Rated DC Blocking Voltage Tc=100°C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range

VRRM 50
VRMS 35
Voc 50

8.0

Amps

IFSM
VF

175.0
1.1
10.0
100.0
55.0
3.0
-55 to +150

Amps
Volts

TJ.TSTG

-392-

Voks
Voks
Voks

I(AV)

IR
CJ
R8JC

NOTES:
1. Thermal Resistance Junction to Oase.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 volts.

100 200 400 600 800 1000
70 140 280 420 560 700
tOO 200 400 600 800 1000

IlA
pi

oem
°C

RATINGS AND CHARACTERISTIC CURVES NSFBAT THRU NSFBMT
FIG. 3 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
175
150

W
Oen 125

Fig. 1-FORWARD CURRENT DERATING CURVE
...:

a:w
:::la:
enw
oil.
a::::E
««
3:...:a:z
OW
1La:
"a:
«:::l

10

Z

W

a:
a:

aoen

8.0

i\

a: W60
«a:

\~

,

~W

~~ •.o
IL

SINGLE PHASE HALF WAVE
60Hz RESISTIVE OR
INDUCTIVE LOAD

W

~
a:

20

o

50

8.3ml SINGLE HALF SINE-WAVE
JEDEC METHOD

r-....

t'--

100

I--...

75

5

V

a:
a:

B

40

-

f-- I--

oa:

20

~ffl
~ffi

0

.-

0

I

2
1

o

. en:::E 4.0
:::l«

~

Z

~
~

1.0
0.4

IL

a.
ui

I

I

0.1
.6

Tc = 7SoC

II

-

.... 1-'"
~~

20

40

Tc'" 25°C

80

~

80

W

~

Fig 5-TYPICAL JUNCTION CAPACITANCE
120

0,2

.-

PERCENT OF RATED PEAK REVERSE VOLTAGE

II

2.0

~

Tc'" 100"C

-

TJ = 25°C
PULSE WIDTH' 3OO"S 2% DUTY CYCLE

lLo..

53Z

L--- I--

.0

1/

10

100

l./

.....

.0

,

50

100

400

100

20

Fig. 4- TYPICAL REVERSE CHARACTERISTICS

150

Fig. 2- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

m

10

NUMBER OF CYCLES AT 60 Hz

CASE TEMPERATURE, 'C

200

r- r--I-

25

\

100

.....

........

50

\

o

L1J II

"-

wU

Il.

W

~

~

U
Z

.8

1.0

1.2

1,,4

1.6

1.8

2.0

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

«
.....
U
«
Il.
«

U

100
80

"

,~

60

T...2i'C
40

...... ~

t-1.oMHz
v~

20

1111111
0.1

0.4

1.0

4.0

10

40

100

400

REVERSE VOLTAGE, VOLTS

·393-

I~

1000

NS8AT THRU NS8MT
HIGH CURRENT GLASS PASSIVATED PLASTIC RECTIFIER
VOLTAGE - 50 to 1000 Volts
CURRENT - 8.0 Amperes
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O

TO-220
190 [483)

1--+ :160 [4:06)
~

t

.150 [3.811
.130[3.30)

1

-p-

.640 [16.26)

PIN

P~N

.360 [9.14)
.320 [8.1ll

.:20[15 .75) ~

. 6ll14.iiSl
14Olf.56i

t

1

l

9.
110 33[[28.02)

.

I ..

tl

055 [1.40)
.045 [1.141

• High current capability
• High surge current capability
• Low forward voltage drop

.600[1.24)
.

575

T·

6lJ

1

• Glass passivated chip junctions
• High temperature soldering guaranteed:
265°C/l0 seconds/.160" (4.06 mm) lead lengths
at 5 Ibs., (2.3kg) tension

[t46)
l·'..n~n'

MECHANICAL DATA

.530

case: JEDEC TO-220 molded plastic

+11.:8H~::;:

+--+ .210[5.33)

[B

.022 56)·1.. .110[2.79)
.090[2.29)
.014 [ .36)

.190[4.83)

Terminals: Plated Leads solderable per MIL-STD202, Method 208

[CASE POSITIVE) PIN 1 + ~
STANDARD POLARITY PIN 2 - ~CASE

Polarity: As marked

Dimensions in inches and (millimeters)

Mounting Position: Any

Weight: 0.08 ounce, 2.24 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25·C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
NS8
SYIIBOLS AT

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Vo~age
Maximum DC Blocking Vo~age
Maximum Average Forward Rectified Current at
Tc=100·C
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Vo~age at S.OA
Maximum Reverse Current
at Rated DC Blocking Vo~age Tc=25°C
Tc=100°C
Typical Junction Capacitance (NOTE 2) TJ=25°C
Typical Thermal Resistance (NOTE 1)
Operating and Storage Temperature Range
NOTES:

1. Thermal Resistance from Junction to Case.
2. Measured at 1 MHz and applied reversed voltage of 4.0 volts.

VRRM 50
VRMS 35
Voc 50

100 200 400 600 SOO 1000 Volts
70 140 2S0 420 560 700 Volts
100 200 400 600 SOO 1000 Volts

I(Av)

s.o

Amps

IFSM

175.0
1.1

Amps

10.0
100.0
55.0
3.0
-55 to +150

IlA

VF
IR
CJ
R8JC
TJ,TSTG

Vo~

pI
°CIW
°C

RATINGS AND CHARACTERISTIC CURVES NSBAT THRU NSBMT

FIG. 3 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
175

150

W
a:W
:::>a:
enw

Fig. 1- FORWARD CURRENT DERATING CURVE
.,.:-

10

Z

0:
:::l

8.0

r\

U

oen

a: W 6.0
«a:
!i:W

t5 ~
U.
W

Cl

«
a:
W

>
«

2.0

o

"

SINGLE PHASE HALF WAVE
60Hz RESISTIVE OR
INDUCTIVE LOAD

o

00..

100

'"

o

"~
i"-b,

t:::::"

75

~

50

r-

<:::::l

wU

I\.

4.0

125

a:::;;
««
!i:..:
a:Z
OW
u..a:
",,,,

W

a:

Clen

0..

II

tc lLI

8.3ms SINGLE HALF SINE-WAllE
JEDEC METHOD

--

25

'r\.

50

5

1\

100

10

20

50

100

NUMBER OF CYCLES AT 60 Hz

150

Fig. 4- TYPICAL REVERSE CHARACTERISTICS

CASE TEMPERATURE, °C

100

0

L

./
Fig. 2- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

_f-- f---- r-TC

0

0

100°C

1

400
I

200

I

f-

Z

W

100

a:
a:

:::l
U

o
a:

~~

25 ffi

I

;

.0

I

i

.0

J---r!

!

I---+---+40

I

TJ

I

20

i

10

~

,

25°C

PULSE WIDTH" 300 1-1 S -

W

2.0

I

I

1.0

V

i

Z

«
fZ

.2

.'

4.0

~

O.

120

u..

I

,
.6

a.
ui

100

Z

80

U

/
.8

II

o

-

!-- r--

20

40

Tc
fiO

80

=25°C
100

120

140

Fig. 5- TYPICAL JUNCTION CAPACITANCE

i

0._

0.'

Tc ":75°C

PERCENT OF RATED PEAK REVERSE VOLTAGE

«
f-

en

J

~

f-- I----

-

I 2% DUTY CYCLE

j

lLo..
en::;;

5«

-

.0

1.0

1.2

,

I

1.4

1.6

«

f-

1.8

2.0

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

()

"

f'

60

«

0..

TJ-25<>C

<::

U

40

t-1.0M·H,
Vsig-50mp-p

...... r--

20

11111111

o
0.1

0.4

1.0

4.0

10

40

100

400

REVERSE VOLTAGE, VOLTS

-395-

INsr~

1000

-396-

FAST RECOVERY
PLASTIC RECTIFIERS
1.0 AMPERE TO 6.0 AMPERES
50 VOLTS TO 800 VOLTS

•
-----_
-397-

INsr~

-

1N4933 THRU 1N4937
MINIATURE FAST SWITCHING PLASTIC RECTIFIER
VOLTAGE - 50 to 600 Volts

CURRENT - 1.0 Ampere
FEATURES

D0-41

f

1.0 (25.4)

.107(2.7)
.080(2.0)

"I

IIIN

1+ ~

~

.205(5,2)

.180(4.1)
~

• Low cost
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
''''''',.
• Fast switching for
high e f f i c i e n c y ,

• Void·free molded plastic package .~
• 1.0 Ampere operation at TA= 75°C
with no thermal runaway
• High temperature soldering guaranteed:
250°C/l0 secondsl.37S",(9.Smm) lead lengths at
5 Ibs., (2.3kg) tension

t

MECHANICAL DATA

1.0 (25.4)

IIIN
.034 (.88)....
.028 (.71)

I

•

Dimension in inches
and
(millimeters)

Cas,,:JEOEC 00-41, molded case
Terminals: Plated Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.012 ounce, 0.34 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load. For capacitive loed, derate current by 20%.
SYMBOLS 1N4933 1N4934 1N4935 1N4936 1N4937

"Maximum Recurrent Peak Reverse Voltage
"Maximum RMS Voltage
"Maximum DC Blocking Voltage
"Maximum Average Forward Rectified Current
.375", (9.5mm) lead lengths at TA-75'C
"Peak Forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method) at TA-75'C
"Maximum Instantaneous Forward Voltage at 1.0A
"Maximum DC Reverse Current TA-25'C
at Rated DC Blocking Voltage TA-l00'C
"Maximum Reverse Recovery Time (NOTE 1)
TJ-25'C
"Maximum Reverse Recovery Current (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 3)
"Operating and Storage Temperature Range

VRRM
VRMS
Voc

50
35
50

100
70
100

200
145
200

400
280
400

600
420
600

UNITS

Volts
Volts
Voks

I(AV)

1.0

Amps

IFSM
VF

Amps
Volts

IR

30.0
1.2
5.0
100.0

TRR
IRM(Rec)
CJ
ReJA
TJ,TSTG

200.0
2.0
15.0
41.0
-50 to +150

nS
Amps
pf
'CIW

NOTES:

t. Reverse Recovery Test Conditions: IF-t.OA, VR=30V., dildl= 5OAI!UI.
2. Measured at t.O MHz and applied reverse voltage of 4.0 Voe.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) lead lengths, P.C. Board mounted.
"JEDEC registered values

-398-

I!A

'c

RATINGS AND CHARACTERISTIC CURVES 1N4933 THRU 1N4937

FIG. 2 -

..:
z
FIG. 1 1.0

0

W

u:
1=",

.8

011.

.6

Uw
wo::
O::w

;::.

~LOA~.oj

om
0::1-

LLO::
wO::
(!l:J


:::l..,<

.75

W~

50

:::l
<0

~~~

.25

C:::;:..J

(!IZ

~~~

~ a:

200

enW

FIG. 1 -

100

OQ.

a::::!!

FORWARD CURRENT DERATING CURVE

«
;:.,.:-

.,.:-

50

a:Z
1La:
lea:
<:::>
wO

Z

NI

a:
a:
:::>

o

I

1111
ON-REPETITIVE

RC

OW

W

MAXIMUM FORWARD SURGE
CURRENT

-.....

..

~

REPETITIVE

8.3m. SINGLE HALF
SINE WAVE (JEDEC MotIIod)

10

..

-=~

Q.

1.0·

6.0

10

50

100

NUMBER OF CYLES AT 60Hz
FIG. 4 - TYPICAL REVERSE
CHARACTERISTICS

~

10

W

a:
a:
:::>

AMBIENT TEMPERATURE·C

T.·100"C

o

,

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

.

100

I-

30

Z

~

I":

~

.

TAa HOC

v

W

a:
a:
:::>

TA=5O"C

~

0

o

o
a:
~en
>w

20

3.0

15 ffi

I

I.0

FIG. 8 -

ILQ.

en:::!!

:::>< o.3

@
~
<

o. 1

~

.03

60

80

100

120

140

REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

TJ - 2S.'C
Pulse Width - 300$ls-

I

Z

40

PERCENT OF RATED PEAK REVERSE VOLTAGE

:~

20/0 Duty,Cycle

NON·INDUCTIVE

Z

U~T

UfCIERfEST

til

j

.0 1

0.4

0.6

O.l'

1.0

1.2

1.4

1.6

1.8

INSTANTANEOUS FORWARD VOLTAGE
VOLTS

ZaIII.OMAlC

ae-to,..",

MlNIMIZ! ALL LEAD LENGTHS
A_TEKTAONIXS4&A KPLUGIN

A:r_TEN.1W Ion
IHPARALLEL

PRE AM" P«IOO PROBE OR EQUlVAt.ENT

FIG. 5 - TYPICAL JUNCTION CAPACITANCE

AI_AOJIJlTEOFOA' 4 Q BETWEEN

TA- H~~o.cFOAAECTIFIEA

I'OINT20FAt:LAYAIClAECTlFtEA

lL 'OO

I·.C~COM:

INDUCTANCE - 38 I'H

Q.

~SO

I(t)

~

U

~

1.0AIFM
-TJ -2S'C
f= 1MHz.
Vsig 50mVp-p

=

10 1.0

5.0

10

I"

~~
50

dVdt - SOA! ".

~

.-

Itr-j

~

'\.
2.0A IRM (REe)

tOO

l..t'

~

oL

REVERSE VOLTAGE, VOLTS
-.ollcml--sET TIME BASE FOR

.•

-405-

. 100n&lcm

I~

SRP300A THRU SRP300K
SOFT RECOVERY, FAST-SWITCHING PLASTIC RECTIFIER
VOL TAGE - 50 to 800 Volts CURRENT - 3.0 Amperes
FEATURES
• High surge current capability
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Void-free molded plastic package
• 3.0 Ampere operation at TA..55°C with
no thermal runaway
• Fast switching for high efficiency
• High temperature soldering guaranteed:
250°C/10 secondsl.375",(9.5mm) lead lengths at
5 Ibs., (2.3kg) tension

DO-201AD

f

.21015.3)
.19014.8)
DIA.

1.0125.4)

14r

LI

t

.37519.5)
. 285f·2)

1.0125.4)
.05211.3)
.04811.2)

+

MECHANICAL DATA

"t

CBse:JEDEC DO-201AD molded plastic
Terminals: Plated Axial leads, solderable per
MIL-5TD-202, Method 208
Polarity: Color Band denotes cathode
Mounting Position: Any
Weight: 0.04 ounce, 1.1 grams

Dimension in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise .peeifled.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.Smm) lead lengths at TA-SS·C
Peak Forward Surge Current
8.3ms single haW sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 3.0A
Maximum DC Reverse Current
TA-2S·C
at Rated DC Blocking Voltage
TA-100·C
Maximum Reverse Recovery Time (NOTE 2) TJ-25·C
Typical Junction Capacitance (NOTE 1)TJ-25·C
Typical Thermal Resistance (NOTE 3)
Operating Temperature Range
Storage Temperature Range
~

SYlllOl.S
VRRM
VRMS
Voc

SRP

SRP

#OA

3fI/1B

50

100
70
100

35
50

SRP
300D
200
140
200

SRP
300G
400
280
400

SRP

UP
3tIOK
800
560
800

3IJ(JJ

600
420
600

IMTS
Volts
Volts
Volts

~AV)

3.0

Amps

IFsM
VF

150.0
1.3
10.0

Amps
Volts

IR
TRR

CJ
R8JA
TJ
TSTG

100

300 I 400
150 200
150
28.0
15.0
-5010 +125
-5010 +150

200
100

NOTES:

I. Measured at 1 MHz and applied reverse voltage of 4.0 volts.
2. Reverse RecovelY Test Conditions: IF=O.. 5A, IR=I.OA, Irr-.25A.
3. Thermal Resistance from Junction to Ambient at .375' (9.5mm) lead lengths with both leads to heat sink.

-406-

I

500
200

pA
AS
pf

·CNi
·C
·C

RATINGS AND CHARACTERISTIC CURVES SRP300A THRU SRP300K

FIG. 2-MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

FIG.1-FORWARD CURRENT DERATING CURVE
W

200

C!JCIl
O:w
CIlw

' ..........

::>0:
00..

''''

0:::;;
««

LOADS

~

~....am

-Wvl "~g/-,*,'----""""""'''''''''-+----j

wO

a..

20~

(95m~)

20

-"",

u..o:
",0:
«::>

CAPACITIVE

L:o=OSlSH ,

TA

40

60

80

120

100

,.

140

~
Z

0:
0:
::>

~

V

WCIl
CIlW

0:0:
WW

W

0:

0:

10

f2CIl

.3

~

W::;;

30

0:«

Z

~

::>0:
00

~~

~

@

.-

CIl
~

2% Duty Cycle

TJ

-

.".

.,

----

«
,...
Z
«
,...

;~';e ~~~ ~ 300~s-

I

01

JIf'

CIlO

I

l00"C

,.

>0..

«

::>

TJ

o

Z

aoa:

''''

"

W

W

10

50

FIG. 4 - TYPICAL REVERSE
CHARACTERISTICS

CIl

a..
::;;

1.

1.0

''''
W

55"C

f'~~ WAVE, (JED~C METHOD)

FIG. 3- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

0:

""

8.3ms SINGLE HAlF

LEAD LENGTHS

AMBIENT TEMPERATURE, 'C

,...«

!oo..

5O"C

ioo""'TJ

'"
~

250C

01
'0

20

40

eo

100

80

120

140

Z

~

PERCENT OF RATED PEAK REVERSE VOLTAGE
03 i

~

01

I

:04

06

08

10

12

14

16

FIG. 6 -

18

INSTANTANEOUS FORWARD VOLTAGE, VOLTS
FIG. 5 u..

TYPICAL JUNCTION CAPACITANCE

10n

501l
NONINDUCTIVE

NON INDUCTIVE

+O.5A

100

C.

ui
0
Z
,...«

REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

50

_
-

(+)
50 Vdc
(approx.)

~

\

D.U.T.

17

-0.25

(-)

U

1n

i""i'-

«
a..
«
0

NON-

r--. to-,..

TJ = 250C
f = 1.0MHz
VSIQ = 50 Vp-p
50

10

J

(NOTE 1)

INDUCTIVE

=

10

10

OSCILLOSCOPE

50

REVERSE VOLTAGE, VOLTS

''''

NOTES: 1. Rise Time = 7ns max., Input Impedance
1 megohm, 22pF.
2 Rise Time = 10ns max, Source Impedance =
50 ohms

-1.0

I'~

~1cm""'" ~1&J~Jc~ASE FOA

IN~
-407-

BV396P THRU BV399P
SOFT RECOVERY, FAST SWITCHING PLASTIC RECTIFIER
VOLTAGE - 100 to 800 Volts
CURRENT - 3.0 Amperes
FEATURES
• High surge current capability
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Void-free molded plastic package
• 3.0 Ampere operation at TA=50°C with
no thermal runaway
• Fast switching for high efficiency
• High temperature soldering guaranteed:
250°C/10 seconds/.375",(9.5mm) lead lengths at
5 Ibs., (2.3kg) tension

DO-201AD

f

.210 (5.3)
.190 (4.8)
OIA.

1.0 (25.4)
MIN.

L,

1+

r

1
t

~

.375 (9.5)
.285 n.2)

!

1
1.0 (25.4)

MECHANICAL DATA

MIN.
.052 (1.3)
.048 (1.2)

•+

case:JEDEC DO-201AD molded plastic
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color Band denotes end
Mounting Position: Any
Weight: .04 ounce, 1.1 gram

!

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) lead lengths at TA=50°C
Peak Forward Surge Current
10ms single half sine-wave superimposed on
rated load at TA=25°C
Maximum Repetitive Peak Forward Surge (NOTE 1)
Maximum Instantaneous Forward Voltage at 3.0A
Maximum DC Reverse Current TA=25°C
at Rated DC Blocking Voltage TA= 100°C
Maximum Reverse Recovery Time (NOTE 3)TJ=25°C
Maximum Forward Recovery Time 1OOmA TJ=25°C
Typical Junction Capacitance (NOTE 2)
Typical Thermal Resistance (NOTE 4)
Operating Temperature Range
Storage Temperature Range

VRRM
VRMS
Voc

BY396P
100
70
100

BY397P
200
140
200

BY396P
400
2S0
400

UNITS
Volts
Volts
Volts

I(AV)

3.0

Amps

IFSM
IFRM
VF

100.0
10.0
1.25
10.0
500.0
500.0
1.0
2S.0
15.0
-50 to +125
-50 to +150

Amps
Amps
Volts

IR
TRR
TFR
CJ
RaJA
TJ
TSTG

NOTES:
I.
2.
3.
4.

BY399P
SOO
560
SOO

Repetitive Peak Forward Surge Current at k15KHz.
Measured at 1 MHz and applied reverse voltage of 4.0 volts.
Reverse Recovery Test Conditions: IF=IOmA, IR_IOmA, Irr=I.OmA.
Thermal Resistance from Junction to Ambient at .375' (9.5mm) lead lengths with botih leads to heat sink.

-408-

!LA
nS

118
pi

°cm
DC
DC

RATINGS AND CHARACTETISTIC CURVES BY396P THRU BY399P

f-'
Z

w
a:
a:

::J

o
o
w

u::

0

20 0

W
C!l(J)

30

.......

i=(/)

OW
Wa:

~~20

a: W

10

RESISTIVE OR
INDUCTIVE LOAD

LL
W

0375" (9Smm) LEAD LENGTHS

~

a:
w

40

20

~

60

I

(J)W

~

~«

,
,
100'

::la:

~

a:::2:
~

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

FIG. 1 - FORWARD CURRENT DERATING CURVE

~~
««

:;:,.:

:I'll!
~~
wU

~

100

80

50

a:Z

i""""oooo.

,,,
I- T,

~

10ms SINGLE HALF

a.

SINi

120

10

140

....... '"

sooC

WAlE Y7A~E~ ~~t
5.0

1.0

10

50

100

NUMBER OF CYCLES AT 60Hz

AMBIENT TEMPERATURE, °C

FIG. 4 - TYPICAL REVERSE
CHARACTERISTICS

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

0

100

TJ" 100 0 e
0

r
z
w
a:
a:

V

0

::J

oa:

To

~fil
a: a:
ow
LL"(/)::2:
::J

ow
z
>f
z
>f
(/)

~

«

"==

25°C

.

PULSE WIDTH == 300p.s 1% DUTY CYCLE

/

1.0

.J

0

o

TJ"

,.....

sooe

~

1

TJ - 25°C

0.5

7

I

.J

'" o

JJ5

20

40

60

80

100

120

PERCENT OF PEAK REVERSE VOLTAGE

I

.D1

0.4

0.6

DB

lJ)

1.2

1.4

1.6

1,8

2JJ

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
100

LL
Cl.

W

0

z

,....1-1-

>f

13

cI:
«

r""- 1- ...

TJ = 25°C
f = 1 MHz

0

Voig ~

5omvF'p,

10
1.0

s.o

10

50

REVERSE VOLTAGE, VOLTS

-409-

100

140

I

BV500-100 THRU BV500-800
SOFT RECOVERY, FAST SWITCHING PLASTIC RECTIFIER
VOL TAGE - 100 to 800 Volts CURRENT - 5. Amperes

a

FEATURES
DO-201AD

1

.210 (5.3)
.190 (4.8)

L,

r

1.0 (25.4)

DIA.

1+

t

. 375(9.5)

~
1.0 (25.4)

.05211.3) , +
.048 (1.2)

T'

Dimensions in inches
and
(millimeters)

• High surge current capability
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Fast switching for high efficiency
• High current operation
""'''-.
at TL=45°C
""
• Void-free molded plastic package "~
• High temperature s o l d e r i n g " " ,
guaranteed: 250°C/10 seconds 1.375",
""""'"
(9.5mm) lead lengths at 5 Ibs., (2.3kg) tension
.
• Especially designed for applications such as
Switch Mode Power Supplies, Inverters, Converters, TV Scanning, Ultrasonic-Systems,
Speed controlled DC Motors, Low RF Interference and Free Wheeling Rectifiers

MECHANICAL DATA
Case:JEDEC DO-201AD molded plastic
Terminals: Plated Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color Band denotes end
Mounting Position: Any
Weight: .04 ounce, 1.1 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S'C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

SYMBOLS 8Y50II-IOO 8Y501l-2DD 8Y5OD-4OD 8Y5OIJ.8DD BY5D11-BDD UNITS
Maximum Recurrent Peak Reverse Voltage
100
200
400
600
SOO
Volts
VRRM
140
560
Volts
Maximum RMS Voltage
70
2S0
420
VRMS
100
200
400
600
SOO
Voks
Maximum DC Blocking Voltage
Voc
Maximum Average Forward Rectified Current
5.0
Amps
.375", (9.5mm) lead lengths at TL=45°C
I(AV)
Peak Forward Surge Current
10ms single half sine-wave superimposed on
Amps
rated load at TA=25°C
200.0
IFSM
10.0
Amps
Maximum Repetitive Peak Forward Surge
IFRM
Maximum Instantaneous Forward Voltage at 5.0A
1.35
Volts
VF
10.0
Maximum DC Reverse Current
TA=25°C
ItA
1.0
mA
at Rated DC Blocking Voltage
TA=100°C
IR
Maximum Reverse Recovery Time (NOTE 3)TJ=25°C
200.0
nS
TRR
Maximum Reverse Recovery Current (NOTE 3)
2.0
Apk
IRM(REC)
Typical Junction Capacitance TJ=25°C (NOTE 2)
2S.0
CJ
pf
Typical Thermal Resistance (NOTE 1)
R8JA
15.0
°CIW
Operating Temperature Range
TJ
-50 to +125
°C
Storage Temperature Range
-50 to +150
°C
TSTG
NOTES:
1. Thermal Resistance from Junction to Ambient at 375",( 9.5mm) lead lengths with both leads to heat sink.
2. Measured at 1 MHz and applied reverse voltage of 4.0 volts.
3. Reverse Recovery Test Conditions: IF=I.0A, VR=30V, dildt=50AlJ.lS.
-410-

RATINGS AND CHARACTERISTIC CURVES BY500-100 THRU BY500-800

~2~-~T~Y~P!IC~A~L~R~EV~E~R~S~E~C~H~A~R~A~CITIE~R~I~STICS

IZ

10 •.
Flg

ill

FIG. 1 - FORWARD CURRENT
DERATING CURVE

a:
a:

TJ '" 100°C

::J

o

o
w
u::

FUJ
Ow
wa:
a:w
0"a::2i

,,;«

S:f-'"
a:z

OW
LLa:
wa:
(')::J

«0

a:
w

q

01

10

20

0~0--~2~0--~40~-760~~8~0--~10~0--~~~'40

,,;«

-

200

a:Z
OW
LLa:
"a:
«::J
wO
"-

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
100

REPETITIVE _ _
TA"25°C

10

1.0

Z

w
a:
a:

10

0
0

50

V

10

50

100

TJ

=

25°C

FIG. 5 - TYPICAL JUNCTION CAPACITANCE

~[3

100

300!,s
PULSE WIDTH
1% DUTY CYCLE

/

10

LL
a.
uj

05

50

-

0

w
Z

~

5.0

. NUMBER OF CYCLES AT 60 HZ

a:

'"

1111111

10ms SINGLE HALF SINE·WAVE
a1 RATED LOAD

50

UJ

140

50

f-'"

>'Z

120

...NON.JEP~TI~I')EI

-r-

100

S:f-'"

::J«
0

100

FIG. 4 - MAXIMUM PEAK
FORWARD SURGE CURRENT

W
(')UJ
a:W
::Ja:
UJW
0"a::2i

a: a:
OW
LL"UJ:2i

80

REVERSE VOLTAGE

TEMPERATURE °C

::J

60

40

PERCENT OF RATED PEAK

Z

I

'"

I

01

u
rt
«
0

05

0.4

Y"9

"'r-

~150"tl'P

10

5.0

I

01

;J==l~~Z

-

1.0
06

08

10

12

14

16

18

5.0

10

50

REVERSE VOLTAGE, VOLTS

20

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

-411-

100

GI820 THRU GI826
HIGH CURRENT FAST SWITCHING PLASTIC RECTIFIER
VOLTAGE - 50 to 600 Volts CURRENT - 5.0 Amperes
FEATURES

GI,

-I

.360
.340

• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• High surge current capability
• High current operation
• Fast switching for
high efficiency
• Diffused junction
• Completely insulated case
• Uniform molded body
• High temperature soldering guaranteed:
250°C/10 seconds/.375" .(9.5mm) lead lengths at
5 Ibs., (2.3kg) tension

!Hl

.)

i

1.0 MIN.

X.36019.11

•05211.3) ,
.04811.2)

..

~
1.0 MIN •
125.4)

MECHANICAL DATA

1

case: Molded plastic
Terminals: Plated Axial leads. solderable per MILSTD-202. Method 208
Polarity: Color Band denotes cathode
Mounting Posltloll: Any
Weight: 0.07 ounce. 2.1grams

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ra\ings a\ 25°C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS GI820

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Non-repetitive Peak Reverse Voltage
Maximum Average Forward Rectified Current
.375", (9.5mm) lead lengths at TA-55·C
Peak Forward Surge Current
8.3ms single haW sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage
at5.0A
at 15.7A TJ=150·C
Maximum Reverse Current TA=25·C
at Rated DC Blocking Voltage TA-l00·C
Typical Junction Capacitance TJ=25·C (NOTE 3)
Maximum Reverse Recovery Time (NOTE 1)
TJ=25·C
Maximum Reverse Recovery Current (NOTE 1)
Typical Thermal Resistance (NOTE 2)
Operating and Storage Temperature Range

VRRM
VRMS
Vee
VRSM

50
35
50
75

GI821

GI822

GI824

GI826

UNfTS

100
70
100
150

200
140
200
250

400
280
400
450

600
420
600
650

Volts
Volts
Volts
Volts

I(AV)

5.0

Amps

IFsM

300.0

Amps

IR
CJ

1.10
1.05
10.0
1.0
300.0

TRR
IRM(REC)
R8JA
TJ,TsTG

200.0
2.0
10.0
-50 to +150

VF

NOTES:
1. Reverse Recovery Test Conditions: IF=I.0A, VR= SOV, di/dt = 50All's.
2 Thermal Resistance from Junction to Ambient at .S75" (9.Smm) lead lengths, with both leads to heat sink.
S. Measured at 1 MHz and applied reverse voltage of 4.0 volts.

-412-

Volts

!LA

mA
pf
nS
Amps

·CIW
·C

RATINGS AND CHARACTERISTIC CURVES GI820 THRU GI826

FIG. 1 - FORWARD CURRENT DERATING CURVE
RESISTIVE OR
; - INDUCTIVE LOAD

o w 6.a 1'0.;;: 1'000.

,....

a:w

~

FIG 2 -

FORWARD CURRENT DERATING CURVE

20

7.0

ffis 0

~

a:"-

o~
u. ct: 4. 0

.....

a: a:
Wa:
> ::>2.0
<{U

r-

it 25.4m~

~

u.<{
wI-«W 8.0
a:'"
w'"
>::>
«U 4.0

I I

20

40

60

140

160

95

FIG. 4 400

400

u

°

a:
<{

3:"'
a: W

Oa:
u.g:

"'~
::><{

~

/'

100

"'~

V

40

(!l",

350

a:W
::>a:
",W

300

<{<{

3:"':

/

10

a:Z
OW
u.a:
",a:
<{::>
wU

TJ " 2S"C
PULSE WIDTH - 300ils
1% DUTY CYCLE

"-

4.0

0

W
Z
<{
I-Z
<{
I--

W

0"a:~

20

I

2.0

r--.....

105

(40mm x 40mrn x 1mn) Cu

r---. :-....'" ~

-

1

85

1.6- x 1.6- x O.4~
~

115

~~
"""""Ill Il

125

135

145

155

165

250

~

MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT

8~3ms S:NGCE HALF _ ~
SINE-WAVE (JEDEC METHOD

I

~

r" I'..
f"'oo

r-....

200

TJ '" 25°C

1'",

V

r'-.....

t?""

T,.'2S"C
150

i"""-~ ...... r-...
1"'-0

1

100

II

5

10

20

i'"
r-i"'t'"
50

I

0.4

0.1

I

FIG. 6 - TYPICAL REVERSE
CHARACTERISTICS

II
0.6

1

0.8

1.0

1.2

1.4

1.6

2.0

1.8

~

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

I I
lO~·lr""·'-.

u

lo'"

>"-

OU

f"

~~

01

".,

"

~I"""'

T•• 2S'C

«

~

I--

Z

«
I--

~
.2

r •• 'so·c

~~

"'0
::>a:

lo'"
~

.L

a: a:
Ww

I-"

(: ..

0

5. 0

T,._100·C

~ffi ' 0

J

~

5

10

W
a:
a:
::>

FIG. 5 - TYPICAL THERMAL RESISTANCE
0

100

NUMBER OF CYCLES AT 60Hz

1.0

0.2

175

LEAD TEMPERATURE °C

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

I-Z
W
a:
a:
::>

",)

~

AMBIENT TEMPERATURE °C

200

.3",

19. 5",,,,)

___L. 62

75

180

-~r--

(.1 . . .

~·.37S

I

"

120

100

80

l

~<"'' ')
r--.~. ·2S1'..

~

o

RESISTIVE OR 'NDUY'VE LOAD

..... ~( •. ,<_
.~

(!lZ

~
~

1.0

12

0:;;

+

..... ~ ~

I
I

16

a:W
<{a:
W
3:
a:"-

.OS:'(1.27~ml L,N f-

~

....

r"" 1'-0..

Ground plane
1" X 1" Cappel

0",

{25.4mm
,!;s,Jil.ce....--

..... i"'ii: ~..... I:lCi

~ a:i30

'f-

5.01 I~
~ •I ~

~

I""-

WI--

~tiv~

IpklIAV- n

.3

,4

.5

.6

.7

.8

.9

"'

~

1.0

EQUAL LEAD LENGTHS TO HEAT SINK, INCHES

01

20

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

-413-

140

SRP600A THRU SRP600K
HIGH CURRENT SOFT RECOVERY FAST·
SWITCHING PLASTIC RECTIFIER
VOL TAGE ·50 to 800 Volts CURRENT· 6.0 Amperes
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• High surge current " ' "
capability
.~'~'.
• High Current Operation
'.
• Void-free molded plastic package
•.". "" ..
• Fast switching for high efficiency
,
• High temperature soldering guaranteed:
250°C/10 secondsl.375",(9.5mm) lead lengths at
5 Ibs., (2.3kg) tension

1

1.OMIN.

I

.36019.1l

•05211.3).
.04811.2)

<-

~

MECHANICAL DATA

1.0 MIN•
125.4)

Case: Void-free Molded plastic
Terminals: Plated Axial leads, solderable per MILSTD-202, Method 208
Polarity: Color band denotes cathode
Mounting Position: Any
Weight: 0.07 ounce, 2.1grams

1
Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load, derate current by 20%.
SRP
SYMBOLS 600A

Maximum Recurrent Peak Reverse VoHage
Maximum RMS VoHage
Maximum DC Blocking VoHage
Maximum Average Forward Rectified Current
.375", (9.5mm) lead lengths at TA=55°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward VoHage at 6.0A
Maximum DC Reverse Current TA=25°C
at Rated DC Blocking VoHage TA= 100°0
Maximum Reverse Recovery Time (NOTE 1) TJ= 25°C
Typical Junction Capacitance (NOTE 2) TJ= 25°C
Typical Thermal Resistance (NOTE 3)
Operating Temperature Range
Storage Temperature Range

VRRM
VRMS
Voc

50
35
50

SRP
600D

SRP SRP
600G 600J

SRP
lOOK

100
70
100

200
140
200

400 600
280 420
400 600

800
560
800

6.0

I(AV)

IFSM

VF
IR
TRR
CJ
R8JA
TJ
TSTG

SRP
600B

100

300.0
1.3
10.0
1.0
100
150
150 200
300.0
10.0
-50 to +125
-50 to +150

NOTES:

1. Reverse Recovery Test Conditions: IF=O.5A, IR=I.0A, Irr=.25A.
2. Measured at 1 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal Resistance from Junction to Ambient at .375" (9.5mm) lead lengths, with both leads to heat sink.

-414-

UNITS
VoHs
VoHs
Volts
Amps

Amps
VoHs

I1A

200

mA
nS

pi

°cm
°c
°C

RATINGS AND CHARACTERISTIC CURVES SRP600A THRU SRP600K

FIG 2

FIG 1- FORWARD CURRENT DERATING CURVE
7.0

.

-R~;~S;i~$E~AC

.....

"""" ....

""~

ro..
r-

I"0Io
to...

~~

I MqUN]"INq

r-

IIESISTIVE ORINCUo/'VE L AO

0/

r~;Wi.P~ -;~1!~~·t.~~
~

o~~'2 .......

.U:,"~ i~-- r-

.... C

~~

I~
~

~

~

~

' . ,. te

~

I

~j""'iii;r.... f"",;

,I

. - I -...

./

100

~

7b

~

80

85

°

~

~li!

10

a:

~Ul

...-

.... le

100

'"

~

TJ • 25°C
PULSE WIDTH: 300", s
,,. OUTV CYCLE
:

1' ...

i

1~

.... i)- ...

100

If

i'..... ["..
~

1.0

s.o

2.0

r-...

.... 1---

~

10

100

r-.Ioo~
50

NUMBER OF CYCLES AT 60Hz

O.
I

0.2

I

0.1

0.8

0.8

1.0

1.2

I.'

FIG•• - TYPICAL REVERSE
CHARACTERISTICS
1.8

1.8

'2.0

~

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

~

II- ...... , ....

~

,.

c..

T.-&O".

~

'"

'0

~

.0

T•• l00'C

~
o

.,

....

15

10

W

a:

FIG. 5 - TYPICAL THERMAL RESISTANCE

I I
,

....

,
TA- n·c

IfI'
.1

.2

.3

.4

.5

.8

.7

.8

125

1/250 C

T... ,21rC:

I

1.0

1·15

~ ......

)

2.0

Ill)

I

Ul~ 40

@c

105

8.3m. SINGLE H'ALF
SINE-WAVE (JECEC METHOC

,,~

/

95

FPG. 4 - MAXIMUM NON-REPETItiVE PEAK
FORWARD SURGE CURRENT
400

:::l
'0

90

LEAD TEMPERATURE·C

a:

o

:""oo~

o

~

,

~.

•... , ••••••", C40mm. 40mm .'mn) Cu..

'--

cO 4.~

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
'00

........

I~·., ~~"'!IO~""~I-i".-::l""'---I_-I-_-I------I

8.0

AMBIENT TEMPERATURE·C

....
~

M

~~ .~~~I·~·~h~'S~·~~~~~~f~~!~~~~~~ii~~

I

m

~

'-.m

-;;\ ~ i---

~"'''' ....

L

.--

a:a:

~h·

1.

...... ~ Jt
- I.........:· "".,

0a:Ulw 18
Ca:

;~

i""'"

.

LPC BOARC, _

.",

... ~ . . .»'27" 1~'N"

FORWARD CURRENT DERATING CURVE

~

.9

1.0

20

EQUAL LEAD LENGTHS TO HEAT SINK. INCHES

-415-

~

80

80

100

120

1~

PERCENT OF RATED PEAK
REVERSE VOLTAGE

I~

100

_416-

FULL-WAVE
BRIDGE RECTIFIERS
0.9 AMPERE TO 35.0 AMPERES
50 VOLTS TO 1000 VOLTS

I

_ _ _ _ _ _ _ IN~ .....

-417-

BRIDGE RECTIFIERS
0.9 to 35 Amperes 50 Volts to 1000 Volts

(-)

(AC)
(AC)

.{+)

Fig. 1 Round Bridg9

ITEM DESCRIPTION
1. Solder Preforms
2. Formed Copper Leads
3. Plastic Case
4. Glass Passivated Chip (GPP)

Fig. 3 DUAL-IN-LINE Bridg9

Fig. 2 IN-UNE Bridg9

Fig. 4 Chassis Mounlfld 8ridg9

FAMILIES OF GENERAL INSTRUMENT BRIDGE RECTIFIERS
All types of rectifier cells. which are produced by General Instrument. are available In bridge
configurations. molded in various plastic packages.
The basic types of packages are:
Round Plastic Package (Fig. 1)
IN-LINE Plastic Package (Fig. 2)
DUAL-IN-LiNE Plastic Package (Fig. 3)
Square Plastic Package for Chassis Mounting (Fig. 4)
These bridge families are available with different terminals such as wire leads. FASTON or solderIng lugs.

-418-

FAMILIES OF GENERAL INSTRUMENT
BRIDGE RECTIFIERS
Dual-In-Line Single Phase Bridge RectifiersO.9 to 1.0 AMPERE
Types:

DFOO5M thru DF10M
EDF1AM thru EDFlDM
B40C80DM thru 8380C800DM

Features:
•
•
•
•

Surge Overload Rating 50 Amperes Peak
Ideal for Printed Circuit Board
Reliable Low Cost Construction
Tinned Copper Leads Solderable to MIL-STD-202,
Method 208
• Glass Passivated Chip Junctions
• Plastic Package has Underwriters Laboratory Flammability
Classification 94V-O
• All bridge series are UL recognized under component
index, file number E54214

Miniature Single-Phase Bridge Rectifiers1.5 to 2.0 AMPERES
Types:

W005G thru W10G
2Wo05G thru 2W 1OG
B40C800G thru B250C800G
B40C 1OOOG thru 8380C10OOOG
B40C 1500G thru B380C1500G

Features:
•
•
•
•
•

Surge Overload Rating 50 and 60 Amperes Peak
Ideal for Printed Circuit Board
Reliable Low Cost Construction
Leads are Solderable to MIL-STD-202 Method 208
Plastic Package has Underwriters Laboratory Flammability
Classification 94V-O
• All bridge series are UL recognized under component
index, file number E54214
• All series have glass passivated chip junctions

In-Line Single Phase Bridge Rectlfiers1.0 to 8.0 AMPERES
Types:

KBPOO5M thru KBP 10M
2KBPOO5M thru 2KBP10M
GBU4A thru GBU4M
GBLOO5 thru GBLl 0
GB6A thru GBU6M
GBU8A thru GBU8M
3N249 thru 3N252
3N253 thru 3N259

Features:
• Surge Overload Rating from 50 to 300 Amperes Peak
• Ideal for Printed Circuit Board
• Reliable Low Cost Construction utilizing molded Plastic
Leads are Solderable to MIL-STD-202 Method 208
• Plastic Package has Underwriters Laboratory Flammability
Classification 94V-O
• All bridge series are UL recognized under component
index file number E54214
• All series have glass passivated chip junctions

High Current Single Phase Bridge Rectifiers3.0 to 35.0 AMPERES
Types:

GBPC1005 thru GBPCllO
GBPC6005 thru GBPC610
GBPC8005 thru GBPC810
GBPClO-D05 thru GBPC10-10
GBPC 12005 thru GBPC1210
GBPC 15005 thru GBPC1510
GBPC25005 thru GBPC2510
GBPC35005 thru GBPC3510

Features:
•
•
•
•
•
•
•
•
•

High Capability of Surge Overload Rating
Insulated Case for Maximum Heat Dissipation
Low Forward Voltage Drop
Copper Leads or Faston Terminals, versions for
GBPC12, 15,25 & 35 series only
Simple Installation thru Screw hole for NBR6 Screw
Leads are Solderable to MIL-STD-202 Method 208
Plastic Package has Underwriters Laboratory Flammability
Classification 94V-O
All bridge series are UL recognized under component
index, file number E54214
All bridges have glass passivated chip junctions
-419-

I

QUICK GUIDE TO BRIDGE RECTIFIERS
I~A)

1.0

1.5

1.5

1.0

2.0

2.0

2.0

~o

@TAIc)

40
50

25

50

75

25

50

38

50

50

50

30

60

60

60

150

150

175

200

VR·50IV)
VR.l00(V)

DF005M

WOO5G

2KBPOOSM

3N253

GBl005

ZW01G

3N254

GBLOI

GBU8A
GBUSB

VR-20~V)

3N249

ZW02G
ZW04G

3N255

W04G

KBI'02M
KBP04M

3N248

VR.40~V)

DF02M
DF04M

2KBPOlM
2KBP02M

GBU4A
GBU4B

GBU6A

W01G
W02G

3N246
3N247

ZWOO5G

DF01M

KBP005M
KBP01M

2KBP04M

3N256

GBl02
GBL04

GBU4D
GBU4G

VR.~V)

DF06M

W06G

KBP06M

3N250

2WOeG

2KBPOGM

3N257

GBL06

GBU4J

GBU6J

GBU6J

VR.60~V)

DF08M

WPBG

KBPOBM

3N251

ZWOBG

2KBP08M

3N25B

GBlOS

GBU4K

GBU6K

GBU6K

VR.lOOOIV)

DF10M

Wl0G

KBP10M

3N252

ZW10G

2KBP10M

3N259

GBllO

GBU4M

GBU6M

GBUBM

SURGEIA)

4.0
lOOT,

6.0
lOOT,

GBUIB
GBU6D
GBUeG

QUICK GUIDE TO BRIDGE RECTIFIERS
lolA)

3.0

S.O

B.O

10

12

15

25

@Tclc)
SURGE(A)

50

100

50

50

55

55

55

SO

175

200

VR. 501V)

GBPCl005

200
200
300
300
400
GBPC10·oo5 GBPC12.=,":
wow
'-'w'-'
oa:":

1.0

rZ
w
a:
a: en
r-:::J W
:::J0a:
,,-ow
r-w"-

RESISTIVE OR INDUCTIVE LOAD

l'-l

03

CAPACITIVE

-

M

:::>u:::~

a:wffi
co~~

>100~-

0.2

:::J
LL

'1'. . l~\

h

0.4

-'
-'

oN

1---10 ·l00~F

a>=,":

wow
,-,w'-'
oa:..:

LOA~

o- 10~F''''',)IJI ~,

mt

P.C.B.

l

-

40

0.2

:::J
LL
;;>0

'\

.22 in x .22 in (5.5nsrn x 5.5 mm)
20

0.'

-'
-'

'l

CO:P~{PADS

0.6

iIwffi
co~>:;;<1:

I\~

0.375'
9.5mml

0.8

60

80

100

140

120

AMBIENT TEMPERATURE, °C

20

FIG. 3· TYPICAL REVERSE CHARACTERISTICS
PER BRIDGE ELEMENT

10.0

f-'

Z "
w
a:
a:
:::J
0
0
a:
~[B
a: a:
Ow
,,-,,-

10.0

wen
w
en
a: a:
WW
>"w:;;
a:..:
enO
:::Ja:
00
w:;;

~~

Zw

....

.---V

TA _100°C

w

80

60

lOa

120

140

~J

: 25'CI
PULSE WIDTH ~ 300/ls
~ 2:oDuty Cycle

E

/
J

I

1.0

",:;;

:::J":

aw
Z

0.1

0.1

'"

Z
en

~~
z:::J

'"

-0

I

~

.01

..,/

TA

60

120

100

80

140

30

........

TJ_2S'C
10mS SINGLE SINE-WAVE

10

"-

1.2

1,4

100
60

~

40

oW

20

t5:

10.0

"..:

4.0

~

--- r--

o

6.0

r---.r-.

,.25

Z

i"-..

1.0

FIG. 6 - TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

.........

.......

0.8

INSTANTANEOUS FORWARD VOLTAGE. VOLTS

50

...........

D.6

0,4

FIG. 5· MAXIMUM NON·REPETITIVE PEAK FORWARD
CURRENT PER BRIDGE ELEMENT

20

I

25°C
40

PERCENT OF RATED PEAK REVERSE VOLTAGE

40

1

Jl1

20

w
'-'en
a:w
:::Ja:
"'w
0"a::;;
«..:
:;;f-'
a:Z
OW
LLa:
>ea:
..::::J
wO

40

AMBIENT TEMPERATURE. °C
FIG. 4 • TYPICAL FORWARD CHARACTERISTICS
PER BRIDGE ELEMENT

9~_f.l.0MHz
_ VSiS _ 'SOm Vp-p

2.0
1.0

2.0

4.0

6.0

10.0

20

40

60

100

2

NUMBER OF CYCLES AT SOHz

.4

1.0

2.0

4.0

10.0

20

REVERSE VOLTAGE, VOLTS

-423-

40

100

I

B40C / B80C / B125C / B250C / B380C
800 OM
MINIATURE GLASS PASSIVATED SINGLE· PHASE BRIDGE RECTIFIER
Voltage . 65 to 600 Volts Current· 0.9 Amperes
FEATURES
• Plastic package has Underwriters Laboratory Flammability Classification 94V-0
• Glass passivated chip junctions
~
• Surge overload rating of
45 Amperes peak
.
1 ij
• Ideal for printed circuit board
• High temperature soldering guaranteed:
265°C 110 seconds at 5 Ibs., (2.3kg) tension
.13013.3)
120 (3.05)

l

-I-

.33S(S.Sll
.320(S.12)

MECHANICAL DATA
.OSO (2.03)
rOSO (I.m

.045U.14) - -

.03S(o.S9~022(O.S6)

case: Molded plastic
Terminals: Plated Leads solderable per MIL-STD202, Method 208
Polarity: Polarity symbols marked on body
Mounting PosItIon: Any
Weight: 0.04 ounce, 1.0 gram

! I·1SS(4.69)

.01S (0.46)' : +--

:

.150(3.811

i .2os"i5.iJ.i+--+i •.075U.90)
I .055 U.39)
" .195 (5.0) I

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
50 Hz or 60 Hz, resistive or inductive load.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Input Voltage R + C-Load

SYMBOLS

840

880

BI25

8250

838D

UNITS

VRRM
VRMS

65

125

200

600

40

80

125

400
250

Volts
Volts

Maximum Average Forward Output Current for
R+ L-Load
free air operation at TA=45°C
C - Load

I(AV)

Maximum DC Blocking Voltage

Voc

65

125

200

Maximum Repetitive Peak Reverse Voltage

VRRM

90

180

Maximum Peak Working Voltage
Maximum Non-Repetitve Peak Voltage

VRWM
VRSM

90
100

180
200

Maximum Repetive Peak Forward Surge Current
Peak Forward Surge Current
Single Sine wave on rated load at TJ=125°C
Rating for Fusing at TJ=125C (kl00ms)
Minimum S.eries Resistor C-Load VRMS = + 10%
Maximum Load Capacitance +50%
-10%
Maximum Instantaneous Forward Voltage Drop
per element at 0.9A
Maximum Reverse Current at rated Repetitive
Peak Voltage per element TA= 25°C
Typical Thermal Resistance (NOTE 1)
Operating Temperature Range
Storage Temperature Range

I

I

380

0.9
0.8

Amps

300

400
600

600
900

Volts
Volts

300
350

600
650

900
1000

Volts
Volts

IFRM

10.0

Amps

IFSM
12t

45.0

Amps
A2S

10.0

Rt

1.0

2.0

4.0

8.0

12.0

Ohms

CL

5000

2500

1000

500

200

I1F

VF

1.0

Volts

IR
RaJA

°CIW

TJ

10.0
40.0
-4010 +125

TSlG

-40 to +150

NOTES:
1. Thermal Resistance from Junction to Ambient mounted on P.C Board 0.5" x 0.5" (13mm x 13mm) Copper pads.
-424-

I1A
°C
·C

RATINGS AND CHARACTERISTIC CURVES B40C THRU B3BOC BOO DM
FIG.2· DERATING CURVE FOR
OUTPUT RECTIFIED CURRENT
B40C 8000M•.. B125C 800DM

FIG 1 • DERARTING CURVE FOR
OUTPUT RECTIFIED CURRENT
B40C 800DM B125C 800DM

10

...

10

I::>
tl.
I-Ul
::>w
ore
OW

Jooto60Hz

I::>
I-Ul
::>W
Oa:
OW
D-

a:~
~..:

a:~
[2w
Wa:
(!la:
..:::>
a:()
W

"'C. 1:~J6~T~~EL~Ab

08

'K'
r,. . .

't

CAPACITIVE LOAD
06

l()'l00)100)'1'

100

I

:i(

20

120

""""

,,;":

s:a:

20

"

J'..

0

lI-

10

'"W

40

10.0

20

120

140

1/

j

1.0

~~

a: a:
OW
LLtl.
Ul:;;;;
::>..:
0
W
Z

1"- I"-.....

I

0.1

f"
Z
f"

(J)

4.0 6.0

100

10.0

a:

D-

2.0

80

I-'
Z
W
a:
a:
::>
0

<{

1.0

"

13mm)

)C

60

()

TJ_125'c

30

~

I

.51 IN x .SlIN

FIG. 4 - TYPICAL FORWARD
CHARACTERISTICS
PER BRIDGE ELEMENT

lamS SINGLE SINE·WAVE

..........

~

AMBIENT TEMPERATURE, °C

140

60

40

~ [\.

COPPERPA S (13mm

FIG. 3 - MAXIMUM NON·REPETITIVE PEAK FORWARD
SURGE CURRENT PER BRIDGE ELEMENT

50

~

P.~.B,

II

"1J0

02

AMBIENT TEMPERATURE, °C

I-'
Z
W
a:
a:
::>
()
W
(!lUl
a:W
::>re
UlW
ODa::;;;;

1.:..

_rh~..oe=' 1.5mm

l

80

I

NDUCTIVE LOAO-

\..,

04

~

I

.51 IN x .SlIN
COP ~R PADS (13mm x 13mm)
20

reI-'
OZ
LLW
wa:
(!la:
..:::>
a: 0
W

...... 1\

>100p.F
04

re~
~..:

Q"

I 50 1060Hz, RESISTIVE OR

40

60

I

~

100

NUIMBER OF CYCLES AT 50 Hz

I

.Ill

004

Ci'·

DB

0.6

f--

TJ.25·C
PULSE WIDTH
,%Dut y

=300/-ls-

I

1.2

1))

INSTANTANEOUS FOWARD VOLTAGE
FIG. 5 - TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

FIG. 6 - TYPICAL REVERSE CHARACTERISTICS
PER BRIDGE ELEMENT

100

10,0

~

ll-

e.
ui

TJ.25·C

()

~

10

~

~J.':0MHz

m 6.0
4.0 r-- TJ .1oo·C

a:
a:
WW
> CL
w:;;;;
a: <{

~

f' ....

UlO
::> a:

o ()

~~
~~
Z W

t:= Vsig - 80m Vp-p

~

2.0
If)

-I--""

iJ
.4
.2

TJ_ 25'C

0.1

~~ ~~
~B

r-

1)2

Jl 1

"
20

1,0
1.0

10

100

..-

~

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

REVERSE VOLTAGE, VOLTS

·425·

140

I

DF005M THRU DF10M
MINIATURE GLASS PASSIVATED
SINGLE - PHASE BRIDGE RECTIFIER
VOLTAGE - 50 to toDD Volts CURRENT - 1.0 Ampere
FEATURES

0
-

,. .

• This series is UL recognized under component
index, file number E54214
• Plastic material used carries Underwriters
Laboratory flammability recognition 94V-O
.350(8.9) • Glass passivated chip junctions
300(76)
!. • Surge overload rating of
_.
50 Amperes peak
• Ideal for printed circuit board
• High temperature soldering guaranteed:
265°C 110 seconds at 5 Ibs., (2.3kg) tension

~

[OJ!

-----:r.285 (7.24)

+

--1--

.255 (6.5)
.245(6.2)

,. . __1__

.

.335(8.511
.320(8.12)

.080 (2.03)

psorr:m

i:

I

.185(4. 69J

MECHANICAL DATA

.TsOff.8Ij

i0.205C5.2i,i......i ,.075 (1.90)
, .195 (5.0)'

Case: Molded plastiC
Terminals: Plated Lead solderable per MIL-STD202, Method 208
Polarity: Polarity symbols marked on body
Weight: 0.04 ounce, 1.0 gram
Mounting Position: Any

, .055 (1.39)

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S·C ambient temperature unless otherwise specified.
60 Hz. resistive or inductive load.
SYMBOLS

Maximum Recurrent Peak Reverse VoRage
Maximum RMS Voltage
Maximum DC Blocking VoRage
Maximum Average Forward Output Rectified Current
at TA=40·C
Peak Forward Surge CurrentSingle haH sine-wave
superimposed on rated load (JEDEC Method)
Rating for fusing (t<8.35ms)
Maximum Instantaneous Forward VoRage drop
per element at 1.0A
Maximum Reverse Current
TA=25·C
at Rated DC Blocking Voltage per element TA= 125·C
Typical Junction Capacitance per element (NOTE 1)
Typical Thermal Resistance (NOTE 2)
Operating and Storage Temperature Range

VRRM
VRMS
VDC
I(AV)
IFSM
12t
VF
IR
CJ
RaJA
TJ.TsTG

ogfM

50
35
50

J',F", ft", ff" J'S., J'S., 1~

1.0

Amps

50.0
10.0

Amps
A2s

1.1
10.0
500.0
25.0
40.0
-55 to +150

Volts

NOTES:
1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
2. Thermal Resistance from Junction to Ambient mounted on P.C. Board with 0.5" x 0.5" (13mm xl3mm) Copper Pads.

-426-

UNITS

100 200 400 600 800 100e VoRs
70 140 280 420 560 700 VoRs
100 200 400 600 800 1000 Volts

~
pf

°cm
·C

RATINGS AND CHARACTERISTIC CURVES DFOO5M THRU DF10M
FIG. 2· MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
PER BRIDGE ELEMENT

...:
z

W
a:
a:

60

U

50

~

FIG. 1 - DERATING CURVE FOR
OUTPUT RECTIFIED CURRENT
1.0

W
(!len
a:W
~a:
enW

"I- ~~ort1
.1 .J

I\tI,.
"I

~t

·i·c.Bi

i\COPPERPAOS

,! J

",
'11

40
30

OCl.

a::;;:

.51 IN • .51 IN (13mm • 13 mm)

««
:;=

20

u..

a:
0

10

'"

SINGLE SINE-WAVE
(JEOEC METHOD)

......

«
W
Cl.

1.0

2.0

nv

40

20

40

60

100

W

a:
a:

i\
100

80

60

10.0

~

120

10.0

...:
z

r\.

OR
INDUCTIVE LOAD

20

6.0

J"""ooo

FIG. 4 - TYPICAL FORWARD
CHARACTERISTICS
PER BRIDGE ELEMENT

I'

a

4.0

" ""

NUMBER OF CYCLES AT 60 Hz

1\
~'H;i Eal

"""

l<:

l\.

1

TJ"IJo.c

~

~

U

140 150

o

a:

AMBIENT TEMPERATURE, 'C

I

1.0

~ffl

t5ffi

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS
PER BRIDGE ELEMENT

u..Cl.

en:;;:
~«

oW
z«

10 a

I

O. I

f-

en
W
W

.....
L.,....ooo L--

10.0

f-

L.,...oo

TJ-I26'C·

Cl.

:;;:

~

Z

«
en

17

a:

0.4

2'IIoDUTVCYCLE

1.2

0.8

,"

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

U

~

...:
z

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

W

~

I
o.s

.01

a:

a:
a:

~U~W1DTHo3OO~S -

I

~

10a

1.0

U
W

en

5:

a:

u..

W

>
W

~

a:

en

5

a.
ui

T.. _25"C
0.

I

U

l,....-

T~

~1 a I--Voigf.l.oMHz
• tiOmVI>P

r-.... r-.

~

Z
W

fZ

Cl.

I"

~

(3

~

.01

o

20

.. 0

60

80

100

120

1.0

140

10

100

REVERSE VOLTAGE, VOLTS

PERCENT OF RATED PEAK
REVERSE VOLTAGE

I~
-427-

I

B40e I Baoe I B125e I B250e I B3aoe
1000G
MINIATURE GLASS PASSIVATED
SINGLE - PHASE BRIDGE RECTIFIER
Voltage - 65 to 600 Volts Current - 1.0 Ampere
FEATURES

I~I
.220h's)1
.lSO{s.6)

-L

• Glass passivated chip junctions
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
.

I
T
(1

.'
• High case dielectric
strength
"'"
• TypicallR less than 0.11J.A
," '
~"
• High overload surge current
• Ideal for printed circuit board
• High temperature soldering guaranteed: 265°C/10
seconds/.375", (9.5mm) lead length at 5 Ibs.,
(2.3kg) tension

1.0 MIN.
4)

.012[.BlJ
.028 [.71)

,II.

----r .020[0.51J
.060[1.52)

MECHANICAL DATA
Case: Molded plastic
Terminals: Plated Leads solderable per MIL-STD202, Method 208
Mounting Position: Any
Weight: 0.05 ounce, 1.3 gram

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. SOHz or 60 Hz. resistive or inductive load.

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Input Voltage R + C-Load
Maximum Average Forward Output Current for
R + L-Load
free air operation at TA=45°C
C- Load

SYM80LS 840
65
VRRM
40
VRMS

Maximum DC Blocking Voltage
Maximum Repetitive Peak Reverse Voltage
Maximum Peak Working Voltage
Maximum Non-Repetitve Peak Voltage
Maximum Repetive Peak Forward Surge Current
Peak Forward Surge CurrentSingle Sine wave on
rated load (JEDEC) Method) at TJ=125°C
Rating lor Fusing at TJ=125C (kl00ms)
Minimum Series Resistor C-Load VRMS = -or+ 100/.
Maximum Load Capacitance +50%
-10%
Maximum Instantaneous Forward Voltage Drop
per element at 1.0A
Maximum Reverse Current at rated Repetitive
Peak Voltage per element TA=25°C
Typical Thermal Resistance (NOTE 1)
Operating Temperature Range
Storage Temperature Range

I(AV)
Voc
VRRM
VRWM
VRSM
IFRM

65
90
90
100

I

880
125
80

125
180
180
200

I

8125
200
125
1.2
1.0
200
300
300
350
10.0

Rt

1.0

2.0

45.0
10.0
4.0

CL

5000

2500

1000

IFSM
121

8250
400
250

400
600
600
600

I
I

8380
600
380

UNITS
Volts
Volts

600
800
900
1000

Amps
Volts
VoHs
Volts
Volts
Amps
Amps
A2S

8.0

12.0

Ohms

500

200

j1F

VF

1.0

Volts

IR
R8JA
TJ
TSTG

10.0

jJ.A

36.0
-40 to +125
-40 to +150

·CIW
' °C
°C

NOTES: 1, Thermal Resistance from Junction to Ambient mounted on P.C Board at ,37S" (9.Smm) Lead Lengths with 0.2" x 0.2"
(5.5mm x 5.Smm) Copper Pads.
-428-

RATINGS AND CHARACTERISTIC CURVES
B40C 1000G THRU B380C 1000G
FIG. 2 - DERATING CURVES FOR
OUTPUT RECTIFIED CURRENT
FIG. 1 - DERATING CURVE
, OUTPUT REACTIFIED CURRENT

1.2 ....-

B40C 1000G... B380C 1 OOOG
.....-,---,,.---,r--,--,

B40C 1000G... B125C100OG
1.2 _ -__--,---,,----,,----,--,

20

40

60

80

100

120

140

AMBIENT TEMPERATURE, °C
20

40

60

80

100

120

140

FIG. 4 - TYPICAL FORWARD CHARACTERISTICS
PER BRIDGE ELEMENT

AMBIENT TEMPERATURE, °C

20

I TJ "
FIG. 3 - TYPICAL REVERSE CHARACTERISTICS
PER BRIDGE ELEMENT

10.0
f-'

Z
W
CI
CI
=>

10.0

-

W'"
",W
CICI
WW
>0..

W~

--

T".. 1000C

V

'.0

CI"':

",0

=>CI

00

~~

CI

1!i~

.01

20

j'!:

40

CI~

80

120

100

140

0.4

............ ......

;;:1-'

20

...:=>
wO

10

0.8

1.0

1.2

1.4

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

FIG. 6 - TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT
100

Lfi
u.i

......

o

r--.......

TJ "" 126'C

~CI

0.6

60

30

CIZ
OW
u.. CI·

I

.01

60

.........

00..
<{...:

I

I

TA=25"C

40

50

CIW
=>CI
",W

0,1

~

FIG. 5 - MAXIMUM NON-REPETITIVE PEAK FORWARD
CURRENT PER BRIDGE ELEMENT
W

II

J

(f)

PERCENT OF RATED PEAK REVERSE VOLTAGE

(9",

'D

u..o..

"'~
=>...:
0
W
Z

ro:
Z

V

j

CICI
Ow

0.1

-0

1/

U
0

W~

Zw
j'!:CI
",CI
Z=>

/

25,1e

~PU~~oE o~'~;~;d~~ ~s

~}NGLE_S.lN"':WAV E

20

TJ = 25°C
Z
f-1.0MHz
~ 10.0 ~ Vsig
_ 50m Vp-p

~

r--.. r--

...:

o

(JEiEC Mettd)

0..

40

-

r-r-,

6.0
4,0
2.0
1.0

1.0

2.0

4.0

6.0

10.0

20

40

60

100

.2

NUMBER OF CYCLES AT 50Hz

..

1.0

2.0 4.0

10.0

20

REVERSE VOLTAGE, VOLTS

-429-

40

100

I

W005G THRU W10G
MINIATURE GLASS PASSIVATED SINGLE - PHASE
BRIDGE RECTIFIER
VOLTAGE-50 -1000 Volts CURRENT-1.5Amperes
FEATURES
• This series is UL recognized under component
index, file number ES4214
• Glass passivated chip junctions
• Plastic material used carries Underwriters
Laboratory flammability recognition 94V-O
• High case dielectric strength
• 200 Watts Avalanche Power
Dissipation for 100 IlS
• Typical IR less than 0.1 1.1 A
• High overload surge capability
• Ideal for printed circuit board
• High temperature soldering guaranteed:
26soC/10 seconds/.37S", (9.Smm) lead
length ISlbs., (2.3 kg) tension

I~I

~I
I
---±-'-nTf--1rn+' ......r
.160(5.6)

1.0 MIN.
(25.4)

.onC8ll
.028 C7lJ

.11.

_1

- - t .0601l.5~
.020(O.51l

MECHANICAL DATA
case: Molded plastic
Terminals: Leads solderable per MIL-STD-202,
Method 208

Mounting POSition: Any

Dimensions in inches
and
(millimeters)

Weight: 0.04 ounce, 1.1 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S0C ambienl temperature unless otherwise specified.
60 Hz, resistive or inductive load.

w

w

w

SYMBOLS 005G 01G 02G

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at
.375",(9.5mm) lead length at TA=25°C
Peak Forward Surge Current Single sine-wave
superimposed on rated load (JEDEC Method)
Rating for fusing (t<8.3ms)
Maximum Instantaneous Forward Voltage Drop
per element at 1.0 Ampere
Maximum DC Reverse Current at Rated
TA=25°C
DC Blocking Voltage per Element
TA=125°C
Typical Junction Capacitance per element (NOTE 1)
Typical Thermal Resistance (NOTE 2)
Operating Temperature Range
Storage Temperature Range

VRRM 50
VRMS 35
Voc 50

w

w

W

10G

UNITS
Volts
VoHs
Volts

I(AV)

1.5

Amps

IFSM
12t

50.0
10.0

Amps
A2s

VF

1.0
5.0
500.0
14.0
36.0
-55 to +150
-55 to +150

Vohs

TJ
CJ
RaJA
TJ
TSTG

NOTES:

. 1. Measured at 1.0 MHz and applied reverse voltage of 4.0 Volts.
2. Thermal Resistance from Junction to Ambient at .375", 9.5mm lead length P.C. Board mounting.

·430·

w

04G 06G 08G

100 200 400 600 800 1000
70 140 280 420 560 700
100 200 400 600 800 1000

ItA
pf

°cm
°C
°C

RATINGS AND CHARACTERISTIC CURVES WO05G THRU W10G
FIG.1 • DERATING CURVE
OUTPUT RECTIFIED CURRENT

..:
z

eo

a:

60

FIG. 2 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT
PER BRIDGE ELEMENT

W

a:
o
W
(!IU)
a:w

r". ""-

;:)

40

;:)a:

~~

«

f--

20

!=
a:

oUo

'"<

o

W

50

f--

10

11.

FIG. 3· TYPICAL REVERSE CHARACTERISTICS
PER BRIDGE ELEMENT

a: a:
WW
>11.
a:<
1/)0
;:)a:
02

I'

..:
Z

10.0

w

TA • 100:C

r-.....

........

r--....

..

4

6

10

20

40

80

100

FIG. 4 • TYPICAL FORWARD CHARACTERISTICS
PER BRIDGE ELEMENT

t-

./

2SJ

~ Pulse Width

E

- 300~s
1% Duty Cycle

0

",."

If

c
a:
-

.2

:t:

II"

1.0

.1
.01

.1

1.0

10.0

HEATING TIME (SEC)

-431-

100

I

KBP005M THRU KBP10M SERIES
3N246 THRU 3N252 SERIES
MINIATURE GLASS PASSIVATED
SINGLE - PHASE RECTIFIER BRIDGE
VOLTAGE - 50 to 1000 Volts CURRENT.- 1.5Amperes
FEATURES
.500115.241
.550114.221

.125 x 450
13.2

•

L

.500 [12.701
460 UloS81l

---- .~sI~.:~-.420110.571

-_1
------

+
.034(8.51
.02817.51

-

.50 MIN

SO MIN
115.21

(U.71

,

"

.150 (4.11
.140 13.51

• This series is UL recognized under component
index. file number E54214
• Plastic package has Underwriters Laboratory flammability recognition 94V-O
• Glass passivated chip junctions
• Surge overload rating 30 Amperes peak
• Ideal for printed circuit board
• High temperature soldering
guaranteed: 265°C 110 seconds
at 5 Ibs .• (2.3kg) tension

MECHANICAL DATA

·~I-II·t·II·-I~
.180(/. 571

.085(2.151

I

Polarity shOUll on front side of case:
positive load by beveled corner

CBse: Molded plastic
Terminals: Plated Lead solderable per
MIL-STD-202. Method 208
Polarity: Polarity symbols marked on case
Mounting postUlon: Any
Weight: 0.06 ounce. 1.70 gram

Dimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
60 Hz. resistive or Inductive load.
SIV/IO/.S

• Maximum Recurrent Peak Reverse Voltage
• Maximum RMS Voltage
• Maximum DC Blocking Voltage
Maximum Average Forward Output Rectified Current
at TA=4O·C
• Peak Forward Surge Current Single half sine-wave
superimposed on rated load (JEDEC Method)
Rating for fusing (ta:
CIlUJ
OQ.
a::::;

FIG. 2 - DERATING CURVE
OUTPUT RECTIFIED CURRENT
1.6

1'0..

" " I"-

60Hz Resistive or
Inductive Load

3:~

/

r-..... ""

"'-

......
= 5.0

IAVG.

Ipk" 10 IAVG.
Ipk

= 20

-I-"

IAVG.

40

20

- I'"
'" r-..... ,
'" " "
"
A71N xA71N

,(=~~~)

a:Z
OUJ
u.a:
l<:a:
<::>
UJO

Q.

'~

40

30

20

100

120

AMBIENT TEMPERATURE,

~:.

r-i-.....
TJ 'yOC

t---oi

10 'f---

1.0 CYCLE

=

Single SinewWave
(JEDEC Method)

o
1.0

K. I'-

80

1"'-1'-0

--r-.'I-rYYI
..... ~

:~

2.0

5.0

10.0

20

50

100

NUMBER OF CYCLES At SOHz
FIG. 4 - TYPICAL FORWARD CHARACTERISTICS
PER BRIDGE ELEMENT

20

~
~

60

r-.....

,

,,~

I I

J

I - I-- I--

I

50

......N
...... 1:%

(per Le~)

~

M~=h

i'..

CAPACITIVE LOADS
Ipk

«

60

TJ

f-

Z

'c

=:

I

o
o

a:
<(J)
~ UJ
Oa:
u.~
CIl:::;
::><
oUJ

FIG. 3 - TYPICAL REVERSE CHARACTERISTICS
PER BRIDGE ELEMENT

/

I

1.0

J

Z

~

. /~

25°C

Pulse Width = 300.1.1 s
1% Duty Cycle

10.0

UJ
a:
a:
::>

140150 .

0.1

Z

10.0
::TA" 125"C

UJCIl
CIlUJ
a: a:
UJUJ

Gj ~

TA

1.0

100"C

a:<
CIlO
::>a:
00
~~

\!:<~15

~Z

-

I

I

.Q1

0.4

0.6

1.0

0.8

1.4

1.2

1.6

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG. 5 -

~~

~5
.01

o

20

,......-""'"
40

80

-

60

u.. 40
a.

TA" ~5"C

80

100

TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

100m_ _

0.1

120

~ 20r----l~~~~;±~rr~--t_tttH~

140

Z

~l°'OIl_.

PERCENT OF RATED PEAK
REVERSE VOLTAGE

t5

6.0

~ 4.0

C3

2.0

~ ~J==l~~~

1.0

L-V_SLi9-'"'r5~£mL~v4p-,uPL....--L--L..LL1W__--L..-'-'L1.I.lJJ
.2

1.4

\0

2

4

10

20

40

100

RIovERSEYOLTAGE,VOLTS

INSTBMIr
-433-

I

840C/880C/8125C/8250C/8380C
1500G SERIES
MINIATURE GLASS PASSIVATED SINGLE· PHASE BRIDGE RECTIFIER
Voltage • 65 to 600 Volts Current· 1.5 Amperes
FEATURES
(9. 86)'1
I'.388
.348 £8. 84)

~I
.160(5.6)
~

• Plastic package has Underwriters Laboratory Flammability Classification 94V-0

I

•

l

1.0 MIH.
(25.4)

.0321.81)
.028 em

,II..

_1

•
•
•
•

~i~e~~~e dielectric

."~

Typical IR less than 0.1 J.I. A~~;:>"
High overload surge current
''"~''~', "',
Ideal for printed circuit board
""',,,,"" ""
High temperature soldering guaranteed: ~~
250°C/10 seconds/.375", (9.5mm) lead length at
5 Ibs., (2.3kg) tension

- - t - .060U.52)
.020(0.511

MECHANICAL DATA

t

.348 (8.84)

:3iiiiT7T2i

!

.........1,-.220(5.U

.180 (4.6)

CBse: Molded plastic
Terminals: Plated Leads solderable per MIL-STD202, Method 208
Mounting Position: Any
Weight: 0.04 ounce, 1.1 gram

Uimensions in inches and (millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. 50 Hz or 60 Hz. resistive or inductive load.
Maximum Recurrent Peak Reverse Voltage
Maximum RMS Input Voltage R + C-Load
Maximum Average Forward Output Current for
free air operation at TA= 45°C
R+ L-Load
C- Load
Maximum DC Blocking Voltage
Maximum Repetitive Peak Reverse Voltage
Maximum Peak Working Voltage
Maximum Non-Repetnve Peak Voltage
Maximum Repetive Peak Forward Surge Current
Peak Forward Surge CurrentSingle Sine wave on
rated load at TJ=125°C
Rating for Fusing at TJ=125°C (t<100ms)
Min.Series Resistor C-Load VRMS = + or -10%
Maximum Load Capacitance +50%
-10%
Maximum Instantaneous Forward Voltage Drop
per element at 1.5A
Maximum Reverse Current at rated Repetitive
Peak Voltage per element TA=25°C
Typical Thermal Resistance (NOTE 1)
Operating Temperature Range
Storage Temperature Range

SYIfBOLS
VRRM
VRMS

I(AV)
Vee
VRRM
VRWM
VRSM
IFRM

84/1
65
40

65
gO
90
100

IFSM
12t
Rt

1.0

CL

5000

880
125
80

125
180
180
200

8126
200
125

1.6
1.5
200
300
300
350
10.0

B2S11
400
250

BI8/1
600
380

400
600
600
650

600
800
800
1000

IJNIrS
Volts
Volts

Amps
Volts
Volts
Volts
Volts
Amps

2.0

50.0
12.5
4.0

8.0

12.0

Amps
A2S
ohms

2500

1000

500

200

I1F

VF

1.0

Volts

IR
RaJA
TJ
TSTG

10.0
36.0
-40 to +125
-40 to +150

°CIW
°C
°C

ItA

NOTES: 1. Thermal Resistance from Junction to Ambient mounted on P.C Board at .37S" (9.Smm) Lead Lengths with 0.2" xO.2"

(S.Smm x S.Smm) Copper Pads.

-434-

RATINGS AND CHARACTERISTIC CURVES B40C 1500G THRU B380C 1500G

FlO: 2 • DERATING CURVE
OUTPUT REctIFIED CURRENT
FIG. 1 - DERATING CURVE
OUTPUT RECTIFIED CURRENT
FOR B40C1500G-.BI25C15OOG
1.6

:.a·1tAo

.... 1\.

:1.

'""'10

"-

",e ....... ;

~

.......I-.

I.,,~

-~~l~:....

B250 1500G.•• B38OC15OOG
1.6

~

.~ r.r.I~~

W

!E (I)

~

l&r.

RESISTIVE OR
,,'NDUCTIVE LOAD

1.4

~-

~a~
n..OW

I-WIl.
:::)u::::;:

81:l!!l

.6

-....

" L"-.

s: «

.4

~ (6.5rnn I

,.'

ir

.2

~

~"
': "-

~

...,

I!Iir>

'"

~
20

20

40

60

100

60

120

10..0

>-'
Z
W
a:
a:
:::)
U

10.0

T.. IOO"C

---

1.0

~~

:::)a:
01,2
W::;:
Z>-,
~Z
ZW

~!E
Z:::)
-u

S:>-'
a:Z
OW
u..a:
~a:
<{:::)

wU
Il.

100

120

TJ ·:25·C

140

/

~. Wibth· 3OO"a
=21tD~

If

)

0

a:

~[{l

1.0

a: a:
OW
u..1l.
(I)::;:
0
W
Z
~
Z
~
(I)

0.1

J

0.1

~

l/

so
40

III

30

40

80

60

100

120

140

20

u

T... 125"C
10 . . SINGLE SINE·WAV E

rECii

10

1.0

2.0

4.0

8.0

20

I

~ 10.0

~8.0

r-....

12

1.4

40

Z

r--...

11l

FIG. 6 - TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

ill

........

O.B

100
60

'a.a.

...... ......
......

0.6

Q,4

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

PERCENT OF RATED .PEAK REVERSE VOLTAGE
FIG. 5 • MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
PER BRIDGE ELEMENT

'

I

II

T..25"C

20

.c«

80

:::)<{

.D1

W
(!)(I)
a:W
:::)a:
(l)W
Oil.
a:::;:

-

.,.,

60

20

FIG. 3· TYPICAL REVERSE CHARACTERISTICS
PER BRIDGE ELEMENT

I--

40

AMBIENT TEMPERATURE, ·C
FlO. 4· TYPICAL FORWARD CHARACTERIS11CS
PER BRIDGE ELEMENT

140

AMBIENT TEMPERATURE, ·C

W(I)
(l)W
a: a:
wW
>Il.
W::;:

-

.~

j

\.\

(9.5;;'1'11)

COP ERPADS
.1.221. 1~INl,_
6.111'111'111

I"

ID~:.

1\.... \

375'·-

n

I'-

I-:ITIVE.

1.0

.B

iEUJffi

",

1.2

0>= <{
wuw

I-

I-

PAB.

~

-.. ...

bdJ~~!~

FVoIg-6Om

4.0

U

2.0
1.0

10.0

20

40

60

100

NUMBER OF CYCLES AT 50 Hz

.1

.2

.4

11l

2.0

4.0

ID.O

20

40

100

REVERSE VOLTAGE, VOLTS

IN~
-435-

•

2W005G THRU 2W10G
MINIATURE GLASS PASSIVATED SINGLE- PHASE
BRIDGE RECTIFIER
VOL TAGE - 50 to 1000 Volts . CURRENT - 2,0 Amperes
FEATURES
• This series is UL recognized under component
index, file number E54214
• Glass passivated chip junctions
• Plastic package has Underwriters Laboratory

I~I

~I
.16015.6)

IIII

-L

T

•
•
•
•

11')

.0321.1ll
.0281.71)

.I..

--.-

~:~~~~H~i~:~~~~~~~~~-O~"'''''''''''
.'.'>.'.'~
Typical IR less than 0.5 11 A
.<::>..':~.",.

•

1.0 MIN.

.000Cl.52)
.02010.5ll

High overload surge capabilHy
. "": ~<::; '"
Ideal for printed circuit board
'""'.~..".
High temperature soldering guaranteed: 265°C
for 110 seconds 1.375" (9.5mm) lead
lengths/5Ibs., (2.3 kg) tension

MECHANICAL DATA
Csss: Molded plastic
Terminals: Leads Solderable per MIL-STO-202,
Method 208
Mounting Position: Any
Weight: 0.05 ounce, 1.3 gram

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
60 Hz, resistive or inductive load.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Vokage
Maximum DC Blocking Vokage
Maximum Average Forward Rectified Current
.375",(9.5mm) lead length (SEE FIG. 1)
Peak Forward Surge Current Single sine-wave
superimposed on rated load (JEDEC Method)
Rating for fusing (t

o:W

:Ja:
II>W

~!i

Ipk/lAV ~+-+-+--'l'IIIIIik-+--I
(per Leg)

........

0~0-~m=--4~.~OO~=OO~~,~OO~,~2~.~,~4.~~,••

~

AMBIENT TEMPERATURE. ·C

FIG. 3 - TYPICAL REVERSE CHARACTERISTICS
••
PER BRIDGE ELEMENT

- ,----

30

-I:q-

«

20

;0

I
10 I - SIl~I: ~m!~~ave

0:

~

'"~

..

I

o

2.0 4.0 6.0 10.0 20
40 60
NUMBER OF CYCLES AT 60 Hz

,.:
Z

,/'

/

0:

;~

1.0

0:0:

Ow

.,,,,

~o.

=>"

""

0.1

o

W

Z

TA '" 25"C_ f - -

.01 0

"

20

""

o. 1

Z

II>

:!;

40

80

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

100

-,

80
';. 40
20

~10.o

II

.0 1
0.4
0.6
0.8
1.0
1.2
1.4
1,6
INSTANTANEOUS FORWARD VOLTAGE, VOLTS

FIG. I .. TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

~
z

t -".J

PLJlse Width - 3OO .... s
1% Duty Cycle

=>

1.0

"w

-0

~

o
o

!l!'"
~~
... 0:
",0:
Z:>

E

0:

T..... l00"C

0:"

0 0

10

W
0:

.,0
,,0:

Fla. 8 • TYPICAL TRANSIENT THERMAL IMPEDANCE

...

(36.0

~

100

FIG. 4 - TYPICAL FORWARD CHARACTERISTICS
PER BRIDGE ELEMENT

.----TT

..... I--""'"

10

""'" !'...

(JEDEC Metl1od)

o

20

w'"
.,w
0:0:
ww
>0.
w'"

10 Cycle

I

4.0

O 2.0

1.0

.1

TJ.26'C
f .. 1MHz

V.I" .. 5,omV p.p
.2

5Q.4OOV

~Yilll100

.4
1.0 2.0 4.0 10.0 20 40
REVERSE VOLTAGE, VOLTS

HEATING TIME (SEC)

-437-

2KBP005M THRU 2KBP10M SERIES
3N253 THRU 3N259 SERIES
GLASS PASSIVATED SINGLE - PHASE BRIDGE RECTIFIER
VOLTAGE-50 to 1000 Volts CURRENT-2.0Amperes
FEATURES
1_--,-,·6;::00H(~15p;.2<.<4f-)_ ,

U/,.',P

L.500 (12.70)

+~~~l__~Fl

GOMI}
II
(15.2)
::
I

.034(8.6)
.02817.6J

• This series is UL recognized under component
index. file number E54214
• Plastic package has Underwriters Laboratory
flammability recognition 94V-O
• Glass passivated chip junctions
• TypicallR less than 0.1 J.1 A
• Built -in printed circuit board
stand-offs
• High case dielectric strength
• Ideal for printed circuit board
• High temperature soldering guaranteed:
265°C 110 seconds at 5 Ibs., (2.3kg) tension

,

I

I

, , 060
...

,+-+, '

.II-ii 52)

.50 MIN
(12.7)
.160 (4.1)
140 (3 6J

.,

,I

·~I-II·+·II:=lt.105(2.67)
.180(t· 57 ) .
..
I .. ~ .08512.16)

MECHANICAL DATA
Case: Molded plastiC
Terminals: Plated lead solderable per MIL-STD202, Method 208
Mounting postltlon: Any
Weight: 0.06 ounce, 1.70 grams

I
Polarity shown on front side of case:
positive lead by beveled corner

Dimensions in inches and (millimeters)

MAXIMUM RA TlNGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
60 Hz Resistive or inductive load.
2KBP
2KBP
2KBP
00511 2KBP
OIM 2KBP
02M 2KBP
04M 2KPB
_
_
10M
SYMBOLS 3N253 3N254 3N255 3N258 3N257 3N268 3N25S lIlTS

'Maximum Recurrent Peak Reverse Vottage
'Maximum RMS Vottage
'Maximum DC Blocking Voltage
, Maximum Average Forward Output Rectified Current
atTA=55°C
'Peak Forward Surge CurrentSingle half sine-wave
superimposed onrated load (JEDEC Method)
Rating for fusing (t0..
~~

a:
a:
enD
:::la:

00

1.0

~.,.:

u.

ZZO"~_
~~ ~
~a I-- TA =25'C
_
.01 ~Ef::jt::::rj~
60

80

100

120

0.1 o

0.2

0.4

0.6

0.8

1.0

1.2

1.4

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

~:i

40

I

.01

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

iiiiiiiTJI=~'iOOi';Cii~"iii
20

60 100

40

10.0

W

~~

40

I
20

........

FIG. 4 - TYPICAL FORWARD CHARACTERISTICS
PER BRIDGE ELEMENT

"''\'\.
~5t--+-+-;--r-+-i-t-+-;-~~~'\.~-i-+--I

20

I""--. ~

Z

rip!<

~

~

NUMBER OF CYCLES AT 60Hz

I

ffi

.......

rm
'--1

TA= 66'C

~«:!;~ 1.0 '-CAPACITIVE
~ K:;'
~
Ipk==5.100 IAVG.
IAVGLOADS
- ._.
~
,,~
3: «
'
" ,~..... .
a:
,-'r-(Per
pk =201AVG. - -+-f-.p..<+-"'d-"'~M--+-+-f--I
'"
~
w
~

60
50 r"....

a:
a:

I I I I
+-+-I',-i,-+-,-I

p.c. Boord 11_
r-+-~'~"+-~~l\-i-~+--r-i w~ArxAr

~

FIG. 2 - MAXIMUM NON-AEPETmVE PEAK FORWARD
SURGE CUARENTPER BRIDGE ELEMENT

~
w

Q.

60
loo~lIE.
40

ui
0201-++-jH+I-II+-+-~\!!Wou..,.~-++-+u.u
Z
~ ...

•

~10'0._
~
8.0

140

~

4.0

1.0

O~ 2.D~-++++-li+ll.j.--++~~ i~ ;~~zC

PERCENT OF RATED PEAK
REVERSE VOLTAGE

Vsig .. 50mVp-p

L....L.L..I.llJJlL_Ll..l.J..ll.U_..L.L.1...l..LL1J

.1 .2 .4 1.0 2.0 4.0 10.0 20

40

100

REVERSE VOLTAGE. VOLTS

I~
-439-

GBPC1005 THRU GBPC110
GLASS PASSIVATED SINGLE-PHASE BRIDGE RECTIFIER
VOLTAGE - 50 to 1000 Volts
CURRENT- 3.0Amperes
FEATURES
~~L!c::

4

.S30 (600)

• This series is UL recognized under component
index, file number ES4214
• Glass passivated chip junctions
• Plastic package has underwriters Laboratory flammability recognition 94V-O
• High case dielectric strength
of 1S00 VRMS
• TypicallR less than 0.1 11 A
• High surge current capability
• Ideal for printed circuit boards
• High temperature soldering guaranteed:
26SoC 110 seconds! .37S" (9.Smm) lead lengths
1Slbs., (2.3 kg) tension

~

,¥~DIA. I~~ :!~~:~:~~~

1

.630(1600)

.5S0r·:'L-¥~A=C=F=="
~--Ft
.10812.74)

'.09412.41>45'

.06811.73)

MECHANICAL DATA

case: Molded plastic
Tennlnals: Plated leads solderable per MIL-STD202, Method 208
Mounting Position: Bolt down on heat-sink with
silicone thermal compound between bridge and
mounting Surface for maximum heat transfer with
number 6.0 screw
Mounting Torque: S.O in. - lb. max.
Weight: 0.1 ounces, 2.8 grams

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
60 Hz, resistive or inductive load.
For capacitive load. derate current by 20%.
GBPC GBPC GPSe GBPC GBPC GBPC GBPC

SI'IIBOLS 1005 101

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Bridge Input Vottage
Maximum DC Blocking VoHage
Maximum Average Forward
Tc= 60'C (NOTE 1)
Rectified Output Current at
TA=25'C (NOTE 2)
Peak Forward Surge Current Single sine-wave
superimposed on rated load (JEDEC Method)
Rating for fusing (kS.3ms)
Maximum Instantaneous Forward Voltage Drop
per element at 1.5 Amperes
Maximum DC Reverse Current at Rated
TA=25'C
DC Blocking Voltage per Element
TA=125'C
Typical Junction Capacitance per element (NOTE 3)
Typical Thermal Resistance from Junction to Case (NOTE
Operating Temperature Range
Storage Temperature Range

VRRM 50
VRMS 35
Voc 50
I(AY)

1)

102

104

108

110 UNITS

IFSM
I~

60.0
15.0

Amps
A2s

VF

1.0
5.0
500.0
21.0
S.O
-55 to +150
-55 to +150

Votts

IR
CJ
R9JC
TJ
TSTG

NOTES:
1. Unit mounted on 4.0" x4.0" x .11" thick (10.5 x 10.5 x 0.3 cm) AI. plate.
2. Unit mounted on P.C. board at.375" ,9.5mm lead lengths with .5"x.5" (12mmxI2mm) Copper pads.
3. Measured at 1 MHz and applied reverse voltage of 4.0 volts.
-440-

106

100 200 400 600 SOO 1000 Votts
70 140 2S0 420 560 700 Votts
100 200 400 600 SOO 1000 Votts
3.0
2.0
Amps

ItA
pf

'CNoi
'C
'C

RATINGS AND CHARACTERISTIC CURVES GBPC1005 THRU GBPC110
FIG. 2 • MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
PER BRIDGE ELEMENT

Pia. , • DERATINa CURVE
OUTPUT RECTIFIED CURRENT

..•

8.

Ca .. 'TemperatuB, Tc

•
•
•

/ H••t-Slnk MDuntlng.

4.0- • 4.0- x.l'· THK: _

50

~~

40

a:w
::>a:

(10.5)1 10.6 x 0.:3 am)

"•. ,..te

'",

.....

Ii'" .

r-. ...

I'

AmDlent Temperatur., Tk
I p.e.B. Mountin;.

I

'mm L.ad L,.,.h.

10 HJ: R••letiM or

•

I'd"!",', Lajd

~

r-. r--.

I

10

To - 60'C

f2~
>

o

~ 0

1

~,

100

-

~ TA· 126'C

••

"

I'~

I

i"- ......

1.0 Cyole

II

1

......

I

Single Hall Sin.-Wave

110000I""ladl I
2.0

4.0 6.0

10.0

20

40

80

100

NUMBER OF CYCLES AT •• H.

FIG. 4· TYPICAL FORWARD CHARACTERISTICS
PER BRIDGE ELEMENT

•

10.o

,:
Z
w
a:
a:
::>

ill

'~'O

/'

I T, •
I
~ Pulse Width _ 300 "'.
~

''''Outyeycle

If

"a:

J

•

0

1.

~f3

a: a:

Ow
.....
.,,,
::><
0

w
z

z

..,

~

•• 1

.

I-l

'50

52
~

t-

•1.0

FIG. 3· TYPICAL REVERSE CHARACTERISTICS
PER BRIDGE ELEMENT

,:
Z
W
a:
a:
::>
w"
..
w
a: a:
Ww
> .. 1••
w"
a:g
"a:
w,.

I~

«

TEMPERATURE. 'C

50

,"J

W
",II)

z

~

~
!!

.., •

1,,_25'C

'"

1

",-

••

'"

-

40

80

80

100

120

1
,OOA

140

I
0..

0.8

1.0

1.2

1.4

1.'

INSTANTANEOUS FORWARD VOLTAGE •
VOLTS

PERCENT OF RATED PEAK
REVERSE VOLTAGE

Fla••• TYPICAL TRANSIENT
THERIIAL IMPEDANCE
Fla. I • TYPICAL ~UNCTION CAPACITANCE
PER BRIDaE ELEMENT

~

I ••
~

••

40

T, ••

Z

~ 6.0

6:0

ci~
Ol~

........

1_
Veig ._~~_":,~P-P

~ 4.0

2.0

1.0
.1

E§ftll~llm~llill

601=

••
~ 10.0

~20
~ 10.0 ~

I ••

w

""
...

1.0

2.0

~

1••

..'" ..
If!

w

III

, '"'

.2

5.0

a:~

2.04.010.0

40

••

..,

.1~-U~L-LU~~~~~~~~

100

REVERSE VOLTAGE. VOLTS

.1

1.0

10.0

I ••

HEATING TIME (SEC)

·441·

IN~

GBL005 THRU GBL10
GLASS PASSIVATED SINGLE-PHASE BRIDGE RECTIFIER
VOLTAGE - 50 - 1000 Volts CURRENT - 4.0 Amperes
FEATURES

.825(20.9)

.815(20.7)

T

.421(10.7)
.411nO.41

LL
r

+

--·-+r+~ln~-.-n--T-.,--r=i--",
~1111.118C18.2)
.080(2.03)

I

I

I .682117.31

J

i i i .i

1

;-m-: ~I;~;+-L
~
j96

11:11
(4.8)

.190
J§ij
ll.1l!i..11
(4.81

(4.8)

.022(,56)

.OOSt.l27J
"DEHT.REF.

.018(,4&)

• This series is UL recognized under component
index, file number ES4214
• Glass passivated chip junctions
• Plastic package has Underwriters Laboratory
flammability recognition 94V-O
• High case dielectric strength
• Typical IR less than 0.1 J,tA
• High surge capability
• Ideal for printed circuit board
• High temperature soldering guaranteed:
265°C/10 seconds/.37S"(9.5mm) lead lengths
at 5 Ibs., (2.3kg) tension

.000U.02)

MECHANICAL DATA

Pohrity1h0\l0flon front lidtof CiU.:
pa.

I

I

1.0

(/)::;:

~~

;:)c(

Z

0.5

~:e

j:':

Z

j:':
z
j:':

-

oLU

1.0

(/)0
;:)a:
00

1-,""," .....TA..25·C

0.1

j:':

U

TJ-25'C
PULSE WIDTH_300~. 1% DUTY CYCLE

7

o. 1

(/)

11;

(/)

II

11;

.01

-:.'::

".

o

20

40

60

80

.0 1
0.4

~~~V100

120

1/
0.6

0.8

1.0

1.2

1.4

1.8

INSTANTANEOUS FORWARD VOLTAGE,VOLTS

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

FIG.6 • TYPICAL TRANSIENT THERMAL IMPEDANCE

FIG.S· TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

LL
Q.

W

0

Z

j:':
U
~

c(

1000
600
400

200
100
60

-

40

0
20
10
.1

LU

o
z
C3
!'i
~LU
a:~

1~·JolobVI

"""

TJ-25'C
f.1MHz
Vsig-50mVp-p

.2.4

~_1°O~~111~
F

1.0

-

600-1000V

2.04.0 10.0 20

....
~

a:
LU

40 ,100

~

REVERSE VOLTAGE, VOLTS

.1

1.0

10.0

100

HEATING TIME (SEC)

·443-

GENERAL
INSTRUMENT

I

KBL005 THRU KBL 10
GLASS PASSIVATED SINGLE ·PHASE BRIDGE RECTIFIER
VOL TAGE . 50 to 1000 Volts
CURRENT· 4.0 Amperes
FEATURES
.755 (19.18)
.745 (18.92)

• This series is UL recognized under component
index, file number E54214
• Plastic material used carries Underwriters
Laboratory Flammability Classification 94V-O
• Glass Passivated chip junctions
• Ideal for printed circuit board
• Reliable low cost


«

o

"~ r\.

P.C.Board
Mounted with .1.7' x .1.7'

-- 60

(12nm x 12 mm)

I

I

C-PIIdo

f-""

~

-1

1'~

Ul::;
::J«

2.0

W

10

1Z

1\

0.4

~

f!
a:
ww
>Q.
w::;
a:«
UlO
::Ja:
OU

100

~1-"

a:z
OW
u.a:
"a:
«::J
U
Q.

w

.

Tc:: 1000

1.2

1.3

~t

e

~

..... S

~

I

!!i!~

«

TJ:: 150°C
SINGLE SINE~WAVE
JEOEC METHOD

«

1-

Ul

~

"-

01

V

TA = 25°C

20

40

60

80

120

:00

1 40

PERCENT OF RATED PEAK REVERSE VOLTAGE

..........

75

I"'-..

FIG. 5 - TYPICAL JUNCTION CAPACITAN CE
PER ELEMENT

1-0

250

50
11. 200

a.
ui

25
10

1.

~~

0

o~

0.9

1Z

..... ro-.

~«

~

10

a:w

~ffi 125

08

A~:r
.....,,-0 FIG.~~

150

...

0.7

,",,,"''"'ou, m

~

WARD

l%r:.;;.-

If

0.1
0.6

~,

100

TJ." 25'C Pulse Width = 300 ~ s

7

0.2

Ul

t'~

"-

/

«

1-

~o
~~'''"'~~-

~~
'"'" p;;e
~ ~~.

40

Z

1' RrT" °1 iTT r

~;;;;;;;:

a:
Oa:

«

AMBIENT, TEMPERATURE ·C

•

/

10

0

"'" ~ I'

50

1/

LL~

I-

CU. Plate

,

40
20

~Ul
W

L1Pf- \

'A
.375' (8.5nm) LEAD LENGTH

0

/\

3"x3"x.I1'1HK
(7.6 x 7.5x O.3om)

~

W
a:
a:
::J
U
0
a:

20

50

I111111

r--...

I

TJ = 25°C
f = lMHz
Vsig = SOmVp-p

100

NUMBER OF CYCLES AT 60 Hz

01

05

10

5

10

REVERSE VOLTAGE. VOLTS

-445-

50

100

I

GBU4A THRU GBU4M
GLASS PASSIVATED SINGLE-PHASE BRIDGE RECTIFIER
VOLTAGE - 50 to 1000 Volts CURRENT- 4.0 Amperes
FEATURES
~
.1300.30)

,.

I

'IP
5'
T'tP

..... ".021

.0301. '"

__I

.022(.51'

.018[.'"

!hl!!,llJll ~

• This series is UL recognized under
component index, file number ES4214
• Plastic package has Underwriters
Laboratory Flammability Classification 94V-O
• High case dielectric
strength of lS00 VRMS
• Ideal for printed circuit
board mounting
•
Glass passivated chip junctions
• High surge overload rating
• High temperature soldering guaranteed:
26SoC/10 seconds/.37S", (9.Smm) lead
length/Sibs., (2.3kg) tension

C4.83) (4.83) [4.83)

MECHANICAL DATA

case: Reliable low cost construction utilizing

Polarity sftOWll em 'ront .ide ef ca•••
pG8itive 1ud by b.... 1... comer

molded plastic technique
Terminals: Plated leads solderable per MILSTD-202, Method 208
Mounting Position: Any
Mounting Torque: 5 In. lb. max.
Weight: O.OlS ounce, 4.0 gram

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. Resistive or inductive load, 60 Hz. For capacitive load,derate current by 20%.

GBU
SYIIiICXS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage

VRRM 50
VRMS 35
Voc 50

Maximum Average Forward Rectified Tc-l00oC (NOTE 1)
Output Current at
TA.4Q°C (NOTE 2)
Peak Forward Surge Current Single sine-wave
superimposed on rated load (JEDEC Method)
Rating for fusing (t<8.3ms)
Maximum Instantaneous Forward Voltage drop
per element at 4.0A

4G 4J
100 200 400 600
70 140 280 420
100 200 400 600
4B

40

4K

411

IINI1S

800 1000 Volts
560 700 Volts
800 1000 Volts

I(AV)

4.0
3.0

IFSM

150.0

I~

93.0

Amps
A2s

1.0

Volts

VF

Maximum DC Reverse Leakage Current at
TJ-25°C
Rated DC Blocking Voltage per element
TJ-125OC
IR
Typical Junction Capacitance per element (NOTE 3)
CJ
Typical Thermal Resistance from Junction to CU8(NOTE 1) R8JC
(per element)
Junction to Ambient (NOTE 2: R8JA
Operating and Storage Temperature Range

4A

TJ.TSTG

Amps

5.0
500.0

IIA
I

101.0

46.0

pi

2.5
18.0

°c\w

-55 to +150

°c

Notes: 1. Unit case mounted on 1.S"xl.S"xO.OS" THK (4.0 x 4.0 x 0.15 em) AI. Plate.
2. Units mounted on P,C. Board with .5"x.5" (12mm x 12mm) copper pads and .375"(9.5mm) lead lengths.
3. Measured at 1.0 MHz and applied revense voltage of 4.0 volts.
4. Recommended mounting position is to bolt down on heatsink with silicone thermal compound for maximum heat transfer
with number 6.0 screw.
-44S-

RATINGS AND CHARACTERISTIC CURVES GBU4A THRU GBU4M
~
w

FIG.' - DERATING CURVE OUTPUT RECTIFIED CURRENT
4.0

a:
a:

i3
5a.
5 '"
oil!

3.0

~

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK FORWARD
SURGE CURRENT PER BRIDGE ELEMENT

~

150

i3w

I-OHI-I.....cl-

(!)

(/J

a:w

2.0

"

a:
100

::>a:
",w

1-1-1-1-HH3ooI::--F

~~

ow
a: 11.

«<

~~

~

I'

............

!'"D
50 1---tI 1+-1 eve

i'"

T",..lSO'C I
I--Single Sine W

~

~
w
~
w

........

IJEDrCMetl""')

~

0

~

1.0

2.0

4.0 6.0 10.0

20

40 60

100

NUMBER OF CYCLES AT 60Hz

~

FIG. 4 - TYPICAL FORWARD CHARACTERISTICS
PER BRIDGE ELEMENT

FIG. 3 - TYPICAL REVERSE CHARACTERISTICS
PER BRIDGE ELEMENT

100

50D

~

w
a:
a:
::>

100

.1.. ...

50

T..125·C=

--

10

0

~'"
a:il!
ww
>c.
w:::;

5.0

a:<
",0
::>a:

,.:
Z
w

a:
a:
::>
a:

~ffl

offi
u.c.

0
w

Z

0.5

~~
~

~

",. ..;.:;,5·C ...... ~

0.1

'"~
.01

~

-

Z

~

I

L

1.0

"':::;
::><

1.0

00

/

10.0

0
0

-

5O-4ooV
600-1000V _ _

o ""

20

40

60

60

100

120

TJ_2S'C

I

0.1

PULSE WIDTH.300••
1% DUTY CYCLE

-

=

'"~

-

.01
0.4

O.B

0.6

1.0

1.2

1.4

1.B

INSTANTANEOUS FORWARD VOLTAGE.VOlTS

140

PERCENT OF RATED PEAK REVERSE VOlTAGE

FIG.8 - TYPICAL TRANSIENT THERMAL IMPEDANCE
FIG.5 - TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT
1000

u. 600
"W 400
0
Z

~
0

~

<3

200
100
60
40

-

20 :~;~~
10
.1

_"":4WV

~

-~

~

I

.2.4

1.0

2.0 4.0 10.0 20

40

100

.1

REVERSE VOLTAGE. VOlTS

1.0

io.o

100

HEATING TIME (SEC)

-447-

INmMIr

KBU4A THRU KBU4M
GLASS PASSIVATED SINGLE-PHASE BRIDGE RECTIFIER
VOLTAGE - 50 to 1000 Volts CURRENT - 4.0 Amperes
FEATURES

j

.935123.7)
.895122.71 I
~
•
, .....1

.16014.11

.28017.11
,.18514.7) [!SI4.21
.165(4.2).....--1

• 4

l 1

I

1-# I

.760 JlIlW2J!l
UJi:l .860US.8l

I

1

I+i---

W----

.. 45·
.085(2.2)

r:omT.'iI

T-

~

.075!1.9)R.TVP
(2.!LAC~)

1.0

I~i:)

:405(10:31

II

!

I
I
-.fiB:UI
L- -l

i:t9lijl

i

!

1'1
t

• This series is UL recognized under component
index, file number ES4214
• Plastic material used carries Underwriter!'
Laboratory Flammability Classification 94V-O
,
• Glass passsivated chip junctions
. .. .
• Ideal for printed circuit board
.
• Reliable low cost construction
. "-., ,
utilizing molded plastic technique
'
• Surge overload rating of 200 Amperes peak
• High temperature soldering guaranteed:
2S0°C 110 seconds 1 .37S",
l&alrrB.IlOth
1 Sibs., (2.3 kg) tension

.260(6.6)

.18014.5)

Dimensions In inches
and

(millimeters)

NOTES:
1. Thermal Resistance from Junction to Case with units mounted on a 2.0" x 1.6 "x 0.3" THK (5cm. x 4cm. xO.8an.) AI. Plate.
2. Units mounted on P.C. Board with .5"x.5" (12mmxI2mm) copper pads and .375" (9.5mm) lead lengths.

-448-

RATINGS AND CHARACTERISTIC CURVES KBU4A THRU KBU4M
FIG. 2 - TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS PER ELEMENT

100~~
40~
FIG. 1 - DERATING CURVE FOR
OUTPUT RECTIFIED CURRENT

~

Z

40

a:
a:

- MotiN~:D ON '~

o
Ocn 3.0

_

W

::l

a:

~<

2.0

W
(!l

«

a:
W

~

1.

r-

,

1\
I'

ICi"Ptl' I

W

~ffi
a:~

.47~ x .47~ I \
(12mm x 12mm)

!EAUK I I; V'

~

\..
./

r-~~~:T·I
AL·PlATE
r- (5.Oc",,4cmxO.8cm) \

t-\

,,
\

0.1 '-~"""-'--'--:::iIIII""=='--~!--IIIJ!)\~;r

0.6

I' ~

"'~

ttl
I
I
60 Hz RESISTIVE OR

I'NiUTVEILOt (
100

50

\
150

TEMPERATURE °C

TA:; S"C

PERCENT OF RATED PEAK REVERSE VOLTAGE

FIG. 5 - TYPICAL JUNCTION CAPACITANCE
PER ELEMENT
50

u. 200
25
10

20

50

100

a.
ui

0

150

Z

«
I-

NUMBER OF CYCLES AT 60Hz

(3

«
Il.
«
0

'"

1~,"25~ I II

.....

f-1MHz
Vsig.SOmVpop

I'r-.

100

r---..ro-.

50

0.1

05

10

5

10

REVERSE VOLTAGE, VOLTS

-449-

50 100

•

GBU6A THRU GBU6M
GLASS PASSIVATED SINGLE-PHASE BRIDGE RECTIFIER

VOLTAGE- 50 to 1000 Volts

CURRENT- 6.0 Amperes
FEATURES

~
.130().3I)

.880(22.1]
.8GOU1•• J

I

"1(4.1) --y
I, 'I '14D(3'5)
I

~~~== ~
075

h.9)1.

+ '- -

-

r'

Ill'

~ .~
.720'118• 3)

.0&0

(l:.!!!l
U.52)

+

• This series is UL recognized under
component Index, file number E54214
• Plastic package has Underwriters
Laboratory Flammability Classi-

fication
94V-O
"
• High
case
dielectric
strength of 1500 VRMS
• Ideal for printed circuit
\
,.':U.I
board mounting
\ \
• 0(.76
• Glass passivated chip Junctions . '- .
• High surge overload rating
... 1 ,.122(.5!) • High temperature soldering guaranteed:
.111(.46)
265°C/10 seconds! .375", (9.5mm) lead
length/5Ibs., (2.3kg) tension

st_

.

MECHANICAL DATA

Polarity ah... on 'roM
of _ .
positive lead by beveled corner

case: Molded plastic
Terminals: Plated leads solderable per MILSTD- 202, Method 208
Mounting Position: Any (NOTE 3)
Mounting Torque: 5 In. lb. max.
Weight: 0.015 ounce, 4.0 grams

Dlmsnsions In Inchss

and

(mlfllmstsfS)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°0 ambient temperature unless otherwise specified. Resistive or inductive load, 60 Hz. For capecitive load,derate current by 20%.

SlIIIIIOI.8

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified
Tc-1000C (NOTE 1)
Output Current at
Peak Forward Surge Current Single sine-wave
superimposed on rated load (JEDEC Method)

VRRM 50
VRMS 35
Voo 50

68

6D

TJ.TSTG

GBU
6G

6J

6K

6.

UNITS

100 200 400 600 800 1000 Volts
70 140 280 420 560 700 Volts
100 200 400 600 800 1000 Volts

f(AY)

IFSM
Rating for fusing (t<8.3ms)
ft
Maximum Instantaneous Forward Voltage drop
per element at 6.0A
VF
Maximum DC Reverse Leakags Current at
TJ=25°C
Rated DC Blocking Voltage per element
TJ-125°C
IR
Typical Junction Capacitance per element (NOTE 2)
CJ
Typical Thermal Resistance per element from
Junction to Case (NOTE 1)
R8JC
Operating and Storage Temperature Range

/fA

6.0

Amps

175.0

A~

127.0

A2a

1.0
5.0
500.0

Volts

211.0

!LA
94.0

pf

2.2

°C\W

-55 to +150

°C

Notes:
1. Units case mounted on 2.6'xl.4'xO.06' THK(6.5 x 3.5 x 0.15 em) AI. Plate. heatsink.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 volts.
3. Recommended mounting position is to bolt down on heatsink with silicone !henmal compound for maximum heat transfer with
number 6.0 screws.

-450-

RATINGS AND CHARACTER/STIC CURVES GBU6A THRU GBU6M

FIG. 2 • MAXIMUM NON·REPETITIVE PEAK FORWARD
SURGE CURRENT PER BRIDGE ELEMENT

FIG.1 • DERATING CURVE OUTPUT RECTIFIED CURRENT
HJr.siNK

~oJNrl~G. t

,.:

z

\

2.S"x1A-x.06" THK
(8.5x3.5x.15cm)

1\

AI. PLATE

,

1\

50

fIlW

all.
a::::;;
0..

:::l IX

,

!z"

.......

",,'"

0.1

,
.0 1

o

,.

20

40

60

@

80

---

100

120

-

z
z~

U

T,...25'C

5OV-400V
6OOV·l000V

'I

~~ 1.~

::::J<

~

TJ-2S'C
PULSE WIDTH-300"" -

I

D, 1

1% OUTYCYCLE

~

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

.0 1
0.4

0.6

0.8

1.0

1.2

lA

1.8

INSTANTANEOUS FORWARD VOLTAGE,VOLTS
FIG.S • TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT
FIG.S· TYPICAL TRANSIENT THERMAL IMPEDANCE

1000
600

'ii400

ui

!i!200 r-t-

--~

~ 100

o

1'1:

~

60 T...25'C
f_1MHz
40

Vs;g_50mVp'p

20

LI 1111

0
.1

.2

.4

-

5OV-400V
GOOV·l000V - -

1.0 2.0 4.0 10.0 20 40 100

REVERSE VOLTAGE, VOLTS
.01

.1

1.0

10.0

100

HEATING TIME (SEC)

IN~MIr
-451-

100

KBU6A THRU KBU6M
GLASS PASSIVATED SINGLE· PHASE BRIDGE RECTIFIERS

VOLTAGE - 50 to 1000 Volts

CURRENT - 6.0 Amperes
FEATURES

.895122.71
~
lr
1.....1

.935(23.7) ~

.16014.1l
1

r

I

I

I

~---

.160 .100111.81

.280(1.1)

,.18514.11 e!514.21

_~~fio5[4.2)_1
.085 {l.2l
I .065 (1.11

• T+ .:~:::~:;:
..L~t=--bilrlit,"i,rt, ---L-

l~l'il

j

.660Il6.81

1.0

IlJiN41

• This series is i:JL recognized under component
index, file number E54214
• Plastic material used carries Underwriters
Laboratory Flammability Classification 94V-O

.01511.91 •. ;"--

_

t2~LAC~)

!"I ,I I'

~Iill
ji~ ~~1111+-+1 Ti

I
j
, 180 (4.5)
i

205(6.&)

1.

.2&0(6.&)

.18014.51

Dimensions in inches
and
(millimeters)

KBU KBU KBU KBU KBU KBU KBU
SYMBOLS6A 6B 60 6G 6J 6K 6M UNITS
Maximum Recurrent Peak Reverse Voltage
VRRM 50
Maximum RMS Voltage
VRMS 35
Maximum DC Blocking Voltage
Voc 50
Maximum Average Forward Rectified
Tc= 100·C
Output Current at
TA=40·C
I(AV)
Peak Forward Surge Current Single haH sine-wave
superimposed on rated load (JEDEC Method)
IFSM
Maximum Instantaneous Forward Voltage drop
per element at 6.0A
VF
Maximum DC Reverse Leakage
TA=25°C
at Rated DC Blocking Voltage per leg
TA=125°C
IR
Typical Thermal Resistance per leg (NOTE 1)
ReJC
Operating and Storage Temperature Range
TJ.TsTG

100 200 400 600 800 1000 Vo~s
70 140 280 420 560 700 Voks
100 200 400 600 800 1000 Voks
6.0
6.0
mps
250.0

Amps

1.0
5.0
1.0
4.7
-50 to +150

Voks
!LA
mA
·CIW
·C

NOTES:
1. Thermal Resistance from Junction to Case with units mounted on a 2.S" x 1.4 x .OS" THK

(S.5cm. x 3.5cm. x.15cm.) AI. Plate.

-452-

RATINGS AND CHARACTERISTIC CURVES KBU6A THRU KBU6M

FIG. 1 - DERATING CURVE FOR
OUTPUT RECTIFIED CURRENT
~

UJ
a:
a:
=>

60

U

a:UJ


50

<

Z

100~~

::>

20r-_t-_t--t-~t--t--t-~

MOUNTING, Tc

0

Oln

,

l'

FIG. 2 - TYPICAL INSTANTANEOUS FORWARD

HEAT -SINK
~

,

U

~~

"~

a: a:

Ow
u.o..

150

100

40~

w
a:
a:

10~~~~~~~~~~~~~~~

40

cn::2

6~ ~

TEMPERATURE 'C

TJ"2S"C

~~,~!~~~PU~L~S~E~W~'D~TH~.3~0:0"~S~{
1% DUTY CYCLE

......

<

FIG. 3 - TYPICAL REVERSE

10
04

<
f-

CHARACTERISTICS

en
Z

225

UJ
C)(j)
a:UJ
=>a:
(j)UJ

O~

a:<

~~

U.
0-

uj
U

a:Z
OUJ
u.a:
>t:a:
<=>
wU
"-

100

f-

!150.J

.... ~

TJ
1
SINGLE SINE-WAVE
JEDEC Method

200
175

150

125
100

Z

<

i'..

75

50

I'roo..

'"
10

U
<
0..
<

l"- i'

20

NUMBER OF CYCLES AT 60Hz

U

10
5

10

50

100

REVERSE VOLTAGE. VOLTS

-453-

I'
50

100

GBPC6005 THRU GBPC610
GLASS PASSIVATED SINGLE· PHASE BRIDGE RECTIFIER
VOL TAGE • 50 to 1000 Volts CURRENT· 6.0 Amperes
FEATURES
• Glass passivated chip junctions

:3L!c~2~
.15013.8110

-:I4iiTf.5l IA.

I

.77om.56)
.730118.54)

f

.770119.56)
.730118.54)

I

•445Cll. 3)
.405110.3)

.52003.21)
.48002.19)

1(3.11f!=..,'i===+~"""'·140
~c ~-!-

.145

13.56).45·

~ typo

.105 (2.67)

:~!~g:~~:DIA.+ ...

T

d;~351

.......--.-+-.--11., MIH.

• This series is UL recognized under component
index, file number E54214
• Plastic package has carries Underwriters
Laboratory flammability recognition 94V-O
• High case dielectric strength
of 1500 VRMS
• TypicallR less than 0.5 (J. A
• High surge current capability
• Ideal for printed circuit boards
• High temperature soldering guaranteed:
265°C 11 0 seconds at Sibs., (2.3 kg) tension

MECHANICAL DATA

Dimensions in inches
and

(millimeters)

case: Reliable construction utilizing molded plastic
technique
Terminals: Plated leads solderable per MIL-STD202, Method 208
Mounting Position: Bolt down on heat-sink with
silicone thermal compound between bridge and
mounting surface for maximum heat transfer with
number 6.0 screw
Mounting Torque: 5.0 in. - lb. max.
Weight: 0.1 ounces, 2.8 grams

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. 60 Hz, resislive or inductive load. For capacitive load, derate current by 20%.
GBPC GBPC GPSe GBPC GBPC GBPC GBPC

SI'ltBOl.S 6005 601

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Bridge Input Voltage
Maximum DC Blocking Voltage
Maximum Average Forward
Tc..50·C (NOTE 1)
Tc=40·C (NOTE 2)
Rectified Output Current at
Peak Forward Surge Current Single sine-wave
superimposed on rated load (JEDEC Method)
Rating for fusing (k8.3ms)
Maximum Instantaneous Forward Voltage Drop
per element at 3.0 Amperes
Maximum DC Reverse Current at Rated
TA=25·C
DC Blocking Voltage per element TA=125·C
Typical Junction Capacitance per element (NOTE 3)
Typical Thermal Resistance from Junction to Case (NOTE 1)
Operating Temperature Range
Storage Temperature Range

VRRM 50
VRMS 35
Voc 50
I(AY)
IFSM
I~

VF
IR
CJ
R8JC
TJ
TSTG

602

604

606

606

175.0
127.0

Amps
A2s

1.0
5.0
500.0

Volts

186.0

JJA
90.0

8.0
-55 to +150
-55 to +150

NOTES: 1. Unit mounted on 5.5" x 6.0" x .11" thick (14 x 15 x 0.3 em) AI. plate.
2. Unit mounted on P.C. board at .375" ,9.5mm lead lengths with .5"x.5"(12mmxI2mm) Copper pads.
3. Measured at 1 MHz and applied reverse voltage of 4.0 vollS.
-454-

610 UNITS

100 200 400 600 800 1000 Volts
70 140 280 420 560 700 Volts
100 200 400 600 800 1000 Volts
6.0
3.0
Amps

pI
·CIW

·C
·C

RATINGS AND CHARACTERISTIC CURVES GBPC6005 THRU GBPC610

iw

FIG. 1 - DERATING CURVE
OUTPUT RECTIFIED CURRENT

a:
a:

."w......

8.0

'i',V
I'-

Oa:

O~ 4.0

a:",
~<
a:

~

2.0

"i:!w

I

I"'-

....

Ambient Temperatur., T
I p.e.B. Mounting,
.375", 9.Smm Lead Lengths
80 Hz R•• lstive or Induotlve Load

I

1<

17.

"o

.....t·Sink Mounting
6.S" x 8.0' x.l1' THK.
(14. 1.6x 0.:1 om)

a:w
"a:
CDW

126

-c C

tOO

~~

..........

~

"

50
100
TEMPERATURE. 'C

"

Slng'e HaH 8In.·Wave
tJEDEC ".thod)

~CIJ 110

AI. Plate

"'1'-- .... :::

FIG. 2 - IIAXIIIUII NON.REPETITIVE
PEAK FORWARD SURGE CURRENT

zoo

a:
a:

l..lT.LLJ.T.i

6
~

iw

B.D

'"

~
H 1.DC",I. .... r....

~

.

"'"w

~~,.0

t'-

50

2.0

1.0

4.0 8.0 10.0

20

40

..

100

NUMBER OF CYCLES AT 60 Hz

FIG. 4 • TYPICAL FORWARD VO~TAGE
CHARACTERISTICS PER ELEIIENT

500

100

FIG. 3 - TYPICAL
REVERSE CHARACTERISTICS

iw

a:
a:

W"

 ..
w'"
a:<
.. 0
"a:

02
w::;;

a:

60

~:a

a: a:

.....
..

Ow 1.0

10

",

,,<

5lz

5.0

Z.

~ffi

~~

Z"
_0

10.0

"oo

100

;:!
z

I

0.1

i

1.0
0.5

.01
0.4

0.1

TJ.26'O
Pul •• Width. toO JLS
2% Duty e,ole

~-'2I:D--:4J,.D--:!,I:D -B::!D'--:'±DD:--::!:'-~n

0.8

0.8

1.0

1.2

1.4

1.'

I ••

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS

PERCENT OF RATED PEAK
REVERSE VOLTAGE
FIG. 6 • TYPICA~ TRANSIENT THERIIAL IMPEDANCE

! 1DD~~!!II~"""~~II~!!!l1I

FIG ••• TYPICA~ JUNCTION CAPACITANCE
PER BRIDGE E~EMENT

50

...

0-

W
0
z
;:!
0
~

'"0

o
z

20

~
;!

5.0

-'

2.0

~lo.o~11

100

<
::;;
a:

50

w

:0:

....

~a:
REVERSE VOLTAGE. VOLTS

1.0

0.6
0.2

HEATING TIME (SEC)

INSTUMir
·455·

I

GBPC8005 THRU GBPC810
GLASS PASSIVATED SINGLE-PHASE BRIDGE RECTIFIER
VOLTAGE - 50 to 1000 Volts
CURRENT- 8.0 Amperes
FEATURES

.770119.56)
.730118.54)

1

• Glass passivated chip junctions
• This series is UL recognized under component
index, file number ES4214
• Plastic package has Underwriters Laboratory
flammability recognition 94V-O
• High case .dielectric strength
of 1S00 VRMS
• TypicallR less than O.S ~ A
• High surge current capability
• Ideal for printed circuit boards
• High temperature soldering guaranteed:
26SoC /10 seconds/ .37S" (9.Smm) lead lengths
/Slbs., (2.3 kg) tension

.520113.211
.480 [12.19)

~c

~_l_

--..L:I=1~~+~.;v'.140 !3.56Jx45'
.145 (J.6Ji-l

~ typo

:Iii5iI:6'iT

T

.05211.32)DIA .....
.04811.22)
.

----:ro
119.05)
MIN.

r"--,--t.-t..,-_.-

MECHANICAL DATA

case: molded plastici
Terminals: Plated leads solderable per MIL-STD202, Method 208
Mounting Position: Bolt down on heat-sink with
silicone thermal compound between bridge and
mounting surface for maximum heat transfer with
number 6.0 screw
Mounting Torque:10.0 in. - lb. max.
Weight: 0.1 ounces, 2.8 grams

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 2S'C ambient temperature unless otherwise specified.
SO Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
GBPC GBPC GPSe GBPC GBPC GBPC GBPC

SYMBOLS 8005 801
Maximum Recurrent Peak Reverse Voltage

VRRM 50
VRMS 35
VDC 50

Maximum RMS Bridge Input VoHage
Maximum DC Blocking Voltage
Maximum Average Forward
Rectified Output Current at at

Tc=50'C (NOTE 1)
TA=40°C (NOTE 2)

802

804

806

808

100
70

200
140

400

600

800 1000 vons

280

420

560

100

200

I(AV)

Peak Forward Surge Current Single sine-wave
superimposed on rated load (JEDEC Method)

810 UNITS

700 Voks

400 600 800 1000 Voks
8.0
3.0
Amps

IFSM

200.0

Amps

Rating for fusing (k8.3ms)

I~

160.0

A2s

Maximum Instantaneous Forward Voltage Drop
per element at 4.0 Amperes

VF

1.0
5.0

Volts

Maximum DC Reverse Current at Rated
TA=25°C
DC Blocking Voltage per element TA= 125'C

IR

Typical Junction Capacitance per element (NOTE 3)

CJ

Typical Thermal Resistance from Junction Case (NOTE 1)
Operating Temperature Range
Storage Temperature Range

ItA

500.0
200.0

100.0
6.0

'cm

TJ

-55 to +150

TSTG

-55 to +150

'C
·C

NOTES: 1. Unit mounted on 8.S" sq. x .24" thick (22 x 22 x O.S cm) AI. plate.
2. Unit mounted on P.C. board at .375" ,9.Smm lead lengths with .S"x.S" (12mmx12mm) Copper pads.
3. Measured at 1 MHz and applied reverse voltage of 4.0 volts.

-45S-

pi

R9JC

RATINGS AND CHARACTERISTIC CURVES GBPCBOO5 THRU GBPC810

'0

2"

lc

i"'~LI

Ca•• T,mp.,atu ••
H.al,Slnk Mounting
•. 8" a: •••• I: .206" TH'K"
(22 I: 22 • 0.' om)

-

'I

I. Plat'

o

I P.C.B. Mounllng, I
. 376', 8.5mm Lnd L.nGth.
60 HI' R'I.,t,v, or InouCI,." Load

•

..

20

10

'"""~

~I-100

o

1--1-0. ~!!I..

02
W,"

50

~

~2~

Ii

10.0

w

...

0:

a:
=>

U

o

i~

.....

CHARACTERISTICB PER BRIDGE ELEMENT

1.0

Ow

'D

CO,"

6<

5.D

w

•

O.

I

I

Z

~
~

'.0

~5 0.'

o.

40

60

80

100

t20

T.. _.·C

aoo I'" ==
'''' DutrC,...

Pul•• WIcfIh •

=

.DO

I-""
20

•

~

TIt.2I'e._

0.'

.. .... , ..

0:

z.

i5~
Zw
 ..
W'"
a:<
",0
=>a:

i"""o"

&int l.81ft,·W...
(JEDEC .........)

...
W"
.,W

~

-T,.,..·c

~~
Amb~mp.r.tu,.~~

I,"I

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK FORWARD
SURGE CURRENT PER BRIDGE ELEMENT

FIG. 1 • DERATING CURVE
OUTPUT RECTIFIED CURRENT

.,

J

_..........

140

o.a

PERCENT Of RATED PEAK
REVERSE VOLTAGE

0.4

0.'

0.'

t.o

1.2

1.4

t.'

INSTANTANEOUS FORWARD VOLTAGE. VOlTS

FIG. 5 • TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT
.

..

FIG•• - TYPICAL TRANIIENT
THERMAL IIiPEDANCE

,

w

U
Z

.<

i~

1.0

a:: a!

2.0

i

w

i"

G.2

.,

REVERSE VOLTAGE. VOLTS

0.1 L..J-LI.ll1IlL.JLll

..

,

I~
-457·

I

GBU8A THRU GBU8M
GLASS PASSIVATED SINGLE·PHASE BRIDGE RECTIFIER
VOLTAGE· 50 to tODD Volts CURRENT· 8.0 Amperes
FEATURES
• This series is UL recognized under
.TIO'i"iToi
component index, file number ES4214
\ J~
•
Plastic package has Underwriters
Laboratory Flammability Classification 94V-O
• High case dielectric
5'
strength of 1S00 VRMS
IV>
• Ideal for printed circuit
::~~;~
board mounting
• Glass passivated chip junctions
• High surge overload rating
... 11 .022(.56) • High temperature soldering guaranteed:
.018(.46)
26SoC/10 seconds/ .37S", (9.Smm) lead
length/Sibs., (2.3kg) tension
.
.140C3.56)

.12{H~E~" 1----':"':~'*'0:*~~:7:~f--1

dllli".!!!Y
.290(7.4)

1.......

--:1~t===

.085(2.16)
.065C1.&5)

.020R(TVP]
.100(2.54)

...m.m

1"0I4.1J~I

~_140(3'5}

(~~~)R.
+ ........ -- -

-If:

1

I,'

+-

'I~'OS;
ru 'II+-

'I

'~I' "'1'

! Il!, ,

' t8~t~;~

.140U8.8)
18 • 3J

.720(1

•
-=::L

.noL.o
__

1

.050U.27I .69° 117.5
.04011.02)

.m 7JO :,w
.190.190.190

(5.33) (5.13)

(s.;m

(4.iJ'j C4.ij) i4.i31
Polarity shown on front side of case,
positivt' lead by beveled comer

MECHANICAL DATA
Case: Molded plastic
Terminals: Plated leads solderable per MILSTD- 202, Method 208
Mounting Position: Any (NOTE 3)
Mounting Torque: S in. lb. max.
Weight: 0.015 ounce, 4.0 grams

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. Resistive or inductive load, 60 Hz. For capacitive load,derate current by 20%.

GBU
SYMBOLS 8A

Maximum Recurrent Peak Reverse Vo~age
Maximum RMS Voltage
Maximum DC Blocking Vokage
Maximum Average Forward Rectified
Tc=1000C
Output Current at
Peak Forward Surge Current Single sine-wave
superimposed on rated load (JEDEC Method)

VRRM 50
VRMS 35
Voc 50
(NOTE 1)

Rating for fusing (kS.3ms)
Maximum Instantaneous Forward Vokage drop
per element at S.OA

80

8G

8J

8K

8M

UNITS
Vo~s

100 200 400 600 SOO 1000
70 140 2S0 420 560 700
100 200 400 600 SOO 1000

Voks
Vo~s

I(AV)

S.O

Amps

IFSM

200.0

Amps

I~

166.0

A2s

1.0

Vo~s

VF

Maximum DC Reverse Leakage Current at
TJ=25°C
Rated DC Blocking Vo~age per element
TJ=125°C
IR
Typical Junction Capacitance (NOTE 2)
CJ
Typical Thermal Resistance per element from
Junction to Case (NOTE 1)
R8JC
Operating and Storage Temperature Range

88

TJ.TsTG

5.0
500.0
211.0

!LA
94.0

pf

2.2

°C\W

-55 to +150

°c

NOTES:
1. Units case mounted on 3.2"x3.2"x .12" THK (8.2 x8.2 x 0.3cm.) AI. Plate. heatsink.
2. Measured at 1.0 MHz and applied reverse voltage of 4.0 volts.
3. Recommended mounting position is to bolt down on heatsink with silicone thermal compound for maximum heat transfer
with number 6.0 screws.

-458-

RATINGS AND CHARACTERISTIC CURVES GBU8A THRU GBU8M
FIG. 2 • MAXIMUM NON-REPETITIVE PEAK FORWARD
SURGE CURRENT PER BRIDGE ELEMENT

FIG.1. DERAnNG CURVE OUTPUT RECTIFIED CURRENT
10.0

HEAT-SINK MOUNTING. T.
3.2"oq.x.I2"THK

1\ (e.i.nho.3cm)'

e.o

'" -

AI. PLAlE

a.o

,,~

4.0

2.0

o

20

eo

50

I-ot-t-

,

100....

~

.375"".(9.5mm) LEAD LENGTHS
sOHz AEsiirnVE OR INDUCTIVE LOAD

o

.......

100

120

160

5

2.0

10

60

20

100

NUMBER OF CYCLES AT 60Hz

CASE TEMPERATURE, "C

FIG. 3- TYPICAL REVERSE CHARACTERISTICS
PER BRIDGE ELEMENT

FIG. 4- TYPICAL FORWARDCHARACTERISnCS
PER BRIDGE ELEMENT
100

/
I

I

7

=

T...25·C
PULSE WIDTHo3OOjIO
I'll. DUTVCYCLE

.01
OA

0.6

0.8

1.0

1.2

1.4

1£

INSTANTANEOUS FORWARD VOlTAGE,VOlTS

1000."

FIG.5- TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

FIllS· TYPICAL TRANSIENT THERMAL IMPEDANCE

~

~8QQ

400

....

~2OQ

~ 100 =1
~ eo :~~,;
C3

[""'000

V'~~~~~~ -

40

:

I 1111111
.1

.2

A

6OV.4OQII

20

10.0

~~

5.0

i

'F - ,::,:"

8QQV.,' ,

1.0 2.0 4.0 10.0 20 40

50

~
a: ~

_

100

I-+H++IIII--I-H
1
; .

~.2~

100

L-LLWlIll.-l.L..L

REVERSE VOlTAGE, VOlTS

I~
-459-

KBU8A THRU KBU8M
GLASS PASSIVATED SINGLE·PHASE BRIDGE RECTIFIER

CURRENT - 8. a Amperes

VOL TAGE - 50 to 1000 Volts

FEATURES

~

•
.935{23.7)
.895(22.1) I
..185(4.1)
L..-_:
. . . .I

~
.140(1.6}

r r
1 1

.760 .100n7.B)
1Jii J .,"om.8J

f

~~6;(4.2)

1 I

I

i I

J

.280(1.1)
E5(4.2)

.....-..1'

• Glass passivated chip junctions
• Ideal for printed circuit board
• Reliable low cost construction
utilizing molded plastic technique

- .085 (2.2)
t 0650.7)

--'
~- _ ......55111~J
~7[521r~Mr + ~

I

,

• Surge overload rating of 300 Amper
• High temperature soldering~.....~.t\\
250°C 11 seconds 1 .~iI";j~!iI~~
lead length 1 51
.3 kg

I,

C2Ji:
! I
i
~Iill
Jtg~~::~ 1\-: Ti
1.0

• This series is UL recognized under component
index, file number E54214
• Plastic material used carries Underwriters Laboratory Flammability Classification 94V-O

II,

o

.260(6.6}

.180[4.5J

1W:1fe":!~~st construction utilizing

echnique

nals: Plated Leads solderable per MIL-STD202, Method 20S

Mounting Position: Any
Mounting Torgue: 5 in. lb. max.
Weight: 0.3 ounce, S.O grams

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Resistive or inductive load, 60 Hz.
For capacitive load. derate current by 20%.

KBU KBU KBU KBU KBU KBU KBU

SYMBOLS 8A

Maximum Recurrent Peak Reverse Vottage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified
Tc=100°C
TA=45°C
Output Cu rrent at
Peak Forward Surge Current Single half sine-wave
superimposed on rated load (JEDEC Method)
Maximum Instantaneous Forward Vottage drop
per element at S.OA
Maximum DC Reverse Leakage
TA=25°C
at Rated DC Blocking Voltage per leg
TA=125°C
Typical Thermal Resistance per leg (NOTE 1)
Operating and Storage Temperature Range

VRRM 50
VRMS 35
Voc 50
I(AV)

88

8D

8G

8K

8M UNITS

IFSM

300.0

Amps

VF

1.0
10.0
1.0
5.0
-50 to +150

Volts

IR
R8JC
TJ.TsTG

NOTES:
1. Thermal Resistance from Junction to Case with units mounted on a 3" Ssq.x .11" THK (7.5cm. sq.

-460-

8J

100 200 400 600 SOO 1000 Votts
70 140 2S0 420 560 700 Votts
100 200 400 600 SOO 1000 VoRs
S.O
6.0
Amps

X O.

itA
mA
°cm
°C
3 em.) AI. Plate.

RATINGS AND CHARACTERISTIC CURVES KBUBA THRU KBUBM

FIG. 2 - TYPICAL INSTANTANEOUS FORWARD
CHARACTERISTICS PER ELEMENT

FIG. 1 - DERATING CURVE FOR
OUTPUT RECTIFIED CURRENT

t-=

z

0

W

a:
a:

HEATSINK .-'
MOUNTING. T.

o

~ffi6 0

N

a:~

W
Cl

0(

~

.37I1'IUnm) LEAD LENGTH

a:
W

0

~

o

t-=

zw

40

a:
:::J

2Of---+-+-f--:A-+-+----l

a:

1\

80 Hz RESISTIVE OR I
INDUCTIVE LOAD
o .5"xS(12rmD112mm)
COPPERPADS WITH
P.e. BOARD MOUNTED ON

:ro(4

1

3.D'oqJllI!'1HKAL.PlATE,
(7.5cmIq.x.3om THK) .

:::J

~ffi

I

100

o

,

~

"I"

r\
I'

1\

~
o

50

150

100

TEMPERATURE ·C
FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS

10 _

_

30
W
Cl(J)

a:: w

:::Ja:

O~

250

(J)W

~~
0(0(

3:t-=
a: z
40

60

BO

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

-

FIG. 5 - TYPICAL JUNCTION
CAPACITANCE PER ELEMENT

OW

200

150

LLa:

~~
wO

100

W

o

100

~

50

z
~

~

10

10

~

'"

150 C

'" .....r-..... r-...
'"
10

o

5

r--..t-..

20

NUMBER OF CYCLES AT 60Hz

0(

A

TJ

50

.II r'.J2sJc

f.l.oMHz
Voig • &Om Vpop

Q.

SlLEl~UA!J

IJEDEC MoIhod)

Cl.

-,.;..u

LL

~

100

REVERSE VOLTAGE. VOLTS

-461-

50

100

•

GBPC10-005 THRU GBPC10-10
GLASS PASSIVATED SINGLE-PHASE BRIDGE RECTIFIER
VOLTAGE-SO-1000 Volts CURRENT-10.0Amperes
FEATURES

.52003.21)
.480112.19)
t

t

.520[13.21)
.480[12.19)

l

.09512.4JTVP.
K 450 Chamfer

I

I

L·0401l.02lTYP.

·~DIA,..
.04811.22)'

To
119.05)

... IT

I

....,~

,..............-!-.........

Polarity shown on side of case:
positive lead by beveled corner

Dimensions in inches and (millimeters)

• This series is UL recognized under component
index file number ES4214
• Plastic package has Underwriters Laboratory Flammability
Classification 94V-O
• High case dielectric strength
of 1S00 VRMS
• Glass passivated junctions '
• Typical IR less than O.S J,tA
• High surge capability
• Ideal for printed circuit boards
• High temperature soldering:
26soC/10 seconds at Slbs.,(2.3kg) tension

MECHANICAL DATA
case: Molded plastic with heatsink integrally
mounted in the bridge encapsulation
Terminals: Leads solderable per MIL-STD-202,
Method 208
Mounting Position: Bolt down on heat-sink with
silicon thermal compound between bridge and
mounting surface for maximum heat transfer
efficiency with number 6.0 screw
Mounting Torque: 10.0 in. lb. max.
Weight: 0.28 ounces, 8.0 grams

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. 60 Hz, resistive or inductive load. For capacitive load, derate current by 20%.

SYMBOLS 005

Maximum Recurrent Peak Reverse Vo~age
Maximum RMS Bridge Input Vo~age
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Output Current
at Tc=50'C (NOTE 1)
Peak Forward Surge Current Single sine-wave
superimposed on rated load (JEDEC Method)
Rating for fusing (1<8.3ms)
Maximum Instantaneous Forward Voltage Drop
per element at 5.0 Amperes
Maximum DC Reverse Current at Rated
TA=25°C
DC Blocking Voltage per element
TA=125°C
Typical Junction Capacitance per element (NOTE 2)
Typical Thermal Resistance from Junction to Case(NOTE 1)
Operating Temperature Range
Storage Temperature Range

VRRM 50
VRMS 35
Voc 50

02

GBPC1lJ.
04
06

06

10

UNITS

100 200 400 600 800 1000 Voks
70 140 280 420 560 700 Voks
100 200 400 600 800 1000 VoRs

I(AV)

10.0

Amps

IFSM

200.0
160.0

Amps
A2S

1.0
5.0
500.0

Vo~s

121'
VF
IR
CJ
R8JC
TJ
TSTG

NOTES: I. Unit mounted on 6,0·x2.2"x2,2" (15x5.7 mx5,5cm) AI. Plate.
2. Measured at 1 MHz and applied reverse voltage of 4.0 volts.

-462~

01

220.0

ItA
110.0

4.30
-55 to +150
-55 to +150

pf

°cm
°C
°C

RATINGS AND CHARACTERISTIC CURVES GBPC1D-005 THRU GBPC1D-10
FIG. 2 • MAXIIIUM NOft.REPETITIVE PEAK FORWARD
SURGE CURRENT PER BRIDGE ELEMENT

FIG 1.· DERATING CURVE FOR
OUTPUT RECTIFIED CURRENT

"'~

I"

i1 ,lSTr fR INDIUCil~
E

20

50

80

,

150

~
a:!i1

.

100

~a

50

f2~

~~

LDr-o I
100

CI

- r--

"

V

'50
0

~a:

0

1L
W

20

15

Y

-GB~C12

"-

"-~ ~:-"\.

10

""~

Cl

«
a:
w

-

::t

......::

~I~~u~:tr:ad
25

50

I

'\

75

100

I

150

I
I

~

I

r-GJpC15

I

I

AthS-A-1.0'C/W

0....
:>

15

Cl

10

«
a:
w
>
«

AI-Finned plate -

"""

20

0
w

~ 6"x2.2"x2.2"

125

0

:>

5"x4"x3" AI-Finned plate

GBPC15

I-GBPC25
RthS-A- 0.5'C/W
26

....

5.0

10

20

-- -r--....

.......

f"'".

-I"'---.

I

200

i"""'-- ......
......

~

GBPC12
RlhS-A.l.0'C/W

o
175

-

30

!iw
a:
a:
:>

I
I

/

I

6OIl.R..i~1iV8
or Inductive l.oad

«

S"xS"x4.9" AI-Finned plate

GBPC25

0-

a:

w
w
0::!

a:

'"«

a:
a:
:>

I

en

a:

30

40

50

60

70

~

r--....

60

90

100

AMBIENT TEMPERATURE T., 'C

CASE TEMPERATURE Tc. 'C

FIG 4 - TYPICAL REVERSE CHARACTERISTICS
500

FIG 3 - MAXIMUM POWER DISSIPATION
80

70

I\,/
J
I
/
'I /

60

,

L

100

....
Z
a:
a:
:>
0

/

~

a:«
",0
:>a:

T... l50'!?_
50

I

10

1.0

;5
Z
;5

.'l
V

'"~

~

".'

TJ-25'C

0.1

J

o

....
10

20

-

~~

1/

,

...

.... ~

~

00

~~~~TlVElINDUCTIVE _

1/

20

..

wen
enw
a: a:
ww
>0w::!

J/
#~

30

;;-I~ I'"

W

I'

40

o

I

J

J

50

10

L

ClpACIT:VE
LOAD

r- TJ_TJmax.

T"..12S'C

40

.01

"

20

AVERAGE OUTPUT CURRENT. AMPERES

-50V4JXJV
-

40

80

80

_SooV_1001jV

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

INsBMIr
-465-

RATINGS AND CHARACTERISTIC CURVES GBPC12,15,25 SERIES

FIG.5- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER BRIDGE ELEMENT

a.

"I
~.

. "'"

W:Ii

IX:",

",0

"-

:::)a:

@Q
z:li

RESISTIVE/INDUCTIVE
LOAD

1.0

~

".

;!!

.'l
V

rn

~

0.1

"

T.,..2&"C

~

"

L...o
10

20

30

40

o

AVERAGE OUTPUT CURRENT. AMPERES

-SCV-4OCl\l
- -600v-1000v

L"

.01

20

40

80

90,

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

I~
-469·

RATINGS AND CHARACTERISTIC CURVES GBPC35005 THRU GBPC3510
FIG.5- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS PER BRIDGE ELEMENT

fIl

~

w
Il.
::;;

FIG. 8-TYPICAL TRANSIENT THERMAL IMPEDANCE

100

100

~

e.

«

~
~

~

10.0

w

()

z
j:§

a:
;:)

c
a:

~

Il.

..J

~

fIl

a:
w
:z:

I

0.1

~

.01
0.4

J
0.6

0.8

I

I

I

1.0

1.2

1.4

1.0

I-

«

T...25·C
,~
PULSE WIDTH-3OOp.s
1% DUTY CYCLE
_

!Ii!

~3!0

....

~

1.0

ou.

5

10.0

w

()

~

a:
0.1
0.1

.01

1.6

1.0

10.0

HEATING TIME (SEC)
INSTANTANEOUS FORWARD VOLTAGE, VOLTS
FIG.7-MAXIMUIII NON-REPETIVE PEAK.
FORWARD SURGE CURRENT

-

r-I-i"""~~

-

..

.1"- ....

~rYY'\

~~ICycIo
f-- T.. I50·C
~

Single Sine Wave
(JE!l.IiCMelhocl)

1.6

2

4

6 6 7 8 810

16

I!O

SO

40

60 70 90 100

NUMBEII OF CYCLES AT 60Hz

FIG.a-TYPICAL JUNCTION CAPACITANCE PER BRIDGE ELEMENt
TJ_25'C

600

u.
"-

~

w

()

(3

160

~

tS

.....

260
200

L

V~ig-6OmVp

SOD

z

~

!-IMHz

400

...
r--..""
"'''

100

60
1.0

1.5

2.0

3.0 4.0 6.0

7

10.0

15

20

30

40

60

70 100

REVERSE VOLTAGE VR, VOLTS

I~
-470-

100

GBPC
FIG.S

+-1.l35(28'8)~
1.115(28.3)

HOLE FOR
IlOSer...

....t6721l7.DI ..

-1------____'~~6=3=2(=l=6.~D~AC
i=fT-- -m- --r-t-

1.135(28.8) .67207.D

I

~.632IT6.iJ

1

A

'1'

~'$T

.582114.8)
.542113.8)

I

t

.840(21.31
.74008.8)

-:&---L

- ! 1ll-

A~I. 732!18.6~1_\
-I~I

~

EPOXY CASE

GBPC-W
FIG.9
I

1.135(28.8)
1.115~

HOLE FOR
liD Scr ...

-+/.7321l8.6)/+-

-i-:i-:-~.l.t~:-:~-:-·-·~-~~-~-~~-:-:-:lIi;+] ,
---L-......

_ _:!-_ _ _ _A;;.:.C,

.470(11.9)
.430110.9)

r l-

I

.

310!7.62)r-'-'-!-Hu......,

+

\

.290(7.36)~=L-:......,.p=

t

'--_______ METAL HEAT SINK

EPOXY CASE

Dimensions in inches and (millimeters)
Notes:
1. Corrosion resistant terminals designed with .250 female quick connectors for wrap around or snap"on.
2. A thin film of silicone thermal compound is recommended between the bridge case and mounting
surface for improved thermal conduction.
3. Higher dielectric strengths availbable. Consult factory.

I

-471-

I~

EDF1AM THRU EDF1DM
MINIATURE GLASS PASSIVATED FAST EFFICIENT
BRIDGE RECITIFIER
VOLTAGE - 50 to 200 Volts

CURRENT - 1.0 Ampere
FEATURES

• ThiS series is UL recognized under component
index. file number E54214
• Plastic package has Underwriters Laboratory
flammability recognition 94V-O
• Glass passivated chip junctions ~
• High Surge overload rating 50 amperes peak
• Ideal for printed circuit board
• High temperature soldering guaranteed:
265°C 110 seconds at 5 Ibs .• (2.3kg) tension
• Superfast recovery times for high efficiency

MECHANICAL DATA
Case: Molded plastic
Terminals: Leads solderable per MIL-STO-202.
Method 208
Polarity: Polarity symbols marked on body
Weight: 0.04 ounce. 1.0 gram
Mounting positIon: Any

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings aI.2S·C ambient temperature unless otherwise specified.
60 Hz. resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Vokage
VRRM
Maximum RMS Vokage
VRMS
Maximum DC Blocking Vokage
Vee
Maximum Average Forward Output
RectHied Current at TA=40·C
I(AV)
Peak Forward Surge Current Single half sine-wave
superimposed on rated load (JEDEC Method)
IFSM
Rating for fusing (k8.35ms)
l"t
Maximum Instantaneous Forward Vokage drop
per element at 1.0A
VF
Maximum Reverse Current
TA=25·C
at Rated DC Blocking Vokage
TA-125°C
IR
Maximum Reverse Recovery Time (NOTE 1)
TJ=25°C
TRR
Typical Thermal Resistance (NOTE 2)
R8JA
Operating and Storage Temperature Range
TJ, TSTG

EDFtAM
50
35
50

EDFtBII
100
70
100

EDFtCAf
150
150
150

EDF1D11
200
200
200

1.0

Amps

50.0
10.0

Amps

1.05
5.0
1.0

Volts

50.0
40.0
-55 to +150

nS
·CIW
°C

NOTES:
1. Reverse Recovery Test Conditions: IF=O.SA. IR=I.0A, Irr=.25A.
2. Therrn~1 Resistance from Junction to Ambient mounted on P.C. Board with •. Sl·sq. (13mm sq.) Copper Pads.

-472-

UNITS
Voks
Voks
Voks

A~s

JJA

mA

RATINGS AND CHARACTERISTIC CURVES EDF1AM THRU EDF1DM

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK FORWARD
SURGE CURRENT PER BRIDGE ELEMENT

,.:
Z

1 11
I

60

W
a:
a:
:::>

FIG. 1 - DERATING CURVE FOR
OUTPUT RECTIFIED CURRENT

Single

50

I'

0

w

40

C)en
a:W
:::>a:
enW
00.
a:::>


AMBIENT TEMPERATURE, °C

0
0

/

1.0

a:

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS
PER BRIDGE ELEMENT

~ffl

a: a:
Ow
en::>
:::><:0:
«::l
lc

II

1,\1

~

i""-

o
2.0

4.0

6.0

10.0

20

40

60

100

NUMBER OF CYCLES AT 60Hz

"1\
'\

FIG. 4 - TYPICAL FORWARD
CHARACTERISTICS
PER BRIDGE ELEMENT

~

10

~

1\

0
100

80

........

0..

1.0

60

i"'-

o:z

oard

1\

:;= f--

5

40

.......

00..

I'"I\.

20

SI~~~~~I~;;~~VE_

120

140

zUJ

0:
0:
::l

150

AMBIENT TEMPERATURE, '(;

1/

tJ

I

1.0

o

0:

~ffl

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS
PER BRIDGE ELEMENT

0:0:

OUJ
u.o..

10 0

Cfl~

::l«

Cfl
W

oW

f:li
0..
~

;:
z
;:

.".

«

o

5

1.,....000 ~ ""-;:J" "soc

10.0

1

I

11

Cfl

~

~

01
04

~
Z

0.6

TJ = 25"C
PULSE WIDTH = 300j.L S
2% DUTY CYCLE

08

10

1.2

14

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

W

0:
0:
::l

tJ
UJ

1

01

z

1. 0

FIG. 5 -

Cfl

0:

TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

10 0

UJ

~

0:

101'"

Cfl

-....

j..."" i"'" TJ" 250C

::l

@
01
z
;:

u.
c.
ui

~

z

;:

«

Iii

TJ = 25"C
10.o~

Vs:g==15~~~~_P

1"-1"-

(3

«0..

~

.0 1

o

20

40

60

80

100

120

C3

140

PERCENT OF RATED PEAK
REVERSE VOLTAGE, VOLTS

1.0
1.0

10.0

100

REVERSE VOLTAGE. VOLTS

-477-

I~

•

EOF1 AS THRU EOF10S
MINIATURE GLASS PASSIVATED FAST EFFICIENT
SURFACE MOUNT BRIDGE RECTIFIER
VOL TAGE - 50 to 200 Volts CURRENT - 1.0 Ampere
FEATURES

I

.,05(5.2)
.047(1.20)_1 ~195 15.01

I

• This series is UL recognized under component
index, file number E54214
• Plastic package has Underwriters Laboratory
flammability recognition 94V-O
• Glass passivated chip junctions
• High surge overload rating50 amperes peak
• Ideal for printed circuit board
• High temperature soldering guaranteed:
300°C 110 seconds at Sibs., (2.3kg) tension
• Superfast recovery times for high efficiency

.310(7.9)
.290(7.4)

:o4oiI.Oii

.255(6.5)
.245(6.2)

'====U

I
)A

.Oll£.330]
:oo91:24ii

.p!...)1=!!.

L -_ _

_II

_--,:.4"=0'~1l,,,0.~31_ _

T
.060 (1.524)

.040 11.016)

.386(9.80)

I~::<4S.

I

.335(851)

.320(8.13)

MECHANICAL DATA

.0251.6351-

bJ~""---crj--;'13013'3)
--

Case: Molded plastic
Terminals: Leads solderable per MIL-STD-202,
Method 208
Polarity: Polarity symbols marked on body
Weight: 0.04 ounce, 1.0 gram
Mounting Position: Any

.12D(3.0S1

I

Dimensions in inches

and

(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
60 Hz. resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Vonage
Maximum DC Blocking Voltage
Maximum Average Forward Output
Rectified Current at TA=40°C
Peak Forward Surge Current Single half sine-wave
superimposed on rated load (JEDEC Method)
Rating for fusing (k8.35ms)
Maximum Instantaneous Forward Voltage drop
per element at 1.0A
Maximum Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=125°C
Maximum Reverse Recovery Time (NOTE 1)
TJ=25°C
Typical Thermal Resistance (NOTE 2)
Operating and Storage Temperature Range

VRRM
VRMS
Voc

EDFIAS
50
35
50

EDFIBS
100
70
100

EDFtCS
150
150
150

EDFIDS
200
200
200

UNITS
Volts
Volts
Volts

I(AV)

1.0

Amps

IFSM

50.0
10.0

Amps

Volts

IR

1.05
5.0
1.0

TRR
RaJA
TJ,TsTG

50.0
40.0
-55 to +150

1"1
VF

NOTES:
1. Reverse Recovery Test Conditions: IF=O.SA, IR=1.0A, Irr= .2M.
2. Thermal Resistance from Junction to Ambient mounted on P.C. Board with, .51"sq. (13mm sq.) Copper Pads.

-478-

A~s

IIA

mA
nS

·CIW
·C

RATINGS AND CHARACTERISTIC CURVES EDF1AS THRU EDF1DS

FIG. 1 - DERATING CURVE FOR
OUTPUT RECTIFIED CURRENT

FIG. 2 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT
PER BRIDGE ELEMENT

.....
Z

60

a:
a:
:::>

50

W

o

1 I. I

f'..

i~~t~~'~':~~~ -

II

1
.........

rYY'\1

~

_k cl

"
2.0

1.0

4.0

6.0

10.0

20

I
1 C>";'.

r-.... ~
40

60

100

NUMBER OF CYCLES AT 60Hz
FIG. 4 - TYPICAL FORWARD
CHARACTERISTICS
PER BRIDGE ELEMENT
10.0

.....
Z
W
a:
a:
:::>
0
0
a:

FIG. 3 - TYPICAL REVERSE
CHARACTERISTICS
PER BRIDGE ELEMENT

~ffl

a: a:
Ow
(/)~

::l<
W
Z
<
IZ
<

0

>-TJ -125°C

li!2

100

i."..oo-"

.-. ".."... ~

l-

7

01

TJ =25°C
Width "'3001J s
- Pulse
2% Duty Cycle

l-

(/)

~

I

01
04

06

08

10

12

14

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS
FIG. 5 10

(/)~

::l.
01wZ
ZW
a:

/

10

I

TYPICAL JUNCTION CAPACITANCE
PER BRIDGE ELEMENT

30

u.

./
TJ-25°C /

",

'1.0

Co

25

ui
~

20

~

(/)

!'!:

(3

15

<
a.
<

10.0

o

.........

.......
...... ....
TJ " 25°C
f ': 1 OMHz

50
01

o

20

40

60

80

100

120

II ~i'fl - SOmIVP-j

140

PERCENT OF RATED PEAK
REVERSE VOLTAGE

01

1

a

10.0

REVERSE VOLTAGE. VOLTS

-479-

'"

100

200

-480-

~EMOUNT
SUPERECTIFIERS

•
------IN~-481-

®

PATENTED"

Molybdenum Slugs
Solid Brazing, Low Resistance,
Excellent Surge Capabilities
Brazed-Temp. >600 ·C

Glass-plastic encapsulation technique is covered
by Patent No. 3,996,602 of 1976; brazed-lead
assembly to Patent No. 3,930,306 of 1976

Matte Lead-Ttn Plated
Copper Disk

UI-Recognized
Flame Retardent
Molding Compound

Our surface mount SUPERECTIFIER has redefined the
concept of time and space. Passivated silicon
SUPERECTIFIERs (lN6478-1N6484 and GL41A-Gl41T)
are 1.0 Amp. 50-1000 PRV leadless, surface mounted
devices that provide new space options, from Increased surface density to reduced board size.
Component placement speeds can be an order of
magnitude higher. Our surface mount SUPERECTIFIERs
Feature:
Brazing at greater than 600 Deg C at both terminal and
dle-ellmlnates all soft solders.
Exclusive UL recognized flame-retardant epoxy moldIng compound rated 94V-O, the highest available
rating. (hermetically sealed construction.)
No other 1.0 Ampere rectifier of any kind - plasfic, glass
or metal - can match our surface mount SUPERECTIFIER
features.
The way we make our surface mount SUPERECTIFIER Is
what makes them the best.
In eall construction, most other rectifiers rated up to 1.0
ampere are soldered or are only pressure contacted.
Our surface mounted SUPERECTIFIER Is made Into an entirely solid unit with leads and cell brazed at temperatures greater than 600 Deg C. All other rectifiers fall at
half that temperature I
Conventional plastic rectifiers use either varnish, silicon
rubber or a thin film of silicon oxide to protect the junction. Our surface mount SUPERECTIFIER uses a patented
glass passivation to seal 115 junction hermetically.

-482-

In device encapsulation, our surface mount
SUPERECTIFIER uses a flame-RETARDANT molding compound, rated UL94V-0, the highest rating available. In
fact. It Is the only plasflc rectifier that exceeds environmental standards of MIL-5-19500.
In summary, the General Instrument surface mount
SUPERECTIFIER Is the wo~d's only recflfier with totally
brazed construcflon, with a patented glass passivated
junction, and with flame-retardant molding encapsulation.

IN~

SURFACE MOUNT SUPERECTIFIERS
Surface Mount Superectlfiers
Features:
• High Temperature Metallurgically Bonded
• Plastic Package has Underwriters Laboratory Flammability Classification 94V-O
• Glass Passivated Junction
• Capable of meeting Environmental Standards of MIL-S-19500
• High Temperature Soldering guaranteed for all present methods, including wave and vapor
ref/ow soldering
Types:
1N6478-1N6484
GL41A-GL4lT
RGL41A-RGL41M
EGL41 A-EGL41 G
GL34A-GL34J
RGL34A-RGL34J
EGL34-EGL34G

1.0 Amp standard Recovery TImes
1 Amp. standard Recovery TImes
1.0 Amp. Fast Recovery TImes
1.0 Amp. Ultrafast Recovery Times
0.5 Amp. standard Recovery Times
0.5 Amp. Fast Recovery TImes
0.5 Amp. Ultrafast Recovery TImes

a

QUICK GUIDE TO SURFACE MOUNT SUPERECTIFIERS
lN8478

TYPE

III..

1_

CASE
10 (A)

OTAI"C)
V-5OM
V-l00(V)
V-150M
V-2OO(V)
V-300(V)
V-4OO(V)
V-8OO(V)
V-8OO(V)
V-l000(V)
VR-13OO(V)
VR-18OO(V)
SURGE (A)
VM

GL41
1.0
7&
lN6478
lN8478

Gl41A
II..
GUlli
GL41
1~

....

EClI.34At

RGI.34J'
. Gl34

EGl.34G+

G.5

75
Gl34A
Gl348

0.5
55
RGl34A
RG134B

Gl34D

RG134D

GL34G

Gl34J

RGl34G
RGl34J

10
1.1

U

.u

GL41D

RGlAID

1_1

GL41G
GL41J
GL41K
GL41M
GL41Y
GL41T
30

RGUIG

1.1n.2

....

RG\.I4A'

lN8480

30
1.0

....

Gl34A
Gl34J
Gl34

56
RGlA1A
RGlA18

1~

....

BlL41.
EGL41G+
GL41
1.0
7&
EGUIA
EGU18
EGL41C
EGL41D
EGL41F
EGUIG

7&
Gl41A
GL41B

lN8483
lN6484

....

RGlA1A'
RGL41M'
GL41

RGL41J

004
0.5
75

EGl34B
EGl34C
EGl34D

EGl34F
EGl34G

RGL41K
RGL41M

30
1.3

30
1.1111.25

10

10
1.25

•
-483-

I~

-484-

SMD Selector Guide
Series

Type

Voltage (V)

GL34

Rectifier

50-600

05A

RGL34

Rectifier

50-600

O.5A

150/250

DO-213AA

EGL34

Rectifier

50-400

O.5A

50

DO-213AA

1N6478

Rectifier

50-1000

1.0A

DO-213AB

GlA1

Rectifier

50-1600

1.0A

DO-213AB

RGlA1

Rectifier

50-1000

1.0A

150-500

DO-213AB

EGlA1

Rectifier

50-400

1.0A

50

DO-213AB

GLlA735

Zener(lW)

62-91

1.0 Watt

DO-213AB

ZGlA1

Zener (lW)

100-200

1.0 Watt

DO-213AB

TGlA1

TVS (400W)

6.8-200

400 Watt Peak

DO-213AB

SGlA1

Schottky

20-60

1.0A

DO-213AB

ES1

Rectifier

20-600

0.6A

SS12

Schottky

20-60

1.0A

SMA/DO-214AC

SS19

Schottky

90/100

1.0A

SMA/DO-214AC

S2

Rectifier

50-1000

l.5A

5MB/D0214AA

RS2

Rectifier

50-800

l.5A

150-500

5MB/D0214AA

ES2

Rectifier

50-200

2.0A

20

5MB/DO-214AA

SS22

Schottky

20-60

2.0A

5MB/DO-214AA

SS29

Schottky

90/100

2.0A

5MB/DO-214AA

5MB

TVS(600W)

5.0-170

600 Watt Peak

5MB/DO-214AA

S3

Rectifier

50-1000

2.5A

SMC/DO-214AB

RS3

Rectifier

50-800

2.5A

150-500

SMCIDO-214AB

ES3

Rectifier

50-200

3.0A

20

SMC/DO-214AB

SS32

Schottky

20-60

3.0A

SMC/DO-214AB

SS39

Schottky

901100

3.0A

SMC/DO-214AB

SMC

TVS(l500W)

5.0-170

1500 Watt Peak

SMC/DO-214AB

GF1

Rectifier

50-1000

1.0A

GFlIDO-214BA

Current/Power

-485-

TRR (nS)

Package
DO-213AA

15

SMA/DO-214AC

I~

BYM05-50 THRU BYM05-600
GL34A THRU GL34J
SURFACE MOUNT GLASS PASSIVATED SILICON RECTIFIER

Voltage - 50 to 600 Volts

Current - 0.5 Amperes
FEATURES
• For surface mounted applications
• High temperature metallurgically bonded- no
compression contacts as found
in diode-constructed rectifiers
• Glass passivated junction
• Plastic package has Underwriters Laboratory Flammability Classification 94V-0
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed: 450°C/5
seconds at terminals.Complete device submersible temperature of 260°C for 10 seconds in
solder bath

tID!
I

r--L-- I_i
1 ,I
0,"
.066

-

m
(

I

---+--

(

I~

.022 (.559l
.o16(486l

.145(3.68ll
.131£3.327)

MECHANICAL DATA

Dimensions in inches and (millimeters)
• GJass.p/a.1ic lHICIIpSulation technique is co..rod by Palem No. 3.996.602 011976;
/Hazed ·kIad /l$S8//IbJy III PalsnI No. 3.93D.306 of 1976

~.,
. . '

Case: Molded plastic over glass
Tennlnals: Plated Terminals, solderable per
MIL-STD-202, Method 208
Polarity: Two bands indicate cathode

,."""'_ ....... "" ................

Mounting Position: Any Handling Precautions: None
Weight: 0.036 gram, 0.0014 ounce

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25·C ambient temperature unless otherwise specified. 60 Hz, resistive or inductive load. For capacitive load, derate current by 20%.
SYMBOLS

-so

-100

BYAfOS
-200

-400

·600

Standard recovery time device: 1st band is white
GL34A GL34B GL34D GL34G GL34J
400
600
Maximum Recurrent Peak Reverse Voltage
50
100
200
VRRM
420
280
Maximum RMS Voltage
35
70
140
VRMS
200
400
600
Maximum DC Blocking Voltage
50
100
VDC
Maximum Average Forward Rectified Current
O,S
at TT=7SoC
I(AV)
Peak Forward Surge Currenl
8.3ms single half sine-wave superimposed
10,0
on rated load (JEDEC Method)
IFSM
Maximum Instantaneous Forward Voltage at O,SA
1.1
VF
TA=2SoC
Maximum DC Reverse Current
S.O
at Rated DC Blocking Voltage
SO.O
TA=125°C
IR
Maximum Full Load Reverse Current, Full Cycle
Average,at TA=7So'C
20
IR(AV)
Typical Junction Capacitance (NOTE 1)
7.0
CJ
Maximum Thermal Resistance RthJL (NOTE 2)
R9JL
70.0
RthJA (NOTE 3)
R9JA
150.0
Operating and Storage Temperature Range
-65 to +175
TJ.TsTG
Polarny Color Bands (2 no Band)
Gray
Red I Orangel Yellow Green
NOTES: 1. Measured at 1 MHz and applied reverse voltage of 4.0 Voc.
2. Thermal resistance junction to terminal, 5.0mm 2 copper pads to each terminal.
3, Thermal resistance junction to ambient, S.Omm 2 copper pads to each terminal,

-486-

UNITS

Volts
Volts
Volts
Amps

Amps
Volts
(.LA

(.LA
pi

·CIW
°C

RATINGS AND CHARACTERISTIC CURVES BYM05·50 THRU BYM05·600
GL34A THRU GL34J

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

o
w

FIG. 1 -

u:

0.6

i=en
wa:
a:w
00.
a:::;:

I\,

()w

0.4

««

o.2

wa:

«()
w

o

~

r-.

TJ= 75°C

\.

SINGLE PHASE

~

1

25

50

75

I II

'\

HALF WAVE
60Hz
RESISTIVE OR
INDU TIVE ~OAD

0.1

a:

8 3ms SINGLE HALF SINE-WAVE
JEOEC METHOD

r"-- .......

'\

r

C):>

....

i\.

0.3

~-

a:
aifi
u.a:

."

FORWARD CURRENT DERATING CURVE

125

100

150

4

aa

10

II

20

40 60 80 100

NUMBER OF CYCLES AT 60Hz

175

TERMINAL TEMPERATURE. °C

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTIC~

,...:
Z

0

w

a:
a:

FIG. 4 -

==

=Pulse Width::: 300/-1 s
1% Duty Cycle

:>

TYPICAL JUNCTION CAPACITANCE

0

I

()

o
a:

~fil

/

0

en::;;

ow
z
«

«

z
«

I

1/

o. 1

.......

I-

TJ '" 2S"C

o«

a.
«
u

i'o

I

Z

tii

10

()

I-

«

"-

W

~ffi
u.o.
:>

u.

TJ :: 25°C

.0 1

I
1.2

10

~

14

10

1.6

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS
~f:3

a: a:
ww

10

-

>0.
w::;;

a:«
en a

:>a:
a()

TJ:: 100"e

1.0

~~

TJ - 2S"C

~t-= 0.1

~ifi

~~

.04

~ i3

.01

-

20

40

50

REVERSE VOL TAGE, VOLTS

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

-487-

100

BYM06-50 THRU BYM06-600
RGL34A THRU RGL34J
SURFACE MOUNT GLASS PASSIVATED FAST SWITCHING SILICON RECTIFIER
Voltage - 50 to 600 Volts Current - 0.5 Amperes
FEATURES

r-::;:::SOLOERABLE

rl;~~d

l

ENDS~

1

I

ffJFl-3tiw
II .
I
I

'~~::::i

I

.145 (J.G8])

0
0>"'0'-.008(20)

I

"G1IJss.p/asIic tIICIlpSIialiln lIChnijus is _
by Pattnt No.3,996.602 of 1976;
blazsd.lftdassemblyIllPatsntNo.3,930,306ofI976

• ®

~
•

•

• For surface mounted applications
• High temperature metallurgically bonded-no
compression contacts as found
~
in diode-constructed rectifiers
• Glass paSSivated junction
• Plastic package has Underwriters Laboratory Flammability Classification 94V-0
• Capable of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed: 450°C/5
seconds at terminals. Complete device submersible temperature .of 260°C for 10 seconds in
so icier bath

MECHANICAL DATA
Case: Molded plastic over glass
Tennlnals: Plated terminals, solderable per
MIL-STD-202, Method 208
Polarity: Two bands indicate cathode
1st band denotes device type 2nd band denotes voltage type

Mountlnl1Posltlon: Any Handling Precautions: None
Weight: 0.036 gram, 0.0014 ounce

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25° C ambient temperature unless otherwise specified. 60 Hz. resistive or Inductive load. For capacitive load. derate current by 20%.
SYllBOLS

Fast switching device: 1" band is Red
Maximum Recurrent Peak Reverse Voltage
Maximum RMS Vo~age
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
atTT=55°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 0.5A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=125°C
Maximum Full Load Reverse Current. Full Cycle
Average, at TA=55°C
Maximum Reverse Recovery TimE! (Note 1)
TA=25°C
Typical Junction Capacitance (Note 2)
Maximum Thermal Resistance (Note 3)
(Note 4)
Operating and Storage Temperature Range
Polarity Color Bands (2 nu Band)

-so

·1l1li

BYMOB
4DD

04l1li

.filii

UNITS

RGL34A RGL34B RGL34D RGL34G RGL34J
VRRM
VRMS
Vee

50
35
50

100
70
100

400
280
400

200
140
200

600
420
600

Voks
Volts
Volts

I(AV)

0.5

Amps

IFSM

Amps
Volts

IR

10.0
1.3
5.0
50.0

IR(AV)

30.0

IlA

TRR
CJ
RaJL
RaJA
TJ.TSTG

150
4.0
70
150.0
-65 to +175

VF

Oray

Red

Orange

NOTES: 1. Reverse Recovery Test Conditions IF=O.5A. IR=1.0A. Irr= .25A.
2. Measured at 1 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal resistance from junction to terminal, 5mm2 copper pads to each terminal
4. Thermal resistance from junction to ambient, 5mm2 copper pads to each terminal.

-488:

IlA

I

250

ns

pi
oCfW
°C
Yellow

1 Green

RATINGS AND CHARACTERISTIC CURVES BYM06-50 THRU BYM06-600
RGL34A THRU RGL34J
FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

SING"LE

8 3ms
HALF
SINE-WAVE (JEDEC Method)

~ t--.

FIG. 1 - FORWARD CURRENT
DERATING CURVE

ow

"

f-(J)

Ow

Wa:
a:W
00.
a:::;; .3

= 75°C

'\

<{«

~..:
Om
u.a:

2

'\

4

6810

,
405080100

20

NUMBER OF CYCLES AT 60Hz

'\

wa:

(!J:J

RESISTIVE OR
INDUCTIVE LOAD

«0

a:
W
>
<{

I I II
~J

I"

0
0

25

50

75

100

125

150

FIG. 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

175

TERMINAL TEMPERATURE, °C

10

..:
z

W
a:
a:

30

:J

Pulse Width = 300j.1 S
1% Duty Cycle

0

..:

m
a:

FIG. 3 -

«(fJ

a: a:

TJ

Ow
u.o.
(fJ::;;
::J«

IOO"e

10

0
w

wW

w::;;

~;::;:

<{

f-

z

01

«
f(fJ

04

~

03

01

f-

20

40

60

80

100

120

140
02

PERCENT OF RATED PEAK REVERSE VOLTAGE

f(J)
Z

04

06

08

'I

25'f

12

14

10

16

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG,6 -

FIG, 5 -

1

I

01

Z

<{

I

/

«

TJ " 25"C

:Ja:

00

03

01

Z

>0.

a:«
en 0

1/

L

~W

f==

a: a:

10

a:

TYPICAL REVERSE CHARACTERISTICS

10

a:
:J
o

~~

0

REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

TYPICAL JUNCTION CAPACITANCE

10!1
NON INDUCTIVE
U.
Q.

W

o

z

<:
f-

(3

«0.
«
o

10

+ OSt>.

r---

k:

TJ

25° C
lMHz

j -

~
".

10

025

( -I

r-.... ...

I

OSCILLOSCOPE
(NOTE 1)

50

100

REVERSEVOLTAGE,VOLTS

NOTES 1 Rise Time::. 7ns malt ..

1 megohm. 22pF
2 Rise Time = tOns max. Source Impedance =
50 ohms

-489-

\

II

,~

10

lem

SET TIME BASE FOR
50/100ns!cm

BYM07..50 THRU BYM07-400
EGL34A THRU EGL34G
SURFACE MOUNT GLASS PASSIVATED FAST EFFICIENT SILICON RECTIFIER
Voltage • 50 to 400 Volts Current - 0.5 Amperes
FEATURES

-

I

.

-+-.022(.559)
.016(4061

tID!

81=

.066

(
(

:oro

!:~::

---+--I

-L_'

'i

.145(3.683)
.131 (3.3271

• For surface mounted applications
• High temperature metallurgically bonded no
compression contacts as found
in diode-constructed rectifiers
• Glass passivated junction
• Plastic package has Underwriters Laboratory Flammability Classification 94V-0
• Fast switching for high efficiency
• High temperature soldering guaranteed: 450°C/5
seconds at terminals. Complete device submersible temperature of 260°C for 10 seconds in
solder bath

Dimensions in inches and (millimeters)

MECHANICAL DATA

'Brazsd./eadassembly ilcoWHlldby Paten! No. 3,930,306 011976 andgJasscomposi/Ion by I'at6nI No. 3,752,701 of 1973

Case: Molded plastic over glass
Terminals: Plated terminals. solderabie per
MIL-STO-202. Method 208
Polarity: Two bands indicate cathode
1sl band denotes device type 2nd band denotes voltage type
Mounting Position: Any Handling Precautions: None
Weight: 0.036 gram. 0.0014 ounce

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25·C ambient temperature unless otherwise specified. 60 Hz, resistive or inductive load. For capacitive load, derate current by 20%.
BYM07

SYMBOLS

.so

·100

·150

·200

-300

-400

Fast Efficient device: IS! band is Green
EGL34A EGL34B EGl34C EGl34[ GL34F GL3

10

......

1

I
I

50

100

REVERSE VOLTAGE. VOLTS
10

, 2

14

16

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS
FIG. 5- TYPICAL REVERSE CHARACTERISTICS

10

0.1
04
01 ~--~~---L----S~0----~~----~'00~--~12~0~~1~40

PERCENT OF RATED PEAK REVERSE VOLTAGE

-493-

IN~

BYM10-50 THRU BYM10-1000
GL41A THRU GL41M
SURFACE MOUNT GLASS PASSIVATED SILICON RECTIFIER
Voltage - 50 to 1600 Volts Current - 1.0 Ampere
FEATURES

~

.20515.201)
.18514.699)

0".. 0.

• For surface mounted applications
• High temperature metallurgically bonded-no
compression contacts as found
~
In dlode-constructed rectHlers
• Glass passivated Junction
• Plastic package has Underwriters Laboratory Flammability ClassHlcatlon 94V-0
• Cap~le of meeting environmental standards of
MIL-S-19500
• High temperature soldering guaranteed: 450°C/5
seconds at terminals. Complete device submersible temperature of 265°C for 10 seconds in
solder bath

:loa,.20J I

Dimensions in inches and (millimeters)

MECHANICAL DATA

.... __ ..........- ..... ""

·Gfast.p/asli:encapsu/alion tschnIqus Is CDVtlIIld by Pa_3,9II8,Btl2111
1918;braad-1Hd assBMIb/ylO Pa/ont No. 3,930,306111 1976

esse: Molded plastic over glass

Terminals: Plated Terminals, solderable per MIL-

STD-202, Method 208
Polarity: Two bands indicate cathode

,

~'"
•
•

Mounting PosItIon: Any Handling Precautions: None
Weight: 0.116 gram, 0.0046 ounce

.

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS

--

Ratings at 25·0 ambient temperature unless oth8lWise apecifl8d. 60 Hz. resistive or Inductive load. For capacitive load, derate currant by 20%.

BYII10
81'118OU -111

Standard recovery device: 1"' band is White
Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
TT-75°C
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward
Voltage at 1.0A
Maximum DC Reverse Current
TA-25°C
at Rated DC Blocking Voltage
TA=125°C
Maximum Full Load Reverse Current
Full Cycle Average at TA =75°C
Typical Junction Capacitance (NOTE 1)
Maximum Thermal Resistance (NOTE 2)
(NOTE 3)

Operating and Storage Temperature Range
Polarity Color Bands (2 nU Band)

GL41A
VRRM 50
VRMS 35
Voc 50

BYII10A

·1l1li

4l1li

1""l1li

GL41B
100
70
100

GL41D
200
140
200

GL41G
400
280
400

1JIIIII1

GL41J
600
420
600

GL41K
800
580
800

GL41M
1000
700
1000

GL41T
1300
910
1300

UNtrS
GL41Y
1600 Volts
1120 Volts
1600 Volts

I(AY)

1.0

Amps

IF~

30.0

Amps

VF

1.1
10.0
50.0

IR
IR(AY)
CJ
R9JL
R9JA
TJ,Tsr
Gray I Red

Orange

30.0
15.0
30.0
75.0
-65 to +175
Yellow Graen I BkJe

NOTES: 1. Measured at 1 MHz and applied reverse voltage of 4.0 Voc.
2. Thermal resistance from junction to terminal, 6.0mm2 copper pads to each terminal.
3. Thermal resistance from junction to ambient, 6.0mm2 copper pads to each tenninal.
-494-

1.2

Volts

j.LA
j.LA
pf
°C/W
°C

I V'101et

WhIte

Brown

RATINGS AND CHARACTERISTIC CURVES BYM10·50 THRU BYM10·1000
GL41A THRUGL41M

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

FIG. 1 - FORWARD CURRENT DERATING CURVE
f--C

o

z

1.00

UJ

1\

u:
f=en

OUJ

5

UJeL
eLUJ

eL
eL

::J

o

\

0"-

eL=<

««
;;: .

UJ

50

eLf-

1\

5

~::J

«0
eL

60Hz
RESISTIVE OR
INDUCTIVE LOAD

UJ

>
«

a

,

25

50

125

100

75

20

~~

151--l-H-H++-tt----'~.t-++++tH

~

5.0 L..--'_LJ..L.l..LL.lL_.L...L..J..J...LL.J.1J
4
6 8 10
20
40 60 80100

enUJ

oaJ
u..eL
UJeL

w
~ en
eLUJ
::JeL

TERMINAL TEMPERATURE,

0

iii
"-

175

NUMBER OF CYCLES AT 60Hz

C .

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

f--C

z

UJ

10

0:
0:

§ Pulse WIdth

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

300l1s

__ 2% Duty Cycle

30

::J
()

0:

~~

10

Gl41A-J

~ffi

oUJ

/

Gl41K·Y

u..
"-

TJ

~ 25~C

10

()

z
«
fG
«
"«
()

I

IITJ

01

=

25~C

Z

«

fZ

~
en

II
r-.. .....

uj

u..,,en=<

«

I

t--...

"

/

o

::>

~

....,.,~

««
;;:
eL
ou..

1\

150

1--l-H-H!i!IoI.:H--+-+++++tH

01

'j
12

10

~

14

10

16

50

100

REVERSE VOLTAGE, VOLTS

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

FIG. 5 - TYPICAL REVERSE CHARACTERISTICS

~f:3
eLO:
UJUJ
>"UJ=<
eL«
000

1

a
4

TJ

10QoC

10

::JeL
00

!i:!~

«

~

;::

~

04

~O

01

~z

en~

01

--

20

TJ· 25'C

40

60

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

·495-

IN~

BYM11-50 THRU BYM11-1000
RGL41A THRU RGL41M
SURFACE MOUNT GLASS PASSIVATED FAST SWITCHING SILICON RECTIFIER
Voltage - 50 to 1000 Volts Current - 1.0 Amperes
FEATURES

T-

~

I

r---r--,

1

JI22 1.5591
.018(,4571

.105

:m

!Ulli

--+-

-.l..._ I
t2AIJJ

,I

f 0;0-0. :.SoaC.20J

.205 15.2071
.185 14.6991

I

Dimensions in inches and (millimeters)

"GJass-plas/ic ent:apIII.I/aliolll8drnique Is ctJWffId by "-,, No.
3,_602 01 197f1; brIIz1Id-IeatI asslJtrlbly II> Palflll/ No. 3,1/SO.308
0I197f1

®

~
•••

• For surface mounted applications
• High temperature metallurgically bonded - no
compression contacts as found
,
In diode-constructed rectifiers
• Glass passivated junction
• Plastic package has Underwriters laboratory Flammability Classification 94V-O
• Capable of meeting environmental standards ot
MIL-S-19500
• High temperature soldering guaranteed:
450°C/5 seconds at terminals. Complete device
submersible temperature of 260°C for 10
seconds in solder bath

MECHANICAL DATA
CBse: Molded plastiC over glass
Tenn/na/s: Plated Terminals, solderable per MILSTD-202, Method 208
Polarity: Two bands indicate cathode

,.............. "" ...... "'- ..... ""

Mounlllll1 Pas/lion: Any Handling Precautions: None
Weight: 0.116 gram, 0.0046 ounce

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. 60 Hz. resistive or inductive load.
For capacitive load. derate current by 20%.

BYMff
SYllBOLS

Fast switching time device: 1st band is Red

·50 ·100 -2OD
RGL
41A

RGL
418

RGL
410

-400
RGL
41G

-600
RGL
41J

.,OD- 10D11 IJN1TS
RGL
41K

RGL
41M

Maximum Recurrent Peak Reverse Voltage
VRRM 50 100 200 400 600 800 1000 Volts
Maximum RMS VoRage
VRMS 35 70 140 280 420 560 700 Volts
Maximum DC Blocking Voltage
Voc 50 100 200 400 600 800 1000 VoRs
Maximum Average Forward Rectified Current TT-55·C
1.0
Amps
I(AV)
Peak Forward Surge Current 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
30.0
Amps
IFSM
Maximum Instantaneous Forward VoRage at 1.0A
VoRs
1.3
VF
Maximum DC Reverse Current
TA-25·C
5.0
at Rated DC Blocking Voltage
TA-125·C
50.0
IR
(.IA
Maximum Full Load Reverse Current. Full Cycle
Average, at TA - 55·C
50.0
IR(AV)
(.IA
Maximum Rel(erse Recovery Time (NOTE 1) TJ-25·C
150
250 500 500 ns
TRR
Typical Junction Capacitance (NOTE 4)
CJ
15.0
pf
Maximum Thermal Resistance (NOTE 2)
R8JL
30.0
(NOTE 3)
R8JA
75.0
·CIW
Operating and Storage Temperature Range
·C
-65 to +175
TJ.TsTG
Polarity Color Bands (2nd Band)
Gray
Red Orange I VeUow I Graan I Blue I Violet
..
NOTES. 1. Rsverse ReCXJvsry Test Conditions. IF=O.5A. IR= 1.0A. 1"= .25A.
3. Thermal Resistance from Junction 10 ambient 6.0mm2 CXJppor
2.. Thermal resislance from unction to terminal. 6.Omm2
pads to each terminal.
CXJppor pads to each terminals.
4. Measured at 1 MHz and applied reYSIS8 voltage of 4.0 Vcc.
-496-

RATINGS AND CHARACTERISTIC CURVES BYM11·50 THRU BYM11·1000
RGL41A THRU RGL41M

FIG. 1 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST CIRCUIT DIAGRAM
50 0

100

NON INDUCTIVE

NON INDUCTIVE

FIG. 2 - FORWARD CURRENT
DERATING CURVE

~-T~~----------'

l
_
-

+ 05,A

i\

\

V-

- 0 25
OSCILLOSCOPE
INOTE 1)

NOTES 1 Rise Time = 7ns max
1 megohm 22pF
2 Rise Time" lOns max
50 Ohms

1.50

1.25

~~

1.00

W

25 Vdc
lapprox I

£::I

u:
t=cn

OW
Wa:
a:W

ii

~~

\ )

- 10

o iii

r.---

Source Impedance ==

lem

~

««

\

LL [[

SET TIME BASE
FOR 501100ns/cm

Wa:
(!l::J
«0
ex:

.75
.50

.25

>
«
~

iiia:

150

FIG. 4 - TYPICAL JUNCTION CAPACITANCE

/

100

,

gjffi

I

0.1

TJ

u..

=25°C

a.
ui

T = 25°C

.......... r--

o

W

Z

~

~

10

f-

I

Z

~

"~

125

TERMINAL TEMPERATURE.

1.0

u..n.

(IJ

100

1% Duty Cycle

a:

~

75

Pulse Width - 300).ls

o

o

50

25

o

(IJ::i:
::J«

o

10

a:
::J

~ffi

~

RESISTIVE OR
INDUCTIVE LOAD

W

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

'" ""-

~

I
.0 1

n.

.4

.6

.8

1.0

1.2

1.4

«
o

1.6

INSTANTANEOUS FORWARD VOLTAGE. VOLTS

L-10

FIG. 5 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT
30
W

(!l (IJ
a:W
::Ja:

f'..

25

(lJW

~~

,

.

"

W

JEDEG METHOD

T] ~ 7~OJ

;;:~ 15

a:Z
OW

~§

10

wO
n.

4

6 8 10

20

W(IJ
UJ W
a: a:
W::i:

TJ-1QOQC

1.0
4

c:c«

5
1

FIG. 5- TYPICAL REVERSE CHARACTERISTICS
10

o

>

"

u..a:

a:
a:
::J

WW
n.

~

20

««

~

Z

8 3ms SINGLE HALF SINE-WAVE

40 60 80 100

NUMBER OF CYCLES AT 60Hz

100

REVERSE VOL TAGE. VOLTS

3~

0.1

00

~ ~ o.

«

~

«

f(IJ

Z

-497-

01

-

TJ

20

40

60

80

25 C
Q

100

120

PERCENT OF RATED PEAK REVERSE VOLTAGE

140

0

175

C

BYM12-50 THRU BYM12-400
EGL41A THRU EGL41G
SURFACE MOUNT GLASS PASSIVATED FAST EFFICIENT SILICON RECTIFIER
Voltage - 50 to 400 Volts Current - 1.0 Amperes
FEATURES

~'OLD".BLE

• For surface mounted applications
• High temperature metallurgically bonded - no com~
pression contacts as found
in diode-constructed rectifiers
• Glass passivated junction
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
• Superfast recovery times for high efficiency
• Capable of meeting environmental standards of
MIL-S-19S00
• High temperature soldering guaranteed;
4S0'CI S seconds at terminals. Complete device
submersible temperature of 26S'C for 10 seconds
in solder bath

EN0'l

fffr:l--3ti=

_II'

.022(,559)
.018(.457)

•

.205 (S.20"})

~1'0

-I

0;>=D1 -.OOO('20)

I

I

.185 (4.899)

Dimensions in inches and (millimeters)

MECHANICAL DATA

'Glass-plasYa enaapsulalion technique is covered by PatenlO.3,996,602
of 1976; brazed-lead assenmbly to Patent No. 3,930,306 of t 976

~
•
•

Case: Molded plastiC over glass
Terminals: Solderable per MIL-STD-202, Method 208
Polarity: Two bands indicate cathode

®

,.""""""', .......... """ ........... ,,,.

Mounting Position: Any Handling Precautions: None
Weight: 0.116 gram, 0.0046 ounce

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOU

Fast efficient devices: 1sl band is green
Maximum Recurrent Peak Reverse Vo~age
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current at Tt=75°(
Peak Forward Surge Current, 8.3ms single half sinewave superimposed on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 1.0A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=125°C
Maximum Reverse Recovery TIme (NOTE 1) TJ=25°C
Typical Junction Capacitance (NOTE 2)
Maximum Thermal Resistance RthJl (NOTE 3)
RthJA (NOTE 4)
Operating and Storage Temperature Range
Polarity Color Bands (2 no Band)

VRRM
VRMS
VDC
I(AV)

.sO

·100

BYM12
·150

EGL
41A
50
35
50

EGL
41B
100
70
100

EGL
41C
150
105
150

-400

UNITS

EGL
41G
400
280
400

Volts
Volts

Amps

30.0
1.0

IR
TRR
CJ
R8JL
RaJA
TJ,TsTG
Gray

NOTES:
1. Reverse Recovery est Conditions IF =.SA, IR =1.0A, Irr =.25A.
2. Measured at 1 MHz and applied reverse voltage of 4.0 Volts.
3. Thermal resistance junclion to terminal, 6.0mm 2 copper pads to each terminal.
4. Thermal resistance junction to ambient, 6.0mm 2 copper pads to each terminal.

Vo~s

Amps

1.0

IFsM
VF

-49B-

·200 300
EGL EGL
410 41F
200 300
140 210
200 300

1.25

5.0
50.0
50
15.0
30
60
-65 to +175
Red I Pink I Orange I Brown Yellow

Vo~s

IlA
ns
pf

°CIW
·C

RATINGS AND CHARACTERISTIC CURVES BYM12-50 THRU BYM12-400
EGL41A THRU EGL41G

t-:'
W

0:
0:

0,

'.OG

:::J

1\

(J

o

w

u::

.75

§f3

wo:
~~ so

1\

««

ou.

25

CJ

o

«

a:

25

w

~

W

0:
0:

~f3
0: a:

"

~

0:::;:

0

"

««
~

\

12~

-

0:1-, 5

OZ
W
u. 0:
~o:

«:::J, 0
~O

1\

5

4

6

8 10

...

20

40 60 80100

175

'50

NUMBER OF CYCLES AT 60Hz

FIG. 4 -

'0

30

~'BYM12~50 thru

r-, 0

u.
a.

BYM12·200
EGL41A-D ~

~YM'2-300

)

thru BYM12·4QO

~

~

/1

0'

II

r-.

T}~ 2~O~ I

10

I-

o«

PUI~ ~I~t~ ~y3C~ AlS §

<3

I

....

Z

-

I

TYPICAL JUNCTION CAPACITANCE

«

EGL41F.G

Ow
u.o..
en::;:
:::J«

ow

'DO

5

W

00..

TERMINAL TEMPERATURE,·C

:::J
o
o
0:

75

50

2

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

t-:'

Z

en
O:w
:::Jo:
en

RESISTIVE OR
INDUCTIVE LOAD

w

TJ = 75°C
8.3ms Single Half
Sine-Wave (JEDEC Method

w

CJ

0:::<

~

FIG. 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

FIG. 1 - FORWARD CURRENT
DERATING CURVE

Z

I

TJ '" 25°C

5

0..

Z

«
IZ

«
en
~

,

II

I0'

10
10

12

14

18

50

100

REVERSE VOLTAGE, VOLTS

INSTANTANEOUS FORWARD VOLTAGE, VOLTS

t-:'

Z
w

FIG. 5- TYPICAL REVERSE CHARACTERISTICS

a:
LLJ en
a: a:

enW

.4

LUW 10

>0..

W::;:
a: «
enO
:::JO:

•

00

0'

;:!:
Z
;:!:

.0' u.--=-_.L-_--',--_-:'-_-'-:L-_-'-_ _..L..._.........

~~

en

D.

20

40

60

80

100

120

140

Z

PERCENT OF RATED PEAK REVERSE VOLTAGE

-499-

I~

GLL4735 THRU GLL4763
1.0 WATT SURFACE MOUNT GLASS PASSIVATED ZENER

Voltage- 6.2-91.0 Volts

-

1

D,"

----D2--

,

I

(
(

1

.---------------------FEATURES

• For surface mounted applications
• Plastic package has Underwriter Labaoratory
Flammability Classification 94 V-O
• Glass passivated junction
,.
• Low zener impedance
• Excellent clamping capability
• High temperature soldering guaranteed:
250'CI1 0 seconds! at terminals

r-SOLDERABLE E"DS~

1

Power Rating - 1.0 Watt

I

.022 [.5591
.0181.457)

MECHANICAL DATA

.205 (5.207)
.185 (4.6991

Case: Molded plastic
Terminals: Solderable per MIL-STO-202,
Method 208
Polarity: Red band denotes cathode
Mounting Position: Any
Handling Precautions: None
Weight: 0.116 grams, 0.0046 ounce

The plastic material covering the glass passivated junction cerries WI. reccgnition 94V-O
OPERATING AND STORAGE TEMPERATURE RANGE -65'C to +175'C
Maximum
'Nominal
Zener
Voltage

Type

@Izr
Vz
Volts

GLL4735
GLL4736
GLL4737
GLL4738
GLL4739
GLL4740
GLL4741
GLL4742
GLL4743
GLL4744
GLL4745
GLL4746
GLL4747
GLL4748
GLL4749
GLL4750
GLL4751
GLL4752
GLL4753
GLL4754
GLL4755
GLL4756
GLL4757
GLL4758
GLL4759
GLL4760
GLL4761
GLL4762
GLL4763

6.2
6.8
7.5
8.2
9.1
10
11
12
13
15
16
18
20
22
24
27
30
33
36
39
43
47
51
66
62

68
75
82
91

Maximum

Surge

DC
Power

Maximum Reverse
Leakage Current

Dlsslption
@Tr=7S'C

Current

PO

Izr

WaHs

mA

ZZT
OHMs

OHMs

MA

f.IA

1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1,0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

41.0
37.0
34.0
31.0
28.0
25.0
23.0
21.0
19.0
17.0
15.5
14.0
12.5
11.5
10.5
9.5
8.5
7.5
7.0
6.5
6.0
5.5
5.0
4.5
4.0
3.7
3.3
3.0
2.0

2.0
3.5
4.0
4.5
5.0
7.0
8.0
9.0
10.0
14.0
16.0
20.0
22.0
23.0
25.0
35.0
40.0
45.0
50.0
60.0
70.0
80.0
95.0
110.0
125.0
150.0
175.0
200.0
250.0

700
700
700
700
700
700
700
700
700
700
700
750
750
750
750
750
1000
1000
1000
1000
1500
1500
1500
2000
2000
2000
2000
3000
3000

1.0
1.0
0.5
0.5
0.5
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25
0.25

10.0
10.0
10.0
10.0
10.0
10.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

Test

Maximum Dynamic
Impedence
ZZK@ IZT

@TA=2S'C
IA

VA
Vofts
3.0
4.0
5.0
6.0
7.0
7.6
8.4
9.1
9.9
11.4
12.2
13.7
15.2
16.7
18.2
20.6
22.8
25.1
27.4
29.7
32.7
35.8
38.8
42.6
47.1
51.7
56.0
62.2
69.2

..

Current

@TA=2S'C
. (Note 1)
IA

mApk
730.0
660.0
605.0
550.0
500.0
454.0
414.0
380.0
344.0
305.0
285.0
250.0
225.0
205.0
190.0
170.0
150.0
135.0
125.0
115.0
110.0
95.0
90.0
80.0
70.0
65.0
60.0
55.0
50.0

Maximum
Forward
Vo"age

@200mA
@TA=2S'C
Vofts
1.2
1.2
1.2
1.2
1.2

1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2
1.2

'Standard Voltage Tolerance ±1 0%, Suffix A:t5% Note 1: Surge Current IS non-repetitIVe, 8.3 ms pulse Width square wave or
equivalent sine-wave superimposed on Izr per JEDEC method.

-500-

RATINGS AND CHARACTERISTIC CURVES GLL4735 THRU GLL4763

FIGURE 2 - TYPICAL ZENER IMPEDANCE
U>

"
FIG. 1 -

Z

MAXIMUM CONTINUOUS POWER DISSIPATION

~
en

I"

0.75

Ul
OUl

ffi t:

~~

0.50

n.
w

0.25

~
w

iiia:

r--.iI
8mm

o
25

i

Bmm

~

1 C1
mm

75

a:
a:
o

~

adS

100

~

o

«
z

""
150

>

Vz:; 6.2V -

o

10

0.5 10

r::f

20

50

10

20

50

100

500

200

Iz, ZENER TEST CURRENT (rnA)

175

FIG. 4 - TYPICAL REVERSE CHARACTERISTICS

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
10

~

:::>

o

a:
~fl3

Vz"56V::

10

~

125

I"':'

Vz:; 30V

TERMINALS TEMPERATURE,·C

~
w

~!E..FiiVZ~~=91=V~
!:!f!

100

w

n.

~

50

IZ (rms) " 0.1 IZ (de)

o
z
«
o

1.00

o

TJ:; 25°C

w

~v

1.0

a: a:

Ow
u.n.

Ul::<

:::>«

~
z
«
Ii;
~

~

/

filz

20

40

60

BO

100

120

PERCENT OF RATED ZENER VOLTAGE
TJ:; 25 C
Pulse Width:; 300 /J S
1% Duty Cycle
D

.0 1
.4

.6

.8

1.0

1.2

1.4

1.6

INSTANTANEOUS
FORWARD VOLTAGE, VOLTS
IZ

FIG. 5 - TYPICAL TEMPERATURE COEFFICIENTS

w

i3

110

u::
u.
w
o
o

90

~G
~

50

ffi -

30

::<

10

::>

Vz@\zt

.....

70

!;(~
n.
W

....... ......

~

......

I-

g

10

20

30

40

50

60

70

80

90

100

VZ, ZENER VOLTAGE (VOLTS)

-501-

I~

140

ZGL41-100 THRU ZGL41-200
1.0 WATT SURFACE MOUNT GLASS PASSIVATED ZENER
Voltage- 100 - 200 Volts

Power Rating - 1.0 Watt
FEATURES

r-SOLDERABLE ENDS~

I
----D2--

,

I

1

.022 (.559)

.018(.457)

,

• For surface mounted applications
• Plastic package has Underwriters Labaoratory
Flammability Classification 94 V-O
•
•
•
•

[

[

,I

Glass passivated junction
Low zener impedance
Excellent clamping capability
High temperature soldering guaranteed:
250'C/10 seconds! at terminals

MECHANICAL DATA

.205 (5.207)
.185 [4.6991

Case: Molded plastic
Terminals: Solderable per MIL-STO-202,
Method 202
Polarity: Red band denotes cathode

Dimensions in inches
and
(millimeters)

Mounting Position: Any
Handling Precautions: None
Weight: 0.116 grams, 0.0046 ounce

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
The plastic material covering the glass passivated junction carries u/L recognition 94V-O
OPERATING AND STORAGE TEMPERATURE RANGE _65°C to +175°C
MAXIMUM
'NOMINAL
DC
POWER
ZENER
VOLTAGE DISSIPATION
@In
@T",75'C
VZ
PD
VOLTS

WATTS

mA

MAXIMUM DYNAMIC
IMPEDANCE
z.. @ ilK 1.
OHMS
OHMS
mA

ZGL41-100
ZGL41-110
ZGL41·120

100
110
120

1.0
1.0
1.0

3.7
3.4
3.1

250
300
380

3100
4000
4500

ZGL41·130
ZGL41-140

130
140

1.0
1.0

2.9
2.7

450
525

ZGL41-150

150
160

1.0
1.0

2.5

ZGL41·160

2.3

ZGL41-170

170

1.0

ZGL41·180

180

ZGL41·190
ZGL41·200

TYPE

TEST
CURREN!

In

Zzr

MAXIMUM REVERSE
LEAKAGE CURRENT
@Ta=25'C

10

""

MAXIMUM
SURGE
CURRENT
@T.,25°C

MAXIMUM
FORWARD
VOLTAGE
@2GOmA
@T.-25OC

-')
V.

pA

VOLTS

mAde

VOLTS

0.25
0.25
0.25

1.0
1.0
1.0

76.0
83.6
91.2

10.0
9.1
8.3

1.5
1.5
1.5

5000
5500

0.25
0.25

1.0
1.0

98.8
106.4

7.7
7.1

1.5
1.5

600

6000

0.25

1.0

114

6.7

1.5

700

6500

0.25

1.0

121.6

6.3

1.5

2.2

800

6750

1.0

129.2

5.9

1.5

1.0

2.1

900

7000

0.25
'0.25

1.0

136.98

5.6

1.5

190

1.0

2.0

1050

7500

0.25

1.0

144.4

5.3

1.5

200

1.0

1.9

1200

8000

0.25

1.0

15?

5.0

1.5

• Standard Voltgage Tolerance ±10%, Suffix A ±-5%.

·502·

RATINGS AND CHARACTERISTIC CURVES ZGL41-100 THRU ZGL41-200

FIG. 2 -

'""
I

FIG. 1 -

Z
o
>=
..:

100

0..

I~

075

'"'"
0'"
ffi ~

050

~~

Q.

o 2b

W

'"cr:w

iJ 1.:
J j j
50

2b

75

1000

W

500

V, . 18DV

200

V'.'50~

Q.

~

~
()

100

125

>-

20

0
N
N

10
05 10

f-'
w

cr:
cr:

20

SO

10

20

SO

100

200

500

Iz. ZENER TEST CURRENT (rnA)

175

150

TERMINAL TEMPERATURE. °C

z

.~ 200~•

Y'.,'9~~

SO

..:
z

.~

,_V,

2~oC

01 IZ (d,C):

100

~

~

TJ
IZ (rms)

2000

..:
0

r--

>
w

W
()

Z

8mm x 8mm x 2mm Cu pads

cr:

~

MAXIMUM CONTINUOUS POWER DISSIPATION

TYPICAL ZENER IMPEDANCE

10000

FIG. 4 -

TYPICAL REVERSE CHARACTERISTICS

FIG. 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
TJ

10

100"C

::J

()

o

./

cr:

~~

/

10

TJ

cr:cr:
OW

,

LLQ.

"':;;

::J":

o

w

...--

/

01

20

f-

Z

'"Z

=

TJ - 2S"C

..:
01

J

60

80

100

120

PERCENT OF RATED ZENER VOLTAGE

Z

..:
f-

40

25°C

Pulse Width - 300/.J. S 1°'0 Duly CYC1..i.

-

10

12

14

16

INSTANTANEOUS
FORWARD VOLTAGE. VOLTS
fZ

FIG. 5 -

TYPICAL TEMPERATURE COEFFICIENTS

w

o
LL
LL

W

o
()

220
Vz@ IzI

200

,

180

~O

::J"-.
f->

..: E
cr:w

150

120

./

Q.

:;;
W

f-

100
80
laD

--

1'0

I/"

......

.....

..... .....

120 130

140

150

160

170

180

Vz. ZENER VOLTAGE (VOLTS)

-503-

190 200

140

BYM13-20 THRU BYM13-60
SGL41-20 THRU SGL41-60
SURFACE MOUNT SCHOTTKY RECTIFIER

Voltage • 20 to 60 Volts

Current· 1.0 Ampere
FEATURES

~SOlO['ABl[ ENOS

• For surface mounted applications
• Plastic material used carries Underwriters
Laborataory Flammabiliby Classifications 94V-O
• Metal to silicon rectifier,
,~
majority carrier conduction
• Low power loss, high efficiency',
• High current capability, low VF
• For use in low voltage, high frequency inverters,
free wheeling and polarity protection applications
• High temperature soldering guaranteed:
250°C/10 seconds at terminals

l

Jlf~L3t.ID
1

/

I j

.0181.'57)

.205 (5.2071

•

0
I
D".'" Dl - .008 L20l

.185 (4. S99)

MECHANICAL DATA
Case: Molded plastic
Terminals: Solderable per MIL-STO-202,

Dimensions in inches
and
(millimeters)

Method 208

Polaray: Two bands indicate cathode
1sl band denoles device type

2nd band denoles voltage type

Mounting Position: Any
Handling Precautions: None
Weight: 0.116 gram, 0.0046 ounce

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz resistive or inductive load.
For capacitive load, derate current by 20",{,.

BYAff3
SYMBOLS

-20

·30

.sO

-40

-60

UNITS

SGL41·20 SGL41-30 SGL41·40 SGL41·50 SGL41·60

Schottky devices: 1sl band is orange
Maximum Recurrent Peak Reverse Voltage

VRRM

20

30

40

50

60

Volts

Maximum RMS Voltage
Maximum DC Blocking Voltage

VRMS
VDC

14
20

21
30

28
40

35

42
60

Volts
Volts

Maximum Average Forward Rectified Current
at TT= 75°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 1.0A
Maximum Reverse Current
at Rated DC Blocking Voltage

TJ=25°C
TJ=100°C

Typical Junction Capacitance (NOTE 1)
Maximum Thermal Resistance RthJl (NOTE 2)
RthJA (NOTE 3)
Operating Temperature Range
Storage Temperature Range
Polarity Color Bands (2"0 Band)

50

1.0

I(AV)

Amps

30.0

IFSM
VF

Amps

I

.50

.70

Volts

0.5
10

IR

mA

I

110.0

CJ
R8Jl
ReJA

80.0

pI

30
75

°CIW

TJ

-65 to +125

°C

TSTG

-65 to +175
Gray

I

NOTES:
t, Measured at 1 MHz and applied reverse voltage of 4.0 Voc.
2, Thermal resistance junction to terminal, 6.0mm2 copper pads to each terminal..
3, Thermal resistance junction to ambient, 6.0mm 2 copper pads to each terminal.

-504-

Redl

Orange

I

Yellow

°C

I

Green

RATINGS AND CHARACTERISTIC CURVES BYM13-20 THRU BYM13-60
SGL41-20 THRU SGL41-60
FIG. 2 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

I-

Z

UJ

~
~

=>

=>

~(I)
LL~

(1)::<

1\

SINGLE PHASE

HALF WAVE
60Hz
RESISTIVE OR
INDUCTIVE LOAD

=>«

75

100

125

150

(I)~

175

~

SGl41-40

,,

Z

-

_

SGL41-50
SGL41-60

01
1

3

5

7

9

11

13

15

17

19

21

INSTANTANEOUS FORWARD VOLTAGE.
VOLTS
FIG. 38 -- TYPICAL REVERSE CHARACTERISTICS

~ SGL41-20

-~ =~~~:~:!~

~
Z

./

TJ" 1250 C

10

LU

'
SGL41-20
SGL41-30

«

FIG. 3A - TYPICAL REVERSE CHARACTERISTICS

~
Z

10

I-

TERMINAL TEMPERATURE.·C

100

,

J

@
z

\

50

./

~~

\

25

;.;. ~

C
Ir

1\

75

~

10

U

10

Ir

U

20

Ir
Ir

FIG. 1 - FORWARD CURRENT DERATING CURVE

UJ

Ir

Ir
=>

Ir
Ir
=>

U

U
LU(I)
(l)LU

1.0

Irlr

LULU

>11.

LU::;:

Ir«
=>--'

(1)-

.10

O::!

LU::;:
Z

- --

J = 75°

«

IZ

«
Ien

~-

/

L

.01

,

,
TI

~

25' C

~

.001

20

40

60

80

100.

120

001 L..---'2:C-0-4-:':0--'-60'---:8LO---'lOLO_...1'2""0--:-!'40

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

PERCENT OF RATED PEAK REVERSE VOLTAGE

FIG.5-MAXIMUM NON-REPETITIVE
SURGE CURRENT

FIG. 4 - TYPICAL JUNCTION CAPACITANCE
400
_

LL

200

U
Z

100
80

I-

60

a.
ui

«

---

ro-

-

TJ " 25°CA

~ r--r-.,

--

-r--

-

(3

«
«

40

11.

U

20

SGL41-20
SGL41-30
SGL41-40

. SGl41-S0
SGL41-60

~

aJIr

Ir
=>
U

25

UJ

20

"(I)
IrUJ

=>Ir
(1)UJ

~~

-,

««

'~.

~

Ir

oLL

10

,,:

01

04

10

10

30

40

80 100

REVERSE VOLTAGE. VOLTS

-505-

iii11.

15

"

'"

TJ:: 75°G

83 ms SINGLE HALF SINE-WAVE
JEDEC METHOD -

~
1' ....

10

50

4

6 8 10

20

40 60 80 100

NUMBER OF CYCLES AT 60Hz

IN~

TGL41 SERIES
SURFACE MOUNT TRANSIENT VOLTAGE SUPPRESSOR
Voltage - 6.8 to 200 Volts
FEATURES
• For surface mounted applications
• Plastic material used carries Underwriters
Laboratory Flammability Classifications 94V-O
r--SOLDERIIBLE ENDS~

,

I

:;:=:=:~
tID'

0.=

J

,:rn

1

.-L_'

___ - 0 . - - -

.022(.559)
.018(,451)
.205 (5.2011
.1B5(U99)

.105

(

,I

~~~~

1

0,.=0.

"

less than 1.0ps from 0 volts to BV min.

--J--i

• Typical IR less than 1 J.L A above 10V .
• High temperature soldering guaranteed:
250°C/10 seconds at terminals

:.~08(.20J I

MECHANICAL DATA
case: Molded plastic
Terminals: Solderable per MIL-STD-202,
Method 208
Polarity: Blue bands denotes cathode
. Mounting Posnlon: Any
Handling Precautions: None
Weight: 0.116 gram, 0.0046 ounce

Dimensions in inches
and
(millimeters)

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.

RATINGS

Ppk
Po

VALUE
Minimum 400
1.0

Watts
Watt

IFsM

40.0

Amps

TJ, TSTG

-65 to +175

°C

SYMBOL

Peak Power Dissipation at TA-25°C. Tp = 1ms (NOTE
Steady State Power Dissipation at TT=75°C (NOTE 2)
Peak Forward Surge Current, 8.3ms single half
Sine-Wave Superimposed on Rated Load
(JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range

1)

NOTES:

.

1. Non-repetitive current pulse, per Fig. 3 and derated above TA=25°C per Fig. 2.
2. Mounted on 8.0 mm· 2 copper pads to each terminal.
3. 8.3ms single half sine-wave duty cycle = 4 pulses par minutes maximum.

-506-

RATINGS AND CHARACTERISTIC CURVES TGL41 SERIES
FIGURE 2 -

PULSE DERATING CURVE

100

~
FIGURE 1 -

PULSE RATING CURVE

""

"'I"

'" ""
r\..

10xlooo Waveform
as demled by REA

25

50

75

100

125

"-

150

175

200

TA AMBIENT TEMPERATURE I'C)

10.. 5

10 .. 5

'p.

FIGUAE 3 -

100,·s

1.0ms

10ms

PULSE WIDTH

,-

PUSLt: WAVeFORM

I
tr _ 10 .... St...
Pulse Width Up) IS defmed
~ -I-t--·+--+'''..''••' vr.'' u:....-I~- as ~uartr~~;~te~=:~~~h5~oeak
TJ = 25 C

'#

IASM

I 100

FIGURE 4 -

TJ = 2S"C

of IRSM

.

'000

~

'""

h"'<;"'::=r-~I---i--+--+-"""'-~

I-

~

TYPICAL JUNCTION CAPACITANCE

H--I'~
,,+..':/H~";Iv~.~'u!!..,..,,'R25'SM,I--_+-_l---I

II III
Measured.@1==

Zero Blas

.....

~ 5o~-I--~~I~r-~·--I--~-~~1-1-

1+-1---1--""""1--4- a:O~;~~::;~~~

Ii'

"~

o

-

20

F= -

40

30

~

T. TIME(ms)

i

,

10

025

\

It

8mm It 2mm Cu pads

S,"9~e Phal

~

'"'
II:
II:

~

:::l

ReSistive or
Inductive Load

0
50

w

~t3
:::lll:

i\.

6OH,

25

o

,

\

Hall Wave

~

Iii
&.

FIGURE 6 -

-..n=:l
8mm

w

:ctil

10
20
"
100
BREAKDOWN VOLTAGE. VOLTS (VSR)

\

is

~

2

\

07 5

oso

10

'\

o

~

Stand-Off
Voltage (VR)

1\

;::

gj

Meas~red@

-

,.~

FIGURE 5 _ STEADY STATE POWER DERATING

Z

~

I.....

~

_tp

10

e

f--

75

100

125

150

175

50

0"

30

",W

co.

~~

~

f2

200

"

TT. TERMINAL TEMPERATURE ('C)

~

-507-

20

0

200

MAXIMUM NON-REPETITIVE
,URGE CURRENT

8 3ms Single Half Sme-Wave
(JEOEC Method)

"

1'-0..

1"1-0

0
1

2
4
6 810
20
40 6080100
NUMBER OF CYCLES AT 60Hz

I~

ELECTRICAL CHARACTERISTICS (TA = 25·C unless otherwise noted)
WorIdng
Breakdown Votlage
@IT
VBR
VoHs (NOTE 1)
(mA)
DEVICE

TGL41·6.8
TGL41·6.8A
TGL41·7.5
TGL41·7.5A
TGL41·8.2
TGL41·8.2A
TGL41·9.1
TGL41·9.1A
TGL41-10
TGL41-10A
TGL41·11
TGL41·11A
TGL41-12
TGL41·12A
TGL41·13
TGL41·13A
TGL41·15
TGL41-15A
TGL4H6
TGL41-16A
TGL41-18
TGL41-18A
TGL41·20
TGL41·20A
TGL41·22
TGL41·22A
TGL41·24
TGL41·24A
TGL41·27
TGL41·27A
TGL41·30
TGL41·30A
TGL41·33
TGL41·33A
TGL41·36
TGL41-36A
TGL41-39
TGL41·39A
TGL41·43
TGL41-43A
TGL41-47
TGL41·47A
TGL41·51

MIN

6.12
6.45
6.75
7.13
7.38
7.79
8.19
8.65
9.00
9.50
9.90
10.5
10.8
11.4
11.7
12.4
13.5
14.3
14.4
15.2
16.2
17.1
18.0
19.0
19.8
20.9
21.6
22.8
24.3
25.7
27.0
28.5
29.7
31.4
32.4
34.2
35.1
37.1
38.7
40.9
42.3
44.7
45.9

MAX

7.48
7.14
8.25
7.88
9.02
8.61
10.0
9.55
11.0
10.5
12.1
11.6
13.2
12.6
14.3
13.7
16.5
15.8
17.6
16.8
19.8
18.9
22.0
21.0
24.2
23.1
26.4
25.2
29.7
28.4
33.0
31.5
36.3
34.7
39.6
37.8
42.9
41.0
47.3
45.2
51.7
49.4
56.1

10
10
10
10
10
10
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

Peak
Reveree
Vollage
VRWM
(Voila)

5.50
5.80
6.05
6.40
6.63
7.02
7.37
7.78
8.10
8.55
8.92
9.40
9.72
10.2
10.5
11.1
12.1
12.8
12.9
13.6
14.5
15.3
16.2
17.'
17.8
18.8
19.4
20.5
21.8
23.1
24.3
25.6
26.8
28.2
29.1
30.8
31.6
33.3
34.8
36.8
38.1
40.2
41.3

·508·

MaxllTllm
Reveree

leekage
at
VRWII
IR (!lA)

1000
1000
500
500
200
200
50
50
10
10
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

Maxlnum
Reveree
Current
IRSM

Maxlnum
Reveree
Voltage
atlRSM

(NOIE2)

(Clamping VOI1age)

Maximum
Temperalrue
Coefficient
oIVBR

(Ampe)

VRSM(Val1o)

(" I 'C)

37
38
34
35
32
33
29
30
27
28
25
26
23
24
21
22
18.20
18.90
17.00
17.80
15.10
15.90
13.70
14.40
12.50
13.10
11.50
12.00
10.20
10.70
9.20
9.70
8.40
8.80
7.70
8.00
7.10
7.40
6.50
6.70
5.90
6.20
5.40

10.8
10.5
11.7
11.3
12.5
12.1
13.8
13.4
15.0
14.5
16.2
15.6
17.3
16.7
19.0
18.2
22.0
21.2
23.5
22.5
26.5
25.2
29.1
27.7
31.9
30.6
34.7
33.2
39.1
37.5
43.5
41.4
47.7
45.7
52.0
49.9
56.4
53.9
61.9
59.3
67.8
64.8
73.5

0.060
0.060
0.064
0.064
0.068
0.068
0.071
0.071
0.076
0.076
0.078
0.078
0.081
0.081
0.084
0.084
0.087
0.087
0.089
0.089
0.091
0.091
0.093
0.093
0.095
0.095
0.097
0.097
0.099
0.099
0.100
0.100
0.101
0.101
0.102
0.102
0.103
0.103
0.104
0.104
0.104
0.104
0:105

ELECTRICAL CHARACTERISTICS ( TA = 25·C unless otherwise noted)

a.......... VoIIIgo Pook
YIR

II!'II

VOna(NOTE1)

(mA)

DEVICE

IIIN

TGL41-51A
TGL41-56
TGL41-56A
TGL41-62
TGL41-62A
TGL41-68
TGL41-68A
TGL41-75
TGL41-75A
TGL41-82
TGL41-82A
TGL41-91
TGL41-91A
TGL41-100
TGL41-100A
TGL41-110
TGL41-110A
TGL41-120
TGL41-120A
TGL41-130
TGL41-130A
TGL41-150
TGL41-150A
TGL41-160
TGL41-160A
TGL41-170
TGL41-17OA
TGL41-180
TGL41-180A
TGL41-200
TGL41-200A

48.5
50.4
53.2
55.8
58.9
61.2
64.6
67.5
71.3
73.8

n9
81.9
86.5
90.0
95.0
99.0
105.0
108.0
114.0
117.0
124.0
135.0
143.0
144.0
152.0
153.0
162.0
162.0
171.0
180.0
190.0

MAX

53.6
61.6
58.8
68.2
65.1
74.8
71.4
82.5
78.8
90.2
86.1
100.0
95.50
110.0
105.0
121.0
116.0
132.0
126.0
143.0
137.0
165.0
158.0
176.0
168.0
187.0
179.0
198.0
189.0
220.0
210.0

Worldng
RtYIIlW
R_
Voltage
V_
(Volts)

1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

43.6
45.4
47.8
50.2
53.0
55.1
58.1
60.7
64.1
66.4
70.1
73.7

n8
81.0
85.5
89.2
94.0
97.2
102.0
105.0
111.0
121.0
128.0
130.0
136.0
138.0
145.0
146.0
154.0
162.0
171.0

Mulnum
RtYIIlW
LeaI!ag.
II
V_
IR IfIAI

Maxlnum
RtYIIlW

5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

5.70
5.00
5.20
4.50
4.70
4.10
4.30
3.70
3.90
3.40
3.50
3.00
3.20
1.39
1.46
1.27
1.32
1.16
1.21
1.07
1.12
.93
.97
.87
.91
.82
.85
.78
.81
.70
.73

Qlrrent

'-

(NOTE II
(-""")

NOTES:

1. VSR measured after IT applies for 300 lIS IT. Square Wave Pulse or equivalent
2. Surge Current Waveform per Figure 3 and Derate per Figure 2.

-509-

Mulnum
Mulllllm
T• ....,....,.
Voltage
IIIIIIM
CoeIIIcllnl
jClu!pqV,..
01 VIR
VlIIMtyoIIo)
("''C)

70.1
80.5

no
89.0
85.0
98.0
92.0
108.0
103.0
118.0
113.0
131.8
125.0
144.0
137.0
158.0
152.0
173.0
165.0
187.0
179.0
215.0
207.0
230.0
219.0
244.0
234.0
258.0
246.0
287.0
274.0

0.105
0.106
0.106
0.107
0.107
0.107
0.107
0.108
0.108
0.108
0.108
0.109
0.109
0.109
0.109
0.110
0.110
0.110
0.110
0.110
0.110
0.111
0.111
0.111
0.111
0.111
0.111
0.111
0.111
0.111
0.111

•

GF1 A THRU GF1 M
SURFACE MOUNT RECTIFIER
VOLTAGE - 50 to 1000 Volts CURRENT - 1.0 Ampere
FEATURES
GF1IDO-214BA
.050(1.27)

I
:~~:~~:;:~

.QOG5{O.17)

.0105ID.27) .~

.lOGl2.69)

.1l8?00)n---t-~--~

---.f---1~r-r.==e~
L
.1

:~~~:~:~~~~-,

1------

•

.094(2.39)

I

• For surface mounted applications
• High temperature metallurgically bonded-no
compression contacts as found in other
~
diode-constructed rectifiers
• Glass passivated junction
• Built-in strain relief
• Easy pick and place
• Plastic material used carries
Underwriters Laboratory ClaSSification 94 v-o
• High temperature soldering guaranteed:
450°C/5 seconds at terminals
• Complete device submersible temperature of
265°C for 10 seconds in solder bath
_ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ __

MECHANICAL DATA

.11412.90)

case: Molded plastic over glass
Terminals: Solder plated
Polarity: Indicated by cathode band
Standard PackagIng: 12mm tape

Dimensions in inches
and
(millimeters)

(EIA STD RS-481)

Weight: 0.0048 ounces, 0.120 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
atTL=125°C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage all.0A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=125°C
Typical Reverse Recovery Time (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Maximum Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

SYMBOLS GFfA GFfB GFfO GFfG GFfJ GFtK GFt.

UNITS

100 200 400 600 800 1000
70 140 280 420 560 700
100 200 400 600 800 1000

Volts
Volts
Volts

VRRM
VRMS
Voc
I(AV)

1.0

Amps

IFSM

30.0

Amps

VF

1.10
5.0
50
2.5
15.0
30.0
-65 to +175

Volts

IR
TRR
CJ
R8JL
TJ,TsTG

NOTES:

I. Reverse Recovery Test Conditions: IF=0.5A, IR=I.OA, Irr=O.25A.
2. Measured at 1.0 MHz and Applied Vr=4.0 volls.
3. 5.0mm 2 (.013mm thick) land areas.

-510-

50
35
50

I1A
I1S
pf
°cm
°C

RATINGS AND CHARACTERISTIC CURVES GF1A THRU GF1M
FIG 1- FORWARD CURRENT DERATING CURVE

FIG 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

~

W

1.0

a:
a:

.... ~

30

a

25

Cl'"
a:w
:>a:
",w

20

f'.,

i"o..

W

~

~

0.5

t"-o
I"

RESISTIVE OR INDUCTIVE LOAD
rrLrril
100

110

120

130

~~

","

~
~

II
140

150

~

~

180

175

0

10

'"W

5.0

.
u.

Il.

~

15

I"-

Tl-12S"C
8.3mB SINGLE HALF SINE·WAVE

JE,EC

iiil! III
4

11

88 10

20

40 8080100

NUMBER OF CYCLES AT 60 Hz

LEAD TEMPERATURE, 'C
FIG 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG 4 - TYPICAL JUNCTION CAPACITANCE

10.0
PULSE WIDTH-300~S
2% DUTY CYCLE

30

I

i......

T".25"C

1.0

T...25·C

0.1

I

.01
0.4

0.8

0.8

1.2

1.0

1.4

5

1.6

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

~ffi

~9E
~~

is!.!
W::;

~!i
~~
"':>

i!:o

10

4
1.0

"\

r--

~r:QUE

UL RECOGNIZED FLAME·RETARDANT
MOLDING COMPOUND
(UL94 V'())

~~I-

T... 100·C

.4
T,,25'C -

0.1
.04

~

.01
40

100

FIG 6 - SUPERECTIFIER GF1 PACKAGE
CAVITY·FREE
(GLASS·PASSIVATED JUNCTION)

FIG 5 - TYPICAL REVERSE CHARACTERISTICS

W'"

50

10

REVERSE VOLTAGE, VOLTS

80

80

100

120

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

-511-

~mENCAPSULATED
BRAZED CONSTRUCTION

SOLID BRAZING
LOW RESISTANCE, EXCEULENT
SURGE CAPABILITIES

•

RF1A THRU RF1M
SURFACE MOUNT GLASS PASSIVATED
FAST SWITCHING SILICON RECITFIER
VOLTAGE-SO to toOo Volts CURRENT-1.0Ampere
FEATURES
• For surface mounted applications
• High temperature metallurgically bonded-no
compression contacts as found in other
diode-constructed rectifiers
• Glass passivated junction
• BuiH-in strain relief
• Easy pick and place
• Fast switching for high efficiency
• Plastic material used carries Underwriters
Laboratory Flammability Classification 94 v-o
• High temperature soldering guaranteed:
450'C/5 seconds at terminals
• Complete device submersible temperature of
265'C for 10 seconds in solder bath
_ _ _ _ _ _ _ _ _ _ _ _ _ _ _ __

GF1IDO-214BA
.050(1.27)
.060(1.52)

1
1+--~-----t>1
.187(4. ,}5)

.096(2.44)
.108(2.74)
.,0612.69)

·II8Y·OOI

A--+-+---lIJ

~
.094(2.39)

•

MECHANICAL DATA

.114(2.90)

Case: Molded plastic over glass
Terminals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 12mm tape

Dimensions in inches

and
(millimeters)

(EIA STD RS-481)

Weight: 0.0048 ounces, 0.120 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
SYMBOLS RFtA RFfB RFfD RFfG RFfJ RFfK RFfM
Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage

VRRM
VRMS
Voc

Maximum DC Blocking Voltage
Maximum Average Forward Rectffied Current
atTL~120oC

50
35
50

100
70
100

200 400 600 800 1000
140 280 420 560 700
200 400 600 800 1000

I(AV)

Peak Forward Surge Current 8.3ms single half sine·
wave superimposed on rated load (JEDEC method)

IFSM
VF

Maximum Instantaneous Forward Voltage at 1.0A
Maximum Full Load Reverse Current,
Full Cycle Average, TA=55°C

IR(AV)

Maximum DC Reverse Current

TA=25°C

at Rated DC Blocking Voltage

TA=125°C

Volts
Volts
Volts

1.0

Amps

30.0
1.30

Amps
Volts

50.0

I1A

5.0
TRR

Typical Junction Capacitance (NOTE 2)

I1A

100

IR

Maximum Reverse Recovery Time (NOTE 1)

150

250
15.0

500

nS

CJ
R8JL

30.0

pf
·CIW

TJ,TsTG

-65 to +175

·C

Maximum Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

UNITS

Notes:
1. Reverse Recovery Test Conditions: IF.0.5A, IR=1.0A, Irr=O.25A.
2. Measured at 1.0 MHz and Applied Vr=4.0 volts.
3. 5.0mm2 (.013mm thick) land areas.

-512-

RATINGS AND CHARACTERISTIC CURVES RF1A THRU RF1M
FIG 2- FORWARD CURRENT
DERATING CURVE

FIG 1-REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

f'4-T~-~

loa

!On
NON'HOUCTIVE

NONINDUCTIVe

o~.

a.V,l

r-.

....

E3

...20

I

•

·1.0

I

I

r-.

I

~r-.

RESISTIVE OR INDUCTIVE LOAD
5.0~ LAND AREAS

100

110

120

130

140

150

180

176

LEAD TEMPERATURE, "C

NOTES: 1. Rise Time = 7ns max. Input Impedance = 1megohmn, 22pF.
2 Rise Time" 10ns max. Source Impedance = 50 ohms.

FIG 4 - TYPICAL JUNCTION CAFACITANCE

,00
FIG 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

"I"-

~ULSEWID,!:!~

_,"'OUTYCYCLE

T...25°C

~

,

I{

,~~~~~~--~~~~~

r".25°C

1

10

100

REVERSE VOLTAGE, VOLTS
FIG 8 - TYPICAL REVERSE CHARACTERISTICS

..,

L

0.4

0.6

0.8

1.0

1.2

1A

1.8

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

FIG 5 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT
20

8.3ms SINGLE HALF SINE-WAVE

I'" r-... JEDEC METHOD

40

eo

~

100

1~

PERCENT OF RATED PEAK REVERSE VOLTAGE

.

,

FIG 7 - SUPERECTIFIER RF1 PACKAGE

TJ75°~

~

5

"

0

2

4

8 8 10

20

40 80

eo

100

NUMBER OF CYCLES AT 60 Hz

-513-

GENERAL
INSTRUMENT

..
ES1 A THRU ES1 D
SURFACE MOUNT ULTRAFAST RECTIFIER
VOLTAGE - 50 - 200 Volts CURRENT - 0.6 Amperes
FEATURES
SMAlOD-214AC

I-.:..!llib.lli--+I
.17714.50)

, .0061.152)
.0121.305)

t

.07811.98)
.09012.29)

~

• For surface mounted applications
• Low profile package
• Ideally suited for use in
~
very high frequency
switching power supplies,
inverters and as free wheeling diodes
• Ultrafast 15 nanosecond recovery times
• Low forward voltage
• Low leakage current
• Glass passivated junction
• High temperature soldering:
250'C/10 seconds at terminals

~----~----~~

, I t-

i'

.03010. 761r-j----.0041.1021
.05011.271
I
.0081.203) .19414.931
I'
"'.20815.281

I

Dimensions in inches and (millimeters)
-Typical Range

MECHANICAL DATA
case: Molded plastic
Tennlnals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 12mm tape
(EIA STD RS-481)

WeIght: 0.002 ounces, .064 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°0 ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at TL=120°C
Peak forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward VoHage at 0.6A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA-l00°C
Maximum Reverse Recovery lime (NOTE 1)
Maximum Reverse Recovery lime
TA=25°C
(NOTE 2)
TA=100° C
Maximum Stored Charge
TA-25°C
(NOTE 2)
TA=100°C
Typical Junction CapaCitance (NOTE 3)
Maximum Thermal Resistance (NOTE 4)
Operating and Storage Temperature Range

SYMBOLS

EStA

ESt8

ESfC

ESfD

VRRM
VRMS
Voc

50
35
50

100
70
100

150
105
150

200
140
200

UNITS
Volts
Volts
Volts

I(Av)

0.6

Amps

IFSM

30.0

Amps

VF

0.90
2.0
100
15.0
25.0
35.0
5.0
15.0
10.0
25.0
-65 to +150

VoHs

IR
TRR
TRR
ORR

CJ
R9JL
TJ,TsTG

NOTES: 1. Reverse Recovery Test condnions: IF=O.5A, IR=I.0A, Irr=O.25A.

2. TRR and ORR measured on LEM tester: VR=30V, dVdt=50 AllIS, IF=0.6A.
3. Measured at 1.0 MHz and applied reverse voltage of 4.0 volts.
4. 5.0mm2 (.013mm thick) land areas.

-514-

I1A
Ns
Ns
Nc
pf
°CIW
°C

RATINGS AND CHARACTERISTIC CURVES ES1A THRU ES1D
FIG 1 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM

FIG 2 -MAXIMUM AVERAGE
FORWARD CURRENT RATING

a
000
NQNINQUCT!VE

w

''''
NONlllOUCTIVE

0.6

u::

\

;::en
Ow

wa:
a:w
all.
a::::;;

",<

u.a:

wa:

,

~

r-8

~!z"
Ow

RESISTIVE OR INOOCTIVE LOAD
5.0mrn' LAND AREAS

CJ::;)

Cl!0

NOTES: 1 Rise Time ~ 70S max Input Impedance = lmegohmn, 22pF
2 Rise Time = 10ns max. Source Impedance = 50 ohms.

,

w
~

100

60

~

120

150

LEAD TEMPERATURE, C

FIG 3 - TYPICAL REVERSE CHARACTERISTICS
1000

FIG 4 - TYPICAL FORWARD CHARACTERISTICS

f= = T... 125'C
r100

50.0

,..:

zw
a:
a:
::;)

~ = T...85'C
10

V

10.0

0

'"

a

a:
~[fl
a: a:

u.ll.

/

1.0

1/

1.0

Ow

T,,_25 'C

en:::;;

6<
w

II

Z

;5
Z
;5

0.1

0.1

§

T.... 25·C

=
,=

. PULSE WIDTH.300""
1% DUTY CYCLE

en
~

I
.01

.01
20

40

60

60

100

120

140

I

0.4

0.6

0.8

1.0

1.4

1.2

1.6

1.8

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

PE RCENT OF RATED PEAK REVERSE
VOLTAGE,VOLTS

FIG 6 - TYPICAL JUNCTION CAPACITANCE

14r-~rnntrrr--rTTTITm-~-rnT~-'-rnn;m

........

FIG 5 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

!z"
W

30

a:
a:

25

0

20

::;)

W

CJt/l

a:w
17la:
a~
a::::;;
",<

~

'" ....

la l3ll SINGLE ~ALF ISINUAtEI

~

..........

10

r....

Vsig-50mVp-p

10~~~H+H*-f3~H+~--1~~H+H--+-HHHim

JEDEC METHOD

15

m~l)b I

12 ~+-FlI'Ioi;IHt--t-H-HtHt---1Hf.MHz

~

~

0

u.

'"<
W

Q.

10

20

50

.1

100

.5

10

20

50 100 200

500 1000

REVERSE VOLTAGE, VOLTS

NUMBER OF CYCLES AT 60 Hz

-515-

I~

•

5512 THRU 5516
SURFACE MOUNT SCHOTTKY BARRIER RECTIFIER
VOLTAGE - 20 TO 60 Volts CURRENT - 1.0 Amperes
FEATURES
•
•
•
•

SMAlDO-214AC

.052(1.32)
.058(1.47)

!

1

•
•
•
•
•

.100(2.54)
.1I0r· 79 )

1_

For surface mounted applications
Low profile package
Built-in strain relief
Metal to silicon rectifier,
majority carrier conduction
Low power loss, high efficiency
High current capability, low VF
High surge capacity
Epitaxial construction
For use in low voltage high frequency inverters,
free wheeling, and polarity protection applications
Guardring for transient protection

.157(3.99)_1
.171(4.50)
-+ •. 006(,152)
.012 (.305)

•

--tr---r----If-----.
.078(1.98)
~

!

1. ~04

(102)

MECHANICAL DATA

I

Case: Molded plastic
Terminals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 12mm tape

.008(203) 1,.194(4.93)
~------""" .208(5.28)

Dimensions in inches and (millimeters)

(EIA STD RS-4B1)

Weight: 0.002 ounces 0.064 gram

'Typical Range

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
F9r capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
atTL (See Figure 1)
Peak forward Surge Current
.8.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 1.0A
(NOTE 1)
Maximum DC Reverse Current (NOTE 1) TA=25°C
at Rated DC Blocking Voltage
TA=100°C
Maximum Thermal resistance (NOTE 2)
Operating Temperature Range
Storage Temperature Range

SYMBOLS

S812

SS13

SS14

SS15

SS16

UNITS

VRRM
VRMS
Voc

20
14
20

30
21
30

40
28
40

50
35
50

60
42
60

Volts
Vo~s

Votts

I(AV)

1.0

Amps

IFSM

30.0

Amps

VF

0.50

0.75

Volts

0.5
IR
ReJL
TJ
TSTG

NOTES:
1. Pulse Test with PW=300 JlSec, 2% Duty Cycle.
2. Measured on P.C. Board with 5.0mm 2 (.OI3mm thick) land areas.

-516-

10.0

I

5.0

25
-65 to +125
-65 to +150
-65 to +150

mA

°CIW
°C
°C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES SS12 THRU SS16
FIG. 1 • FORWARD DERATING CURVE
C

I I I 1\

t;0)

~ffi

'"a:a:

II
1518

I I II'
SS12·14

co..
~..,:
O~
... a:
",a:

'"~

~O)
a:~

0",

u..a..

0):;
::1<

L J

<0

a:

50

80

70

z

'"a:a:

z~

~
0)
;g;

80 90 100 110 120 130 140 150

~SS12
f==
r-- I- THRU

..,:

SS14

10

,

T,-125'C

a: a:

Z

'"

.10

~~

0)-

~

::1-'

~
0)
;g;

z

0=
",:;

Z

~

1.5 1.7 1.9

1.3

2.1

A

.10

-1

~
;g;

'0)

~
125' C

---""'"

~

T,_25'C

V 'rL

T,-15O'C
1.0

"'",
>0..

/

.01

1.1

10

0

"'0)
0)",

1-

.9

.7

::I

,JI

a: a:

::1-'

0=
"':;
Z

.5

a:
a:

TJ-75"C

~~
0)-

.3

I - - S815.18

,.:

1.0

I

O. 1
.1

100

0

"'0)
0)",

I
T..25·C
PULSE WIDTH-300ps
1% DUlY CYCLE

INSTAI'HANEOUS FORWARD VOLTAGE:
VOLTS
FIG 3B·TYPICAL 'REVERSE CHARACATERISTICS

::I

"'",
>0..

S815,16

o

LEAD TEMPERATURE. 'C
FIG.3A· TYPICAL REVERSE
CHARACTERISTICS

100

JJ

1.0

'"z

5~mni' land areas I

0

.". -"
""""

a:

RESISTIVE OR
...iNDUCTIVE L j

,,::I

J I
= 8S12·14

c

I

0.5

10.0

5

a:::E

C<

20

Z

1.0

'"u:

FIG.2· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

..,:

~

r/

T,-75'C
T.,25·C

~

."

.01

.001

o

20

40

80

80

100

120

140
.001

PERCENT OF RATED PEAK,
REVERSE VOLTAGE

400

...

FIG.4 • TYPICAL JUNCTION CAPACITANCE

200

W

~

~

t§

100
80
80

100

120

140

ss12.1)

'"a:a:

40

~-

30

t--+-f"""kTt-ttlf--+-f+tttttf

z

5
~ 0)
a:",
::I a:

10

11111

. ....."

l)RtWITL
I I
8.3mS8INGLEHALF8INE.WAVE
JEDEC MElHOD

0)",

~~
«

~

1.0

SO

..,:

!2

0.4

80

TJ-25"C

20
10
0.1

40

FIG 5 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT

...... .....,.

SS15.16

40

20

5Or--r-rTTTTt,,--,;--1-rTT1rT11

:::::: ~I'-o

D.

0
Z

o

PERCENT OF RATED PEAK REVERSE VOLTAGE

40

SO 100

REVERSE VOLTAGE. VOLTS

~
~

.....

20

l°t--+-f+r+t-ttlf--+-f+tttttf
OL--L~~~~

1

4

__~~LLLU~

8 8 10

20

40 80 SO 100

NUMBER OF CYCLES AT 60 Hz

·517-

•

• p. R· E. L· I· M· I • N • A • R. Y.

• •

SS19 AND SS1B
SURFACE MOUNT SCHOTTKY BARRIER RECTIFIER
VOLTAGE.-90and 100 Volts CURRENT-1.0Ampere
FEATURES
• For surface mounted applications
SMAlDO-214AC
• Low profile package
• Built-in strain relief
.05211.321
....--.--+---.--.----.:r-- • Metal to silicon rectifier, majority ~
.10012.541
carrier conduction
:TIO'i'2."i9i • Low power loss, high efficiency
High current capability, low VF
!---'---t-_.L..---!---'-- • High surge capacity
Epitaxial construction
.17714.501
• For use in high frequency inverters,
-+ ,.0061.1521
free wheeling, and polarity protection application
- - . - - , , - - - - t - - - - , .01H.3051
• Guardring for transient protection

I

1-.J.lli.1.lli--1

1 •
•

MECHANICAL DATA
~,

1Jl!!!I.l021 i
.0081.2031 1.19414.931
'.20815.281

--------+"

Dimensions in inches and (millimeters)
"Typical Range

case: Molded plastic
TermlnBls: Solder plated
PolBrlty: Indicated by cathode band
StBndBrd PBckaglng: 12mm tape
(EIA STD RS-481)
Weight: 0.002 ounces 0.064 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25·C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Working Peak Reverse Voltage
DC Blocking Voltage
Maximum Average Forward Rectified Current
at TL (SEE FIG.l)
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current
(2.0IJ.S, 1KHz)
Voltage Rate of Change,dv/dt (rated VR)
Maximum Forward voltage (Note 1)
IF=1A, TL- 25·C
IF=1A,TL=100· C
Maximum reverse current at
Peak reverse Voltage TL-l00·C (NOTE 1)
Peak reverse Voltage TL=25·C
Maximum thermal Resistance,
Junction to Lead (NOTE 2)
Maximum Operating Junction Temperature
Maximum Storage Temperature
NOTES:
1. Pulse Test Pulse Width 300j.lS, Duty Cycle 2%.
2. 5.Omm 2 (.013mm thick) land areas.

-518-

SYIIBot.S

SS19

SS1B

UNITS

VRRM
VRWM
Voe

90
64
90

100
71
100

Volts
Volts
Volts

I(AV)

1.0

Amps

IFSM

30.0

Amps

./RSM
VIjI.s

1•.0
1000

Amps
VIjI.s

VF

0.79
0.69

Volts

IR
IR

5.0
0.5

mA
mA

R8JL
TJ
TSTG

25.0
-65 to +150
-65 to +175

·CIW
·C
·C

RATINGS AND CHARACTERISTIC CURVES SS19 AND SS1B
FIG 2 - MAXIMUM NON-REPETITIVE
SURGE CURRENT
30

51'

FIG 1 -DERATING CURVE FOR
OUTPUT RECTIFIED CURRENT
1.0

1\

IIII

0.5 I -

t±3

tr
I

~

o
85

I

I

AS

100

t\

I I

I

110

120

~

TL-12S'C

r-- ~ ~~

~~

I

RESISTIVE OR INDUCTIVE LOAD
rDtREI

to-."",

5

I'

SING~E HAL~ sIJE.lJE1

ILms
JEDEC METHOD

.....

130

140

o

150

5

1

10

20

100

NUMBER OF CYCLES AT 60 Hz
FIG 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

LEAD TEMPERATURE, 'C
5.0

~
W

FIG 3 - TYPICAL REVERSE CHARACTERISTICS
10.0

.JII'

a:
a:
:::>

E
t=

V

1.0

0

Q

a:

~[ll

a: a:

OW
T... 125'C

1. 0

"'"

:::><

5lZ
~

g
.1

400
200

TJ"25'C -

I'
40

W

100

z
~

80
60

0

~
20

i

.2

.3

J
.4

2% UTY ,VCLE

.5

.6

.7

I--

I - I--

.8

.9

1.0

INSTANTANEOUS FORWARD VOLTAGE
VOLTS
'
IFIG 5 - TYPICAL JUNCTION CAPACITANCE

q,

o

T".25'C

PULSE WIDTH-300~S .01

LL

.001

.10

;;;

T...75'C

1/

.01

V

",::;

~

~

10

~

LLtl.

0

60

80

100 120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

140

~

t3

- --

1"-""

40

T...25'C

PULSE WIDTHo3OO!a

20
10
0.1

1% DITYIII I III
OA

1.0

4

10

20

40

100

REVERSE VOLTAGE, VOLTS

-519-

I~

•

TSMASERIES
SURFACE MOUNT TRANSIENT VOLTAGE SUPPRESSOR
VOLTAGE· 6.8 - 200 Volts
FEATURES
• For surface mounted applications

SMAlDO-214AC

• Low profile package
• Built-in strain relief

•052(1.321

f

I

• Excellent clamping capability

.10012.541

:TiOi'2.79i

1-...!llilJ!l!..!-1

• Fast response time: typically less than 1.0ps
from 0 volts to BV min.

1

• TypicallR less than

.17714.501

1~

above 10V

• High temperature soldering:
250°C/10 seconds at terminals

-+ ,.0061.1521
.0121.3051

--tr---r----+----.
.078(1.981
.09011.291

....

• Glass passivated junction . . .

nArr---:-'I -~---tiJ

l+--+j

.03010.76Iril
.05011.271

n:;I.I02111
.0081.2031 .19414.931
...
, - - - - - -...... , '.20815.281

MECHANICAL DATA

case: Molded plastic

• Typical Range

Tennlnals: Solder plated

Polarity: Indicated by cathode band

Dimensions in inches

and

Standard Paclcaglng: 12mm Tape
(EtA STD RS-48t)

(millimeters)

Weight: .002 ounces •. 064 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'0 ambient temperature unless otherwise specified.

Ppk

VALUE
Minimum 400

Watts

IFsM

40.0

Amps

TJ.TSTG

-65 to 175

"C

SYMBOLS

Peak Power Dissipation at TA=25"C. Tp-lms (NOTE
Peak forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range

1.2)

NOTES:
1. Non-repetitive current pulse. per Fig.3 and derated above TA=25'0 per Fig. 2.

2. Mounted on 5.0mm2 copper pads to each terminal.
3. 8.3ms single half sine-wave duty cycle=4 pulses per minutes maximum.

-520-

UNITS

MAXIMUM RATINGS AND CHARACTERISTIC CURVES TSMA SERIES
FIG 2 • PULSE DERATING CURVE
100

r\..

"'I

FIG.1 • PULSE RATING CURVE

"-

100

~

a:

~

i:i'"D..

I\.

10

" '"
1'1..

10xl000WAVEFORM
AS DEFINED BY R.E.A.

1.0

i:

I

I

I

25

50

75

100

125

"

150

175

200

T. AMBIENT TEMPERATURE ( 'C)
1.0j>s

1~.

10...

10ms

1.0ms

tp.PULSE WIDTH
FIG. 4· TYPICAL JUNCTION CAPACITANCE
FIG. 3· PULSE WAVEFORM

:::;

0
w


"

0..

'"c(

.....

o

'+:Ip .....

o

1.0

W
0
z
~

1OX1000 WAVEFORM
AS DEFINED BY R.E.A.

~
c(
0

I"'-3.0

2.0

....

(3

~

W

0..

ii

HALF VAWE·IRSM
2
/

"

50

.

100

~

TJ.25 'C

10

r- MEASURED@
I- STAND·OFF
I- VOLTAGE (VR)

4.0

T. TIME (mS)

~~g~~@=

.... .,t

'"
I'

1.0
10

20

100

200

BREAKDOWN VOLTAGE, VOLTS(VBR)
FIG.S • MAXIMUM NON·REPETITIVE
SURGE CURRENT
50
W
Cla:

8.3rnS SINGLE HALF SINE·WAVE
JEDEC METHOD

40


wO

30

f' ....
t-...

20

!'~

10

0..

20

40 60 100

NUMBER OF CYCLES AT 60Hz

·521·

•

ELECTRICAL CHARACTERISTlCS(g)25'C
Breakdown Vallage
VBR Vo/Is(Nol!; I)
..n.
Mar.

Devk:e
TSMA6.8
TSMA6.8A
TSMA7.5
TSMA7.5A
TSMA8.2
TSMA8.2A
TSMA9.1
TSMA9.1A
TSMA10
TSMA10A
TSMA11
TSMAI1A
TSMA12
TSMA12A
TSMA13
TSMAI3A
TSMA15
TSMAISA
TSMA16
TSMAI6A
TSMA18
TSMA18A
TSMA20
TSMA20A
TSMA22
TSMA22A
TSMA24
TSMA24A
TSMA27
TSMA27A
TSMA30
TSMA30A
TSMA33
TSMA33A
TSMA36
TSMA36A
TSMA39
TSMA39A
TSMA43
TSMA43A
TSMA47
TSMA47A
TSMA51
TSMA51A
TSMA56
TSMAS6A
TSMA62
TSMA62A
TSMA68
TSMA68A
TSMA75
TSMA75A
TSMA82
TSMA82A
TSMA91
TSMA91A
TSMAI00
TSMAI00A
TSMA110
TSMA110A
TSMAI20

AD
AE
AF
AG
AH
AK
AL
AM
AN
AP
AQ
AR
AS
AT
AU
AV
AW
AX
AY

AZ
BD

BE
BF
BG
, BH
BK
BL
BM
BN
BP

sa

BR
BS
BT
BU
BV
BW

BX
BY

BZ
CD
CE
CF
CG
CH
CK
CL
CM
CN
CP
CQ
CR

CS
CT
CU
CV
CW
CX
CY
CZ
RD

6.12
6.45
6.75
7.13
7.38
7.79
8.19
8.65
9.00
9.50
9.90
10.5
10.8
11.4
11.7
12.4
13.5
14.3
14.4
15.2
16.2
17.1
18.0
19.0
19.8
20.9
21.6
22.8
24.3
25.7
27.0
28.5
29.7
31.4
32.4
34.2
35.1
37.1
38.7
40.9
42.3
44.7
45.9
48.5
50.4
53.2
55.8
58.9'
61.2
64.6
67.5
71.3
73.8
77.9
81.9
86.5
90.0
95.0
99.0
105
108

7.48
7.14
8.25
7.88
9.02
8.61
10.0
9.55
11.0
10.5
12.1
11.6
13.2
12.6
14.3
13.7
16.3
15.8
'7.6
16.8
19.8
18.9
22.0
21.0
24.2
23.1
26.4
25.2
29.7
28.4
33.0
31.5
36.3
34.7
39.6
37.8
42.9
41.0
47.3
45.2
51.7
49.4
56.1
53.6
61.6
58.8
68.2
65.1
74.8
71.4
82.5
78.8
90.2
86.1
100
95.5
110
105
121
116
132

10
10
10
10
10
10
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

.

5.50
5.8()
6.05
6.40
6.63
7.02
7.37
7.78
8.10
8.55
8.92
9.40
9.72
10.2
10.5
11.1
12.1
12.8
12.9
13.6
14.5
15.3
16.2
17.1
17.8
18.8
19.4
20.5
21.8
23.1
24.3
25.6
26.8
28.2
29.1
30.8
31.6
33.3
34.8
36.8
38.1
40.2
41.3
43.6
45.4
47.8
50.2
53.0
55.1
58.1
60.7
64.1
66.4
70.1
73.7
77.8
81.0
85.5
89.2
94.0
97.2

1000
1000
500
500
200,
200

38
40
36
37
33

SO

30

50
10
10
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

31
28
29
26
27
24
2S
22
23
19
20
18
19
16
17
14
15
13
14
12
13
11
11.2
10
10
9
9
8
8.4
7.4
7.8
6.8
7.1
6.2
5.0
5.7
5.0
5.2
5.5
4.7
5.0
4.3
4.6
3.9
4.1
3.6
3.7
3.2
3.4
2.9
3.1
2.7
2.8
2.4

as

10.8
10.5
11.7
11.3
12.5
12.1
13.8
13.4
15.0
14.5
16.2
15.6
17.3
16.7
19.0
18.2
22.0
21.2
23.5
22.5
26.5
25.5
29.1
27.7
31.9
30.6
34.7
33.2
39.1
37.5
43.5
41.4
47.7
45.7
52.0
49.9
56.4
53.9
61.9
59.3
67.8
64.8
73.5
70.1
80.5
77.0
89.0
85.0
98.0
92.0
108
103
118
113
131
125
144
137
158
152
173

IN~M\-522-

ELECTRICAL CHARACTERISTICS@2S'C

Devlc.

Devlc,

Marldng Code

T.SMAI2OA
T.SMA130
T.SMAI3OA
T.SMAI50
TSMA150A
T.SMA160
T.SMAI6OA
T.SMA170
T.SMAI7OA
T.SMA180
T.SMAI8OA
T.SMA200
TSMA200A

RE
RF
RG
RH
RK
RL
RM
RN
RP
RQ
RR
RS
RT

IIIuImIm
R.vem
Leelultl.

BrNkdown Vo/Iag,
VBR VoI/s(Ho1r I)
Min.
......
114
117
124
135
143
144
152
153
162
162
171
180
190

126
143
137
165
158
176
168
187
179
198
189
220
210

atVRWIf

b/oaAJ
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

102
105
111
121
128
130
136
138
145
146
154
162
171

50
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

2.5
2.2
2.3
2.0
2.0
1.8
1.9
1.7
1.8
1.6
1.7
1.5
1.53

165
187
179
215
207
230
219
244
234
258
246
287
274

NOTES:
1. VBR measured after IT applied for 30CIIS IT = Square Wave Pulse or equivalent.
2. Surge Current Waveform per Figure 3 and Derate per Figure 2.
3. VF = 3.5V at IF = 50A (TSMA6.8 thru TSMA91A)
VF= 5.0V at IF = 50A (TSMA 100 thru TSMA2OCA) on 112 Square or equivalent Sine Wave.
PW = 8.3ms, Duty Cycle = 4 Pulses per minute maximum.
4. For bipolar types having VR of 10 volts and under, the IR limit is doubled.

APPLICATION NOTES:
Transient Voltege Suppressors may be used at various
points in a circuit to provide various degrees of protection.
The following is a typical linear power supply with transient
voltage suppressor units placed at different points. All provide protection of the load.
Transient Voltage Suppressor 1 provides maximum protection. However, the system will probably require replacement
of the line fuse (F) since it provides a dominant portion of
the series impedance when a surge is encountered.
Transient Voltage Suppressor 2 provides excellent protection of circuitry excluding the transformer (T). However,
since the transformer is a large part of the series impedance, the chance of the line fuse opening during the
surge condition is reduced.
Transient Voltage Suppressor 3 provides the load w~h complete protection. It uses a unidirectional Transient Voltage
Suppressor, which is a cost advantage. The series impedance now includes the line fuse, transformer, and bridge
rectifier (8) so failure of the line fuse is further reduced.
If only Transient Voltage Suppressor 3 is in use, then the
bridge rectifier is unprotected and would require a higher
voltage and current rating to prevent failure by transients.

Any combination of these three, or anyone of these applications,
will prevent damage 10 the load. This would require varying tradeoils in power supply protection versus maintenance (time changing
the fuse).
An additional method is to utilize the Transient Voltage Suppressor
units as a controlled avalanche bridge. This reduces the parts
count and incorporates the protection within the bridge rectifier.

FIg.2

--4-+
-v.

Higher wattage davlcas ara available In thal8MI aarias of 600 W and
TSMC •• rias of 1600 W auri1lca mount aupp",aaora.

IN~
-523-

•

• p. R· E· L· I· M. I • N • A • R. V.

S2ATHRU S2M
SURFACE MOUNT RECTIFIER

VOLTAGE-50-1000 Volts

CURRENT-1.5Amperes
FEATURES
•
•
•
•
•

For surface' mounted applications
Low profile package
~
Built-in strain relief
Easy pick and place
Plastic material used carries '
Underwriters. Laboratory Classification 94 V-O
• Glass paSSivated junction
• High temperature soldering:
250°ch 0 secOnds at terminals

5MBIOD-214AA
.077(1.96)

1

1

.13013.30)

:T55Cf.9ii

1

I-~---+I
.180 (4.57)

, .006 (,152)
.012 (.305)

t

MECHANICAL DATA

.086 (2.18)
.096(2.44) ~--~~~----~

~

dlll.!.~IDr+--1
.050Cl.27)

I

Case: Molded plastic
Terminals: Solder plated
Polarity: Indicated by cathode band
Standard PackagIng: 12mm tape

I

h04 (.102)
.008(.203)1,.205(5.211
.220 (5.59)

(EIA STD RS-481)

--------------+.,

1+'

WeIght: 0.003 ounces, 0.093 gram

Dimensions in inches and (millimeters)

"Typical Range'

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Vokage
Maximum RMS vokage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
atTL=100°C
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed on
rated load (JEDEC Method) ,
Maximum Instantaneous Forward Voltage at 1.5A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=125°C
Typical Reverse RecoveryTime (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Maximum Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

SYMBOLS S2A
VRRM 50
VRMS 35
50
Voc

1. Reverse Recovery Test conditions: IF=O.5A, IR=I.0A, Irr=0.25A.
2. Measured at 1.0 MHz and applied Vr=4.0 volts.
3. 5.0mm2 (,013mmthick) land areas.

-524-

UNITS
Volts
Volts
Volts

'IAV)

1.5

Amps

IFSM

50.0

Amps

VF

1.15
1.0
125.0
2.0
30.0
20.0
100.0
-65 to 150

Volts

IR
TRR
CJ
RaJL
RaJA
TJ.TsTG

NOTES:

S28 sm S2G S2J S2K S2M
100 200 400 600 800 1000
70 140 280 420 560 700
100 200 400 600 800 1000

J.IA
J.lS
pf

°CIW
°C

RATING AND CHARACTERISTIC CURVES S2A THRU S2M
FIG 1 • FORWARD CURRENT DERATING CURVE
FIG 2· MAXIMUM NON·REPETITIVE
PEAK FORWARD SURGE CURRENT

!i
W

a:

'"'-'

1.5

~

::;)

50

0'"

~ ~

;::W

1.0

g~

u.<
w

~

SINGLE PHASE
HALF WAVE eo Hz
RESISTIVE OR
INDUCTIVE LOAD

0.5

Cl

~

0
50

eo

eo

70

90

~!;;SS~:E~~~vll
JEDEC METHOD

20

~

r-..

10

j,On LtNID fRr'

W

~

~

40

TL_100'C

"

10

100 110 120 130 140 150

LEAD TEMPERATURE, 'C

100

NUMBER OF CYCLES AT 60 Hz

FIG 3· TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
10

FIG 4 • TYPICAL JUNCTION CHARACTERISTICS

u.c.

/

1.0

W
Ll
z

j5

~

20
10

(3

zt
<

TJ.25·C
~
PULSE WIDTH.3001U1 ~
2% DUTY CYCLE
_

0.1

100
60
40

'f~~::"';C

'-'
.1

.2 .4

1.0 2 4

10 20 40 100

REVERSE V':>LTAGE, VOLTS

.01
.4

.6

.8

1.0

1.2

1.4

1.6

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG 5· TYPICAL REVERSE
CHARACTERISTICS

.,:

z

~

10

'"'-'

r---t T•• 125· C

::;)

w'"
UJ w

"''''
>0-

TA-l00'~!!!!!!

1.0

WW

=

W::!<

"'<
~~
02

0.1

~::!<

j5

z

j5

'"

ll:

.01

T..~
20

..-

40

eo

eo

•

100 120 140

PERCENT OF RATED PEAK
REVERSE VOLTAGE

I~
·525·

• p. R· E. L· I· M· I · N • A· R. V.

RS2A THRU RS2K
FAST SWITCHING SURFACE MOUNT RECTIFIER
VOLTAGE - 50 - 800 Volts CURRENT- 1.5Amperes
FEATURES
• For surface mounted applications

5MBI00-214AA

• Low profile package
.077(1.96)

f

1

• Built-in strain relief
• Easy pick and place

.130 (3.30)

:-i5s13:94i
160 (4.06)_1
1_ ..180
(4.57)
_

--t.----r---i---.,

• Plastic material used carries
Underwriters Laboratory Classification 94 v-o

1

• Glass passivated junction
• Fast switching for high efficiency

,.006 (,152)
.012 (.305)

• High temperature soldering:
250°C/10 seconds at terminals

.086 (2.18) k---~--4IJ

:ii96i2.44i

t

MECHANICAL DATA
case: Molded plastic
Terminals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 12mm tape
(EIA STD RS-4B1)
Weight: 0.003 ounces, 0.093 gram

Dimensions in inches and (millimeters)
"Typical Range

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings al 25°C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.

SYMBOLS RS2A

Maximum Recurrent Peak Reverse Voltage
Maximum RMS VoHage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tl=100°C
Peak forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward VoHage at 1.5A
Maximum DC Reverse Current
TA=25°C
at Rated DC Blocking Voltage
TA=125°C
Maximum Reverse Recovery Time (NOTE 1)
Typical Junction Capacitance (NOTE 2)
Maximum Thermal Resistance (NOTE 3)
Operating and Storage Temperature Range

VRRM
VRMS
VDC

50
35
50

RS2B

RS2D

RS2G RS2J

RS2K

UNITS

100
70
100

200
140
200

400 600
280 420
400 600

800
560
800

VoHs
Volts
Volts

I(AV)

1.5

Amps

IFSM

50.0

Amps

VF

1.30
5.0
200.0

Volts

IR
TRR
CJ
RaJL
RaJA
TJ,TsTG

NOTES:
1. Reverse Recovery Test conditions: IF=0.5A, IR=1.0A, Irr=0.25A.
2. Measured at 1.0 MHz and applied Vr=4.0 volts.
3. 5.0mm 2 (.OI3mm thick) land areas.

-526-

150

IlA
250

50.0
20.0
100.0
-65 to 150

500

nS
pf

°CIW
°C

RATING AND CHARACTERISTIC CURVES RS2A THRU RS2K
FIG 1 - FORWARD CURRENT DERATING CURVE

FIG 2 - MAXIMUM NON-REPETITIVE
PEAK FORWARD SURGE CURRENT

~
LLJ

~

,..:

1.5

Z

:;)
()

LLJ

Ow

§5

50

a:

"

~ ~ 1.0
SINGLE PHASE
HALF WAVE 60 Hz
RESISTIVE OR
INDUCTIVE LOAD

:;:LLJ

a:Q.
0::'

u.<
w
0.5

1' r1

Cl

O

<
a:

~

50

60

()

llia:LLJ

~

70

80

30
20

«
:;:

I
90

U)

~ffi

~~

~

Lt'elRJEj

II

LLJ

40

~

I)
TL_100'C

10

II

a:

o
u..

100 110 120 130 140 150

FIG 3 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

I'10

'"
a.

<
LLJ

LEAD TEMPERATURE, 'C

8.3mS SINGLE HALF
SINE·viAVE J J

~ErCMETHOD

100

NUMBER OF CYCLES AT 60 Hz

FIG 4 - TYPICAL JUNCTION CHARACTERISTICS

L

100

u.

0.

LLJ()

~

50

Z

f'!'

f""...

C3

1E
<
()

/

T.,"j'C

I""

10

_=

T,.2S·C
PULSE W1DTH=300fls2% DUTY CYCLE
-

I

10

50

100

REVERSE VOLTAGE, VOLTS
0.4

0.6

0.8

1.2

1.0

1.4

1.6

1.8

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG 6 - REVERSE RECOVERY TIME CHARACTERISTIC
AND TEST CIRCUIT DIAGRAM

FIG 5- TYPICAL REVERSE CHARACTERISTICS
100

'"'

NONINDUCTIVE

''''

NQNINDUCTIVE

10

NOTES'I.R.eTi~7n.max.lnputi~ce-llTl8QOhfM.22pF.

2. fW. Till'»o10nl max. Soij,celrr1*llll1C»-50 on"...

0.1
20

40

60

80

100

120

10M

tan

140

PERCENT OF RATED PEAK REVERSE VOLTAGE

-527-

GENERAL
INSfRUMENT

•

ES2A THRU ES2D
FAST EFFICIENT SURFACE MOUNT RECTIFIER
VOLTAGE - 50 - 200 Volts CURRENT - 2,0 Amperes

(I)

FEATURES

5MBIOD-214AA

1 •

.077U.96)

1

.130 (3. 30)
.155 (3.94)

1

!---L--t---I---~----!..--

I-~-I
.180 (4.57)

-+ •. 0061.152)
.012 (.305)

--.---,r---i----,
t

.086 (2.18)
.096 (1'44)

• For surface mounted applications
• Low profile package
• Built-in strain relief
Easy pick and place
• Plastic material used carries
Underwriters Laboratory Classification 94 v-o
• Glass passivated junction
• Superfast recovery times for high efficiency
Low power loss, high efficiency
• High temperature soldering:
250'C/10 seconds at terminals

•

I

MECHANICAL DATA

rA-~--~I-~---IIJ

.030 (0. 76)r]+-+1
.050U.27)
I
1+'

rt~OO:~) I

.008!.203)1.205(5.21l

-------+. '.220 (5.59)
I

Dimensions in inches and (millimeters)
'Typical Range

Case: Molded plastic
Terminals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 12mm tape
(EIA STD RS-4B1)
Weight: 0.003 ounces, 0.093 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless othelWise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20"10.

Maximum Recurrent Peak Reverse VoHage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward RectHied Current
atTL=110'C
Peak Forward Surge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 2 .OA
Maximum DC Reverse Current
TA=2S'C
at Rated DC Blocking Voltage
TA=100'C
Maximum Reverse Recovery Time (Note 1)
Maximum Reverse Recovery Time
TA=2S' C
(Note 2)
TA-l00'C
Maximum Stored Charge
TA=2S'C
(Note 2)
TA=100'C
Typical Junction Capacitance (Note 3)
Maximum Thermal Resistance (Note 4)
Operating and Storage Temperature Range

SY/lfBOLS

ES2A

ES28

VRRM
VRMS
Voc

SO
3S
SO

100
70
100

ES2C
lS0
lOS
lS0

ES2D

200
140
200

UNITS
Volts
Volts
Volts

I(AV)

2.0

Amps

IFSM

SO.O

Amps

VF

0.90
S.O
3S0
20.0
30.0
SO.O
8.0
2S.0
2S.0
20.0
-6Sto+1S0

Volts

IR
TRR
TRR
QRR
CJ
R8JL
TJ,TsTG

I1A
Ns
Ns
Nc
pf
'CIW
'C

Notes:

1. Reverse Recovery Test conditions: IF=O.5A, IR=1.0A, Irr=0.25A.
2. TRR and QRR measured on LEM tester: VR=30V, dildt=50 Ali'S IF=2.0A.
3. Measured at 1.0 MHz and applied reverse voltage of 4.0 volts.
4. 5.0mm 2 (.013mm thick) land areas.

IN~
-528-

RATING AND CHARACTERISTIC CURVES ES2A THRU ES2D
FIG 1 - REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM

..,

lon

NONINOUcrtVE

NONINOUCTIVE

FIG 2 -MAXIMUM AVERAGE
FORWARD CURRENT RATING

c

W

0,"

3.0

[;6
Uw
wo::
IX w

. . (I)

.\\

I-I

,.V"
(1fII)f01.j
1-1

r'--'I ~

1.0

1Cll!

RESISTIVe' OR

~§

\. I

'1.0

NOTES: 1. Rise Time" 7ns max Input Impedance:: 1megohmn, 22pF.
2. Rise Time" 10ns max. Source Impedance'" 50 ohms

~

«

1/

j

2.0

~~
~!z'

~

0::

(l)W

~~
.c<

30

IL

10

~

15'"0..

.............

III
r-.....

...

SO

II I

IL

c.

...........

20

50

ui

S.3ms SINGLE HALF SINE-WAVE
JEDEC METHOD

U
Z

40

U

30

~

if

.........

15

"

T....25·C

I-MHz

I

Vsig_50mVp-p

....... !'oo
20

........

10

..... Joo.
10

20

50

100

NUMBER OF CYCLES AT 60 Hz

.1

.5

1

5

10 20

50 100 200

REVERSE VOLTAGE, VOLTS

-529-

500 1000

•

• p. R. E. L· I· M. I • N • A • R· V.

SS22 THRU SS26
SURFACE MOUNT SCHOTTKY BARRIER RECTIFIER
VOLTAGE - 20 - 60 Volts

CURRENT - 2.0 Amperes
FEATURES
•
•
•
•

5MBID0-214AA
.07711.96)

f

1

•
•
•
•
•

.13013.30)
.155 r.94)

I-~-I
.18014.57)
_

--.---1...---+-----,

t
.08612.18)

.096I

For surface mounted applications
Low profile package
Built-In strain relief
~
Metal to silicon rectifier,
majority carrier conduction
Low power loss, high efficiency
High current capability, low VF
High surge capacity
Epitaxial construction
For use in low vollage high frequency inverters,
free wheeling, and polarity protection applications
Guardring for transient protection

•. 0061.152)
.0121.305)

•

I

t«) WA-----~I-~--~
MECHANICAL DATA

.03010. 76)H,I.--j
11;1.102)',
.05011.27)
.0081.203) ,.20515.211
, - - - - - -...,, .22015.59)
...

Case: Molded plastic
Terminals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 12mm tape

Dimensions in inches and (millimeters)

(EIA STD RS-481)

weight: 0.003 ounces 0.093 gram

'Typical Range

. MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Rating~ at 25'C ambient temperature unless otherwise specified.
ResistiVe or inductive load.
F9r capacitive load, derate current by 2O"k.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at TL (See Figure 1)
Peak forward Surge Current
!I.3ms single half sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 2.0A
(NOTE 1)
Maximum DC Reverse Current (NOTE 1) TA=25·C
at Rated DC Blocking Voltage
TA=100·C
Maximum Thermal resistance (NOTE 2)
Operating Temperature Range
Storage Temperature Range

SYMBOLS

SS22

VRRM
VRMS
Voo

20
14
20

SS23
30
21
30

40
28
40

SS25
50
35
50

SS26
60
42
60

IJNfTS

Volts
Volts
Volts

I(AV)

2.0

Amps

IFSM

50.0

Amps

VF

0.50

0.70

Volts

0.5
IR
RaJL
RaJA
TJ
TSTG

NOTES:
1. Pulse Test with PW=300 lISec. 2% Duty Cycle.
2. 5.0mm2 (.013mm thick) land areas.

-530-

10.0
20.0
100.0
-65 to +125
-65 to +150
-65 to +150
20.0

mA
·CfW
·C
·C

MAXIMUM RATINGS AND CHARACTERISTIC CURVES SS22 THRU SS26
FIG.2- TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
50

,..,..

,..:
Z

FIG. 1 - FORWARD DERATING CURVE
0

w

u::

2.0

IIII

;:::Ol

()w
Wcr
a:w
Oil.
cr:::;
««

~!i

Ow
u..a:
wcr
,,:>
«()
cr
w
~

II I
II I

1\

111

1.5

1.0

~~

IIII II
50 60

70

80

/

I

~

II

Ol

~

LEAD TEMPERATURE, 'C

5525.26

,,

Z

~

90 100 110 120 130 140 150

V

/

1.0

Z

"

./

I/"

crcr
Ow
u..c..
Ol:::;
:>«
0
w

,

RESISnVEOR
INDUCTIVE LOAD

~

SS22-24

0

~

~

L

10.0

cr

S525.26

S522-24

0.6

w
cr
cr
:>
()

J /

0.1

.2

.3

.4

.5

.6

1.0

.7

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS
FIG.3 - TYPICAL REVERSE
CHARACTERISTICS

FIG.4 - TYPICAL JUNCTION CAPACITANCE
500
400
300

10

200

-

T.-25·C-

T._lOO· C . /

,..

. . .V

1

. / .........

~

~

J I.~

Z

~

()

.,.

io"""
",

u..0.
W()
~

«
()

'I

I

T.. _75"C

.....
........ ........

100
50
40
30
-SS22~24

20

I

-

I

I

10

0.1

I

-'5525.26

I

:"
~

-' -'
./

11'"/

REVERSE VOLTAGE, VOLTS
FIG 5 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

T..-25"C

-

50

'SS22-24... "'5825,26--

-

40

I

30

.00 1
20

40

60

80

10

1.0

0.4

100

120

"

r....~

20

140

PERCENT OF RATED PEAK
REVERSE VOLTAGE

IIIIIi r

8.3mS SINGLE HALF SINE-WAVE

10

JEr

o
1

2

o
',

4

6 8 10

II

20 40 80 80 100

NUMBER OF CYCLES AT 60 Hz

-531-

40

80 100

..

. p. R· E. L· I· M· I • N • A • R. Y.

SS29 AND SS2B
SURFACE MOUNT SCHOTTKY BARRIER RECTIFIER
VOL TAGE • 90 and 100 Volts CURRENT· 2.0 Amperes
FEATURES

.071(1.96)

1

• For surface mounted applications
5MBIDO-214AA
• Low profile package
~
• Built-in strain relief
....--r-+--"'---'---fr-- • Metal to silicon rectifier,
.13013.30)
majority carrier conduction
:rs5i'f.'94i • Low power loss, high efficiency
High current capability, low VF
!---'--+--J-----l---'--. High surge capacity
• Epitaxial construction
• For use in high frequency inverters, free wheel, .006 1.152)
ing, and polarity protection applications
.012 (,305)
• Guardring for transient protection

1 •

MECHANICAL DATA

t"

'

.004 (.102) 'I
.008 (,203) .205 (5.211
+ - - - - - - - · · ' . 2 2 0 (5.59)

Dimensions in inches and (millimeters)
"Typical Range

case: Molded plastic
Tennlnals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 12mm tape
(EIA STD RS-481)

Weight: 0.003 ounces 0.093 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified. Resistive or inductive load.
For capacitive load, derate current by 20%

SS2B

SYMBOLS

Maximum Recurrent Peak Reverse Voltage
Working Peak Reverse Voltage
DC Blocking Voltage
Maximum Average Forward RectHied Current
at Tt (SEE FIG.1)
Peak Forward Surge Current
8.3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current
(2.0I-ls, 1KHz)
Voltage Rate of Change,dv/dt (rated VR)
Maximum Forward Voltage (NOTE 1)
IF = 2A, Tt = 25·C
IF=2A,Tt=100· C
Maximum Reverse Current at
Peak Reverse Voltage Tt=100'C (NOTE 1)
Peak Reverse Voltage Tt-25·C
Maximum Thermal Resistance,
Junction to Lead (NOTE 2)
Maximum Operating Junction Temperature
Maximum Storage Temperature

VRRM
VRWM
Voc

NOTES:
1. Pulse test pulse width 300J!S, Duty Cycle 2%.
2. 5.0mm2 (.013mm thick) land areas.

-532-

100
71
100

90
64
90

Volts
Volts
Volts

I(AV)

2.0

Amps

IFsM

50.0

Amps

IRSM
V/IJS

1.0
1000

Amps
V/IJS

VF

0.79
0.69

Volts

IR

10.0
0.1

mA

R8JL
TJ
TSTG

20.0
-65 to +150
·65 to +175

·CIW
·C
·C

RATING AND CHARACTERISTIC CURVES SS29 AND SS2B
FIG 2 • TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

FIG 1 ·FORWARD CURRENT DERATING CURVE
5.0

~
~

i; i'_l1~ 'C'

0:

2.0

0
0'"
o:w

1.5

:::l

~ffi

5!i
u.<

r\
-f-

0.5

w

~

o

~

RESISTIVE OR INDUCTIVE LOAD
S.Omm' LAND AREAS

85

100

110

./

V

1.0

:::l
0

"I\.1\

1.0

w

~
0:

~

W

0:
0:

120

0

0:

i~

I

u.11.
:::l< .10
0

1\
130

I

Ow

",:::>

140

150

w

Z

~
~

160

LEAD TEMPERATURE, .c;

TJ-2S' C
PULSE viIDTH-300~S
DUTY CYCL~

I
.01

FIG 3 • TYPICAL REVERSE
CHARACTERISTICS

i

I

~

.1

.2

.3

.5

.4

1

.6

.7

.8

r--

.9

1.0

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

10

FIG 4 • TYPICAL JUNCTION CAPACITANCE
1000
BOO
600

~

400

./

T."..125'C

U.

q,

200

"

w

,

0

~

100
60
60

if

40

Z

T....75·C

~

1

0

<3

Il.,...oo'

""

....

20

TJ..2S'C

10
0.1

)

0.4

4

1.0

10

80 100

40

REVERSE VOLTAGE, VOLTS
FIG 5· MAXIMUM NON·REPETITIVE
PEAK FORWARD SURGE CURRENT
50

~

w

(!lCJl

.00 1 I....... " "
o 20 40

o:w

40

::>0:

60

80

100

120 140

PERCENT OF RATED PEAK
REVERSE VOLTAGE

CJlW

30

;:~

20

",0:

10

~!i
«<

~~
~a

~

I" ....

II

II I

!:;'::8~~GLE H.J..F JINUA~J I
JEDEC METHOD

.......

I""'- i'ooo ......

11.

10

20

100

NUMBER OF CYCLES AT 60 Hz

-533-

I~

. p. R· E. L· I· M· I • N • A • R. Y·

TSMB SERIES
SURFACE MOUNT TRANSIENT VOLTAGE SUPPRESSOR
. VOL TAGE - 6.8 - 200 Volts
FEATURES
• For surface mounted applications

5MBIDO-214AA

• Low profile package
• Built-in strain relief

...

• Glass passivated jUnction,~

.077(1.96)

f

I

• Excellent clamping capability

.130 (3. 30)
.155 r.94)

• Fast response time: typically less than 1.0ps
from 0 volts to BV min.
• TypicallR less than 1IJA above 10V

/_.160(4.06) _____ /
.180 (4.57)
I

t

• High temperature soldering:
250'C/10 seconds at terminals

.006 (.152)
.012 (.305)

• Plastic material used carrries Underwriters
Laboratory Flammability Classification 94V-O

.086 (2.18)

~ ~----~----~~.

l
.030(0. 76)r-+---/
.050(1.27)
1+'- - - - - - -

I

+'~;;:;;.:

MECHANICAL DATA
• TYPICAL RANGE

case: Molded plastiC

Dimensions in inches
and
(millimeters)

Terminals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 12mm tape
(EIA STD RS-481)

Welg": 0.003 ounces, 0.093 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.

NOTES:

1. Non-repetitive current pulse, per Fig.3 and derated above TA=25°C per Fig. 2.
2. Mounted on 5.0mm 2 (,OI3mm thick) land areas.
3. 8.3ms single half sine-wave duty cycle=4 pulses per minute maximum.

-534-

UNrrB

Ppk

VALUE
Minimum 600

Watts

IFsM

100.0

Amps

TJ,TSTG

-65 to +175

°C

SYMBOLS

Peak Power Dissipation at TA=25'C, Tp=lms (NOTES 1,2)
Peak forward Su rge Current
8.3ms single half sine-wave superimposed on
rated load (JEDEC Method) (NOTES 2,3)
Operating and Storage Temperature Range

MAXIMUM RATINGS AND CHARACTERISTIC CURVES TSMB SERIES

FIG 2 - PULSE DERATING CURVE

FIG.1 - PULSE RATING CURVE
100

100

~~

u..

Of-

[
0::

w

:;:

~ffi

"' "\

(!l0::

Z::J
_u

t:io::
wo::
Ow
w:;:

0

0.

50

0::0

'"c(
W
0.

r\..

75

~o::

10

1.0

"'0
..10.

3
en

FIG 3 - MAXIMUM NON.REPETITIVE
SURGE CURRENT

W

./

10

~31

8.0m~2LAND AREJ

o

W

20

a: a:
OW
LLD.
W::;
::;)<

-£3

~
~

W

,

40

I
.8

1.0

1.2

a:~

~ti

~Ii!
LLa:

"'::;)

U'jU

75
50

1.8

2.0

FIG 4 • TYPICAL REVERSE
CHARACTERISTICS

"""'"

~

100

i""'"

-

I"-r-

25

D.

10

'"
Ii!

r-.Iooo

g:

..,.",

::;

50

20

~
::;

100

10

ti

Ii!
a:

,.

::;)

u

FIG 5· REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM
100
NONIllOUCTIVE

~

~

~TRR+I

-

a:

"Y"
(1fIpfW:.)
)-)

0. . . . . .

§
z

..,.".

~

TA-75 'C

1.0

en

1-)

T,...125'C

15

NUMBER OF CYCLES AT 60 Hz

....
NC)NHOUCTIVE

1.6

INSTANTANEOUS FORWARD VOLTAGE,
VOLTS

1_

100

OD.

1.4

T,...25 'C

0.1

>3
Z
>3
en

~.2S

;;:;
".0

NOTES: 1. R'56 Time" 7ns max. Input Impedance " lmegohmn, 22pF

10ns

2. Rise Time" 10ns max. Source Impedance" 50 ohms

lcm

.01
20

40

60

80

100

120

PERCENT OF RATED PEAK
REVERSE VOLTAGE

·541·

ES3A THRU ES3D
SURFACE MOUNT ULTRAFAST RECTIFIER
VOLTAGE - 50 - 200 Volts CURRENT - 3.0 Amperes
FEATURES
SMCIOD-214AB
.11512.921

f

1

.22015.591

:2m6.ill

I-~-I
.28017.111

1

- ....--lr----t----+..., • :~~~~:!~~~

t

For surface mounted aPPlication~s
Low profile package
Built-in strain relief
Easy pick and place
Superfast recovery times for high efficiency
Plastic material used carries
Underwriters Laboratory Classification 94 v-o
• Glass passivated junction
• High temperature soldering:
250°CI1 0 seconds at terminals
•
•
•
•
•
•

.07912.001
~ Ar---~---~

MECHANICAL DATA

l

004 1.1021',
761r+i11~
t:.0081.2031
.30517.751
...-----------+., .. 32018.131

.03010.
.06011.521

Dimensions in inches and (millimeters)

"Typical Range

case: Molded plastic
Tennlnals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 16mm tape
(EIA STD RS-481)

WeIght: 0.007 ounces, 0.21 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load. For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS Voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectffied Current
at Tt=120'C
Peak Forward Surge Current
8.3ms single haH sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 3.0A
Maximum DC Reverse Current
TA=25'C
at Rated DC Blocking Voltage
TA=100'C
Maximum Reverse Recovery Time (NOTE 1)
Maximum Reverse Recovery Time TA=25'C
(NOTE 2)
TA-100'C
Maximum Stored Charge
TA=25' C
(NOTE 2)
TA=100 'c
Typical Junction Capacitance (NOTE 3)
Typical Thermal Resistance (NOTE 4)
Operating and Storage Temperature Range

SYMBOLS

ES3A

ES3B

ES3C

ES3D

UNITS

VRRM
VRMS
Voc

50
35
50

100
70
100

150
105
150

200
140
200

Volts
Volts
Volts

I(AV)

3.0

Amps

IFSM

100

Amps

VF

0.90
5.0
500
20.0
30.0
50.0
10.0
30.0
45.0
10.0
-65 to +150

Volts

IR
TRR
TRR
ORR
CJ
R9JL
TJ,TsTG

NOTES: 1. Reverse Recovery Test Ccnditlons: IF=O.5A,IR=1.0A,lrr=O.25A.
2. TRR and ORR measured on LEM tester: VR=30V, di/dt=50 A/JlS IF=3.0A.

3. Measured at 1.0 MHz and applied reverse voltage of 4.0 volts.
4. 8.Omm2 (.013mm thick) land areas.
-542-

J.lA
Ns
Ns
Nc
pf
'CIW
'C

RATING AND CHARACTERISTIC CURVES ES3A THRU ES3D
FIG 1 • REVERSE RECOVERY TIME CHARACTERISTIC AND TEST DIAGRAM
sen

len

NONINOUCTIVE

NONfliOUCTIVE

FIG 2 ·MAXlIlUM AVERAGE
FORWARD CURRENT RATING
3.0

\

2.5
2.0

I-I

,

\

25Voc
(~x·1

I·J

1.0

~ve
OR 0I1lUCl1VE I.DAD'
.r::::::::::i

0.6

a.a..,;.LANiAU

o

NOTES: 1. Rise Time" 7ns max. Input Impedance = 1megohmn. 22pF.
2. Rise Time" IOns max. Source Impedance" 50 ohms.

\

,

80 lID 100 110 120 130 140 150

ION Ian

LEAD TEMPERATURE: C
FIG 3 • TYPICAL REVERSE CHARACTERISTICS

FIG 4· TYPICAL FORWARD CHARACTERISTICS

1000

100.0
Ul

w

I

100

Cl

~

T.... loo·C

W
CL
<

-"

:::;

;2Ul

!i
w

L1i~

"'w
WCL

~~
Wa:

.,.;

T...75 '0

10

~

0
C

a:

a:Q

Ul:::;

6!i
Ww

I

1.0

a:
0

u.

.cO
l!:

~

I

1.0

Za:

~§
Iii

/

10.0

a:
a:

0.1

Ul

,

~

T"..25'C

.01
20

40

eo

80

I

100

53Z

I

I

I

120

140

T....25·C
~
PULSE WIDTH-300ps
2% DUTY CYCLE

0.1

~
~

l!:

I

.01

0.4 0.8

PERCENT OF RATED PEAK REVERSE
VOLTAGE.VOLTS
FIG 5 • MAXIMUM NON·REPETITIVE
PEAK FORWARD SURGE CURRENT

!i
W

~!.l:la·C

a:
a:

125

0

100

W
a:w

.,w
~a:

75

.c<

~~

50

0

25

~

,.
L!.

L1i
CL

I

lID

I III

'l\,
t'j

........... .....

Z

~

0

...... r--

.......... ......
10

if
C'3

-~

20

50

--

1.2

1.4

1.8

~~~I!C

~~

--46 -30 -15 --.1

1.0

1.8

I I

--~~~~~~M~
Vsig.5QmVp-p

75

Urns SINGLE HALF SINE·WAVE
JEDEC METHOD

~

(!lUl

I

105

0.8

INSTANTANEOUS FORWARD
VOLTAGE,VOLTS
FIG 6 • TYPICAL JUNCTION CAPACITANCE

100

8Q

.....

.5

1

5

10

20

50 100 2DO

5QQ 1000

REVERSE VOLTAGE, VOLTS

NUMBER OF CYCLES AT 60 Hz

-543·

I~

SS32 THRU SS36
SURFACE MOUNT SCHOTTKY BARRIER RECTIFIER
VOLTAGE - 20 to 60 Volts

CURRENT - 3.0 Amperes
FEATURES
•
•
•
•
•

SMCIDD-214AB

.11512.921

1

f

I
I

.22015.591
~

I
I

I

•
•
•

1

I

I

1_.26016.601 _ _1
.28017.1lI
-+ ,.0061.1521
-~t.---r----+---'
.0121.3051
.07912.001
.1031621

For surface mounted applications
Low profile package
BuiH-in strain relief
~
Easy pick and place
Metal to silicon rectifier,
majority carrier conduction
Low power loss, high effiCiency
High current capability, low VF
For use in low voHage, high frequency inverters,
free wheeling, and polarity protection appliCations
High temperature soldering:
260°CI1 0 seconds at terminal

•

rrA-----:----IIJ
J,

MECHANICAL DATA

I

Case: Molded plastic
Terminals: Solder plated
Polarity: Indicated by cathode band
Standard Packaging: 16mm tape

.03010.76IH,i--4
1"1:004 !.l021
.06011.521
.0081.2031 1..30517.751
, - - - - - -...,, .32018.131
,...

(EIA STD RS-481)

Dimensions in inches and (millimeters)

Weight: 0.007 ounces 0.21 gram

"Typical Range

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
Resistive or inductive load.
For capacitive load. derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Maximum RMS voltage
Maximum DC Blocking Voltage
Maximum Average Forward Rectified Current
at Tl (SEE FIGURE 1)
Peak forward Surge Current
8.3ms single haH sine-wave superimposed on
rated load (JEDEC Method)
Maximum Instantaneous Forward Voltage at 3.0A
(NOTE 1)
Maximum DC Reverse Current (NOTE 1) TA-25°C
at Rated DC Blocking Voltage
TA=100°C
Maximum Thermal Resistance (NOTE 2)
Operating and Storage Temperature Range

SYMBOLS

SS32

SS33

SS34

SS3S

SS3B

UNITS

VRRM
VRMS
Vee

20
14
20

30
21
30

40
28
40

50
35
50

60
42
60

Volts
Volts
Volts

I(AV)

3.0

Amps

IFSM

100

Amps

VF
IR
RaJL
RaJA
TJ.TSTG

NOTES:

1. Pulse Test Pulse Width 300 lIS. Duly Cycle 2%.
2. 8.0mm2 (.013mm thick) land areas.

-544-

0.50

0.75
0.5
20.0
10.0
60.0
-65 to +125

Volts
mA

'cm
'C

RATING AND CHARACTERISTIC CURVES SS32 THRU SS36
FIG 2 • TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS
FIG 1 • FORWARD CURRENT DERATING CURVE

-'"

40

,.:

iw

3.0

fI!

a

CUI

=l!!

f(:i

1

~
~

I;

i- RES~; OR INDUC~E LOA~

~+-

H-

G

~

00

ro

~:i

~
~

,

j!

~

00

~

m

~

~

~

~

J

0.1
.2

~

-

,

.... ..-

w

~

~

40

00

00

100

.9

1.0

~~

100
00
00
40

r-

ts.st-f--f--

20

.B

T, ,26 C

20

SS32-SS34 -

.00 1

.7

200

--, --

10
0.1

'~r"i'C
~ ~.I~

.6

400

<
0

.~

~~"'75'C

.5

'5.

~

~

.4

FIG 4· TYPICAL JUNCTION CAPAcrrANCE

1000
BOO
BOO

10

~"

.3.

INSTANTANEOUS FORWARD VOlTAGE.
VOlTS

FIG 3 • TYPICAL REVERSE CHARACTERISTICS

T,..1oo "C

T...JsC
PULSE WIDTHoo3OO~s 1% DUTY CYCLE

rI

i!!:

LEAD TEMPERATURE. 'C

1

V SS36.SS36

1.0

UI

I

B.Omm' LAND AREAS

o

,

o~

1\

1\

,,-

~32-SS~

10

~

SS36.SS36

I'

1\

1

1.0

~

a=

I I I

SSS2-SS34

2.0

I~

w

,

1\

120 140

PERCENT OF RATED PEAK REVERSE VOlTAGE

W
ClUI

100

!5ffi

00

~:i

Ii
f(l!!

00

wO
0..

20

Ulo..

,,=
<::l

,

i11f
1.0

OA

10

40 00100

REVERSE VOlTAGE VOLTS
FIG 5 • MAXIMUM NON·REPETITIVE PEAK
FORWARD SURGE CURRENT

~~IRATED TLI

......

I I IIII

B.3ms SINGLE HALF SINE·WAVE
JEDEC METHOD

i'

........

40

5

10

r- ~~
20

~

100

NUMBER OF CYCLES AT eo Hz

·545·

I~

• P·R·E·L·I· M · I · N ·A·R. V.

5539 AND SS38
SURFACE MOUNT SCHOTTKY BARRIER RECTIFIER
CURRENT - 3.0 Amperes

VOL TAGE - 90 and 100 Volts

FEATURES
SMCIDO-214AB
.115(2.92)

1

f

.220(5.591
.24Sf·221

1_.

1

260 (6.601 _ _
.280(7.1ll
___ •. 0061.1521

--t"'--- r - - - - i - - - - - .

.012 1.3051

.079(2.00)

:103lT.62l
~

•
•
•
•
•
•
•
•
•
•

For surface mounted applications
Low profile package
Built-in strain relief
Metal to silicon rectifier,
majority carrier conduction
Low power loss, high efficiency
High current capability, low VF
High surge capacity
Epitaxial construction
For use in high frequency inverters, free
wheeling, and polarity protection applications
Guardring for transient protection

MECHANICAL DATA

II

t.'004 1.102)
.008£.2031 .30517.751
·".320(8.131

< - - - - - - -....

Dimensions in inches and (millimeters)

'Typical Range

case: Molded plastic
Terminals: Solder plated
Polarity: Indicated by cathode band
Standard PackagIng: 16mm tape
(EIA

sm RS-4B1)

Weight: 0.007 ounces 0.21 gram

MAXIMUM RATINGS AND ELECTRICAL CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified. Resistive or inductive load,
For capacitive load, derate current by 20%.

Maximum Recurrent Peak Reverse Voltage
Working Peak Reverse Vottage
DC Blocking Voltage
Maximum Average Forward Rectified Current
at TL=125°C (SEE FIG,1)
Peak Forward Surge Current
8,3ms single half sine-wave superimposed
on rated load (JEDEC Method)
Peak Repetitive Reverse Surge Current
(2.0ms, 1KHZ)
Voltage Rate of Change,dv/dt(rated VR)
Maximum Forward Voltage (NOTE 1)
IF = 3A, TL = 25'C
IF=3A,Tl=100°C
Maximum Reverse Current at
Peak Reverse Voltage TL=100°C (NOTE 1)
Peak Reverse Voltage Tl=25°C
Maximum Thermal Resistance,
Junction to Lead (NOTE 2)
Maximum Operating Junction Temperature
Maximum Storage Temperature
NOTES:

1. Pulse test pulse width 300l1s, Duty Cycle 2%.
2, 8,Omm 2 (.013mm thick) land areas,

-546-

SYMBOLS

8839

SSSB

UNITS

VRRM
VRWM
Voc

90
64
90

100
71
100

Volts
Volts
Volts

I(AV)

3.0

Amps

IFSM

100

Amps

IRsM
V/jls

1.0
1000

Amps
V/jls

VF

0.79
0.69

Volts

IR

20.0
0.6

mA

R8JL
TJ
TSTG

10.0
-65 to +150
-65 to +175

°CIW
°C
°C

RATING AND CHARACTERISTIC CURVES SS39 AND SS3B
FIG 3 - MAXIMUM NON-REPETITIVE PEAK
FORWARD SURGE CURRENT

~

120

~!.\25.C I I I II

W

a:

FIG 1 • FORWARD CURRENT DERATING CURVE

~~
a:::;

OC(

~a

1.0

f- r-

\

q

8.0rm~ LA~D A,RE'f
100

,

110

,

130

5

140

c:

W
0.

::;
C(

!z
a:
a:
::l

.,.

0
0

c:

~

c:

" . Te_125·C

0
"-

en

::l
0
w

z

i5z
i5
en

/

~

Te_75·C

·1

~I-

10

20

100

50

FIG 4 - TYPICAL INSTANTANEOUS
FORWARD CHARACTERISTICS

en
w

150

w

.L

-

NUMBER OF CYCLES AT 60 Hz

10

o. 1

............

40

0.

FIG 2 - TYPICAL REVERSE
CHARACTERISTICS

,;"

JEDEC METHOD

r-... ...

'"U)

LEAD TEMPERATURE: C

1.0

................

20

\

I

120

8.3ms SINGLE HALF SINE-WAVE

80

~

,

RESISTIVE OR INDUCTIVE LOAD

85

80

a:w
::la:
en w
00.
a:::;
..:C(
5:

\

2.0

:;;~


_u

""

I\.

lOxl000 WAVEFORM
AS iEFINjD BY j.E.A.

o

"-

o

I.~?:?::,~~D.'R.
111111
11111

0.1

1.0j.lS

0.1)10$

25

1111111

50

75

100

100JlS

1.0ms

"

150

175

T., AMBIENT TEMPERATURE eC)

·111111

10)18

125

"-

FIG 4 - TYPICAL JUNCTION CAPACITANCE

10.".
20,000

tp,PULSE WIDTH

10,000
FIG 3 - PULSE WAVEFORM
6000

j

2

..,....
Z
W
0::
0::
:>

I

r"
100

u

w

00

...J

:>

"-

50

•

"'jl0",ec

T".2S·C
PULSE WIDTH (tp) IS DEFINED

~ PEAK VALUE
I- IRSU,
!

""

'"'"w
"-

'Ii.

1.0

SOC

Z

~
0

400

'"

200

~

U

........
4.0

3.0

MEASURED@
STAN!J.OFF
VOLTAGE (V..

100
80
60

T
2.0

1000

U

lOxl000 WAVEFORM
AS DEFINED BY R.E.A.

O=TP-+

o

ui

MEASURED@
ZEROSIAS

\

,.

!

.....

....
I\,

2000

HALF VALUE- I....
1-'
~ r-12
.... ;;;:;--I

.....

o

4000

~~~~~g~6A~~~E~~~~~

T,TIME (ms)

40
30

10
1.0

20
100
10
REVERSE VOLTAGE, VOLTS (V.A)

-

FIG 5 - MAXIMUM NON-REPETITIVE
SURGE CURRENT

200

W
"00
O::W
:>0::
IJlW
0"0::::;

~<.

100

r-- r--""

50

o::!z

OW
u.o::

",0::
",:>

wu

"-

10

8.3ms SINGLE HALF SINE-WAVE
JED~q METHOD
5

10

50

NUMBER OF CYCLES AT 60Hz

-549-

100

200

200

ELECTRICAL CHARACTERISTICS@2S'C

TSMC6.8
TSMC6.BA
TSMC7.5
TSMC7.SA
TSMCB.2
TSMCB.2A
TSMC9.1
TSMC9.1A
TSMC10
TSMC10A
TSMC11
TSMC11A
TSMC12
TSMC12A
TSMC13
TSMC13A
TSMC15
TSMC1SA
TSMC16
TSMC16A
TSMC18
TSMC1BA
TSMC20
TSMC20A
TSMC22
TSMC22A
TSMC24
TSMC24A
TSMC27
TSMC27A
TSMC30
TSMCSOA
TSMC33
TSMC33A
TSMC36
TSMC38A
TSMC39
TSMC39A
TSMC43
TSMC43A
TSMC47
TSMC47A
TSMC51
TSMC51A
TSMC56
TSMC56A
TSMC62
TSMC62A
TSMC68
TSMC68A
TSMC75
TSMC7SA
TSMCB2
TSMCB2A
TSMC91
TSMC91A
TSMC100
TSMC100A
TSMC110
TSMC110A
TSMC120
TSMC120A

DO
DE
OF
OG
OH
OK
OL
OM
ON
OP
DQ

DR
OS

OT
OU
OV
OW
OX
OY
OZ
ED
EE
EF
EG
EH
EK
EL
EM
EN
EP
EQ
ER

ES
ET
EU
EV
EW
EX

EY
EZ

FO
FE
FF
FG
FH
FK
FL
FM
FN

FP

Fa

FR

FS
FT

FU
FV
FW
FX
FY
FZ

GO
GE

6.12
6.45
6.75
7.13
7.38
7.79
8.19
8.65
9.00
9.50
9.90
10.5
10.8
11.4
11.7

12.4
13.5
14.3
14.4
15.2
16.2
17.1
18.0
19.0
19.8
20.9
21.6
22.8
24.3
25.7
27.0
28.5
29.7
31.4
32.4
34.2
36.1
37.1
38.7
40.9
42.3
44.7
45.9
48.5
50.4
53.2
SS.8
59.9
61.2
64.6
67.5
71.3
73.8
77.9
81.9
86.5
90.0
95.0
99.0
106
108
114

7.48
7.14
8.25
7.88
9.02
8.0
10.0
9.SS
11.0
10.5
12.1
11.6
13.2
12.6
14.3
13.7
16.5
15.8
17.6
16.8
19.8
18.9
22.0
21.0
24.2
23.1
26.4
25.2
29.7
28.4
33.0
31.5
36.3
34.7
39.6
37.8
42.9
41.0
47.3
45.2
51.7
49.4
56.1
53.6
61.8
68.8
68.2
65.1
74.8
71.4
82.5
78.8
90.2
86.1
100.0
95.5
110
10S
121
116
132
126

10
10
10
10
10
10
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

5.50
5.80
6.OS
6.40
6.83
7.02
7.37
7.79
8.10
8.SS
8.92
9.40
9.72
10.2
10.5
11.1
12.1
12.8
12.9
13.6
14.5
15.3
16.2
17.1
17.8
18.8
19.4
20.5
21.8
23.1
24.3
25.6
26.8
28.2
29.1
30.8
31.6
33.3
34.8
36.8
36.1
40.2
41.3
43.6
45.4
47.8
50.2
53.0
SS.1
59.1
60.7
64.1
66.4
70.1
73.7
77.8
81.0
85.5
89.2
94.0
97.2
102

1000
1000
500
500
200
200
SO
50
10
10
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0.
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

138
143
128
132
120
124
109
112
100
103
93.0
96.0
87.0
90.0
79.0
82.0
68.0
71.0
64.0
67.0
56.5
59.5
51.5
54.0
47.0
49.0
43.0
45.0
38.5
40.0
34.5
36.0
31.5
33.0
29.0
30.0
26.5
28.0
24.0
25.3
22.2
23.2
20.4
21.4
18.6
19.5
16.9
17.7
15.3
16.3
13.9
14.6
12.7
13.3
11.4
12.0
10.4
11.0
9.5
9.9
8.7
9.1

10.8
10.5
11.7
11.3
12.5
12.1
13.8
13.4
15.0
14.5
16.2
15.6
17.3
16.7
19.0
18.2
22.0
21.2
23.5
22.5
26.5
26.2
29.1
27.7
31.9
30.6
34.7
33.2
39.1
37.5
43.5
41.4
47.7
45.7
52.0
49.9
56.4
53.9
61.9
59.3
67.8
64.8
73.5
70.1
80.5
77.0
89.0
85.0
98.0
92.0
109
104
118
113
131
125
144
137
168
162
173
165

I~
-550-

ELECTRICAL CHARACTERISTICS@2S·C
BlHkdown Voltage

V'R VoIIlr(MIm I)

".""'"
TSMCI30
TSMCI30A
TSMCI50
TSMCI50A
TSMCI60
TSMCI60A
TSMCI70
TSMCI70A
TSMCI80
TSMCI80A
TSMC200
TSMC200A

GF
GG
GH
GK
GL
GM

GN
GP
GO
GR
GS
GT

AIIn.

AIu.

117
124
136
143
144
152
153
162
162
171

143
137
165
158
176
168
167
179.
198
189

180

220
210

190

1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

106

111
121
128
130

136
138
145
146
154
162
171

5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

8.0

8.4
7.0
7.2
6.5
6.8
6.2
6.4
5.8
6.1
5.2
5.5

5.0
5.0
5.0

187
179
215
207
230

219
244
234
258
246
287
274

NOTES:
1. VSR measured aller IT applied lor 300 us.lT = Square Wave Pulse or equivalent.
2. Surge current Waverform per Figure 3 and Derale per Figure 2.
3. VF - 3.5V max, IF=100A (TSMC6.8 thru TSMC91A)
VF=5.0 V max., IF=100A (TSMC100 thru TSMC400A) per 112 Square or equivalent Sine Wave.
PW - 8.3mx, Duty Cycle - 4 Pulses per minute maximum.

APPLICATION NOTES:
Transient Voltage Suppressors may be used at various
points in a circuit to provide various degrees 01 prolection.
The lollowlng is a typical linear power supply with transient
voltage suppressor units placed at different points. All provide protection 01 the load.
Transient Voltage Suppressor 1 provides maximum protection. However, the system will probably require replacement
01 the line fuse (F) since it provides a dominant portion of
the series impedance when a surge is enoountered.
Transient Voltage Suppressor 2 provides excellent protection 01 circuilly excluding the transformer (T). However,
since the transformer Is a large pert 01 the series Impedance, the chance 01 the line fuse opening during the
surge condition is reduced.
Transient Voltage Suppressor 3 provides the load with oomplele prolection. It uses a unidirectionall'rans18nt Voltage
Suppressor, which is a cost advantage. The series impedance now inciudes the line fuse, transformer, and bridge
rectifier (8) so failure 01 the line luse is lurther reduced.
II only Transient Voltage Suppressor 3 is in use, then the
bridge rectilier is unprolect9d and would require a higher
voltage and current rating to prevent failure by transients.

~1&JrtR}~

Flg.l

,

Any oombination of these three, or anyone 01 these applications,
will prevent damage to the load. This would require YalYlng tradeoils in power supply proleotion versus maintenance (time changing
the fuse).
An additional method is to utilize the Transient Voltage Suppressor
units as a oontrolled avalanche bridge. This reduces the perts
count and inoorporales the pro\eotion within the bridge rectifier.
c

FIg.2

~
[II

+

AC

low8r waHage davlca8 ara available In the TSMA eari.. of 400 Wand
TSMS ..~.. of 600 W surface mount auppl'llllllllnl.

I~
-551-

-552-

TRANSIENT VOLTAGE
SUPPRESSORS
General Instrument Transient Voltage Suppressors are the state-ofthe-art in semiconductor surge
protection for modern electronic
equipment.

ment. The clamping voltage is
close to the operating voltage
enabling a high degree of
protection while assuring the
devices are off until their operation is required.

Because TVS devices are semiconductors, there is no inherent
wear out mechanism. When General Instrument TVS units are
overstressed, they short circuit at available in four power ranges:
the changing voltage and 400,600,1500, and 5,000 watts
protect the associated equip- with a wide variety of voltages.

INsr
o

I'\A_25OC

TJ' !S"C
Pulse Width (tp) is defined

I - - as that point where the peak

#Z

PULSE WAVEFORM

I

J

TYPICAL JUNCTION CAPACITANCE

10000

.........

..- tp .....

10 x 1000 WaveformjS defij' by ~.E.A._

~

I

1.0

V

2.0

100

['Measured ~i
A I'I'

Zero Bias -

1\

Measu(ed @

Stand-Off

I

Voltage (VA)

~
3.0

4.0

T. Time (ms)
FIGURE 5 -

I I
~
.£ ..2S·(6.33nm)

a:
UJ_

0.75

w:1;:

1--

~Z
"'0

>

,

~~I \
(1r" 'r"
I\,
40mm x 40mm x lmm. Cu

~ 050

0«

~~

I-Ul
Ul!!?

x

s;n9,l

o

25

20

100

200

100

125

50

o

40

-

UJ

t'l Ul 30
a:UJ
::>a:

UlUJ

~
75

UJ

a:
a:
::>

\.
\.

l

50

10

FIGURE 6 • MAXIMUM NON·REPETITIVE
FORWARD SURGE CURRENT

r:

z

x .040")

Phase
Half Wave
60Hz
Resistive or
Inductive Load

0°025
Q.

o

10

BREAKDOWN VOLTAGE. VOLTS (VBR)

\

:1;:Ul

01n.. ~

STEADY STATE POWER DERATING

10

100

150

175

~~
««

20

a:

10

:1;:

i"o..

2

200

~

TL.LEAD TEMPERATURE ("e)

«w
Q.

·555·

r-....

"'"

8.3ms Single Hall Sin8-Ytave

(JEDEC Method)

o1

2

4

6

8

10

20

40

60 80 100

NUMBER OF CYCLES AT 60 Hz

IN~MIr

ELECTRICAL CHARACTERISTICS (7~ = 2S·C unless otherwise noted)
Breakdown Vollago

VIR

@IT

Volts,..,."

(..A)

Worldng
Peek
III.....
Vollgo

Maximum
R......

T..l&D'C
Maximum
FIIvo...

lIIkago

lI.kogo

Maximum
III.....
Curr.nt

Ioau

1II.lmum
Maximum
T.mperature
"""'rll
Vol1lgolll. Caofflclont
(Clamping
01
Voltage)
Va.

V.....

IIV.....

II V_

(Volts)

IRIl1A)

lo(pA)

(Amp,)

v_(Vonl)

(%I'C)

10.0

5.50

300

1000

39.8

10.8

0.057

7.14

10.0

5.80

300

1000

41.0

10.5

0.057

S.75

8.25

10.0

S.05

150

500

3S.8

11.7

O.OSO

TMPG06-7.5A

7.13

7.88

10.0

S.4O

150

500

38.1

11.3

0.OS1

TMPGOS-8.2

7.38

9.02

10.0

S.63

50.0

200

34.4

12.5

0.065

TMPG06-8.2A

7.79

8.S1

10.0

7.02

50.0

200

35.5

12.1

0.065

TMPGOS-9.1

8.19

10.0

1.0

7.37

10.0

50.0

32.2

13.8

0.068

TMPGOS-9.1A

8.65

9.55

1.0

7.78

1.0

50.0

32.1

13.4

0.OS8

TMPGOS-10

9.00

11.0

1.0

8.10

1.0

10.0

28.7

15.0

0.073

TMPGOS-10A

9.50

10.5

1.0

8.55

1.0

5.0

29.7

14.5

0.073

TMPGOS-11

9.90

12.1

1.0

8.92

1.0

5.0

2S.5

1S.2

0.075

TMPGOS-11A

10.5

11.S

1.0

9.40

1.0

5.0

27.S

15.S

0.075

TMPGOS-12

10.8

13.2

1.0

9.72

1.0

5.0

24.9

17.3

0.07S

TMPGOS-12A

11.4

12.S

1.0

10.2

1.0

5.0

25.8

1S.7

0.078

TMPGOS-13

11.7

14.3

1.0

10.5

1.0

5.0

22.S

19.0

0.081

TMPGOS-13A

12.4

13.7

1.0

11.1

1.0

5.0

23.S

18.2

0.081

TMPGOS-15

13.5

1S.3

1.0

12.1

1.0

5.0

1~.S

22.0

0.084

TMPGOS-15A

14.3

15.8

1.0

12.8

1.0

5.0

20.3

21.2

0.084

TMPGOS-1S

14.4

17.S

1.0

12.9

1.0

5.0

18.3

23.5

O.08S

TMPGOS-1SA

15.2

1S.8

1.0

13.S

1.0

5.0

19.1

22.5

0.08S

TMPGOS-18

1S.2

19.8

1.0

14.5

1.0

5.0

1S.2

2S.5

0.088

TMPGOS-18A

17.1

18.9

1.0

15.3

1.0

5.0

1S.9

25.5

0.088

TMPGOS-20

18.0

22.0

1.0

1S.2

1.0

5.0

14.8

29.1

0.090

TMPGOS-20A

19.0

21.0

1.0

17.0

1.0

5.0

15.5

27.7

0.090

MIl

IIAX

TMPG06-S.8

S.12

7.48

TMPG06-S.8A

S.45

TMPG06-7.5

DEVICE

I

-556-

,«"u

ELECTRICAL CHARACTERISTICS ( T. = 25'C unless otherwise noted)
Bl'IIkdown Voltlgo
V.,

-""""')

Dovleo

lIN

@IT

Working
Pull
Rove...

(mAl

Von.

MAX

v.....

Mulmum
Ro.....
LHkago
ttV_

T..llO'C
Maximum
Rove...
LNItIg.
III

v...

-

Mulmum
Ro.....
CUlllnt
tJI01I!2)

(VoI1s)

~)

lo(pA)

(Ampo)

Mulmum

Maximum

Reve...
Tompo"'u"
VoIIIg•• I_ Coefflclont
(Clomplng
of
VoHtgt)
v..
v.... (VoI1s) ('IW"C)

TMPG06-22

19.8

24.2

1.0

17.8

1.0

5.0

13.5

31.9

0.092

TMPG06-22A

20.9

23.1

1.0

18.8

1.0

5.0

14.1

30.6

0.092

TMPG06-24

21.6

26.4

1.0

19.4

1.0

5.0

12.4

34.2

0.094

TMPG06-24A

22.8

25.2

1.0

20.5

1.0

5.0

13.0

33.2

0.094

TMPG06-27

24.3

29.7

1.0

21.8

1.0

5.0

11.0

39.1

0.096

TMPG06-27A

25.7

28.4

1.0

23.1

1.0

5.0

11.5

37.5

0.096

TMPG06-30

27.0

33.0

1.0

24.3

1.0

5.0

9.9

43.5

0.097

TMPG06-30A

28.5

31.5

1.0

25.6

1.0

5.0

10.4

41.4

0.097

TMPG06-33

29.7

36.3

1.0

26.8

1.0

5.0

9.0

47.7

0.098

TMPG06-33A

31.4

34.7

1.0

28.2

1.0

5.0

9.4

45.7

0.098

TMPG06-36

32.4

39.6

1.0

29.1

1.0

5.0

8.3

52.0

0.099

TMPG06-36A

34.2

37.8

1.0

30.8

1.0

5.0

8.6

49.9

0.099

TMPG06-39

35.1

42.9

1.0

31.6

1.0

5.0

7.6

56.4

0.100

TMPG06-39A

37.1

41.0

1.0

33.3

1.0

5.0

8.0

53.9

0.100

TMPG06-43

38.7

47.3

1.0

34.8

1.0

5.0

7.0

61.9

0.101

TMPG06-43A

40.9

45.2

1.0

36.8

1.0

5.0

7.3

59.3

0.101

NOTES:

.

1. VBR measured after IT applied for 300 jill, IT = Square Wave Pulse or equivalent.
2. Surge Current Waveform per Figure 3 and Derated per Figue 2.
3. VF = 3.5 V max., IF = 25A for all types on 1/2 Square or equivalent Sine Wave
PW= 8.33 ms, Duty Cycle= 4 Pulses per minute maximum

-557-

I~

P4KASERIES
AUTOMOTIVE TRANSIENT VOLTAGE SUPPRESSOR
VOLTAGE- 6.8 to 43 Volts
400 Watt Peak Power 1.0 Watt Steady State
FEATURI:S
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
• Glass passivated Junction
• Exclusive G.!. PAR construction
.400Wsurge
capability at 1 ms
• Excellent clamping
.~
capability
• Low zener impedance
• Fast response time: typically less
than 1.0 ps from 0 volts to BV min.
• TypicallR less than 10 IlA above 10V at 175°C
• High temperature soldering guaranteed:
300°C/10 seconds/.375", (9.5mm) lead
length/5Ibs., (2.3 kg) tension
• Designed to handle under the hood applications

D0-41

--r
1.0 (25.4)
MIN

.107(2.71 ~
.080(2.0)

1 1+

~

.20515.2)
.160(4.1)

~

t

1.0(25.4)
MIN
.034 (.88).
.028(.71)

+

I

+

MECHANICAL DATA
CBse: JEDEC 00-41 Molded plastic
Terminals: Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denoted cathode
except Bipolar
Mounting Position: Any
Weight: 0.012 ounce, 0.3 gram

Dimensions in inches
and
(millimeters)

DEVICES FOR BIPOLAR APPLICATIONS
For Bidirectional use C or CA Suffix for types P4KA6.8 thru types P4KA43.
Electrical characteristics apply in both directions.

MAXIMUM RATINGS AND CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specHied.
Single phase, half wave, 60 Hz. resistive or inductive load.
For capacitive load, derate current by 20%.

RATING
Peak Power Dissipation at TA-25°C, Tp-l ms (NOTE 1)

SYMBOL
Ppk

VALUE

UNITS

Minimum 400

Watts

PO

1.0

Watts

IFSM

40.0

Amps

TJ,TsTG

-65 to +185

Steady State Power Dissipation at Tl-75°C
Lead Lengths .375", (9.5mm) (NOTE 2)
Peak Forward Surge Current, 8.3ms Single Half
Sine-Wave Superimposed on Rated Load
(JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range

NOTES:
1. Non-repetitive current pulse. per Fig. 3 and derated above TA= 25'C per Fig. 2.
2. Mounted on Copper Leaf area of 1.57 in2 (40mm2).
3. 8.3ms single half sine-wave, duty cycle='! pulses per minutes maximum.

-558-

°C

RATINGS AND CHARACTERISTIC CURVES P4KA SERIES

,

FIGURE 2 100

FIGURE 1 -

PULSE RATING CURVE

"'" ,,

100

:

~~,~~R~~~~~ 3

§"
~

a:

10

W

~

"'"

IL
l<:

PULSE DERATING CURVE

"\

'KE6
~4.KE20

~

10

IL

Ii

o

IL

o

25

50

75

100

125

",

150

175

200

TA AMBIENT TEMPERATURE (OC)
01
lOlLS

1 Oms

10011S

.

HI."

FIGURE 4 - TYPICAL JUNCTION CAPACITANCE

'P, PULSE WIDTH

FIGURE 3 -

-!

~

I

100

a:

I

/

"

50

~

o

2

~

7·

Measured @.
Stand-Off

I

Voltage (VR)

~

1.0

"-

~
10 x 1000 Wavetormby E.A.-

~tp~

o

-

10'

ofl~M

"" ......... .........i dofi'I f

l<:

~

TJ =- 25°C

current decays to so..

Half Value

i\.

o

~

TJ"" 2S"C
Pulse Width (tp) IS defined

r--- as that polnl where the peak

~_k~.IU8
IRS"

::>
W

PULSE WAVEFORM

I
r-f.-tr.10",I8C

,

ffi
a:

10

2.0

3.0

• .0

""'" "<
,

Measured @
ZeroB.as -

T, Time (ms)
FIGURE 5 -

STEADY STATE PQWER DERATING

100

:=0
OlD- ~

I "" 375~ (9.5mm)
075

tt:~

-~

 t= 050
0<

(If" x

1- 0

0!!l
cS a

IL

0.25

'f

,

Z

\

81ng,1 Phasei
Half Wave
60Hz
Resistive or
Inducl:lV8 Load
25

50

100

125

,

150

175

W

50

0

40

a:
a:
::>

20

100

200

MAXIMUM NON-REPETITIVE
SURGE CURRENT

W

CI en 30

a:w
::>a:

~~

a:~

20

i'oo..

«

i\.
75

FIGURE 6 -

.,.:

~

x .040")

10

BREAKDOWN VOLTAGE, VOLTS (VBR)

\.

.

40mm x 40mm x 1mm. Cu

~2:

10

'\.,

I I

a:
W_

10'

~

200

""""""",

10

8.3ms Single Half Sine-INa..
\JEDEC Method)

l<:

TL, LEAD TEMPERATURE (0 C)

~
IL

0 ,

2

4

6810

20

40

8080100

NUMBER OF CYCLES AT 60 Hz

INSTUMIr
-559-

-

Working

B....kdown Voltage

VIR
YoH. (NOTE I)
DEVICE

P4KA6.8
P4KA6.8A
P4KA7.5
P4KA7.5A
P4KA8.2
P4KA8.2A
P4KA9.1
P4KA9.1A
P4KA10
P4KA1OA
P4KAll
P4KA11A
P4KA12
P4KA12A
P4KA13
P4KA13A
P4KA15
P4KA15A
P4KA16
P4KA16A
P4KA18
P4KA18A
P4KA20
P4KA20A
P4KA22
P4KA22A
P4KA24
P4KA24A
P4KA27
P4KA27A
P4KA30
P4KA3OA
P4KA33
P4KA33A
P4KA36
P4KA36A
P4KA39
P4KA39A
P4KA43
P4KA43A

loiN

MAX

6.12
6.45
6.75
7.13
7.38
7.79
8.19
8.65
9.00
9.50
9.90
10.5
10.8
11.4
11.7
12.4
13.5
14.3
14.4
15.2
16.2
17.1
18.0
19.0
19.8
20.9
21.6
22.8
24.3
25.7
27.0
28.5
29.7
31.4
32.4
34.2
35.1
37.1
38.7
40.9

7.48
7.14
8.25
7.88
9.02
8.61
10.0
9.55
11.0
10.5
12.1
11.6
13.2
12.6
14.3
13.7
16.3
15.8
17.6
16.8
19.8
18.9
22.0
21.0
24.2
23.1
26.4
25.2
29.7
28.4
33.0
31.5
36.3
34.7
39.6
37.8
42.9
41.0
47.3
45.2

Poak
@IT
(mA)

10.0
10.0
10.0
10.0
10.0
10.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

Rove...
Vollage

....Imum
Rev....

T0=150'C
Maximum
Rove...

Maximum
Rove ...
Current
I...

Leakege

Leekage

V-

atV-

at V...

(VoI1s)

Io()IA)

ho{JIA)

(NOTE "
(Am
po)

5.50
5.80
6.05
6.40
6.63
7.02
7.37
7.78
8.10
8.55
8.92
9.40
9.72
10.2
10.5
l1J
12.1
12.8
12.9
13.6
14.5
15.3
16.2
17.0
17.8
18.8
19.4
20.5
21.8
23.1
24.3
25.6
26.8
28.2
29.1
30.8
31.6
33.3
34.8
36.8

300
300
150
150
50.0
50.0
10.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

1000
1000
500
500
200
200
50.0
50.0
10.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

39.8
41.0
36.8
38.1
34.4
35.5
32.2
32.1
28.7
29.7
26.5
27.6
24.9
25.8
22.6
23.6
19.6
20.3
18.3
19.1
16.2
16.9
14.8
15.5
13.5
14.1
12.4
13.0
11.0
11.5
9.9
10.4
9.0
9.4
8.3
8.6
7.6
8.0
7.0
7.3

NOTES:
1. VSR measured after IT applied for 300 lIS , IT = Square Wave Pulse or equivalent.
2. Surge Current Waveform per Figure 3 and Derated per Figue 2.
3. VF =3.5 V max., IF =25A for all types on 112 Square or equivalent Sine Wave.
PW =8.33 ms, Duty Cycle =4 Pulses per minute maximum.

-560-

Maximum
Maximum
Rov....
Tem"",.u..
Voftag.at ho.. CoatfJcJent
(CiampLl9
of
Voftago)
VIR
(%I'C)
V.... (VoI1s)

10.8
10.5
11.7
11.3
12.5
12.1
13.8
13.4
15.0
14.5
16.2
15.6
17.3
16.7
19.0
18.2
22.0
21.2
23.5
22.5
26.5
25.5
29.1
27.7
31.9
30.6
34.2
33.2
39.1
37.5
43.5
41.4
47.7
45.7
52.0
49.9
56.4
53.9
61.9
59.3

0.057
0.057
0.060
0.061
0.065
0.065
0.068
0.068
0.073
0.073
0.075
0.075
0.Q76
0.Q78
0.081
0.081
0.084
0.084
0.086
0.086
0.088
0.088
0.090
0.090
0.092
0.092
0.094
0.094
0.096
0.096
0.097
0.097
0.098
0.098
0.099
0.099
0.100
0.100
0.101
0.101

-561-

P6KASERIES
AUTOMOTIVE TRANSIENT VOLTAGE SUPPRESSOR
VOLTAGE - 6.8 to 43 Volts
600 Watt Peak Power

5.0 Watt Steady State
FEATURES
• Plastic package has Underwriters labOratory
Flammability Classification 94V-O
• Glass passivated junction
• Exclusive G.I. PAR construction
• 600W surge capability at 1 ms
• Excellent clamping ~
capability
• Low zener Impedance
• Fast response time: typically less
than 1.0 ps from 0 volts to BV min.
• TypicallR less than 10J'A abOve 10V at 17SoC
• High temperature soldering guaranteed:
30ooC/10 secondsl.37S", (9.Smm) lead
length/Sibs., (2.3 kg) tension
• Designed to handle under the hood applications

D0-15

1

Al~.

+

-±
+,

I:~~: :~~:

•230 (5.81

LO +
MIN.
(25.41

140 (3.61
1•..104
12.61

1

MECHANICAL DATA
case:JEDEC D0-1S Molded plastic
Termlllllls: Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denoted cathode except
Bipolar
IlDuntlng Position: Any
Weight: 0.01S ounce, 0.4 gram

Dimensions in inches
and
(millimeters)

DEVICES FOR BIPOLAR APPLICATIONS
For Bidirectional use C or CA Suffix for types P6KA6.8 through types P6KA43.
Electrical characteristics apply in bOth directions.
MA~MUMRAnNGSANDCHARACTER~ncs
Ratings at 25"C ambient temperature unleas otherwise specified.
Single phase, half wave, 60 Hz. resistive or Inductive load.
For capac~ive load, derate current by 20%.

RATING

SYAfBOL

VALUE

UNITS

Ppk

Minimum 600

Watts

PD

S.O

Watts

IFSM

100
·65 to +18S

Amps

Peak Power Dissipation at TA-2SoC, Tp.1ms (NOTE 1)
Steady State Power Dissipation at TL-7SoC
Lead Lengths .37S", (g.Smm) (NOTE 2)
Peak Forward Surge Current, 8.3ms Single HaH
Sine-Wave Superimposed on Rated Load
(JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range
NOTES:
1. Non-repetitive current pulse, per Fig. 3 and derated above TA=25"C per Fig. 2.
2. Mounted on Copper Leaf area of 1.571n2 (4Omm2).
3. 8.3ms single half sine-wave, duty cycle = 4 pulses per minutes maximum.

·562-

TJ,TSTG

°C

RATING AND CHARACTERISTIC CURVES P6KA SERIES
FIGURE 1 -

'00

~

FIGURE 2 -

PULSE RATING CURVE'

PULSE DERATING CURVE

100

~H~~
~ ~

!tW

r\.

'\

"-I\.

'0

'";;:
W

0

!

0.

"«
W

0.

"'\

1

',0

a:

0.

r

i

25

50

"-

10)(1000 Waveform

0,'
)~

O.l/1s

tp, PULSE WIDTH

•

Om•

as
,if,

1m.

ned

R.EAi
7S

100

125

150

,

175

200

TA AMBIENT TEMPERATURE (OC)

FIGURE 4 - TYPICAL JUNCTION CAPACITANCE
FIGURE 3 -

I

~

.

I '00

fZ
W

'"'"::I

W

en

of IRSM

"-

~

'

'" 1""-/-

0.

'\.
"'-

2000

1000

Half Value -

::I

TJ

~~rtr~~i::~~~~Et peak"

,

50

4000

Pulse Width ( ) Is defined -

K-: Peak
~alue
IRSM

()

0000

TJ"';"C

I

1+ trj'lO~ic- f - -

.!!O

-'

PULSE WAVEFORM

2

800

"W

600

-

Z

400

«
f-

,

/

.......

"«

W
0.

p-

20

'0

«
0.
«
()

....... .....

"

Measured @
Stand-Off
Voltage (VR)

(3

200

100

30

4,0

Measured @
Zero Bias

~

()

10 x 1000 Waveform
as defined by ~. E A.

25'C

IIII

80

T, TIME (mo)

60
40

20

i
Ui

FIGURE 5 -

s,

I

z

o

i
~

15

375

I

~

FIGURE 8 -

\

N

r~

200

\

40mm x 40mm x 1mm Cu
(1.58" x 1.58" x .040")

PH~SE

W

(!len

\

"'W

00.

",::;;

««
;;:,.:
"'z
OW
"-'"
"",

\
~

100

125

'00

::I'"
enw

~

SINdlE
HALF WAVE
60Hz
RESISTIVE OR
INDUCTIVE lOAD
75

100

20

"

200

REVERSE VOLTAGE, VOLTS (VBA)

375 (9.5mm)

50

10

\

I

I I

25

10

STEADY STATE POWER DERATING

150

175

50

-

MAXIMUM NON-REPETITIVE
SURGE CURRENT
8
J

~~

INGl
METH

HALrSl~+V V~
D!

;

I

I

...

;;113
0.

200

Tl, LEAD TEMPERATURE (OC)

'0

'0

50

'00

NUMBER OF CYCLES AT 60Hz

I~
-563-

-

ELECTRICAL CHARACTERISTICS (T. = 25·C unless otherwise notfld)

-_'I
v..

DEVICE

PSKA6.8
PSKA6.8A
PSKA7.5
PSKA7.5A
PSKA8.2
PSKA8.2A
PSKA9.1
P6KA9.1A
P6KA10
PSKA10A
PSKAll
PSKAllA
PSKA12
PSKA12A
PSKA13
PSKA13A
PSKA15
PSKA15A
PSKA16
PSKA1SA
PSKA18
PSKA18A
PSKA20
PSKA20A
PSKA22
PSKA22A
P6KA24
PSKA24A
PSKA27
PSKA27A
PSKA30
PSKA30A
PSKA33
PSKA33A
PSKA36
PSKA36A
P6KA39
P6KA39A
PSKA43
PSKA43A

MIN

6.12
S.45
S.75
7.13
7.38
7.79
8.19
8.65
9.00
9.50
9.90
10.5
10.8
11.4
11.7
12.4
13.5
14.3
14.4
15.2
lS.2
17.1
18.0
19.0
19.8
20.9
21.6
22.8
24.3
25.7
27.0
28.5
29.7
31.4
32.4
34.2
35.1
37.1
38.7
40.9

@IT

(mA)

\\I.

Tc=li1O'C
llllimum
IIevtrM

LtaIaIgo

I.oIkago

,IV_

IIV_

fI01Ii~

(YoII)

W!IAl

W!IAl

lAmpe)

5.50
5.80
6.05
6.40
6.63
7.02
7.37
7.78
8.10
8.55
8.92
9.40
9.72
10.2
10.5
11.1
12.1
12.8
12.9
13.6
14.5
15.3
16.2
17.1
17.8
18.8
19.4
20.5
21.8
23.1
24.3
25.S
26.8
28.2
29.1
30.8
31.S
33.3
34.8
3S.8

500
500
250
250
100
100
25
25
5.0
5.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2,0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0
2.0

1000
1000
SOO
500
200
200
50
50
10
10
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

59.7
Sl.4
58.1
57.1
51.S
53.3
46.7
48.1
43.0
44.5
39.8
41.3
37.3
38.6
35.9
35.4
29.3
30.4
27.4
28.7
24.3
25.6
22.2
23.3
20.2
21.1
18.6
19.4
lS.5
17.2
14.8
15.6
13.5
14.1
12.4
12.9
11.4
12.0
10.4
10.9

""""" """III

MAX

7.48
7.14
8.25
7.88
9.02
8.S1
' 10.0
9.55
11.0
10.5
12.1
11.S
13.2
12.6
14.3
13.7
16.3
15.8
17.S
lS.8
19.8
18.9
22.0
21.0
24.2
23.1
2S.4
25.2
29.7
28.4
33.0
31.5
3S.3
34.7
39.S
37.8
42.9
41.0
47.3
45.2

10
10
10
10
10
10
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

....

IInImum

llulmum

Worldng
Poak

BmlcdownYollago

NOTES:

1. VBR measured after IT applied for 300 lIS. IT = Square Wave Pulse or equivalent.
2. Surge Current Waveform per Figure 3 and Derate per Figure 2.
3. VF = 3.S V max., IF = SOA for all types on 112 Square or equivalent Sine Wave.
PW =8.3ms, Duty Cycle =4 Pulses per minute maximum.

-S64-

"""
cumnt

llulmum
IIntIll

IIuImum
TompendUN
't\llllal1I- Caelftclonl
(CIompIng
aI
't\IIIIaI)
v..
Va.(Yo1Ia)

(lI/'C)

10.8
10.5
11.7
11.3
12.5
12.1
13.8
13.4
15.0
14.5
16.2
15.6
17.3
16.7
19.0
18.2
22.0
21.2
23.5
22.5
2S.5
25.2
29.1
27.7
31.9
30.S
34.7
33.S
39.1
37.5
43.5
41.4
47.7
45.7
52.0
49.9
5S.4
53.9
61.9
59.3

0.057
0.057
0.061
0.061
0.065
0.065
0.OS8
0.068
0.073
0.073
0.075
0.076
0.076
0.078
0.081
0.081
0.084
0.084
0.086
0.086
0.088
0.088
0.090
0.090
0.092
0.092
0.094
0.094
O.09S
0.096
0.097
0.097
0.098
0.098
0.099
0.099
0.100
0.100
0.101
0.101

-565-

1.SKA SERIES
AUTOMOTIVE TRANSIENT VOLTAGE SUPPRESSOR
VOLTAGE- 6.8 to 43 Volts
1500 Watt Peak Power 5.0 Watt Steady State
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
• Glass passivated junction
• Exclusive G.I. PAR construction
• 1500W surge
. ~..
capability at 1 ms
. ~..
• Excellent clamping
"--'....
capability
~
• Low zener impedance
"''"'
• Fast response time: typically less
~
than 1.0 ps from 0 volts to BV min.
• Typic~IIR less than 20 J.LA above 10V at 175°C
• High temperature soldering guaranteed:
300°C/10 seconds/.375", (9.5mm) lead
length/5Ibs., (2.3 kg) tension
• Designed to handle under the hood applications

D0-201

f

.210 (5.31
.188 (4.81
DIA.

r

1.0 (25.41

LI

1+

t

.375 (9.51

~
1.0 (25.41

.042 (1.071
.37 (.941

+

T

MECHANICAL DATA

case: JEDEC DO-201

Molded plastic
Terminals: Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denoted cathode
except Bipolar
Mounting Position: Any
Weight: 0.045 ounce, 1.2 grams

Dimensions in inches
and

(millimeters)

DEVICES FOR BIPOLAR APPLICATIONS
For Bidirectional use C or CA Suffix for types 1.5KAS.8 thru types 1.5KA43.
Electrical characteristics apply in both directions.

MAXIMUM RATINGS AND CHARACTERISTICS
Ratings at 25'C ambient temperature unless otherwise specified.
RAnNG

Peak Power Dissipation at TA-25'C, Tp-1 ms (NOTE
Steady State Power Dissipation at TL-75'C
Lead Lengths .375", (9.5mm) (NOTE 2)
Peak Forward Surge Current, 8.3ms Single Half
Sine-Way!! Superimposed on Rated Load
(JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range

SYMBOL

VALUE

Ppk

Minimum 1500

UNITS
Watts

PO

5.0

Watts

IFSM

200
-65 to +1.85

Amps
'C

1)

..

TJ.TSTG

NOTES:
.
1. Non-repetitive current pulse. per FiiI. 3 and derated above TA=25'C per Fig. 2.
2. Mounted on Copper Leaf area of 0.79 in2 (20mm2).
3. 8.3ms single half siro-wave. duty cycle = 4 pulses per minutes maximum.

-566-

RATINGS AND CHARACTERISTIC CURVES 1.SKA SERIES
FIGURE 2-PULSE DERATING CURVE
100

FIGURE 1 -

#z
ZW
_a:
(!la:
z::>
_tl
>-a:

Non-Repetrtlve
Pulse Waveform
shown in Figure 3
TA
250C

~

"'I1't...

"o~

PULSE RATING CURVE

"I"\.l'\.

75

rio

Wa:
OW

10,

a:

SO

,

W~

w

I\.

eno
-'a.

~

a

~~
"w
~o.

a.

.."
w

1.•

a.

25

a.

-

o

o

as tefined [bY
25

10,..

10",

1 Oms

1OOl1S

SO

R.E,i'
75

100

125

I'

150

175

200

TA AMBIENT TEMPERATURE (OC)

01. LJ-L..LJ..llllJL..LL..L-Ll.JLllll-L--L.L.l.Ju.lllL-L..L...J..J-LLUJL--'---L.1-'..LUW
01",

~

10x1000 Waveform

ci.

0.

10ms

FIGURE 4 - TYPICAL JUNCTION CAPACITANCE

Ip, PULSE WIDTH

20,000

10,000

FIGURE 3 -

I

~
'~o-

tl
w

~

4000

TJ

r-

101ec Peak Value
IRSM

tL

~

z
w
a:
a:
::>

6000

25 C

J

~I'

l"

PULSE WAVEFORM

Pulse Width IIp} IS defined
as that POint where the peak
current decays to 501>0
ollRSM

2000

~

I'"-

5:

::>
a.

."

"0.

-

Half Value

..

2

~

IJi.
400

..

200

Measured @
Stand-Off
Voltage (VR)

~

a.

10xl000 Waveform

.......

W

0.

~s defined bYI A E A

t--t-

-

600

tl
Z

l3

Measured @

I' j( Zero Bias

\

1000
800

ui

!BSM

~

1\

'" 1'-

I't...

tl

!==IP

100
80

10

20

30

40

60

T. TIME Ims)

40

20

10

FIGURE 5 -

l

FIGURE 6 -

1\

:~
18"

~

200

\

20mrn )( 20mm x 1mm. Cu
rIO.8~ x
x .040"

'25

i
w

\

(!lCl)
a:w '00
::>a:

. '"

INDUCTIVE LOAD
75

100

125

8 3ms SINGLE HALF SINE-WAVE
JEOEC METHOD

I

50

~,.:

\

r--- RESISTIVE OR
50

~

",::;

HALF WAVE

25

--""1"'--

MAXIMUM NON-REPETITIVE
SURGE CURRENT

00.

\
\

,-SINtE PJSE

o

200

00

U) ' "

60Hz

o

20

REVERSE VOLTAGE, VOLTS (VBR)

~

1 1
I = 1375" (9. smm)

~

10

1 •
'

STEAOY STATE POWER DERATING

150

a:Z
01"
u.a:

~~
~()

a.

~
175

10

200

1

TL , LEAD TEMPERATURE ('C)

5

10

NUMBER OF CYCLES AT 60Hz

-567-

50

100

-

ELECTRICAL CHARACTERISTICS (r. = 25'C unless otherwise noted)
Breakdown VoItIgo
VIR
Volts,..,."

DEVICE

1.5KA6.8
1.5KA6.8A
1.5KA7.5
1.5KA7.5A
1.5KA8.2
1.5KA8.2A
1.5KA9.1
1.5KA9.1A
1.5KA10
1.5KA10A
1.5KA11
1.5KAllA
1.5KA12
1.5KA12A
1.5KA13
1.5KA13A
1.5KA15
1.5KA15A
1.5KA16
1.5KA16A
1.5KA18
1.5KA18A
1.5KA20
1.5KA20A
1.5KA22
1.5KA22A
1.5KA24
1.5KA24A
1.5KA27
1.5KA27A
1.5KA30
1.5KA30A
1.5KA33
1.5KA33A
1.5KA36
1.5KA36A
1.5KA39
1.5KA39A
1.5KA43
1.5KA43A

l1li

MAX

6.12
6.45
6.75
7.13
7.38
7.79
8.19
8.65
9.00
9.50
9.90
10.5
10.8
11.4
11.7
12.4
13.5
14.3
14.4
15.2
16.2
17.1
18.0
19.0
19.8
20.9
21.6
22.8
24.3
25.7
27.0
28.5
29.7
31.4
32.4
34.2
35.1
37.1
38.7
40.9

7.48
7.14
8.25
7.88
9.02
8.61
10.0
9.55
11.0
10.5
12.1
11.6
13.2
12.6
14.3
13.7
16.3
15.8
17.6
16.8
19.8
18.9
22.0
21.0
24.2
23.1
26.4
25.2
29.7
28.4
33.0
31.5
36.3
34.7
39.6
37.8
42.9
41.0
47.3
45.2

@IT

(mAl

10
10
10
10
10
10
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

Working
Peak
Rov....

VoItIgo

at V_
(Volts)

5.50
5.00
6.05
6.40
6.63
7.02
7.37
7.78
8.10
8.SS
8.92
9.40
9.72
10.2
10.5
11.1
12.1
12.8
12.9
13.6
14.5
15.3
16.2
17.1
17.8
18.8
19.4
20.5
21.8
23.1
24.3
25.6
26.8
28.2
29.1
30.8
31.6
33.3
34.8
36.8

Maximum
III"...

Lookago
mV_

..rl'Al
500
500
250
250
100
100
25
25
5
5
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2

NOTES:
1. VBR measured af1er IT applied for 300 JIS. IT = Square Wave Pulse or equivalent
2. Surge current Waveform per Figure 3 and Derate par Figure 2.
3. VF =3.5V mas., IF =looA for all types per 1/2 Square or equivalent Sine Wave.
PW = 8.3 ms, Duty Cycle = 4 Pulses per minute maximum.

-568-

T",1HOC

Maximum

Maximum
R_
Loakago

Rove",

1R(pA)

(Amps)

2000
2000
1000
1000
400
400
100
100
20
20
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10

149
153
137
143
129
133
117
120
107
111
99.5
103
93.2
96.5
84.8
88.6
73.3
76.0
68.6
71.6
60.8
64.0
55.4
58.2
50.5
52.7
46.5
48.6
41.2
43.4
37.0
38.9
33.8
35.3
31.0
32.3
28.6
29.9
26.0
27.2

.. v_

Current
I...

,,"',u,

Maximum
MaxIm ...
Temporalu,"
III"...
Voltag.atl... CooHIclent
(Clomplng
01
VoItsgo)
V..
(%/'C)
V... (Volts)

10.8
10.5
11.7
11.3
12.5
12.1
13.8
13.4
15.0
14.5
16.2
15.6
17.3
19.0
18.2
22.0
2i.2
23.5
23.5
22.5
26.5
25.2
29.1
27.7
31.9
30.6
34.7
33.2
39.1
37.5
43.5
41.4
47.7
45.7
52.0
49.9
56.4
53.9
61.9
59.3

0.057
0.057
0.061
0.061
0.065
0.065
0.068
0.068
0.073
0.073
0.075
0.076
0.076
0.078
0.081
0.081
0.084
0.084
0.086
0.086
0.088
0.088
0.090
0.090
0.092
0.092
0.094
0.094
0.096
0.096
0.097
0.097
0.098
0.098
0.099
0.099
0.100
0.100
0.101
0.101

-569-

P4KE SERIES
GLASS PASSIVATED JUNCTION TRANSIENT VOLTAGE
SUPPRESSOR
VOL TAGE- 6.8 to 400 Volts
400 Watt Pf!ak Power 1.0 Watt Steady State
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
• Glass passivated chip junction in 00-41 package
.400Wsurge
capability at 1 ms
.,
• Excellent clamping
"',
capability
,
• Low zener Impedance
~
• Fast response time: typically less
than 1.0 ps from 0 volts to BV min.
• TypicallR less than 1iJA above 10V
• High temperature soldering guaranteed:
300°C/10 seconds/.37S", (9.Smm) lead
length/Sibs., (2.3 kg) tension

0D-41

---r
1.0 (25.4)
MIN

.107 (2.7) ~
.080(2.0)

1 I.

I

t

.20515.2)
•160(4.1)

----L..-

t

.034 (.86) ~.
.028 (.71),

1.0(25.4)
MIN

I

+

MECHANICAL DATA

case: JEOEC 00-41

Molded plastic
Terminals: Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denoted cathode
except Bipolar
Mounting Position: Any
Weight: 0.012 ounce, 0.3 gram

Dimensions in inches
and
(millimeters)

DEVICES FOR BIPOLAR APPLICATIONS
For Bidirectional use C or CA Suffix for types P4KE7.S thru types P4KE400.
Electrical characteristics apply in both directions.

MAXIMUM RATINGS AND CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specilied.
Single phase, hall wave, 60 Hz. resistive or inductive load.
For capacitive load, derate current by 20%.

RATING

Peak Power Dissipation at TA= 25'C, Tp = lms (NOTE
Steady State Power Dissipation at Tt=75'C
Lead Lengths .375", (9.5mm) (NOTE 2)
Peak Forward Surge Current, 8.3ms Single Half
Sine-Wave Superimposed on Rated Load
(JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range

SYMBOL

VALUE

Ppk

Minimum 400

UNITS
Watts

PO

1.0

Watts

IFSM

40.0
-65 to +175

Amps
'C

1)

TJ.TsTG

NOTES:
1. Non-repetilive current pulse. per Fig. 3 and derated above TA= 25°C per Fig. 2.
2. Mounted on Copper Leal area 011.57 in2 (40mm2j.
3. 8.3ms single hall sine-wave. duty cycie=4 pulses per minutes maximum.

-570-

RATINGS AND CHARACTERISTIC CURVES P4KE SERIES

FIGURE 2 '00

FIGURE 1 -

r\.

"',

PULSE RATING CURVE

100

IpUI"·W;,;;;t~-;",

""

I~io:n 2~~t,gUre 3

~
~

r\.

10

a::
w
~

0

Q.

. P4KE2

l<:

«
w
Q.

PULSE DERATING CURVE

"'~

10

ci

Q.

25

50

75

100

125

"

'"

150

175

200

TA AMBIENT TEMPERATURE (OC)
0'
DIps

1 OilS

lOpS

100...5

,oms

1 Oms

FIGURE 4 -

tp. PULSE WIDTH

, ,

FIGURE 3 -

I
I-

......
'00

Z
w

=:f7

a::
a::
::J

tr =:

w

I'

I
I
Half Value

W

(.l

2

z
«
I-

I

10 x 1000 Waveform
as defined bY_~ E A

C3

«
Q.
«
(.l

I
"""" -.-. I -,......
1

l<:

~ltP"'"
10

.

LL
0.

IRSM'

"' "-......

SO

..J

0

.,.

TJ = 25 0

10'

current decays to 50%
of IRSM

Peak Value

::J
Q.
Q.

25°C

j..L

"-

i:i

,

I
=:

l. :+ - - 1asPulse
Width (tp) IS defined
10 sec
that POint where the peak

IRSM

(.l

m

10'

PULSE WAVEFORM
TJ

"#

TYPICAL JUNCTION CAPACITANCE

20

30

"

...
/

F

I

"

. . . -<

"-

,0'

I=M~':~~ft
~ Voliage (VR)

M:~~~@_

\.

40

T, Time (ms)
FIGURE 5 -

STEADY STATE POWER DERATING

\.

ffi

~~
~

Q..

~~
I- Z
mo

is

~

I -

.

«Q.

\.

(9.5mm)

~~
r1 58n x 1.58" )(

\.

025

Q.

.040~

Reslsttve or
Inductive Load

o

25

50

100

125

40

200

150

175

200

TL, LEAD TEMPERATURE (OC)

m

30

~~

20

««
~
aLL

'0

'"

~
Q.

-571-

MAXIMUM NON-REPETITIVE
SURGE CURRENT

-

~ 1ms 51n'gle Hall ~lne.wave
(JEDEC Method)

a::::<

~
75

(.l

a::W
::Ja::

\.

Half Wave

I- 60Hz
o

50

W
(!l

~

r- Sing:e Phas!

FIGURE 6 -

~
w

a::
a::
::J

\.

40mm x 40mm x lmm Cu

~iii
m!!?
ci 0

375~

100·

20

BREAKDOWN VOLTAGE, VOLTS (VBR)

1\

075

0.50

10

10

'00

............

r--2

6

8

10

20

40

II

60 80 100

NUMBER OF CYCLES AT 60 Hz

INsRMIr

VIR
VonetNOlIl)

Devlc.

P4KE6.8
P4KE6.8A
P4KE7.5
P4KE7.5A
P4KE8.2
P4KE8.2A
P4KE9.1
P4KE9.1A
P4KE10
P4KE10A
P4KE11
P4KE11A
P4KE12
P4KE12A
P4KE13
P4KE13A
P4KE15
P4KE15A
P4KE16
P4KE16A
P4KE18
P4KE18A
P4KE20
P4KE20A
P4KE22
P4KE22A
P4KE24
P4KE24A
P4KE27
P4KE27A
P4KE30
P4KE30A
P4KE33
P4KE33A
P4KE36
P4KE36A
P4KE39
P4KE39A
P4KE43
P4KE43A
P4KE47
P4KE47A
P4KE51
P4KE51A
P4KE56
P4KE56A
P4KE62
P4KE62A
P4KE68
P4KE68A
P4KE75
P4KE75A

'

'

'

'

liN

MAl(

6.12
6.45
6.75
7.13
7.38
7.79
8.19
8.65
9.00,
9.50
9.90
10.5
10.8
11.4
11.7
12.4
13.5
14.3
14.4
15.2
16.2
17.1
18.0
19.0
19.8
20.9
21.6
22.8
24.3
25.7
27.0
28.5
29.7
31.4
32.4
34.2
35.1
37.1
38.7
40.9
42.3
44.7
45.9
48.5
50.4
53.2
55.8
58.9
61.2
64.6
67.5
71.3

7.48
7.14
8.25
7.88
9.02
8.61
10.0
9.55
11.0
10.5
12.1
11.6
13.2
12.6
14.3
13.7
16:3
15.8
17.6
16.8
19.8
18.9
22.0
21.0
24.2
23.1
26.4
25.2
29.7
28.4
33.0
31.5
36.3
34.7
39.6
37.8
42.9
41.0
47.3
45.2
51.7
49.4
56.1
53.6
61.6
58.8
68.2
65.1
74.8
71.4
82.5
78.8

-

llulmm

Working

IIrtakdown Vonogo
@II'

(mA)

,

10
10
10
10
10
10
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

""""'
Vobgo

IIuImum
ReVIllO

RovtIlO

-)

""""'

IIuImum
TompollllUuII

..

or Va.

Cullin!

Voltage ..

1".'12,

-~
V.... (Vab)

....

V.....

Lookago
alV_

(Vane)

"(J1A)

(Am po)

5.50
5.80
6.05
6.40
6.63
7.02
7.37
7.78
8.10
8.55
8.92
9.40
9.72
10.2
10.5
11.1
12.1
12.8
12.9
13.6
14.5
15.3
16.2
17.1
17.8
18.8
19.4
20.5
21.8
23.1
24.3
25.6
26.8
28.2
29.1
30.8
31.6
33.3
34.8
36.8
38.1
40.2
41.3
43:6'
45.4
47.8
50.2
53.0
55.1
58.1
60.7
64.1

1000
1000
500
500
200
200
50
50
10
10
5.0
5.0
5.0
5.0
5,0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0'
5.0,
5.0
5.0
5.0
5.0
5.0
5.0
5.Q
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5:0 '
5.0,
5.0
5.0
5.0

38
40
36
37
33
35
30
31
28
29
26
27
24

-572-

llulmum

25

22
23
19
20
18
19
16
17
14
15
13
14
12
13
11
11.2
10
10
9
9
8
8.4
7.4
7.8
6.8
7.1
6.2
5.0
5.7
6.0
5.2
5.5
4.7
5.0
4.3
4.6
3.9
4.1

"-

10.8
10.5
11.7
11.3
12.5
12.1
13.8
13.4
15.0
14.5
16.2
15.6
17.3
16.7
19.0
18.2
22.0
21.2
23.5
22.5
26.5
25.5
29.1
27.7
31.9
30.6
34.7
33.2
39.1
37.5
43.5
41.4
47.7
45.7
52.0
49.9
56.4
53.9
61.9
59.3
67.8
64.8
73.5
70.1
80.5

n.0

89.0,
85.0
98.0
92.0
108
103

Coefficient
(%C)

0.057
0.057
0.061
0.061
0.065
0.065
0.068
0.068
0.073
0.073
0.075
0.075
0.076
0.078
0.081
0.081
0.084
0.084
0.086
0.086
0.088
0.088
0.090
0.090
0.092
0.092
0.094
0.094
0.096
0.096
0.097
0.097
0.098
0.098
0.099
0.099
0.100
0.100
0.101
0.101
0.101
0.101
0.102
0.102
0.103
0.103
0.104
0.104
0.104
0.104
0.105
0.105

S",akdown VoKage
@IT
(mA)

VB.
Volts (NOlE11

Devlea

P4KE82
P4KE82A
P4KE91
P4KE91A
P4KE100
P4KE100A
P4KE110
P4KEll0A
P4KE120
P4KE120A
P4KE130
P4KE130A
P4KE150
P4KE150A
P4KE160
P4KE160A
P4KE170
P4KE170A
P4KE180
P4KE180A
P4KE200
P4KE200A
P4KE220
P4KE220A
P4KE250
P4KE250A
P4KE300
P4KE300A
P4KE350
P4KE350A
P4KE400
P4KE400A

MIN

73.8
77.9
81.9
86.5
90.0
95.0
99.0
105
108
114
117
124
135
143
144
152
153
162
162
171
180
190
198
209
225
237
270
285
315
332
360
380

MAX

90.2
86.1
100
95.5
110
105
121
116
132
126
143
137
165
158
176
168
187
179
198
189
220
210
242
231
275
267
330
315
385
368
440
420

1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

Uulmm

Uulmum

Reverse
Current

Roverse

Uulmum

VoKegOl'

Temparatuure

Working
Peak

Maximum

Ro.. ,..

Reverse

Vollage

Leakage

V......

alV_

1N01E~

(CllmplngVoltlpl

(Volts)

~1lA)

(Amps)

V.", (Volts)

5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

3.6
3.7
3.2
3.4
2.9
3.1
2.7
2.8
2.4
2.5
2.2
2.3
2.0
2.0
1.8
1.9
1.7
1.8
1.6
1.7
1.5
1.53
1.16
1.22
1.11
1.16
0.93
0.97
0.79
0.83
0.70
0.73

66.4
70.1
73.7
77.8
81.0
85.5
89.2
94.0
97.2
102
105
111
121
128
130
136
138
145
146
154
162
171
175
185
202
214
243
256
284
300
324
342

S.O

5.0

In...

"'-

118
113.0
131
125
144
137
158
152
173
165
187
179
215
207
230
219
244
234
258
246
287
274
344
328
360
344
430
414
504
482
574
548

Coafflcllnl
01 V..
(%1:)

0.105
0.105
0.106
0.106
0.106
0.106
0.107
0.107
0.107
0.107
0.107
0.107
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.110
0.110
0.110
0.110
0.110
0.110
0.110
0.110

NOTES:
1. VSR measured after IT applied for 300!'S. IT = Square Wave Puls9 or equivalent.
2. Surge Current Waveform per Figum 3 and Derated per Figure 2.
3. VF = 3.5 V max.,IF = 50 A for all types on 1/2 Square or equivalent Sine Wave.
PW =B.3 ms, Duty Cycle =4 Pulses per minute maximum.
4. For Bipolar types having VR of 10 volts and under, the IR limit is doubled.

-573-

BZW04 SERIES
GLASS PASSIVATED JUNCTION TRANSIENT VOLTAGE
SUPPRESSOR
VOL TAGE • 6.8 to 440 Volts
400 Watt Peak Power 1.0 Watt Steady State
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
• Glass passivated chip junction in 00-41 package
.400Wsurge
capability vat 1 ms
• Excellent clamping
capability
• Low zener impedance
• Fast response time: typically less
than 1.0 ps from 0 volts to BV min .
• TypicallR less than 1 IJ A above 10V
• High temperature soldering guaranteed:
300°C/10 secondsl.375", (9.5mm) lead
length/5Ibs., (2.3 kg) tension

00-41

f

1.0 (25.4)
IIIN
.107(2.7) ~ 1
.080(2.0)

1+

!

~
•205(5.2)
.160(4.1)

T

.il34 (.86) ~
.028 (.71)

+

1.0 (25.4)
111M

I

MECHANICAL DATA

..

Case:JEOEC 00-41 Molded plastic
Terminals: Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denoted cathode except
Bipolar
Mounting Position: Any
Weight: 0.012 ounce, 0.3 gram

Dimensions in inches
and
(millimeters)

DEVICES FOR BIPOLAR APPLICATIONS
For Bidirectional use B.
Electrical characteristics apply in both directions.

MAXIMUM RATINGS AND CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
RATING

Peak Power Dissipation atTA=25"C, Tp = lms (NOTE
Steady State Power Dissipation at TL=75"C
Lead Lengths .375", (9.5mm) (NOTE 2)
Peak Forward Surge Current, 8.3ms Single Half
Sine-Wave Superimposed on Rated Load
(JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range

SYMBOL

VALUE

UNITS

Ppk

Minimum 400

Watts

PO

1.0

Watts

IFSM
TJ,TSTG

40.0
-65 to +175

1)

NOTES:
1. Non-repetitive current pulse, per Fig. 3 and derated above TA=2SoC per Fig. 2.
2. Mounted on Copper Leaf area of 1.57 in2 (40mm2).
3. 8.3ms single half sine-wave, duty cycle =4 pulses per minutes maximum

Amps-"C

RATINGS AND CHARACTERISTIC CURVES BZW04 SERIES
FIGURE 2 100

LL

FIGURE 1 -

~

~~

100."~S

75

~a:

Waveform
In Figure 3
r.A- 25°C

~

I\..
'\

Of

IRSM

50

rn
-'
::>

.-

I

h

1.0

l<:
0
0

z
«

'=

~

as defined by REA

~

:;:::tp---.

W

ui

~

u
10" 1000 Waveform

.........

CL

""'-

C-

/value -2--",
'RSM

.........

<{

-

LL

-"-

()

-

-

Peak Value

" I'-

Z

a:
a:

.-

PULSE WAVEFORM

I

1

TYPICAL JUNCTION CAPACITANCE

1rr

tp, PULSE WIDTH

CL

o
o

0.1/.15

W

"

I~

w

0..

0..

«
()

I

~

I
2.0

10

~

3

!'.~

-

4.0

30

T, Time (ms)
~.

FIGURE 5 -

I
_ : 137~
I
I

10

Ht

STEADY STATE POWER DERATING

1.00

I

I\,

(9sL)\

-~

._f--

I

2

10

20

100

200

BREAKDOWN VOL TAGE, VOLTS (VBR)
FIGURE 6 - MAXIMUM NON-REPETITIVE
SURGE CURRENT

50

'"\ i\

40mm>< 40mm" lmm CU
(1 58" x 1 58" ~ 040")

I

I

\

Single Phase
Half Wave
60 HZ
Resistive or
Inductive load

25

50

f\

\

75

100

125

150

175

·8.3ms Single Half Sine-Wave
(JEDEC Method)

200
6

TL, LEAD TEMPERATURE (0 C)

8

10

20

40

NUMBER OF CYCLES AT 60Hz

-575-

60

100

Working

BIIIkdown ~1Iago

Mullllum

PIIk

V..

@IT

Valls""""')

DIVIct

BZW04P5V8
BZW04-5V8
BZW04P6V4
BZW04-6V4
BZW04P7VO
BZW04-7VO
BZW04P7V8
BZW04·7V8
BZW04P8V5
BZW04-8V5
BZW04P9V4
BZW04P10
BZW04·10
BZW04P11
BZW04-11
BZW04P13
BZW04-13
BZW04P14
BZW04-14
BZW04P15
BZW04·15
BZW04P17
BZW04-17
BZW04P19
BZW04·19
BZW04P20
BZW04·2O
BZW04P23
BZW04-23
BZW04P26
BZW04-26
BZW04P28
BZW04·28
BZW04P31
BZW04-31
BZW04P33
BZW04-33
BZW04P37
BZW04-37
BZW04P40
BZW04-40
BZW04P44
BZW04-44
BZW04P48
BZW04-48
BZW04P53
BZW04·53
BZW04P58
BZW04-58
BZW04P64
BZW04-64
BZW04P70
BZW04·70
BZW04P78
BZW04·78

IItI

MAX

6.45
6.45
7.13
7.13
7.79
7.79
8.65
8.65
9.50
9.50
10.5
11.4
11.4
12.4
12.4
14.3
14.3
15.2
15.2
17.1
17.1
19.0
19.0
20.9
20.9
22.8
22.8
25.7
25.7
28.5
28.5
31.4
31.4
34.2
34.2
37.1
37.1
40.9
40.9
44.7
44.7
48.5
48.5
53.2
53.2
58.9
58.9
64.6
64.6
71.3
71.3

7.48
7.14
8.25
7.88
9.02
8.61
10.0
9.55
11.0
10.5
12.1
13.2
12.6
14.3
13.7
16.5
15.8
17.6
16.8
19.8
18.9
22.0
21.0
24.2
23.1
26.4
25.2
29.7
28.4
33.0
31.5
36.3
34.7
39.6
37.8
42.9
41.0
41.0
45.2
51.7
49.4
56.1
53.6
61.6
58.8
68.2
65.1
74.8
71.4
82.5
78.8
90.2
86.1
100
95.5

n9

77.9
86.5
86.5

(mA)

10
10
10
10
10
10
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1

""'...

IIuImum

Mulmum

CUllin!

~1Iago"

TllftperlllU\n

I,.

Collflclent

""'III

""""
V-

I.eakagI

(VoHI)

Io(pA)

(Ampa)

5.80
5.90
6.40
6.40
7.02
7.02
7.78
7.78
8.55
8.55
9.4
10.2
10.2
10.2
11.1
12.8
12.8
13.6
13.6
15.3
15.3
17.1
17.1
18.8
18.8
20.5
20.5
23.1
23.1
25.6
25.6
28.2
28.2
30.8
30.8
33.3
33.3
36.8
36.8
40.2
40.2
43.6
43.6
47.8
47.8
53.0
53.0
58.1
58.1
64.1
64.1
70.1
70.1
77.8

1000
1000
500
500
200
200
50
50
10
10
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5

38.0
38.0
35.4
35.4
33.0
33.0
30.0
30.0
27.6
27.6
25.7
24.0
24.0
22.0
22.0
19.0
19.0
17.8
17.8
16.0
16.0
14.5
14.5
13.0
13.0
12.0
12.0
10.7
10.7
9.60
9.60
8.80
8.80
8.00
8.00
7.40
7.40
6.70
6.70
6.20
6.20
5.70
5.70
5.20
5.20
4.70
4.70
4.30
4.30
3.90
3.90
3.50
3.50
3.20
3.20

\\tItogo

IIV-

n8

-576-

"""
"""""

""""

"'--

Mulmum

of ...

'-(\11110)

!lie)

10.5
10.5
11.3
11.3
12.1
12.1
13.4
13.4
14.5
14.5
15.6
16.7
16.7
18.2
18.2
21.2
21.2
22.5
22.5
25.2
25.2
27.7
27.7
30.6
30.6
33.2
33.2
37.5
37.5
41.5
41.5
45.7
45.7
49.9
49.9
53.9
53.9
59.3
59.3
84.8
64.8
70.1
70.1

.057
.057
.061
.061
.065
.065
.068
.073
.073
.075
.075
.078
.078
.081
.081
.084
.084
.086
.086
.088
.088
.090
.090
.092
.092
.094
.094
.096
.096
.097
.097
.098
.098
.099
.099
.100
.100
.101
.101
.101
.101
.102
.102
.103
.103
.104
.104
.104
.104
.105
.105
.105
.105
.106
.106

no
no

65.0
85.0
92.0
92.0
103
103
113
113
125
125

WorfcIne

BlNkdown Vaillgo

V.
Valla"""".,

DtvI..

BZW04P85
BZW04-85
BZW04P94
BZW04-94
BZW04P102
BZW04-102
BZW04P110
BZW04-110
BZW04P128
BZW04-128
BZW04P136
BZW04-136
BZW04P145
BZW04-145
BZW04P154
BZW04-154
BZW04P171
BZW04-171
BZW04P188
BZW04-188
BZW04P213
BZW04-213
BZW04P239
BZW04-239
BZW04P256
BZW04-256
BZW04P273
BZW04-273
BZW04P299
BZW04-299
BZW04P342
BZW04-342
BZW04P376
BZW04-376

...

95.0
95.0
105
105
114
114
124
124
143
143
152
152
161
161
171
171
190
190
209
209
237
237
266
266
285
285
304
304
332
332
380
380
418
418

@II'

(mAl

MAX

110
105
121
116
132
126
143
137
165
158
176
168
187
179
198
189
220
210
242
231
275
263
308
294
330
315
352
336
385
368
440
420

484
462

1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1

Mu!mum

llulmum
AI.....
VaIIago It

Poole
AI_
Valllgo
V.....

....Imull
R......

"'_ _ 4

.....

IIuImum
T..peratuunl
CDllllcIont

1\II1s)

IR(pA)

lAmpe)

V... (\\IIIa)

I"Cl

85.5
85.5
94.0
94.0
102
102
1110
111
128
128
136
136
145
145
154
154
171
171
188
188
213
213
239
239
256
256
273
299
299
299
342
342
376
376

5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5

2.90
2.90
2.60
2.60
2.40
2.40
2.20
2.20
2.00
2.00
1.80
1.80
1.70
1.70
1.60
1.60
1.50
1.50
1.40
1.40
1.50
1.50
1.50
1.50
1.20
1.20
1.20
1.20
0.90
0.90
0.90
0.90
0.80
0.80

137
137
152
152
165
165
179
179
207
207
219
219
234
234
246
246
274
274
301
301

.106
.106
.107
.107
.107
.107
.107
.107
.108
.108
.108
.108
.108
.108
.108
.108
.108
.108
.108
.108
.110
.110
.110
.110
.110
.110
.110
.110
.110
.110
.110
.110
.110
.110

lIobgl
ItV_

NOTES:
1. VBR measured after IT applied for 300 JIB. IT = Square Wave Pulse or equivaJent
2. Surge Oument Waveform per Figure 3 and Derate
_0
I-a:

10

Wa: 50
OW

~

~

w;;:

"'0
-'a.

a.
l<

""

;::0

II:

«
w

'"

#2

T.-25OC

~

r\.

u.

Non-Repetitive
Pulse Waveform
shown in Figure 3

~~

1.0

"'w
«a.

a.
0:
a.

~

1.0,,5

100,,8

1 Oms

lOxl0DO Waveform

as

a
0.1
0.1 ...

'I\..
"- I':

25

W
a.

a

rfmedtY REI

25

50

75

100

125

150

175

200

TA AMBIENT TEMPERATURE 1°C)

IOms

tp,PUlSE WIDTH
FIGURE 4 -

TYPICAL JUNCTION CAPACITANCE

6000

FIGURE 3 -

JTJ

I

I

~

+,.

I
I-

f\

°
w

'"a.::>
"«a.w
..J

f--

I

~

W
Z
«
I-

400

1a x 1000 Waveform
as deftned by A E A

......

«
a.
«

-

/

10

20

200

0

I
I

100

""-l.
I '""'+---

=-ip

Measured@
' " Zero Bias

~I~~~~~~ @ -+"I\;~""l+I-Hf.''","-I
~-+-+-++t Voltage IVA)
'"

(3

'"
0

1000
800
600

0

2

ll'

50

u.

"-

~

/

Illill

""

of IRSM

Half Value -

'\.

~

2000

current decays to 50%

IRSM

"

w

a:
a:

::>

I

Pulse Width (tp) IS defined

Peak Value

100

4000

°25°C

10!lseC_ f-- as that pOint where the peak
~-

Z

PULSE WAVEFORM

30

80
60
40

40

T, TIME Ims)

",

20

10
10

10

iii
lI«
~
Z
Q
I«
a.

FIGURE 5 -

W

I I
375

25

'"a.ci

I

125

[\
\

200

r-~

FIGURE 6 - MAXIMUM NON-REPETITIVE
FORWARD SURGE CURRENT

SING'LE

x 1 58" x

1\

w
"Ul
a:w
::>a:

'\

Cu
040")

PHlsE

50

a::2
««

~

a:Z
OW
u.CI:
",a:
«::>
wO
a.

'\

125

50

;;:...:

1\
100

.....

00.

'\

HALF WAVE

100

8 3ms SINGLE HALF SINE-WAVE
JEDEC METHOD

UlW

1\

60Hz
RESISTIVE OR
INDU{TIVE tOAD

25

-

200

r-40mm x 40mm x 1mm
(158"

0

'"

- J

I

= 375" (95mm)

;;:

a.
W
I«
I>
0
«
w
I-

,00

50

(j)

'"Cia:

20

REVERSE VOLTAGE, VOLTS IVBR)

STEADY STATE POWER DERATING

150

175

10

200

5

TL, LEAD TEMPERATURE lOG)

10

NUMBER OF CYCLES AT 60Hz

·579·

50

100

ELECTRICAL CHARACTERISTICS (TA =2S'C unless otherwise noted)
Working
Broakdown VoHago
V.
VoHo (It01E I)
Dovlco

liN

MAX

SAS.O
SA5.0A
SA6.0
SA6.OA
SA6.5
SA6.5A
SA7.0
SA7.0A
SA7.5
SA7.5A
SAB.O
SA8.OA
SAB.5
SA8.5A
SA9.0
SA9.0A
SA10
SA10A
SAll
SAllA
SA12
SA12A
SA13
SA13A
SA14
SA14A
SA15
SA15A
SA16
SA16A
SA 17
SA17A
SA18
SA18A
SA20
SA20A
SA22
SA22A
SA24
SA24A
SA26
SA26A
SA28
SA28A
SA30
SA30A
SA33
SA33A
SA36
SA36A
SA40
SA40A
SA43
SA43A

6.40
6.40
6.67
6.67
7.22
7.22
7.78
7.78
8.33
8.33
8.89
8.89
9.44
9.44
10.0
10.0
11.1
11.1
12.2
12.2
13.3
13.3
14.4
14.4
15.6
15.6
16.7
16.7
17.8
17.8
18.9
18.9
20.0
20.0
22.2
22.2
24.4
24.4
26.7
26.7
28.9
28.9
31.1
31.1
33.3
33.3
36.7
36.7
40.0
40.0
44.4
44.4
47.8
47.8

7.30
7.00
8.15
7.37
8.82
7.98
9.51
8.60
10.2
9.21
10.9
9.83
11.5
10.4
12.2
11.1
13.6
12.3
14.9
13.5
16.3
14.7
17.6
15.9
19.1
17.2
20.4
18.5
21.8
19.7
23.1
20.9
24.4
22.1
27.1
24.5
29.8
26.9
32.6
29.5
35.3
31.9
38.0
34.4
40.7
36.8
44.9
40.6
48.9
44.2
54.3
49.1
58.4
52.8

Maximum
Maximum

Peak
@IT

ReVI_

Rove,..

(mAl

Vonago
V_
(Volts)

Loakago
IIV_
"(JlA)

5.0
5.0
6.0
6.0
6.5
6.5
7.0
7.0
7.5
7.5
8.0
8.0
8.5
8.5
9.0
9.0
10.0
10.0
11.0
11.0
12.0
12.0
13.0
13.0
14.0
14.0
15.0
15.0
16.0
16.0
17.0
17.0
18.0
18.0
20.0
20.0
22.0
22.0
24.0
24.0
26.0
26.0
28.0
28.0
30.0
30.0
33.0
33.0
36.0
36.0
40.0
40.0
43.0
43.0

600
600
600
600
400
400
150
150
50
50
25
25
10
10

10
10
10
10
10
10
10
10
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

-580-

5~0

5.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

IIIIxlmum
Tamper.....
Vonago

(Amps)

Maximum
Reve,..
VoHagoIl'(Cllmplng
Vonago)
V.... (YoHo)

52.0
54.3
43.9
48.5
40.7
44.7
37.8
41.7
35.0
38.8
33.3
36.7
31.4
34.7
29.5
32.5
26.6
29.4
24.9
27.4
22.7
25.1
21.0
23.2
19.4
21.5
18.8
20.6
17.6
17.6
16.4
16.1
15.5
17.2
13.9
15.4
12.7
14.1
11.6
12.8
10.7
11.9
9.9
11.0
9.3
10.3
8.5
9.4
7.8
8.5
7.0
7.8
6.5
7.2

9.60
9.20
11.4
10.3
12.3
11.2
13.3
12.0
14.3
12.9
15.0
13.6
15.9
14.4
16.9
15.4
18.8
17.0
20.1
18.2
22.0
19.9
23.8
21.5
25.8
23.2
26.9
24.4
28.8
28.8
30.5
27.6
32.2
29.2
35.8
32.4
39.4
35.5
43.0
38.9
46.6
42.1
50.1
45.4
53.5
48.4
59.0
53.3
64.3
58.1
71.4
64.5
76.7
69.4

5.0
5.0
5.0
5.0
5.0
5.0
6.0
6.0
7.0
7.0
7.0
7.0
8.0
8.0
9.0
9.0
10.0
10.0
11.0
11.0
12.0
12.0
13.0
13.0
14.0
14.0
16.0
16.0
19.0
17.0
20.0
19.0
21.0
20.0
25.0
23.0
28.0
25.0
31.0
28.0
31.0
30.0
35.0
31.0
39.0
36.0
42.0
39.0
46.0
41.0
51.0
46.0
55.0
50.0

Rove,..
Curnnt

....

(It01EIJ

Y1I~lIlon

V.
mVi'C

ELECTRICAL CHARACTERISTICS (T. = 25'C unless otherwise noted)
IIDlmm

Molmum

Poak

IIuImum

A......

A......
Vollago
V-

A......
LoakIIgo

Curnnl

AnI ..
Voillg.at ...
(Clamping
Voltagl)

(Volta)

WJ1Al

(Amps)

""",(\\lis)

\\I1Iago
VarloUon
V..
,.V/'C

45.0
45.0
48.0
48.0
51.0
51.0
54.0
54.0
58.0
58.0
60.0
60.0
64.0
64.0
70.0
70.0
75.0
75.0
78.0
78.0
85.0
85.0
90.0
90.0
100
100
110
110
120
120
130
130
150
150
160
100
170
170

1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

6.2
6.9
5.8
6.5
5.5
6.1
5.2
5.7
4.9
5.3
4.7
5.2
4.4
4.9
4.0
4.4
3.7
4.1
3.6
4.0
3.3
3.6
3.1
3.4
2.8
3.1
2.6
2.8
2.3
2.0
2.2
2.4
1.9
2.1
1.7
1.9
1.6
1.8

80.3
72.7
85.5
77.4
91.1
82.4
96.3
87.1
103
93.6
107
96.8
114
103
125
113
134
121
126
126
151
137
160
146
179
162
196
177
214
193
230
209
268
243
257
259
3.04
275

58.0
52.0
63.0
56.0
66.0
61.0
71.0
65.0
78.0
70.0
80.0
71.0
86.0
76.0
94.0
85.0
101
91.0
105
95.0
114
103
121
110
135
123
148
133
162
146
175
158
203
184
217
196
230
208

Working

Breakdown Voltag.
V..
Volts,..,. 'I
Doyle.

SA45
SA45A
SA48
SA48A
SA51
SA51A
SA54
SA54A
SA58
SA58A
SA60
SA60A
SA64
SA64A
SA70
SA70A
SA75
SA75A
SA78
SA78A
SA85
SA85A
SA90
SA90A
SAl 00
SA100A
SAll0
SA110A
SA120
SA120A
SA130
SA130A
SA150
SA150A
SA160
SA160A
SA170
SA170A

lIN

MAX

50.0
50.0
53.3
53.3
56.1
56.7
60.0
60.0
64.4
64.4
66.7
66.7
71.1
71.1
77.6
77.8
83.3
83.3
86.7
86.7
94.9
94.4
100
100
111
111
122
122
133
133
144
144
167
167
178
178
189
189

61.1
55.3
65.2
58.9
69.3
62.7
73.3
66.3
78.7
71.2
81.5
73.7
96.9
78.6
95.1
86.0
102
92.1
106
95.8
115
104
122
111
136
123
149
135
163
147
176
159
204
185
218
197
231
206

@II'

(mA)

1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

atV-

,..,.-'"
..

NOTES: 1. VBR measured after IT applied for 300ms. IT = SqJare Wave Pulse or equivalent.
2. Surge Current wavefonn per Figure 3 and Derate per Figure 2.
3. VF = 3.5 VailS max IF = 35A for all types on 1/2 square or equivalent Sine Wave. PW = 8.3ms.
Duty Cycle = 4 Pulse per Minute maximum.
4. For bipolar types with VR 10 VailS and under, the IR limit is doubled.

-581-

IIDlmum
T.mpo""""

-

P6KE SERIES
GLASS PASSIVATED JUNCTION TRANSIENT VOLTAGE
SUPPRESSOR
VOL TAGE- 6.8 to 400 Volts
600 Watt Peak Power 5.0 Watt Steady State
FEATURES
• Plastic package has Underwriters Laboratory
Flammability Classification 94V-0
• Glass passivated chip junction in 00-15 package
.600Wsurge
capability at 1 ms
• Excellent clamping
capability
• Low zener impedance
• Fast response time: typically less
than 1.0 ps from 0 volts to BV min.
• TypicallR less than 1 IJ. A above 10V
• High temperature soldering guaranteed:
300°C/10 seconds/.375", (9.5mm) lead
length/Sibs., (2.3 kg) tension

DO-15

f

+

,.0341.861
.028 1.711

1.0
MIN.

-+.300 17.61
.230r·81

I'

f

.140 (3.6 1
.104(2.61

1.0
MIN.
(25.41

MECHANICAL DATA

1

Csse:JEOEC 00-15 Molded plastic
Terminals: Axial leads, solderable per
MIL-STO-202, Method 208
Polarity: Color band denoted cathode except
Bipolar
Mounting Position: Any
Weight: 0.015 ounce, .4 gram

Dimensions in inches

and
(millimeters)

DEVICES FOR BIPOLAR APPLICATIONS
For Bidirectional use C or CA Suffix for types P6KE6.8 thru types P6KE400.
Electrical characteristics apply in both directions.

MAXIMUM RATINGS AND CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
Single phase, half wave, 60 Hz, resistive or inductive load.
For capacitive load, derate current by 20%.
RATING
Peak Power Dissipation at TA=25°C, Tp = 1ms (NOTE
Steady State Power Dissipation at TL=75°C
Lead Lengths .375", (g.5mm) (NOTE 2)
Peak Forward Surge Current, 8.3ms Single Half
Sine-Wave Superimposed on Rated Load
(JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range

SYMBOL
1)

Ppk

VALUE
Minimum 600

UNITS
Watts

PD

5.0

Watts

IFSM

100
-65 to +175

Amps
°C

TJ,TsTG

NOTES;
1. Non-repetitive current pulse, per Fig. 3 and derated above TA= 25°C per Fig. 2.
2. Mounted on Copper Leaf area of 1.57 in2 (40mm 2 ).
3. 8.3ms single half sine-wave, duty cycle = 4 pulses per minutes maximum.

-582-

RATINGS AND CHARACTERISTIC CURVES P6KE SERIES
FIGURE 2 - PULSE DERATING CURVE
FIGURE 1 -

PULSE RATING CURVE

100

100

~
rr

~~. "2~;C

f'-

f-rr
~O
wrr 50
Ow

w
~

0.

"~

Z::l
._0

10

o0.

"ili

~

LL
Of#z
ZW
_rr 75
(!lrr

'""V~,o'"'

w~

"'0
-'0.

~~

10

ilio.

~

0.

a
1 Of.l

s

laps

1 Oms

100/.1$

r"nedtv R.E I

10xl000 Waveform

as

1
Q1jJs

"~

25

"w

ei

0.

,

a

25

10ms

50

75

100

125

r'\.

1SO

175 200

TA AMBIENT TEMPERATURE ('C)

Ip. PULSE WIDTH
FIGURE 4 - TYPICAL JUNCTION CAPACITANCE
6000

FIGURE 3 -

$"
#

I
f-

-

I
___ tr '"

100

1\

Z

rr
rr

'"-'
ili"

I TJ

lO/-tsec~

t--

Peak Value

/

"Q.

"

~"""

r--

rr--

II"

~ '"

1000
800
800

Measured@
Zero Bias

ui

!BSM

()

2

..:
f-

400

..:

200

Z

V

50

::l
0.

TJ ~ 25°C

~-I-+-+-+-H'IoH---+-+ I I I II

2000

I

"-

0

I

IRSM

Half Value -

0.

4000

~ 25'C

Pulse Width (Ip) IS defined
as that POint where the peak
current decays to 50%
of IRSM

'\

W

:::l
()

W

PULSE WAVEFORM

I

10 x 1000 Waveform
as defined by REA

......

13

-

0.

I--'-+~~-++ -Measu~ed @

$tand·Off
I--+~-I-++ Voltage (VA)

('i
100

~

=-tp-

I --t

1.0

30

2.0

80
80

40

40

T. TIME (ms)

,

20

10
1.

iii
ff..:

I I

0

..:

375

0.

w

25

~

0

0.
W

~
f-

'">-0

..:

w
f-

'"~

I

[\

100

20

200

FIGURE 6 - MAXIMUM NON-REPETITIVE
SURGE CURRENT

I

i=O=O "1\

200

I =- .375" (9.5mm)

iii

'"0rr

10

REVERSE VOLTAGE. VOLTS (VBR)

5.0

~

z
;::

2

FIGURE 5 - STEADY STATl' POWER DERATING

1.25

'\

40mm lC 40mm x lm~ Cu
(158" x 1.58" x 040")

1\

"

SINGte PHlsE
HALF WAVE

25

I
50

..:..:

100

125

150

TL. LEAD TEMPERATURE (OC)

8 3ms SINGLE HALF SINEMWAVE
JEDEC METHOD

100

50

~,.:

"
175

""'"

rrz
Ow
LLrr
"rr
..:::l
w()

1\

60Hz
RESISTIVE OR
INDUCTIVE LOAD

I

w
(!l",
rrw
::la:
"'w
00.
rr::;;

0.

10

200

6

10

60

100

NUMBER OF CYCLES AT 6OH"

-583-

I~

-

Breakdown Voltage
VIR

@II'

VoIII(l101l1)

Device

PSKES.8A
PSKE7.5
PSKE7.5A
PSKE8.2
PSKE8.2A
P6KE9.1

liN

S.45
S.75
7.13
7.38
7.79
8.19
8.65
P6KE~.1A
. 9.00
P6KE10
PSKE10A
9.50
PSKE11
9.90
p6KE11A
10.5
P5KE12
10.8
P6KE12A
11.4
P6KE13
11..7
PSKE13A
12.4
PSKE15
13.5
P6KE15A
14.3
PSKE1S
14.4
P6KE16A
15.2
PSKE18
16.2
17.1
PSKE18A
PSKE20
18.0
P6KE20A
19.9
P6KE22
19.8
20,9
PSKE22A
21.6
PSKE24
PSKE24A
22.8
24.3
PSKE27
25.7
PSKE27A
PSKE30
27.0
PSKE30A
28.5
PSKE33
29.7
31.4
P6KE33A
P6KE36
32.4
P6KE36A
34.2
P6KE39
35.1
37.1
PSKE39A
PSKE43
38.7
P6KE43A
40.9
PSKE47
42.3
P6KE47A
44.7
PSKE51
45.9
48.5
PSKE51A
PSKE5S
50.4
P6KE56A
53.2
55.8
PSKES2
58.9
PSKES2A
S.1.2
PSKES8
PSKES8A
64.S
P6KE75
67.5
71.3
PSKE75A
73.8
PSKE82
P6KE82A
77.9
PSKE91
81.9
PSKE91A
8S.5

"'AI

MAX

7.14
8.25
7.88
9.02
8.S1
10.0
9.55
11.0
10.5
12.1
11.6
13.2
12.6
14.3
13.7
1S.5
15.8
17.6
1S.8
19.8
18.9
22.0
21.0
24.2
23.1
26.4
252.
29.7
28.4
33.0
31.5
36.3
34.7
39.6
37.8
42.9
4~.0

47.3
45.2
51.7
49.4
56,1
53.6
61.6
58.8
S8.2
S5.1
74.8
71.4
82.5
78.8
90.2
8S.1
100
95.5

to
10
10
10
10
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

- -

World,.
Folie
Rove...

lIuIIIIum
IIIverIt

llulmum
R_
Curlin!

...

V-

IIV-

(11011~

(\\JJII)

WPAI

(AmPal

5.80
S.05
S.40
S.S3
7.02
7.37
7.78
8.10
8.55
8.92
9.40
9.72
10.2
10.5
11.1
12.1
12.8
12.9
13.S
14.5
15.3
16.2
17.1
17.8
18.8
19.4
20.5
21.8
23.1
24.3
25.6
26.8
28.2
29.1
30.8
31.S
33.3
34.8
3S,8
38.1
40.2
41.3
43.6
45.4
47.8
50.2
53.0
55.1
58.1
SO.7
64.1
(lS.4
70.1
73.7

1000
500 .
500
200
200
5Q
50
10
10
5.0
5.0
9.0
5.0
5.0
5.0
5.0
5:0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

n.8

-584-

M
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

57
51
53
48

50
44
45
40
41
37
~8

35
36
32
33
27
28
. 26.27
23
24
21
22
19
20
17
18
15
1S
14
14.4
12.6
13.2
11.6
12.0
10.6
11.2
9.6
10.1
8.9
9.3
8.2
8.S
7.4
7.8
6.8
7.1
6.1
S.5
5.5
5.8
5.1
5.3
4.5
4.8

llulmum
Rove ...

-\\I1Ig1l1

I...

...

v...(Vo1II)

10.5
11.7
11.3.
12.5
12.1
13.8
13.4
15.0
14.5
1S.2
15.S
17.3

111.7
19.0
18.2
22.0
21.2
23.5
22.5
26.5
25.2
29.1
27.7
31.9
30.6

34.7

33.2
39.1
37.5
43.5
41.4
47.7
45.7
52.0
49.9
5S.4
53.9
61.9
59.3
67.8
64.8
73.5
70.1
80.5
.77.0
89.0
85.0
98.0
92.0
108
103
118
113
131
125

llulmum
Temporatull
ColillcIllll
oIV..

I'J'CI
0.057
0.OS1
0.OS1
0.0115
0.065
0.068

MEllI
0.073
0.073
0.075
0.075
0.078
0.0711
0.OS1
0.081
0.084
0.084
0.086
0.086
0.088
0.088
0.090
0.090
0.092
0.092
0.094
0.094
0.096
0.096
0.097
0.097
0.098
0.098
0.099
0.099 '
0.100
0.100
0.101
0.101
0.101
0.101
0.102
0.102
0.103
0.103
0.104
0.104
0.104
0.104
0.105
0.105
0.105
0.105
0.105
0.10S

Breakdown Voltage

V..

@IT

VoHs (NOTE 1)

Dovlee

P6KE100
P6KE100A
P6KEll0
P6KEll0A
P6KE120
P6KE120A
P6KE130
P6KE130A
P6KE150
P6KE150A
P6KE160
P6KE160A
P6KE170
P6KE170A
P6KE180
P6KE180A
P6KE200
P6KE200A
P6KE220
P6KE220A
P6KE250
P6KE250A
P6KE300
P6KE300A
P6KE350
P6KE350A
P6KE400
P6KE400A

MIN

MAX

90.0
95.0
99.0
105
108
114
117
124
135
143
144
152
153
162
162
171
180
190
198
209
225
237
270
285
315
332
360
380

110
105
121
116
132
126
143
137
165
158
176
168
187
179
198
189
220
210
242
231
275
263
330
315
385
368
440
420

.."
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

Working
Peak

Maximum

Mulmum

Maximum

Rlverse

Rave....

Ro.. rea

RI..rea
Voltage at
1-

V.........

.......

Current

at V"""
1R(j1A)

iI."'~

P''''P''IVAfII

(VoMo)

(Ampo)

V... (VoIIs)

Mulmum
Temperature
Coefficient
of V..
(%C)

81.0
85.5
89.2
94.0
97.2
102
105
111
121
128
130
136
138
145
146
154
162
171
175
185
202
214
243
256
284
300
324
342

5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

4.2
4.4
3.8
4.0
3.5
3.6
3.2
3.3
2.8
2.9
2.6
2.7
2.5
2.6
2.3
2.4
2.1
2.2
1.75
1.83
1.67
1.75
1.40
1.45
1.20
1.25
1.05
1.10

144
137
158
152
173
165
187
179
215
207
230
219
244
234
258
246
287
274
344
328
360
344
430
414
504
482
574
548

0.106
0.106
0.107
0.107
0.107
0.107
0.107
0.107
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.110
0.110
0.110
0.110
0.110
0.110
0.110
0.110

~

...

NOTES:

1. VeR measured after IT applied for 300jJS IT = Square Wave Pulse or equivalent.
2. Surge Current Waveform per Figure 3 and Derate per Figure 2.
3. VF =3.5V at IF =50A (P6KE6.S thru P6KE91A
VF= 5.0V at IF = 50A (P6KE100 thru P6KE400A) on 1/2 Square or equivalent Sine Wave.
PW = 8.3ms, Duty Cycle = 4 Pulses per minute maximum.
4. For bipolar types moving VR of 10 volts and under, tile IR limit is doubled.

-585-

1.SKE SERIES
GLASS PASSIVATED JUNCTION TRANSIENT VOLTAGE
SUPPRESSOR
VOL TAGE - 6.8 to 400 Volts
1500 Watt Peak Power 5.0 Watt Steady State
FEATURES
• Plastic package has Underwriters labQratory
Flammability Classification 94V-0
• Glass passivated chip junction in Molded Plastic
package
'"
• 1S00W surge
'''-''''
capability at 1 ms
'''-~
• Excellent clamping capability
~
• Low zener impedance
','
• Fast response time: typically less
''"'"
than 1.0 ps from 0 volts to BV min.
"
• TypicallR less than 1J.LA above 10V
• High temperature soldering guaranteed:
300°C/10 seconds/.37S", (9.Smm) lead
length/Sibs., (2.3 kg) tension

DO-201

1

.210 (5.3)

.le~I~~·e)

r

1.0 (25.4)

L, 1+

--ft-.375 (9.5)
• 285f·2)

1.0 (25.4)
.042 (1.07)
.37 (. 94)

+

T

MECHANICAL DATA
Case:JEDEC DO-201 Molded plaStic
Terminals: Axial leads, solderable per
MIL-STD-202, Method 208
Polarity: Color band denoted cathode except
Bipolar
Mounting Position: Any
Weight: 0.04S ounce, 1.2 grams

Dimensions in inches
and
(millimeters)

DEVICES FOR BIPOLAR APPLICATIONS
For Bidirectional use C or CA Suffix for types 1.SKE6.8 thru types 1.SKE400.
Electrical characteristics apply in both directions.

MAXIMUM RATINGS AND CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
RATING

Peak Power Dissipation at TA=25°C, Tp=1 ms (NOTE
Steady State Power Dissipation at TL=75°C
Lead Lengths .375", (9.5mm) (NOTE 2)
Peak Forward Surge Current, a.3ms Single Half
Sine-Wave Superimposed on Rated Load
(JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range

SYMBOL

VALUE

Ppk

Minimum 1500

UNITS
Watts

PD

5.0

Watts

IFsM
TJ,TsTG

200
-65 to +175

Amps
°C

1)

NOTES:
1. Non-repetitive current pulse, per Fig. 3 and derated above TA= 25°C per Fig. 2.
2. Mounted on Copper Leaf area of 0.79 in2 (20mm 2).
3. 8.3ms single half sine-wave, duty cycle =4 pulses per minutes maximum.

·586-

RATINGS AND CHARACTERISTIC CURVES 1.5KE SERIES
FIGURE 2 FIGURE 1 -

PULSE RATING CURVE

10_,,_
10,,__
1,1:)

a:
w

;:

otl.

><

'"

W

tl.

a.

tl.

01o"'? Z

Pulse Waveform
shown In Flgure:J

ZW
_a:
",a:
Z=>
_0
f-a:

75

Wa:
OW
w;:
UlO

50

25°C

;io

PULSE DERATING CURVE

",

u.

~1~11~!IIIIIIII~N~o~n~R~ep~e~I,,~,,~e~1
TA

f

100

'\

" ",
~

Stl.

0.'"

25

><:1j
"'0.
W
0.

10x 1000 Waveform
as defmed by REA

a

25

50

~

-

r--~-------

a

75

100

125

~175

150

200

TA AMBIENT TEMPERATURE (OC)
Ip PULSE WIDTH

FIGURE 4 -

TYPICAL JUNCTION CAPACITANCE

20.000

FIGURE 3 -

PULSE WAVEFORM

10,000

25 C

6000

TJ

~

Pulse Width

IS defined
thf' peak

lOurC - t------- as that

.J.-=:-:tr

00

"

4000

1050°"
'00

~

fZ
w
a:
a:
=>

Peak Value
IRSM

\.

0

"-

w

':l=>
><

--

10

18~M

Half Value

1-- -

tl.

"::""::tp

"-

W

2

0

~s defllned byt E A

30

20

Measured@
Zero Bias

GOO

400

'"
'"0

200

Measured@ Stand-Off
Voltage (VR)

V

0.

4

a

100

80

T. TIME (ms)

60
40

30

iJ)

FIGURE 5 -

f-

!;;[

STEADY STATE POWER DERATING

1\

Z

o
f=

w

25

;:

w

fUl
>-

a

t;;"
w

~

~

\

20mm x 20mm x , mm eu
08" 0 8" x 040

otl.
~

~

125

I

t--

\

HALF WAVE
60Hz
RESISTIVE OR
INDUCTIVE LOAD

75

10

100

i"'"t"--

W
a:w
=>a:
UlW

(!)(/)

I

50

r

,a

100

20

200

MAXIMUM NON-REPETITIVE
SURGE CURRENT

-

200

SINGLE PHASE

25

~

FlO. 5 -

I = 375" (95mm)

Ul

a:

~

REVERSE VOLTAGE, VOLTS (VBR)

\

375

tl.

o

10

50

~

'"
iii

.-1-

BOO

Z

'Gf-"

10xl00Q Waveform

-.......

I"

\

tOoo

u.

~

I\.

2000

",.......

:'>0

tl.

'W"

of IRSM

125

8.3ms SINGLE HALO SINE·WAVE
JEOEC METHOD

otl.

\

a::2
",,,,

\
150

;:>-'

\

175

so

a:Z
Ow
u.a:
",a:
",:0
wO
tl.

200

TL. LEAD TEMPERATURE (0G)

10

10

NUMBER OF CYCLES AT 60Hz

-587-

so

100

JEDEC
TYPE
NUIIIER

lN6267
lN6267A
lN6268
lN6268A
lN6269
lN6269A
lN6270
lN6270A
lN6271
1N6271 A
lN6272
lN6272A
lN6273
lN6273A
lN6274
lN6274A
lN6275
lN6275A
lN6276
lN6276A
lN6277
lN6277A
lN6278
lN6278A
lN6279
lN6279A
lN6280
lN6280A
1 N6281
1N6281 A
lN6282
lN6282A
lN6283
lN6283A
lN6284
lN6284A
lN6285
lN6285A
lN6286
lN6286A
lN6287
lN6287A
lN6288
lN6288A
lN6289
lN6289A
lN6290
lN6290A
lN6291
lN6291A
lN6292
lN6292A
lN6293
lN6293A
lN6294
lN6294A
lN6295

GENERAL
PART
NUMBER

1.5KE6.8
1.5KE6.8A
1.5KE7.5
1.5KE7.5A
1.5KE8.2
1.5KE8.2A
1.5KE9.1
1.5KE9.1A
1.5KE10
1.5KE10A
1.5KEll
1.5KE11A
1.5KE12
1.5KE12A
1.5KE13
1.5KE13A
1.5KE15
1.5KE15A
1.5KE16
1.5KE16A
1.5KE18
1.5KE18A
1.5KE20
1.5KE20A
1.5KE22
1.5KE22A
1.5KE24
1.5KE24A
1.5KE27
1.5KE27A
1.5KE30
1.5KE30A
1.5KE33
1.5KE33A
1.5KE38
1.5KE36A
1.5KE39
1.5KE39A
1.5KE43
1.5KE43A
1.5KE47
1.5KE47A
1.5KE51
1.5KE51A
1.5KE56
1.5KE56A
1.5KE62
1.5KE62A
1.5KE68
1.5KE68A
1.5KE75
1.5KE75A
1.5KE82
1.5KE82A
1.5KE91
1.5KE91A
1.5KE100

Breakdown VoIIago'
V..

@IT

WOrkl~Peak

(mA)

Min

'Max
' ' ' 'I

RoveIN oRage
V_
(VolIs)

6.12
6.45
6.75
7.13
7.38
7.79
8.19
8.65
9.00
9.50
9.90
10.5
10.8
11.4
11.7
12.4
13.5
14.3
14.4
15.2
16.2
17.1
18.0
19.0
19.8
20.9
21.6
22.8
24.3
25.7
27.0
28.5
29.7
31.4
32.4
34.2
35.1
37.1
38.7
40.9
42.3
44.7
45.9
48.5
50.4
53.2
55.8
58.9
61.2
64.6
67.5
71.3
73.8
77.9
81.9
86.5
90.0

7.48
7.14
8.25
7.88
9.02
8.0
10.0
9.55
11.0
10.5
12.1
11.6
13.2
12.6
14.3
13.7
16.5
15.8
17.6
16.8
19.8
18.9
22.0
21.0
24.2
23.1
26.4
25.2
29.7
28.4
33.0
31.5
36.3
34.7
39.6
37.8
42.9
41.0
47.3
45.2
51.7
49.4
56.1
53.6
61.8
58.8
68.2
65.1
74.8
71.4
82.5
78.8
90.2
86.1
100.0
95.5
110

10
10
10
10
10
10
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

5.50
5.80
6.05
6.40
6.63
7.02
7.37
7.78
8.10
8.55
8.92
9.40
9.72
10.2
10.5
11.1
12.1
12.8
12.9
13.6
14.5
15.3
16.2
17.1
17.8
18.8
19.4
20.5
21.8
23.1
24.3
25.6
26.8
28.2
29.1
30.8
31.6
33.3
34.8
36.8
36.1
40.2
41.3
43.6
45.4
47.8
50.2
53.0
55.1
58.1
60.7
64.1
66.4
70.1
73.7
77.8
81.0

(VolIs)

-588-

Maximum
Rove,..
Lalkage

Maximum
Ra_Surge Maximum Rove,..
Cur..nt ... VoRage"_

-'-

1.(j1A)

(Ampe)

"""".

Vtao(VoIts)

1000
1000
500
500
200
200
50
50
10
10
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

139
143
128
132
120
124
109
112
100
103
93.0
96.0
87.0
90.0
79.0
82.0
68.0
71.0
64.0
67.0
56.5
59.5
51.5
54.0
47.0
49.0
43.0
45.0
38.5
40.0
34.5
36.0
31.5
33.0
29.0
30.0
26.5
28.0
24.0
25.3
22.2
23.2
20.4
21.4
18.6
19.5
16.9
17.7
15.3
16.3
13.9
14.6
12.7
13.3
11.4
12.0
10.4

10.8
10.5
11.7
11.3
12.5
12.1
13.8
13.4
15.0
14.5
16.2
15.6
17.3
16.7
19.0
18.2
22.0
21.2
23.5
22.5
26.5
26.2
29.1
27.7
31.9
30.6
34.7
33.2
39.1
37.5
43.5
41.4
47.7
45.7
52.0
49.9
56.4
53.9
61.9
59.3
67.8
64.8
73.5
70.1
80.5
77.0
89.0
85.0
98.0
92.0
109
104
118
113
131
125
144

ltv....

c

Maximum
TornpandU..
CooIIIclnot 01 V..
(%I"C)Vtao (VolIs)

0.057
0.057
0.061
0.061
0.065
0.065
0.068
0.068
0.073
0.073
0.075
0.075
0.076
0.078
0.081
0.061
0.084
0.084
0.066
0.066
0.068
0.089
0.090
0.090
0.092
0.092
0.094
0.094
0.096
0.096
0.097
0.097
0.098
0.098
0.099
0.099
0.100
0.100
0.101
0.101
0.101
0.101
0.102
0.102
0.103
0.103
0.104
0.104
0.104
0.104
0.105
0.105
0.105
0.105
0.106
0.106
0.106

.......nVO. . .
~EDEC

GENEIIAL
PART

TYPE

HillIER

Min

HUIllER

1N6295A
lN6296
1N6296A
lN6297
lN6297A
lN6298
lN6298A
lN6299
lN6299A
lN6300
1N6300A
1N6301
1N6301A
lN6302
1N6302A
lN6303
1N6303A

(Volts)

1.5KE100A
1.5KEll0
1.5KE110A
1.5KE120
1.5KE12OA
1.5KE130
1.5KE130A
1.5KE150
1.5KE150A
1.5KE160
1.5KE160A
1.5KE170
1.5KE170A
1.5KE180
1.5KE180A
1.5KE200
1.5KE2OOA*
1.5KE220
1.5KE22OA'
1.5KE250
1.5KE250A
1.5KE300
1.5KE30OA
1.5KE350
1.5KE350A
1.5KE400
1.5KE400A

95.0
99.0
106
108
114
117
124
136
143
144
152
153
162
162
171
180
190
196
209
225
237
270
285
315
333
360
380

v.

"""1

105
121
116
132
126
143
137
185
158
176
168
167
179
198
189
220
210
242
231
275
263
330
315
385
368
440
420

@II'

(IIAI

1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0

WOIlIng""
IiIvIIIIVo"

"(VolI)
85.5
89.2
94.0
97.2
102
106
111
121
128
130
136
138
145
146
154
162
171
175
185
202
214
243
256
284
300
324
342

IIIIllIuII
R_

IIIIlInuII

IluiIlUII

CU"""_

v... II_

"(JlA)

(AJnpa)

5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

11.0
9.5
9.9
8.7
9.1
8.0
8.4
7.0
7.2
6.5
6.8
6.2
6.4
5.8
6.1
5.2
5.5
4.3
4.6
5.0
5.0
5.0
5.0
4.0
4.0
4.0
4.0

......
IIv.-

--

IIow",Bulge

RIve",

IIDInIIIII

(a_v_
'-(Volts)

CollfftolllllaiV.
(lVCI'-(VoIts)

137
158
152
173
185
187
179
215
207
230
219
244
234
258
246
287
274
344
328
360
344
430
414
504
482
574
548

0.106
0.107
0.107
0.107
0.107
0.107
0.107
0.108
0.106
0.106
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.110
0.110
0.110
0.110
0.110
0.110
0.110
0.110

TOllpllllll..

NOTES:
1. VBR measured after IT applied for 300 us.lr = Square Wave Pulse or equivalent.
2. Surge current Waverform per Figure 3 and Derate per Figure 2.
3. VF - 3.5V max, IF=100A (1.5KE6.8 thru 1.5KE91A)
VF=5.0 V max., IF=100A (1.5KE100 thru 1.5KE400A) per 112 Square or equivalent Sine Wave.
PW - 8.3mx, Duty Cycle - 4 Pulses per minute maximum.
, Bidirectional versions are UL approved.

-589-

5KP SERIES
GLASS PASSIVATED JUNCTION TRANSIENT VOLTAGE
SUPPRESSOR
VOLTAGE· 5.0 to 110 Volts
5000 Watt Peak Power 5.0 Watt Steady State'
FEATURES
P600

0)

I· :U8!U~

-I

1

1.0 MIN.

~
•360(9.1)

1(8.6)

•34

• Plastic package has Underwriters Laboratory
Flammability Classification 94V-O
• Exceeds environmental standards MIL-STD-19S00
• Glass passivated Junction chip
in Molded Plastic package
• SOOOW surge
capability at 1 ms
• Excellent clamping
capability
• Low zener impedance
• Fast response time: typically less
than 1.0 ps from 0 volts to BV min .
• Typical IR less than 1 1-1 A above 10V
• High temperature soldering guaranteed: 300°C/10
seconds/.37S (9.Smm) lead length/Sibs., (2.3 kg)
tension
M

•052 n.3) ,
.048 n.2)

..

1.0 MIN•
(25.4)

1

Dimensions in innches
and

(millimeters)

,

MECHANICAL DATA
case: Molded plastic over glass passivated
junction
Terminals: Axial leads, solderable per MIL-STD202, Method 208
Polarity: Color band denoted cathode except
Bipolar
Mounting Position: Any
Weight: 0.007 ounce, 2.1 gram

MAXIMUM RATINGS AND CHARACTERISTICS
Ratings at 25°C ambient temperature unless otherwise specified.
RATING

SYMBOL

VALUE

UNITS

Ppk

Minimum 5000

Watts

PO

5.0

Watts

IFSM

400
-55 to +175

Amps
·C

Peak Power Dissipation at TA-25°C, Tp - 1ms (NOTE 1)
Steady State Power Dissipation at TL-75·C
Lead Lengths .375", (9.5mm) (NOTE 2)
Peak Forward Surge Current, 8.3ms Single Half
Sine-Wave Superimposed on Rated Load
(JEDEC Method) (NOTE 3)
Operating and Storage Temperature Range
NOTES:
1. Non-repetitive current pulse, per Fig. 3 and derated above TA=25°C per Fig. 2.
2. Mounted on Copper Leaf area of 0.79 in2 (20mm2j.
3. 8.3ms single half sine-wave, duty cycle= 4 pulses per minutes maximum.

-590-

TJ,TsTG

RATINGS AND CHARACTERISTIC CURVES 5KP SERIES
FIGURE 2 - PULSE DERATING CURVE
FIGURE 1 -

PULSE RATING CURVE

100

100

~

Non· Repetitive

"-

Pulse Wavefonn
shawn in Figure 3
TA -= 25"C

01-

#2

Zw
_cr
<:lcr

'""

0

50

Ow
wo;

"-

"

~

_0

~~
Wcr

0;

'"

75

z:::l

10

cr
W

..:
w

.......

,

r\.

(/)0

-',,-

1.0

~'"

"-

a.

o

.,'''

1.0.."a

100~

10..,s

I.Oms

\.

10x1000 Waveform
as defined by REA

"01

"

25

"'..:

~~

"-

IOms

o

25

50

75

100

125

150

175

200

TA AMBIENT TEMPERATURE (OC)

tP. PULSE WIDTH

FIGURE 4 - TYPICAL JUNCTION CAPACITANCE
FIGURE 3 -

I

~
0°

100

1-

f\f'\

Z

W
cr
cr

:::l

0
w

':l

TJ

i1~ 1.1 10u~ec- I---

0

~

Peak
rlHSM

:::l

.......

'"w

..:

"-

o

2.D

BODO

Z

4000

..:

-

r - - l-

1-

t)

-

Measured

..: 2000
"..:

.,....., I
I "r-.I.
1.0

ui
0

x 1000 Waveform ~asteflnedl by A Et _

I

'M~a~u,ed @

~

/"

Zero Bias

u.. 10.000

10

"-

riC
II

20.000

I
I
I
2

"-

o

40.000

~?'fvaIUi-- IBSM

"-

50

TJ

25' C

Pulse Width (Ip) IS defined

as thai pOint where the peak
current decays to SOQ'c
of IRSM

I
I
I

Vah'~

~

100,000

PULSE WAVEFORM

~

Stand-Off
Voltage (VA)

0

3.0

,

'\.

I\~

1000

4.0

SOO
600

T. TIME Ims)

400

..:
~

,

FIGURE 5 -

iii

11-

So

375

I

0

cr

25

W

375" (9

~
08" 0 8"

W

..:

125

I

I

SINGLE PHASE

1-

HALF WAVE

>-

60Hz
RESISTIVE OR

..:

INDUCTIVE LOAD

(/)

0

10

",

20mm x 20mm x 1mm Cu

0
"1-

~

100

"5m~

0

;::

(/)

0

"-

25

50

75

400

100

125

10
20
100
REVERSE VOLTAGE. VOLTS (VBR)

IS.'3!.
w

<:lu;

(J)W

150

TL. LEAD TEMPERATURE (OC)

175

0"-

~ ~ 250
;::,..:

crz

200

2

~ 200
",cr

..::::l

If 0

~'~GL~ HA~F-~INIE WAVE

JEDEC METHOD
..... ro-...

§i ~ 300

"I"

150

........ ......

'"

~r-. r-...

100
5
10
20
NUMBER OF CYCLES AT 60Hz

-591-

200

FIGURE 6 - MAXIMUM NON-REPETITIVE
SUAGECUAAENT

350

r\.

W

1-

200

I---

z

>=
..:
"Ui
(/)

I

STEADY STATE POWER DERATING

.........

i"......

50

IN~

100

-

-

ELECTRICAL CHARACTERISTICS (TA = 25'C unless otherwise noted)
Mulmm

Working

Brelllldown Voltage

v..

@II'

(mAl

\\I ........ ',

Devlc.

liN

MAX

SKPS.O
SKPS.OA
5KP6.0
5KP6.0A
SKP6.S
SKP6.SA
SKP7.0
SKP7.0A
SKP7.S
5KP7.SA
SKP8.0
SKP8.0A
SKP8.5
SKP8.SA
5KP9.0
5KP9.0A
SKP10
5KP10A
SKP11
5KPllA
SKP12
5KP12A
SKP13
SKP13A
SKP14
SKP14A
SKP1S
SKP15A
SKP16
SKP16A
SKP17
SKP17A
SKP18
SKP18A
SKP20
SKP20A
SKP22
5KP22A
SKP24
SKP24A
SKP26
5KP26A
SKP28
SKP28A
5KP30
SKP30A
5KP33
SKP33A
SKP36
SKP36A
5KP40
SKP40A
SKP43

6.40
6.40
6.67
6.67
7.22
7.22
7.78
7.78
8.33
8.33
8.89
8.89
9.44
9.44
10.0
10.0
11.1
11.1
12.2
12.2
13.3
13.3
14.4
14.4
lS.6
lS.6
16.7
16.7
17.8
17.8
18.9
18.9
20.0
20.0
22.2
22.2
24.4
24.4
26.7
26.7
28.9
28.9
31.1
31.1
33.3
33.3
36.7
36.7
40.0
40.0
44.4
44.4
47.8

7.30
7.00
8.1S
7.37
8.82
7.98
9.51
8.60
10.2
9.21
10.9
9.83
11.S
10.4
12.2
11.1
13.6
12.3
14.9
13.S
16.3
14.7
17.6
lS.9
19.1
17.2
20.4
18.S
21.8
19.7
23.1
20.9
24.4
22.1
27.1
24.S
29.8
26.9
32.6
29.S
35.3
31.9
38.0
34.4
40.7
36.8
44.9
40.6
48.9
44.2
54.3
49.1
58.4

SO
SO
SO
SO
SO
SO
SO
SO

s.o
s.o
s.o
s.o
s.o
s.o
5.0

s.o
s.o
s.o

S.O

s.o
s.o

5.0

s.o

5.0

s.o
s.o
s.o

S.O

s.o
s.o
s.o
s.o
s.o
s.o

5.0

s.o
s.o
s.o
s.o
s.o

5.0
S.O

s.o

5.0
S.O
S.O

s.o

5.0

s.o
s.o
S.O
S.O
S.O

"""...

"'Ik

Mulmwn

\\Iltage
V(Volta)

WJ1Al

lAmpe)

2000
2000
SOOO
5000
2000
2000
1000
1000
2S0
250
lS0
lS0
50
SO
20
20
lS
15
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10

...

s.o
s.o
6.0
6.0
6.S
6.S
7.0
7.0
7.S
7.5
8.0
8.0
8.S
8.S
9.0
9.0
10.0
10.0
11.0
1 i.o
12.0
12.0
13.0
13.0
14.0
14.0
lS.0
lS.0
16.0
16.0
17.0
17.0
18.0
18.0
20.0
20.0
22.0
22.0
24.0
24.0
26.0
26.0
28.0
28.0
30.0
30.0
33.0
33.0
36.0
36.0
40.0
40.0
43.0

-592-

Reve...
Loabgo
IIV-

........

llaximllll

.,'"
......

Mulmum
Tlmpo_re

YoI!agoIl-

CooIIIcIInI
alV.

VRsu(VoIII

I"C)

S20
S43
439
48S
407
447
378
417
3S0
388
333
367
314
347
29S
32S
266
294
249
274
227
2S1
210
232
194
215
188
206
176
176
164
161
155
172
139
154
127
141
116
128
107
119
99
110
93
103
8S
94
78
8S
70
78
65

9.6
9.2
11.4
10.3
12.3
11.2
13.3
12.0
14.3
12.9
15.0
13.6
15.9
14.4
16.9
lS.4
18.8
17.0
20.1
18.2
22.0
19.9
23.8
21.5
25.8
23.2
26.9
24.4
28.8
28.8
30.S
27.6
32.2
29.2
3S.8
32.4
39.4
35.S
43.0
38.9
46.6
42.1
SO. 1
45.4
53.5
48.4
S9.0
53.3
64.3
S8.1
71.4
64.S
76.7

0.057
0.057
0.061
0.061
0.065
O.06S
0.068
0.068
0.073
0.073
0.075
0.07S
0.078
0.078
0.081
0.081
0.084
0.084
0.086
0.086
0.088
0.088
0.090
0.090
0.092
0.092
0.094
0.094
0.096
0.096
0.097
0.097
0.098
0.098
0.099
0.099
0.100
0.100
0.101
0.101
0.101
0.101
0.102
0.102
0.103
0.103
0.104
0.104
0.104
0.104
0.10S
0.10S
0.10S

Current
~

--

ELECTRICAL CHARACTERISTICS (T. =25"C unless otherwise noted)

B".kdown Voltago
Vo.
Volts IND11! 1)
Dovleo

5KP43A
5KP45
5KP45A
5KP48
5KP48A
5KP51
5KP51A
5KP54
5KP54A
5KP58
5KP58A
5KP60
5KP60A
5KP64
5KP64A
5KP70
5KP70A
5KP75
5KP75A
5KP78
5KP78A
5KP85
5KP85A
5KP90
5KP90A
5KP100
5KP100A
5KP110
5KP110A

MIN

MAX

47.8
50.0
50.0
53.3
53.3
56.1
56.7
60.0
60.0
64.4
64.4
66.7
66.7
71.1
71.1

52.8
61.1
55.3
65.2
58.9
69.3
62.7
73.3
66.3
78.7
71.2
81.5
73.7
96.9
78.6
95.1
86.0
102
92.1
106.0
95.8
115
104
122
111
136
123
149
135

n.6

77.8
83.3
83.3
86.7
86.7
94.9
94.4
100
100
111
111
122
122

@IT

(mA)

5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

Working
Peak
Rove ...
Voltage
V.....
(Volts)

43.0
45.0
45.0
48.0
48.0
51.0
51.0
54.0
54.0
58.0
58.0
60.0
60.0
64.0
64.0
70.0
70.0
75.0
75.0
78.0
78.0
85.0
85.0
90.0
90.0
100
100
110
110

Maximum

RovellO
Leakage

Maxlmm
Rove...
IR..

Maximum Reverse
VoltagoalIR..

alV....

(N01E~

(C ..lllpI"'VaI....J

IR{J!A)

(Amps)

v"", (Volts)

72
62
69
58
65
55
61
52
57
49
53
47
52

69.4
80.3
72.7
85.5

10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10

Currant

44

49
40
44

37
41
36
40
33
36
31
34
28
31
26
28

n.4
91.1
82.4
96.3
87.1
103
94
107
97
114
103
125
113
134
121
126
126
151
137
160.
146
179
162
196

In

Maximum
romporalu,
CooHlclon
DlV..
(%C)

0.105
0.106
0.106
0.106
0.106
0.107
0.107
0.107
0.107
0.107
0.107
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.108
0.110
0.110
0.110
0.110
0.110
0.112
0.112

NOTES:
1. VSR measured after IT applied for 300 ms. IT = Square Wave Pulse or equivalent.
2. Surge Current waveform per Figure 3 and Derate per Figure 2.
3. VF =3.5 Volts max IF = 100A for all types on 1/2 square or equivalent Sine Wave.
PW =S.3ms. Duty Cycle =4 Pulse per minute maximum.

-593-

APPLICATIONS NOTE:
Transient Voltage Suppressors may be used at various points in a circuit
to provide various degrees of protection. The following is a typical linear
power supply with transient voltage suppressor units placed at different
points. All provide protection of the load.

Transient Voltage Suppressor 1 provides maximum protection. Howe~r,
the system will probably require replacement of the line fuse (F) since it
provides a dominant portion of the series impedance when a surge is
encountered.
Transient Voltage Suppressor 2 provides excellent protection of circuitry
excluding the transformer (T). However, since the transformer is a large
part of the series impedance, the chance of the line fuse opening during the
surge condition is reduced.
Transient Voltage Suppressor 3 provides the load with complete protection.
It uses a unidirectional Transient Voltage Suppressor, which is a cost
advantage. The series impedance now includes the line fuse, transformer,
and bridge rectifier (8) so failure of the line fuse is further reduced. If only
Transient Voltage Suppressor 3 is in use, then the bridge rectifier is
unprotected and would require a higher voltage and current rating to prevent
failure by transients.
Any combination of these three, or anyone of these applications, will
prevent damage to the load. This would require varying trade-offs in power
supply protection versus maintenance (time changing the fuse).
An additional method is to utilize the Transient Voltage
Suppressor units as a controlled avalanche
bridge. This reduces the parts count and
incorporates the protection within the
bridge rectifie r.
The wattage ratings are available in
400 watts (P4KE, 8ZW04)
500 watts (SA series),
600 watts (P6KE),
1500 watts (1.5KE Series) and
5000 watts (5KP Series).

FIGURE 2

For voltage ranges not seen on specification
sheet, please consult factory or the nearest sales office.

-594-

+

APPLICATION NOTES

_ _ _ _ _ _ _ INST~~ - -595-

-596-

DESIGN GUIDELINES FOR
SCHOTTKY RECTIFIERS
Known limitations of SchoHky rectifiers -- including limited high temperature
operation, high leakage and limited voHage range -- can be measured and
controlled, allowing wide application on swHch mode power supplies.
Jon R. Sch/eisner
Senior Marketing Engineer
Genera//nstrument Corp.,
Power Semiconductor Division
Hicksville, New York

obviously more expensive, this is not the
primary method for controlling these
parameters. Chip size is usually set to a
dimension where the current density
through the die is kept at a safe level.

Schottky rectifiers have been used in the
power supply industry for approximately
15 years. During this time, significant fiction as well as fact has been associated
with this type of rectifier. The primary assets of Schottky devices are switching
speeds approaching zero-time and very
low forward voltage drop (Vf). This combination makes Schottky barrier rectifiers
ideal for the output stages of switching
power supplies. On the negative side,
Schottky devices are also known for
limited high-temperature operation, high
leakage and limited voltage range (BVA).
Though these limitations exist, they are
quantifiable and controllable, allowing
wide application of these devices in switch
mode power supplies.
High leakage, when associated with
standard P-N junction rectifiers, usually
indicates "badness," implying poor
reliability. In a Schottky device, leakage
at high temperature (75 "C and greater) is
often on the order to several milliamps,
depending on chip size. In the case of
Schottky barrier rectifiers, high-temperature leakage and forward voltage drop are
controlled by two primary factors: the size
of the chip's active area and the barrier
height ( B), A Factor
General Instrument produces two product
lines of Schottky barrier rectifiers. One
line is referred to as the "MBA" series, a
high-temperature, low-leakage, relatively
high VI type of Schottky device with a high
barrier height ( 

BL = low barrier height

 BH

-599-

= high barrier height

The following Is an example of the use
of this equation:
Given the need for a 30-volt Schottky
capable of operating at 10 amperes, the
choice is between a SBL 1040 ( cpBL =
0.64) or a MBR1045 (cpBH =0.71). These
two devices were chosen for convenience
in this example ~cause of their equal die
size (O.0477cm active area).
The equilibrium point must be calculated
for 75'C, 100'C and 125' C. For
demonstration purposes, only the 75'C
equilibrium po.int will be calculated in
detail; the other two points are calculated
in the same manner. The reverse leakage
(Ir) and forward voltage drop (VI) are
derived from Graphs 1 through 4 using
the temperature, die size and cp B given
above.

FIgure 4
Di98f9B cummt
V9TSUS forward 1I01t899 drop barri9'
h9/ght - 0.64

~125

For the low-barrier-height SBL 1040:
Pdr = Vrxlr = watts
(4)
30 Vx (l.9x 10- 3 A) = 0.057 W
Pdr =Ifx Vf= watts
(3) (3)
IOAx0.46V=4.6W

low barrier heighl

25·0~-;!;'0-~20;---:;!30~-::40\:--::50t;--t.60

= Vrxlr = watts
(4)--30
Vx(I.43x10 4 A) = 4.29 x 10-3 W
Pdf =IfxVf= watts
(3)
1OAxO.565V=5.65W
Solving for the equilibrium point at 75' C:

Percen1age of Duty Cycle

HIGH BARRIER

+ [(l-D)xPd~BLl =
(D x P df+BH) + [(l-D )Xd~BHl
(D x·4.6 W) + [(l-D) 0.057W] =
(D x5.65W) + [(1-D)0.00429WJ
0.05271 = 1.1027 D
D = 0.0478
D% = 0.0478 x 100
duty cycle equilibrium point, D =4.78%
Switching loss is assumed to be equal on
both sides of the equation and thus is
ignored. This procedure is then repeated
for 100'C and 125 'C. After calculating
the equilibrium point for 100 'C and 125'
C, the results are:
(DXPdf,BL)

TEMP

Duly cyc/9 9qullibrium point

50

For the hlgh-barrler-helght AfBR1045:

--:;r:c

high barrier heighl

MBR1045 VflrsUS
SBL1040

Pdr

LOW BARRIER

FIgureS

150

DUTY CYCLE
EQUIBRIUM
POINT %
4.78%

100'C
15.93%
125'C
52.42%
The results of these calculations are
graphed in Figure 5. To the left of the equilibrium curve, the high-barrier-height

MBR1045 is most efficient; to the right of
the equilibrium curve, the low-barrierheight SBL1040 is more efficient.. This is
easy to understand because the high-bar

~oo-

rier-height part exhibits lower reverse
power loss and at a low duty cycle more
time Is spent in the reverse mode.
With the duty cycle higher than the equilibrium point, the part spends a larger percentage of time in the forward mode, and
the low-barrier-height type part has a
lower Vf and the forward power losses are
reduced.
With knowledge of the application, including expected duty cycle and temperature,
it is possible to choose the most efficient
Schottky barrier rectifier, constructing a
graph similar to Figure 1.
It is thus easy to graph the duty cycle
versus temperature, as In Figure 5, and by
knowing the application (expected duty
cycle and temperature), make the intelligent choice of the most efficient Schottky
rectifier for the application in question.
This analysis technique enables the
design engineer to make an efficient and
cost-effective choice of Schottky rectifier
in duty-cycle-based systems. In addition,
light has hopefully been shed on the difference in design philosophies between
the low- and high- cpB style of Schottky
rectifiers.

SELECTING THE OPTIMUM
VOLTAGE TRANSIENT SUPPRESSOR
Although the published data for several transient suppressors may appear
similar enough to make the devices seem interchangeable, careful analysis can
rule out nearly Identical parts whose use could prove disastrous.

• Maximum reverse surge current

Jon R. Schleisner, Senior Marketing Engineer
Generallnstrument, Power Semiconductor
Division
Hicksville, New York

(IRSM ), the maximum current that the sup-

pressor is guaranteed to withstand without
incurring damage. This parameter is
usually characterized with a 1-millisecond
exponential waveform.

Transient voltage suppressors (TVS) are
specialized zener diodes intended to
clamp the voltage appearing across a line,
thereby preventing transient spikes from
damaging sensitive components. They
accomplish this conducting when the voltage across the line exceeds the zeneravalanche rating. Because tra'nsient
voltages can be quite high, suppressors
must be able to handle large avalanche
currents. This means that care must be
taken in the construction of the package
and assembly process to ensure that the
suppressor can tolerate high energy
levels for short periods.
Typical transient voltage suppressors
carry peak ratings of 400, 600, 1500 or
5000 watts. These wattages translate to
0.55,0.80,2.10 or 7.00 joules of energy
during a 1-millisecond period. Avalanche
ratings generally range from a few volts to
several hundred volts. Key operating
parameters include:

• Breakdown voltage (VSR), the voltage
at which a given device breaks down in its
avalanche mode. This voltage is usually
characterized at a test current (I t ) of 1
milliamp and is often specified as a range
with minimum (VBR min) and maximum
(VBR max) voltages listed.

• Working peak reverse voltage (VRWM),
the voltage at which the device's
leakage current is measured. This voltage is always at least 10 percent lower
than the mimimum breakdown voltage.
Suppressors with a breakdown-voltage
rating of less than 10 volts can exhibit
leakage currents as high as 1 milliamp, but
suppressors with higher breakdown
ratings typically exhibit leakage currents
of 5 microamps or less.

-601-

• Maximum reverse voltage (VRSM),
also called the maximum clamping voltage, the maximum voltage that can appear across the suppressor ~hen ~he
maximum rated surge current IS flowing
through it.

• Maximum breakdown-voltage' temperature coefficient (%VSR / • C),
the maximum allowable change in the
breakdown voltage as a function of the
temperature.

Design Criteria
The best way to demonstrate the selection
process is through a hypothetical example. In this example, the device to be
protected is an integrated circuit, lex,
which is designed to operate on a nominal
rail voltage of 15 volts, and Which has an
absolute maximum voltage rating of 22
volts. The first step in the selection
process is to determine the energy
(joules) or power (watts) contained in the
surge against which the device is to be
protected, and the duration of that surge.
Transients are by definition nonrepetitive,
with energy levels that are difficult to ascertain. Moreover, they generally result
from an unexpected failure elsewhere in
the system or from natural phenomenon
such as lightning. Because of this, determining energy content and duration of the
surge is the most difficult step in the transient-suppressor selection process.
Some surges, however, are predictable.
The surge produced by a solenoid driver
is a good example. If the inductance of the
coil is known and the load on the solenoid
is defined, it is possible to calculate or
measure the duration and magnitude of
the surge. Whenever possible, a "hands

20

fluctuations, the minimum breakdown voltage would have to be based on
the lowest expected temperature. The
resulting voltage would determined by
muHiplying the difference between the expected temperature and room .temperature by the temperature coefficient.

IS.

~

il0H------'l~------

~

8

WAVESHAPE

~
0.51pK

Time, msec

0.5

1.4

IPK

1.0

~,

IPK (tiT)

0.5

~

IPK sin (It I) e·1ft

0.86

IpKsin([lIIlj I}

0.637

With this data in hand, the next step is to
examine manufacturer's data sheets to
find a transient suppressor able to handle
the anticipated surge. The breakdown
voltage and maximum reverse surge current ratings published in the data sheets
are key selection criteria. Since Ie x has
a nominal 15-volt operating voHage, the
minimum breakdown voltage must be
greater than 15 volts. However, since it
carries a 22-volt absolute maximum voHage rating, the suppressor's maximum
breakdown voltage must be less than 22
volts. The foregoing assumes a relatively
stable ambient temperature, such as that
usually experienced in an office environment. If the product in which lex is used
is expected to see wider temperature

~

Q,I

'" 7lIl

Vc = Va.. M

-

f I~s~

- la) ;( 0.08 VIo1 ... M

100
(lpp

b:,
I-f~

0.5 IpK

~
~

t

t

Energy = f ~ Vc (I) I (I) AI = K Vc I T

Figure 3
The energy cOntained in a transient pulse
depends on its wave shape

With the minumum and maximum permissible breakdown voHages in hand, examine the clamping-voltage ratings
published in the manufacturer's data
sheets to identify suppressors falling
within the required range. It is possible
that there is no device that falls well within
the upper and lower limits. If the device
with the closest voltage· rating falls about
the upper voltage limit, a very close examination of its parameters must be
made. Most reputable semiconductor
manufacturers apply a one-percent
guardband around voltage ratings as a
safety margin. In this example, the
guardband raises the absolute maximum
rail voHage from 22 volts to 22.22 volts.

RSM

50
Percent of JRSM

t

f

on" measurement of the worst-case transient condition should be made. For the
sake of discussion, assume that the transient being presented to lex has a peak
current of 20 amps with a classic exponential decay, as shown in Figure 1, and a
duration of 0.5 milliseconds., measured at
50 percent of the peak current.

KFACTOR

IPK e...,I.44<

~

Figure 1
Waveform of an exponential-decay transient pulse
with a peak current and a O.5-millisecond pulse
width at the half-peale-current point

EQUATION

max)

Figure 2
The clamping characateristic of a typical transient suppressor
-602-

This small increase may not seem like
much, but can make the difference in
selecting a transient suppressor.

Selecting the Best Transient
Suppressor
Consider a situation in which the only suppressor that comes close to meeting the
protection need of IC carries a maximum
clamping-voltage rating of 22.5 volts. The
actual voltage at which the suppressor will
clamp depends on the actual current flowing through it, as shown in Figure 2, and
can be predicted using the following
equation:
VRSM - [(IRSM-IR )1(IRSM)J x (0. 08) V =Vc

For the sake of discussion, consider the
General Instrument type P6KE16A transient suppressor, which carries a 22.5-volt
maximum clamping-voltage rating.
22.5 - [(27 - 20)127J x 0.08 (22.5) =22.03
volts
Although the resulting clamping voltage is
still greater than the 22-volt absolute maximum voltage rating carried by IC X, it is
well within the 22.22-volt rating provided
by the one-percent guardband. Thus, although carrying a maximum clampingvoltage rating 0.5 volt higher than the
maximum voltage rating carried by ICx ,
this suppressor can be safely used in this
application.
The same, however, cannot be said of all
22.5-volt suppressors. Another device in
the same family, the P4KE16A, has Slightly different current ratings and yields considerably different results:
22.5 - [(19 - 20)l19J x 0.08 (22.5) =22.59
volts
Clearly, with a 22.59-volt clamping voltage, this device cannot be used because
it exceeds the maximum Clamping-voltage
rating plus guardband of ICx .
The next step in the selection process is
to verify the transient suppressor's power
rating. There are two approaches that can
be taken:

1.

Since the waveform of the transient is
a classic exponential decay with a D.5-millisecond duration at the half-peak current
point, a graphic plot of peak power versus
time can be used. This graph is often
published in manufacturer's data sheets
and if it is available for the device under
conSideration, one need only compare the
anticipated current against the current
shown in the graph. Using the peakpower versus time graph published forthe
P6KE series suppressors, it can be seen
that with a D.5-millisecond time-constant
decay, a P6KE device can handle a peak
power of 792 watts.
-603-

Using Ohm's law and a 22-volt clamping
voltage, this translates to:
1= PIV = 792122 =36 amps
Since the antiCipated peak reverse current
with a D.5-millisecond time constant is 20
amps, it is clear that a P6KE device can
easily withstand the anticipated peak
power of the surge.

2. Calculate the energy in joules contained in the transient and compare it to
the maximum energy rating of the transient suppressor. The energy in the transient, of course, depends on its wave
shape, as shown in Figure 3. The amount
of energy a given transient suppressor
can handle, on the other hand, depends
on its energy rating and the duration of the
pulse, as shown in Figure 4. In this example, the waveform has an exponential
shape with a 2D-amp peak current and a
D.5-millisecond half-peak-power point.
Using these data, the energy calculations
are as follows:
E

= Vc(t)xI(t) xA(t) - KV cxI x't

where, in this example,
Vc =2V
I
20A
't
0.5 msec

=
=

K

=1.4 (from Figure 3)

Thus E = 1.4 x 22 x 20 x (0.5 xl 0 -J) =
0.308J

The maximum single-pulse energy rating
for a P6KE series is 0.83 joules for a pulse
of 1 millisecond duration. Referring to
Equation 4, the energy rating for a D.5-millisecond pulse becomes 0.7 x 0.83 J, or
0.581 joules. Clearly, then, a P6KE
device can easily handle the D.3D8-joule
energy contained in the antiCipated transient pulse.

.r

1ft.O

8.0

FIgue4
praccical energy value normalized
to unity .t 1 m5e('

.ll 4.0

-3

...

2.0

!!

0 5f----~...

Il

1.0

~ O.~5

Z

Enery-handling capacity
of a transient
volatage suppressor as a
function of the
transient's
duration

0.125

0.Ob251!:::OO:--~10-~1-L--::O"'.1-~·
Pulse Duration. msec

Conclusion
The above example assumes a nonrepetitive transient, or, if repetitive, each
pulse is separated from the others by an
interval of least 20 seconds. Under these
conditions, however, the procedures outlined provide a straightforward and reliable method of selecting the best transient
voltage suppressor for a given application.

-604-

SUPERECTIFIER DESIGN BRINGS
NEW LEVEL OF RELIABILITY TO
SURFACE MOUNT COMPONENTS
by. Joseph M. Beck,
Sr. Applications Engineer

Surface Mount technology is here to stay.
turers would have to re-think their apAfter years of plodding through cautious exproach to device fabrication. Yes,
perimentation, many manufacturers now have
components needed to be smaller; but
fully automated production lines in place.
they also needed to be more reliable.
These production
At General Instrument,
lines place circu it
the development Of
components
at
S rface mo nt
speeds that until
~~~*::ROANT
new u
u
recently would have
,"''''''
components is not
been unthinkable.
g-'.l'~:'"
something that is taken
Finally being realized
\',~~,6~~'''"'
lightly. It is realized
SOLDEIIAIIlE
are the benefits of
that in order to produce
COPPEll ENDS
what was once cona truly reliable surface
sidered a "Voo 000"
mount product one
manufacturing techmust first consider all
nology.
relevant aspects of the
Compo"nent manufactechnology.
Only
turers have learned a L_ _ _ _ _ _ _ _ _ _ _ _ _--' when this process has
great deal over the
been completed can a
Flgur. 1 - SUPERECTIFIER construction product be developed
past several years as
well. Initially most
which is surface
surface mount components were nothing
mountable, and inherently reliable.
more than retrofit, lead formed versions of
Surface Mount Superectifier®
their conventional leaded, through-hole
General Instrument manufactures surface
counterparts. For most manufacturers this
was the quickest and least costly method of mount rectifiers in the popular MELF (metalized electro face) package style. These
"developirig" a line of surface mountable comdevices, denoted as SUPERECTIFIERS,
ponents.
are available with a wide variety of electrical characteristics. The main difference,
It was soon discovered, however, that this
however, between these rectifiers and
approach to component assembly would
other MELF style devices lies in the area
be unacceptable. Surface mount technolof device construction. Figure 1 shows
ogy placed new demands upon circuit
the unique construction employed in the
components. Electrically, the same power
manufacture of the SUPERECTIFIER.
was being required from smaller and
The
construction of the SUPERECTIFIER
smaller packages. Package geometries
does not internally utilize any soft solders.
and dimensions became critical in relation
All interconnects are accomplished by the
to pick and place equipment and circuit
use of a high temperature brazing process
board mounting. In addition, the construc(600·C). Hence, any chances of solder
tion of these devices needed to be such
void
occurrence or internal solder rellow
that they would suffer no ill effects when
during circuit board processing are
subjected to the rigors of the new assembeliminated. In addition, the silicon rectifier
ly environment that surface mount techjunction is completely encapsulated by a
nology presented. Encountered in this
cavity-free glass. This glass encapSUlaenvironment was extremely high-speed
tion ensures that the rectifier junction is
pick and place equipment, component adhermetically isolated from humidity and
hesive attachment, immersion in molten
other harmful environmental intrusions.
solder and rapid temperature changes associated with rellow soldering processes.
The resultant sub-assembly could be conAll this meant that component manufacsidered to be a fully functional surface
ULRECOGNIZED

-605-

I

aging. This type of construction utilizes a
non-transparent glass body which is

mount rectifier. In fact, many component
manufacturers offer MELF devices which
have this appearance; namely, an oblong
9lasll bead with two protruding metal end
terlT)inalions. However, in order that the
device have a uniform shape, the General
Instrument sub-assembly is over molded
with epoxy. The result is a smooth, perfectly cylindrical package.

PICk-UP

1

GL41

DO·213AA

DO-213AB

DIM. MIN

MAX MIN MAX

A

.130

.146 .189 .205

~

:~~ ::~ I :g:: :~:

1

ITOIJD
.

Two Sizes
Two different size SUPERECTIFIER
MELF packages are available. General
Instrument deSignation GL34 and GL41
are for 0.5 ampere and 1.0 ampere rectifier types, respectively. JEDEC
mechanical specifications DO-213AA
and D0213A8 detail the dimensions of
the GL34 and GL41 , respectively. Figure 2 gives these package dimensions.

G134

PICK-UP

FigureS.
Non-uniform MELF outlines

often characterized by pitting and surface
irregularities. The irregularities make it
difficult for a vacuum pick-up to form a tight
seal around the device body. The result is
that components are often dropped onto
the production room floor instead of being
placed on the targeted circuit board.
General Instrument solves these
problems with a smooth surface and perfectly cylindrical package outline.
Bonding Pads .- The geometries and
dimensions of bonding pads are critical
to the proper mounting, soldering and
overall performance of all surface mount
components. Figure 4 gives the recommended pad layouts for GL34 and GL41
MELF outlines. Use of these pad layouts
will be primary assistance in the following three areas:

NOTE: AU DIMENSIONS IN INCHES

Figure 2
Dimensional outline

MANUFACTURING
CONSIDERATIONS
Pick and Place--Surface mount SUPERECTIFIERS are supplied on tape and reel
in accordance with JEDEC standard RS481A. Removal of the devices from the
embossed carrier tape is easily accomplished by all vacuum pick-up
mechanisms which utilize a compliant tip.
The compliant tip will form a tight seal
around the cylindrical MELF design once
contact with the device has been made.
This is not always the case, however,
when MELF devices with a non-uniform
package outline are used. Figure 3 shows
two such MELF outlines. Figure 3A is a
device with a concave package outline.
This type of package is difficult to consistently remove from the carrier tape as the
exact position of pick-up on the component body is critical. Figure 38 is that
of the most common form of MELF pack-

-606-

• Surface mount technology by nature
dictates that smaller component packages
dissipate the same power as their larger
through-hole counterparts. Hence, adequate bonding pad land area is required in
order to aid the component package in the
dissipation of this power. The recommended pad layouts provide the needed
land area for GL34 and GL41 devices to
operate safely at their maximum ratings.
• Component adhesive attachment allows the package to shift slightly from its
original placement position prior to adhesive curing. In addition, most adhesives tend to spread during the curing
process which also may allow package
misalignment. The geometry of the
recommended pad layouts will tend to
minimize such movements. This assumes, of course, that the package was
originally positioned correctly.
• During reflow soldering, solder surface
tension can have a significant effect on the
movement and final position of com-

ponents in relation to their
bonding pads. The recommended pad layouts will actually make use of the solder
surface tensions to bring MELF
devices into alignment with the
two bonding pad land areas.
This means that MELF devices
which are initially placed in
slight misalignment on their
bonding pads will reposition
themselves during solder reflow
until a position of alignment is
reached.

lei

tjj!

!2!
FOR lARGE BUSS ATTACH·
MENT USE A SOlDEIt MASK

."

TO IlEDUCE EFFfCTlVE PAD

DIMENSION
GL34
GL41
A
.069
.100
B
.063
.100
C
.069
.100
D
.138
.200
E
.207
.300
F
.016
.025
G
.138
.200
H
.035 10.080 .050 to .125
I
.048 min
.07S min
NOTE, ALL DIMENSIONS IN INCHES

Soldering-Surface mount
SUPERECTIFIERS
are
capable of withstanding all
present forms of wave and
reflow soldering. The following
guidelines should be followed,
however, in order to ensure
overall package integrity:

F/gure4

Recommended pad layout

• GL34--Maximum temperature at device and terminations
not to exceed 400'C for 5
SURFACE MOUNT SUPERECTIFIER AVAILABILITY:
seconds. Complete device
submersible temperature not to
PART NUMBER
CURRENT(A) YOLTAGEIV) TRR(ns) PACKAGE
exceed 260'C for 10 seconds in
solder bath.
GENERAL PURPOSE
• GL41--Maximum tempera0.5
50-1000
GL34A-M
GL34
ture at device end terminations
1.0
50-1000
1N6478-84
GL41
not to exceed 450'C for 5
1.0
50-1000
GL41A-M
GL41
seconds. Complete device
submersible temperature not to
FAST RECOVERY
exceed 265' C for 10 seconds
0.5
50-1000
RGL34A-M
150-500
GL34
in solder bath.
1.0
50-1000
RGL41A-M
150-500
GL41
General Instrument's surface
mount SUPERECTIFIERS comULTRA FAST RECOVERY
bine superb electrical performance
1.0
50-400
EGL41A-G
50
GL41
with unmatched levels of reliability.
0.5
50-400
EGL34A-G
50
GL34
The construction of the SUPERECTIFIER virtually eliminates all
problems associated with highspeed pick and place of MELF
components. In addition, SUPERECTIFIER construction ensures that performance and reliability are never compromised when the
device is subjected to the demands of surface mount assembly techniques or when other
seemingly harmful environments are encountered. Quite simply, no other surface mount rectifier
comes close to offering all the advantages of the SUPERECTIFIER MELF.
All surface mount components are small and save space. However, performance and reliability
should never be considered necessary trade-offs in order to utilize surface mount technology. Use
of General Instrument surface mount SUPERECTIFIERs requires no such sacrifices; no trade-offs.

-607-

-608-

Protection of Power Supply and Data
Lines Via Thyristor Surge Suppressor
and TVS Devices
by Jon Sch/eisner

The Power Semiconductor Division of
General Instrument (PSD), a mainstay in
the arena of axial rectifiers, Schottky
diodes, TVS, and surface mount technology, has extended its product line. PSD
has entered the exciting and growing
market of solid state "crowbar" type
protection products.
Protection of power supply and data
lines against transients is an art still in
evolution. The advent of microprocessor- driven telephone systems based on
sensitive electronics (instead of charcoal
compressive microphones) has changed
the criteria for protection. MOVs, gas
tubes, and carbon blocks have been the
staple components for protection
schemes for decades.
These older protection devices have
several advantages and disadvantages
versus their solid state counterparts.
The common advantages are low cost
and the ability to absorb tremendous
amounts of energy. The disadvantages
include slow tum-on times, lack of totally
controllable breakover (gas tube) and
avalanche (MOV, carbon block) voltages, and an inherent wear-out
mechanism (use them and you lose
them).
The advantages of the General
Instrument's TVS and Thyristor Surge
Suppressor devices are speed of
response (pico- and nanoseconds), control of avalanche (Zener) voltage, and
breakover Voltage. Solid state protectors do not shift in parametriC value unless stressed beyond their rated limits
and driven to destruction The disadvantage of solid state protection are
generally lower power handling capacity
and higher costs.
The cost factor is rendered moot if the
slow protection device (MOV or gas
tube) acts too slowly to protect the system to which it is dedicated.
The power limitations can be overcome.
to a great degree, with some imaginative
engineering. Thyristor Surge Suppressors and TVS devices are specified differently. Table 1 lists all the pertinent

TVS and Thyristor Surge Suppressor
device parameters for comparison.
While both devices are used for transient
protection, their electrical behavior is
quite different.
FIG.1A

Ipp

Voltage/Current

V21,,---

2,

~
I.#'=~m

I

t

Normal
OpelQtlngVoltage

I

,

---+- Tme

1m.

FIG.iB

1+

I/~

l'

Forward Bias

otRecllfier

Voltagel
Current

V2Ipp----

FIG.2A

/.V",

~-

+

100

II

¥. Current Y«:Netorm
On State Normot Operating Voltage
vanaga __ H
-TIme

I~

FIG. 2B

I_ ~IH
"

t(

11

'')L--iao
t V+
B~

UndehnedState

(Reverse)

TVS B~ - The voltage at which the part
goes into reverse breakdown at a
specified test current, usually 1 or 10 milliamps.

-609-

I

Thyristor Surge Suppressor ~ - The
voltage at which the Thyristor Surge
Suppressor device begins to conduct
current, equivalent to the TVS BVR.
Thyristor Surge Suppressor \laQ- The
voltage at which, when reaching the
specified lBO, causes the device to "fire"
or "fold back" in the low-voltage forward
mode.
Thyristor Surge Suppressor IBQ - The
required current at VBO that causes the
devices to "break over or fold back".
TVS ~ - The maximum specified voltage at Ipp, the TVS max clamping voltage.
TYS ISSM - The max rated current to test
the VC parameter.
Thyristor Surge Suppressor Vt - The voltage drop across the device at the
specified It, after the device folds back.
11- The specified current at which Vt is
tested.
]a - This is a leakage sPec with VR set to
less than BVR or VBR on TVS or Thyristor Surge Suppressor devices.
Thyristor Surge Suppressor IH - This is
a spec. that is unique to "Thyristor Surge
Suppressor" technology. After the
device has been "fired," when the current
starts to decay and passes below a critical value (usually several hundred milliamps), the device turns off and resumes
its normal high impedance state
There is no TVS equivalent to IH (holding
current). This function is important; it
places certain critical limitations on application of the Thyristor Surge Suppressor device. Consider a power supply
output with a 1-amp current limit. If this
line is protected with a Thyristor Surge
Suppressor device with an IH=500mA,
problems will arise. If the is fired, it will
never shut off. The available current
from the power supply is greater than IH,
hence the part will stay turned on until
power is momentarily removed. This
classic conditron requires attention
whenever designing in a Thyristor Surge
Suppressor device in a protection system.
This aspect of Thyristor Surge Suppressor device performance makes it ideal for
protection of data lines from lightning
and other true transient voltage conditions. Typical data lines have current
limiting set rather low.. The telephone
system in North America has a current
limit of 250mA, so maintaining IH250mA
will ensure device turn-off after the passage of the transient.
Fig. 1 & 2 highlight differences in TVS
and Thyristor Surge Suppressor device
performance:

The following figures provide an explanation at circuit applications:

Data Line

Input

Output

FIGURE 1.

The simplest and most direct application of a 17Iyristof
SUrg8 Suppf8SSOf dsviC8 across a mBdium to slow data Ins.

If a positiv8 transiBnt striks sxC88ds V80 with sufficlmJt lBO,
thB Thyristor Surgs Suppressor d8vic8 wiH file, absorbing th8

transiBnt.

D...

'"

Data
Out

.
--'

I-

Figure 2
The same approach as Figure 1 with the addition
of steering diodes to absorb bidireCtional transients. Most transients are bidirectional in nature.

f

EF to

Figure 3
This is a further extension of Figure 2. With the
terminals marked T (Tip), R (Ring), and G
(Ground), this becomes the classic telephone line
protection scheme.

-610-

,.c

,.

c

IW

au'

t

f

QI

Figure 4
This is data line protection where the tum on transient approaching VBO (225 -260Vj cannot be
tolerated. The resistor limits the current through
the TVS to VBO - VCIR, the duration of this pulse
is typically less than 1 usec, so a small TVS can
be used.

,.

Oul

Figure 7
This is a power supply protection circuit. The
open col/ector of 01 is connected to the power
source at the input and should be used to shut off
the power supply output for a few milliseconds.
This permits the cu"ent through the Thyristor
Surge Suppressor device to fall below IH before
restart begins.

Oul

FIgureS
FigureS

Similar to Figure 4, but designed to have reduced
parasitic capacitance across the data line.

This circuit is equivalent to Figure 7 with the addi-"
tion of TVS clamp at the output. This prevents
VBO from appearing at the protection circuit's output.

Figure 6
This circuit is a bidirectional version of Figure 4
with the low capacitance benefits of Figure 5.

General Instrument's Power Semiconductor Division will support
your design efforts and assist in applying these new solid state
protection devices. More protection performance for your dollarthat is our goal.

-611-

I

-612-

Using Rectifiers In
Voltage MultiplierCircuits
R,

CR,

C,

By Joseph M. Beck
Sr. Applications Engineer

Systems designs frequently
call for a high voltage, low CUfrent power source that needs
only minimal regulation. A few
familiar examples are CRT circuits, electrostatic copiers,
and photoflash applications.
Required voltages typically
range from 10 to 30KV and the
current demand rarely exceeds 5 milliamperes.

Figure 1A
Basic multiplier circuits.Half-wave Voltage Doubler
R,1

C,

CR,

When your design requires
this type of power source, you
may want to consider a voltage
multiplier circuit. They are inexpensive, easy to design,
versatile, and can provide virtually any output voltage that is
an odd or even multiple of the
input voltage.
This article explores the basic
operation of multiplier circuits
and discusses guidelines for
electronic component selection. Since General Instrument Corporation is the
industry's leading manufacturer of rectifier products, we
will place special emphasis on
selecting rectifier diodes for
multiplier circuits.

R,

Vmsinwt

C,

CR,

±2V..
as RL-+oo

R,2

Figure 18
Basic multiplier circuits. Full-wave Voltage Doubler
As

C,

C,

V ..sinwt

Figure 1C
Basic multiplier circuits. Half-wave Voltage Tripier

BASIC OPERATING PRINCIPLES
A wide variety of alternating signal inputs are
used with multiplier circuits. The most popular
are sine and square wave inputs. For
simplicity, this discussion will be limited to sine
wave inputs; the calculations become somewhat more involved with asymmetrical signals.

Most voltage multiplier circuits, regardless of
their topology, consist chiefly of rectifiers and
capacitors. Figure 1 shows three basic multiplier circuits.
The operating principle of all three circuits is
essentially the same. Capacitors connected
in series are charged and discharged on alternate half-cycles of the supply voltage. Rectifiers and additional capacitors are used to
force equal voltage increments across each of
these series capacitors. The multiplier
circuit's output voltage is simply the sum of
these series capacitor voltages.

Voltage Doublers· Figure 1A shows a halfwave voltage doubler circuit. It functions as
follows. On the negative half-cycle of the input
VOltage, capacitor C1 charges, through rectifier CR1, to a voltage of Vm. On the positive
half-cycle, the input voltage, in series with the
voltage of C1 (Vc1 =Vm), charges capacitor C2

-613-

I

''0

''0

NONINOUCTIVE

NONINOUCTIVE

Although half-wave and full-wave multiplier
circuits can provide equivalent output voltages, there are some fundamental differences that should be considered. First, the
full-wave circuit has the advantage of higher
output ripple frequency (twice that of the halfwave circuit). In addition, the full-wave circuit
provides better voltage regulation than the
half-wave circuit, since the latter relies upon
one capacitor (C1 in figure 1A) to provide the
charging energy to a single DC load capaCitor
(C2 in figure 1A). The full-wave circuit, however, requires that the secondary side of the
transformer be capable of withstanding high
voltages (approximately 1/2 of the output.v~lt­
age). Forthis reason, the half-wave multiplier
is usually the preferred circuit when high voltage outputs (Vo=kilovolts) are required.

NOTES 1 Rise Time", 7ns max. Input Impedance =
1 megohm 22pF
2 Rise Time", lOllS max. Source Impedance =
50 ohms.

.0.5A

1\
F/gure2
Reverse recovery

o
-0.25

-1.0A

time characteristic
and test circuit
diagram

1/
J

1\1/

-l',ml_ SET TIME BASE FOR
50/100ns/em

DESIGN GUIDELINES

through rectifier CR2 to the desired output
voltage of 2Vm. Capacitor C 1, which aides in
the charging of capacitor C2, sees alternating
current ("AC Cap") while C2 sees only direct
current ("DC cap"). In this Circuit, the output
voltage and the input signal have the same
ripple frequency.

Capacitor selection - The size of capacitors
used in multiplier circuits is directly proportional to the frequency of the input signal.
CapaCitors used in off-line, 60Hz applications
are usually in the range of 1.0 to 20uF while
those used in higher frequency applications,
say 10KHz, are typically in the range of .02 to
.06uF. In practice, it is usually easier, and less
costly, to use the same large capacitance
value for all capacitors, both "AC" and "DC"
type. The overall capacitive reactance of the
circuit must be considered, however, to determine the largest permissible value.

The same operating principle extends to the
full-wave voltage doubler circuit of figure 1B.
On the negative half-cycle of the input voltage,
capacitor C2 is charged through rectifier CR2
to a voltage of Vm. On the positive half-cycle,
capacitor C1 is also charged to a voltage of
Vm, through rectifier CR1. The series voltages of capacitors C1 and C2 (VC1=Vc2=V":!)
yield the desired output voltage: 2Vm. In thiS
case, capacitors C1 and C2 are "DC
capacitors"; they see no alternating current.
The output ripple frequency of the full-wave
doubler Is twice that of the input signal.

The voltage rating of capacitors is determined
solely by the type of multiplier circuit. In the
half-wave doubler circuit offigure 1A, C1 must
be capable of withstanding a maximum voltage of Vm, while C2 must withstand a voltage
of 2Vm. In the full-wave doubler circuit of
figure 1B, both C1 and C2 must withstand
voltages of Vm. The half-wave voltage tripler
of figure 1C requires C1 to withstand a voltage
of Vm, and both C2 and C3 to wit~stand voltages of 2Vm. Agood rule ofthum~ IS to. select
capaCitors whose voltage ratmg IS approximately twice that of the actual peak applied voltage. For example, a capacitor which
will see a peak voltage of 2Vm should have a
voltage rating of approximately 4Vm.

Voltage Tripier - Higher output voltages are
through the use Of a half-wave 110~­
age tripler circuit, shown in figure 1C. T~ls
circuit operates as follows. On the negative
half- cycle of the input voltage, capacitor C1
charges through rectifier CR1 to a voltage of
Vm. On the positive half-cycle, the input voltage, in series with the stored voltage on C1
(Vc1=Vm),charges capacitor C2 through rectifier CR2 to a voltage of 2Vm. On the next
negative half-cycle, the charge on C1 is
replenished. At the same time, the input voltage, in series with the stored voltage on C2
(Vc2=2Vm), charges capacitor C3 through
CR3 to a voltage of 2Vm (Vc3=Vb-Va=(Vm
+Vc2)-Vc1=2Vm). Vc1 and Vc3, in series,
provide the output voltage of 3Vm. In this
case, the output ripple frequency is equal to
that of the input signal.
pos~ible

Rectifier Diode Selection
Several basic device .parameters
should be considered:
.
Repetitive Peak Reverse VOltage (Vrrm) Repetitive peak reverse voltage is the maximum allowable instantaneous value of
reverse voltage across the rectifier diode. Applied reverse voltages below this. maximum
value will produce only negligible leakage cur-

-614-

The reverse recovery time (trr) speCification is
very dependent upon the circuit and the conditions being used to make the measurement.
Several industry standard trr test circuits exist
(figure 2 is the test circuit used for the GP0240). Therefore, it's very important to note
which test circuit is being referenced, as the
same device may measure differently on different test circuits. Furthermore, the trr
specification should be used for qualitative,
not quantitative purposes, since conditions
specified for trr measurement rarely reflect
those found in actual "real life" circuit operation. The trr specification is most valuable
when comparing two or more devices that are
measured on the same circuit, under the same
conditions.

rents through the device. Voltages in excess of this maximum value, however, can
cause circuit malfunction --- and even permanent component damage --- because
significant reverse currents will flow through
the device. For example, General
Instrument's GP02-40 rectifier diode has a
peak reverse voltage rating (Vrrm) of 4,000
volts, maximum. Applied reverse voltages
of 4KV or less will produce a maximum
reverse leakage current, IR, of 5
microamperes through the device when
operated at room temperature (25 • C). In
most cases, this leakage current is considered negligible, and the device is said to
be completely blocking (IR=O).
In the case of the three circuits of figure 1,
the maximum reverse voltage seen by each
rectifier diode is 2Vm. So devices must be
selected with reverse voltage (Vrrm) ratings
of at least 2Vm.

Figure 3 shows the relationship between forward current and trr in the GP02-40. As you
can see, decreasing current flow in the multiplier circuit makes it possible to use higher
input frequencies. An increase in current flow
has the opposite effect. Ideally, the multiplier
network load should draw no current.

Reverse Recovery Time (trr) • In general
terms, reverse recovery time is a measure
of the time needed for a rectifier diode to
reach a state of complete blocking (IR=O)
upon the application of a reverse bias.
Ideally, this time should be zero. In reality,
however, there's a finite period of time in
which a stored charge at the diode junction
must be "swept away" before the device can
enter its blocking mode. This stored charge
is directly related to the amount of forward
current flowing through the device just prior
to the application of the reverse bias. Fortunately, since operating currents are very
low in multiplier circuits, reverse recovery
times are kept to a minimum. Nevertheless,
trr plays an important role in multiplier
deSign.

Peak Forward Surge Current (lfsm)· A peak
forward surge current rating is given for most
rectifier diodes. Most often, this rating corresponds to the maximum peak value of a
single half- sine wave (50 or 60Hz) which,
when superimposed upon the devices rated
load current (JEDEC method), can be conducted, without damage by the rectifier. This
rating becomes important when considering
the large capacitance associated with mUltiplier circu itry.
Surge currents can develop in multiplier circuits, due to capacitive loading effects. The
large step-up turns ratio between primary and
secondary of most high voltage transformers
causes the first multiplier capaCitor (C1,
secondary side) to be reflected as a much
larger capacitance into the primary. For example, a transformer with a turns ratio of 25
will cause a 1.0 uF capacitance to be reflected
into the primary circuitry as a capacitance of
(1.0)(25) uF, or 625uF. At circuit turn-on, large
currents will be developed in the primary side
as this effective capacitance begins charging.

When selecting rectifier diodes, the frequency of the input signal to the multiplier
network must be considered. For symmetrical signal inputs, the device chosen must be
capable of switching at speeds faster than
the rise and fall times of the input. If the
reverse recovery time of the rectifier is too
long, the efficiency and regulation of the
circuit will suffer. In the worst case, insufficient recovery speeds will result in excessive device heating, as reverse power loses
in the rectifier become significant. Continued operation in this mode usually results
in permanent damage 10 the device.

On the secondary side, significant surge currents can flow through the rectifiers during
initial capaCitor charging at turn-on. The addition of a series reSistance (Rs in figure 1) can
greatly reduce these current surges, as well

-615-

I

1000

_--------::1...----,

HIGHER ORDER CASCADE
MULTIPLIER

GP02-40
Reverse Recovery Time (trr)

vs.

500

Forward Current (10)

Still higher voltages are possible by using the
cascade multiplier circuit shown in figure 4.
The output voltage is calculated as:

TA-2S'C

Vo

trr circuit of

10L-__
10

~

________________
50

100

200

=(n)(Vm), as IL -- 0

eq.2

where n = number of capacitors or diodes,
assuming equal value capacitors, ideal diodes
and symmetrical signal input.

FIg.2

In theory, one can obtain any incremental output voltage increasing the value of n. In practice, however, voltage regulation and
efficiency become increasingly poor as n increases. The potential for voltage arcing must
also be considered as the value of n increases, and when higher output voltages are
required. Careful mechanical design can minimize arcing, to a large extent.

~

500 1000

10 (millIAmps)

Figure 3

Trr as a function of forward current

as those in the primary circuitry. For example,
the GP02-40 has a forward surge rating, Ifsm,
of 15 amperes. Considering a maximum
secondary voltage of 260 Vrms, 60Hz, the
calculation of Rs is as follows:

From a pure circuits standpoint, voltage multipliers are relatively easy to design. The
selection of circuit components, however, is
one facet of the "overall design" that should
not be taken for granted or trivialized. Careful
consideration of all component parameters is
the only way to ensure both reliable and predictable circuit performance. Put another way,
ideal circuits require ideal circuit components.

RS ~ Vpeakllfsm
eq.l
RS ~ (1.41)(260)115
RS ~24.4 ohm

Other Parameters - Of lesser significance
are the forward current rating, 10, and maximum forward voltage, Vf.
Forward current, 10 - As stated earlier, in the
ideal multiplier configuration the load will draw
no current. Ideally, the only significant current
flow through the rectifiers occurs during
capacitor charging. Therefore, devices with
very low current ratings (hundreds of milliamperes) can be used. It must be noted,
however, that the forward current and forward
surge current ratings are related, since both
are a function of silicon die area. Generally
speaking, devices with a high surge current
rating, Ifsm, will also have a high forward
current, 10, rating, and vice versa.
Forward Voltage, Vf-In practice, the forward
voltage drop, Vf, of the rectifiers does not have
a significant effect on the multiplier network's
overall efficiency. For instance, the GP02-40
has a typical forward drop of 2.0 volts when
measured at a current of 100 milliamperes. A
half wave doubler with an 8KV output will have
less than .05 percent (2x2V/8KV) loss in efficiency due to the forward voltage drops.

-616-

Figure 4

Cascade multiplier

To find the ideal rectifier for your voltage muitiplier, consult the General Instrument Power

Semiconductor Division Data'Sook. You
can obtain a copy by phoning 516-9333165, or by writing to General Instrument
Corp., Power Semiconductor Division, 600
West John Street, Hicksville, NY 11802.

Transient Voltage Suppressors Ideally
Su ited for Automotive Appl ications or
Harsh Environments
Gloria M.Luna
Automotive Applications Engineer

The combination of durability and high
temperature performance has come
together In the form of General
Instrument's new, patented PAR (Passivated Anisotropic Rectifier)" process.
Transient voltage suppressors produced
by this process e~~ibit high tempera~ure
reverse bias stability, excellent transient
energy capability, and low dynamic impedance, and are ideally suited .for the
harsh environments of automotive applications.ln a standard diffused junction
process there are several conditions
present that could aff7~t the integrity .~f
a device. These conditions become cntlcal to the performance of the device as
the junction temperature is inc~e~sed
and the device is stressed to the limits of
its operation. They include the presence
of a high field at the surface of the junction when a voltage is applied. The
electric field (V/cm) that occurs over the
depletion layer of a device determines
the voltage capability of the device:

A

B

~SiliconDiOXide
c

o
Figure 1

E(x)= dV(x)

dX

PROCESS TECHNOLOGY

This field is not only present in the bulk
of the device but also at the surface.
When this electric field sees ionic contaminants on top of the surface ~nd alon.g
the edge of the die, the contaminants Will
ionize and the resulting charge will distort the original field. This distortion can
increase local leakage current and cause
localized breakdown as well as thermal
runaway. By growing an oxide directly
on the surface of the junction layer, these
contaminants can be eliminated. In addition, by employing a positive bevel
angle construction, the field at the surface would be diminished to a point
where it could not contribute to device
degradation.General Instrument e~­
gineers have combined these features In
a process that provides reliable devices
under the high temperature conditions of
the automotive environment as well as
one that lends itself to state-of-the-art
semiconductor manufacturing processes. Thus came the development of the
PAR process.
"patented by General Instrument

As illustrated in Figure 1(A), we begin
with a P+ device and an N- surface layer.
We then diffuse in a shallow N+ layer,
deposit and subsequently etch a silicon
nitride layer that functions as a mask as
shown in Figure 1(B). The resulting pattern is then anisotropically etched to form
a mesa structure on the top side of the
wafer. By utilizing this anisotropic
process we are able to achieve a uniform
45 degree angle all around each die.~e
oxidize the silicon surface where there IS
no nitride, which results In a grown
silicon dioxide layer that is ten times as
thick as the silicon nitride. This oxide
layer forms around the mesas but not on
the original nitride as shown in Figure
1(C). As the N+ layer is driven deeper
into the junction, a phenomenon occurs
which results in a curvature between the
N+ and the N- surface layers as illustrated by Figure 1(0). This curvature
is essential in achieving higher breakdown Voltages. The final step includes
the removal of the top silicon nitride layer
and the sintering of a metalization layer
-617-

I

composed of titanium, nickel, and silver
deposited on the top and bottom surfaces. This is also illustrated in Figure
1(0).
E=y,
d

Eedge = 25V = lOv/11

2.5m

«. .. 2.511'
II
"

....

lOOV

, ..
.....

Ecenter = 25V = 25 VlI1

TiL

S(Jv ...............

OV

Flgure2(A)

=25V =lOv/11
2.5m
Ecenter =.25V =25 VlI1
Eodge

1~

junction (greater than1 OV/u). In contrast,
the equipotential lines for a standard diffused junction device are illustrated in
Figure 2(B). With the breakdown occuring at the edge of the junction, the incidence of high leakage and localized
breakdown associated with field distortion is increased, particularly when the
device is exposed to extreme environmental and operating conditions. In addition, this tailored junction affords the
following advantages:
1. By having the breakdown occur over
the large bulk area of the device, large
energy surges can be safely handled
without damage or deterioration to the
device.
2. By modifying the edge of the device,
the results under high temperature
reverse bias are excellent.

AUTOMOTIVE TRANSIENTS
Flgure2(B)

This process Is notable for the following reasons:

1.

Reverse current measurements
remain stable and uniform.

2.
Complete stability during high
"temperature reverse bias and thermal
cycling

3. Low electrical contact resistance.
This process results in several important. features unique to the PAR
construction. First, particle contamination is virtually eliminated by the use of a
grown oxide to passivate the junction.
Second, by utilizing a positive bevel
angle construction, we are able to lower
the field at the surface. Due to the fact
that the reverse breakdown voltage of a
device is determined by the width of the
high ohmic region, the curvature of the
N+/N- junction becomes an important
design criteria in obtaining higher breakdown voltages at the surface of the
silicon. This promotes a breakdown
along the bulk of the junction rather than
althe edge. As illustrated in Figure 2(A),
the curviture of the junction results in an
increase in thi distances of the equipotential lines at the surface. By calculation, all of the breakdown occurs at the
bulk of the device rather than at the edge
because the field at the edge does not
exced e the critical value of the layers of
material outside of the silicon near the

Electronic devices that operate in the
automotive environment are subjected to
very extreme conditions. Temperature,
humidity, exposure to various liquids,
vibration, voltage changes, and surge
voltages are just some of the factors to
be considered in the automotive environment. Temperatures can rise to as high
as 200 degrees C in the engine compartment and as low as -20 degrees C. As a
result, it is necessary that any electronic
device be able to withstand these conditions and operate within reasonable
limits so as not to degrade the performance of any system it may be operating
in. Transients in the automotive environment cover a wide range of energy levels
and time durations, as illustrated in Figure 3. These transients are distributed
throughout the electrical system of an
automobile al'1d can occur at any lime.

60Vmin
LOAD
DUMP (mSec)

+85V
Noise

-13V REVERSE
BATTERY
til-Sec)
SUPPLY VOLTAGE

FigureS

Possible automotive supply voltage variations

-618-

Some of the most serious types of transients are:
1. A load dump transient occurs when
the alternator load is suddenly dropped
due to battery disconnection. Voltages
can range from 30 to 125V for up to 400
ms. This is considered the worst of all
types of transients and was made a test
requirement for all electrical systems
and modules designed for the automotive industry back in the 1970's. See
Figure 4

LOAD DUMP TRANSIENT
TyplOllI VIIIUfIII

Vp .. -70V

T=200mSec

36.8%V,

FIgure 4

2. Transient voltages generated when
the inductive loads (relays, solenoids,
and switches) are turned off. See Figure5.
INDUCTIVE LOAD TRANSIENT

3. Transient voltages generated when
the ignition switch is turned off.4. Transient voltages generated by inductive or
capacitive coupling when electrical
equipment (such as the Ignition system)
is turned on.
By connecting a transient voltage suppressor across the output of a circuit or
connecting them within the circuit, you
can protect delicate components and
systems by clamping these transient voltages. Because the failure threshold
level of a system Is determined by its
weakest component, it is wise to insure
that a TVS would be able to withstand aU
of these conditions.

36.8%V,

TyplOllI Values

Vp =-7.Q.V

T=200mSec

FIgureS

RESULTS OF HTRB TESTING
AT 80% RATED VOLTAGE

RELIABILITY
Due to this increased focus on reliability
under harsh environmental conditions,
the ability to quantify reliability has become an important criteria in selecting
components. Failure modes fall into two
broad categories--those related to
defects in the silicon die, and those related to packaging of the die.Die defects
relate to field distortion, oxide defects,
surface charge or microcracking. By
using devices manufactured with the
PAR process, the incidence of these
types of failures is greatly reduced.
These failures can be provoked by high
temperature reverse bias testing. In this
test, the devices are reverse biased by
applying 80% of the rated reverse voltage to the device and heating the device
to at least 150 degrees C. This test can
run anywhere from 250 to 1000 hours to
insure device durability. Shown in Figure
6 are the results of HTRB testing on PAR
produced transient voltage suppressors

:

0.1

••••••••••..

··t··,············t·······..······i·········........ "

................~ •...••......•.. : •..••• __....... ; .........o

I

i i i

10

E
!:!:.

100

••••••••••••• ~ •••- •••••••••• ~ ••••••••••••••• :..

~

~

•••••••••••••• •••••••••••••••

: ...............

10
10

.........

l... ········1···············+········. ····
~

••••••••••••• ...........................: ................ •••••••••••••

::t

~

..

i i i :

~
~
••••••••••••• -:..

10

i

. ••••••• ~ •••••••••••••

i i i+...•..•.•.•••

•••• _ ••••••• ., ••••••••••••••• ;........

w

~ 1000
a:

"1' •••••••••••••

~

• ••••••••••••• ( ................; ................,.; .............

• •••.L...............

~

2.,

i ....·..·T·i ......····..·
···r······

.ao···-;·..•• ..••....

i. . . . . . . .t. . . . . . . l. . . . . . .
!

t

,.,

i

111

.

TEMPERATURE
Figure 6
Definition: Failures> 5!J.A IR at 2S·C
Failure Rate = - fails /1 09hi

-619-

rated at 6.8V, 36V, and 100V. In addition,
reverse leakage remains within a very
tight distribution and very little drift is
observed in values before and after
test.Packaging defects can occur from
fatiguing of the bond or the presence of
atmospheric vapor onto the die surface.
Particularly in the automotive environment, semiconductor devices can be
subject to thermal and electrical stress
causing cracking, separation or voiding
of the bond between the die and the lead.
These conditions can lead to degrading
operation and eventually, thermal
runaway.By thermally cycling the device
from low (typically -65 degrees C) to
elevated temperatures (typically 150
degrees to 170 degrees C) with a dwell
time of 5 minutes at each temperature,
the bond can be stressed to the point of
failure to insure the integrity of the
device. The results of temperature
cycling for PAR devices is shown in
Figure 7.

RESULTS OF TEMPERATURE CYCUNG TESTING

DELTA
ATj= 25'C
13O'C

FIT = 100 parts/millie
failure rate

Figure 7

PART NUMBERS
The devices are available in three
different power ranges utilizing the
following part numbers:
p4KA (400 Watts) P6KA (600 Watts)
6.8V to 43V
6.8V to 43V
1,5KA (1500 Watts)
6.8Vto 43V
TAGL41 (400 Watts Surface Mount)
6.8V to 43V

-620-

PACKAGING
BULK-TAPE AND REEL

......- -_ _
-621-

IN~

•

PACKAGING CODES
PACKAGE
CODE
2
3
4
5
6

7
8
9
10
11
12
13
14
15

16
17
18
19
20

22
23
26
27
28
32
34
35
36

37
38
39

40
41
42
43

44
45
46
48
50

PACKAGING DESCRIPTION
· Bulk
· 5MB, 12MM Tape, 7" Diameter Plastic Reel
· 26MM Horizontal Taping and Ammo Packing
· 52AMM Horizontal Tape, 13" Diameter Paper Reel Class I
· 5MB, 12MM Tape, 7" Diameter Paper Reel
· Avisert, Cathode Up, Cathode First Off Reel
· SMC, 16MM Tape, 7" Diameter Plastic Reel
· Avisert, Cathode Up, Cathode First Off Ammo Pack
· SMC, 16MM Tape, 13" Diameter Paper Reel
· Avisert, Cathode Down, Anode First Off Reel
· SMA, 12MM Tape, 7" Diameter Plastic Reel
· Avisert, Cathode Down, Anode First Off Ammo Pack
· SMA, 12MM Tape, 13" Diameter Paper Reel
· Panasert, Cathode Up, Cathode First Off Reel
· Panasert, Cathode Up, Anode Off First, Ammo Pack
· Panasert, Cathode Up, Cathode First Off Ammo Pack
· GF1, 12MM Tape, 7" Diameter Plastic Reel
· Panasert, Cathode Down, Anode First Off Reel
· GFI. 12MM Tape, 13" Diameter Paper Reel
· Panasert, Cathode Down, Anode First Off Ammo Pack
· Bulk Pack for Special Axial-Leaded Formed Devices
· 52.4MM Horizontal Tape Ammo Pack, Class I
· GL41 SMD 12MM Tape, 13" Diameter Paper Reel
· DFS Bridge,16MM Tape, 13" Diameter Paper Reel
· Special Carton Packing method for Tube Packaging Products
· GL34 SMD, 8MM Tapa, 7" Diameter Paper Reel
· Tab Mounted EFR8 Chip, 16MM, 13" Diameter Reel
· Bulk, Axial-Leaded Conductive Packaging
· Standard Horizontal Reel, Class I (Metric 52.4MM) Conductive Packaging
· BUlk, T0220, T03P Conductive Tubes
· Bulk, Conductive Packaging for Bridge Rectifier
· Miscellaneous Non-Standard T&R Packaging
· Euroform, Reel, Cathode First Off Reel, Lead Coated
· Euroform, Ammo Pack, Cathode First Out of Box, Lead Coated
· Euroform, Reel. Cathode Last Off Reel, Lead Coated
· Euroform, Ammo Pack, Cathode Last Out of Box, Lead Coated
· 52AMM Horizontal Tape, 13" Diameter Paper Reel, 5MM Component Spacing
for 00201 Packages
· Anti-Static Tube Packaging for T0220, T03P and DFM
· GL41 SMD 12MM Tape, 7" Diameter Plastic Reels
· GL34 SMD 8MM Tape, 7" Diameter Plastic Reels
· MPG06 Pseudo Radial Tape, 13" Diameter Paper Reels

Also available for all packaging Electro-Static-Protection by adding the number "50" to the existing codes.
For example, "51" would be Bulk, Electro-Static Packaging. "54" would be TIR, Electro-Static Packaging.

INsrUMlr
-622-

TABLE 3

NEW BULK PACKAGING
PACKAGING

DEVICE TYPE

QUANTITY

BOX SIZE

GROSS WEIGHT

INCHES

CM

EA.

LBS.

KG

Gl34 SURFACE MOUNT
Gl41 SURFACE MOUNT
GF1 SURFACE MOUNT
SMA SURFACE MOUNT
5MB SURFACE MOUNT
SMC SURFACE MOUNT

PAPER BOX
PAPER BOX
PAPER BOX
PAPER BOX
PAPER BOX
PAPER BOX

8.0,3.5, 1.0
8.0' 3.5, 1.0
8.0, 3.3 ,.87
8.0,3.3, .87
8.0,3.3, .87
8.0 ,3.3 , .87

20.3 , 8.8 , 2.54
20.3,8.8, 2.54
20.3 ,8.4 , 2.2
20.3,8.4, 2.2
20.3 , 8.4 , 2.2
20.3,8.4, 2.2

8000
4000
2000
2000
2000
1000

0.55
1.03
0.76
0.77
0.77
0.87

0.25
0.47
1.67
1.69
1.69
1.92

0015
00201AD
D0204AP
D0204MB
D041/MPG06
G4IG3
GP20
J,JTX1 N483B, 1N845, 1N845-1
J, JTXlN3611, lN4245, lN5614
J, JTX1N4942, 1N5615
J, JTXl N5415, 1N5550, 1N5624, 1N5807
P600
P6KE

PAPER BOX
PAPER sex
PAPER sex
PAPER sex
PAPER sex
PAPER BOX
PAPER BOX
PAPER BOX
PAPER sex
PAPER BOX
PAPER BOX
PAPER BOX
PAPER BOX

11.75,5.125'2.5
11.75,5.125, 2.5
11.75,5.125, 2.5
11.75,5.125,2.5
11.75,5.125'2.5
11.75,5.125'2.5
11.75,5.125'2.5
8.0,3.5, 1.0
8.0,3.5'1.0
8.0,3.5, 1.0
12.0,3.6' 2.5
11.75,5.125'2.5
11.75,3.5,1.0

29.8' 13.0 '6.3
29.8 '13.0 '6.3
29.0, 13.0 '6.3
29.8, 13.0 '6.3
29.8 , 13.0 '6.3
29.8, 13.0' G.3
29.8, 13.0, 6.3
20.3 , 8.8 '2.54
20.3,8.8' 2.54
20.3 , B.8 , 2.54
30.4,9.1 '6.3
29.8' 13.0,6.3
29.8,8.8, 2.54

4000
1500
4000
5000
5000
3000/2000
1500
1000
500
500
1000
750
2000

3.85
4.41
3.75
3.15
2.38/2.20
5.07/5.29
3.75
0.77
0.55
0.55
2.50
3.72
1.93

1.75
2.0
1.7
1.43
1.0811.0
2.312.4
1.7
0.35
0.25
0.25

19.0 lENGTH
20.5 lENGTH
20.5 lENGTH

48.2 lENGTH
52.0 lENGTH
52.0 lENGTH

50
50

0.12
0.306
0.572

0.05
0.14
0.26

100

0.37

0.17

0.042
0.53
2.42
2.20
3.20

1.4
0.24
1.1
1.0
1.45

DF-MIOF-S
T0-220, CT
TooP

ANTI-STATIC PLASTIC TUBES
ANTI-STATIC PLASTIC TUBES
ANTI-STATIC PLASTIC TUBES

WG

PLASTIC BAGS

8C
KBPMI2KBPM
GBU4,6,8
GBl
GBPC12-35W

PAPER BOX
ANTI-STATIC PVC TRAY
ANTI-STATIC PVC TRAY
ANTI-STATIC PVC mAY
ANHSTATIC PVC TRAY

9.2,5.0' 2.5
12.5, 6.5, 1.25
12.5 '6.1' 1.0
12.5'6.1 '1.0
12.5, 12.5, 1.25

5.1,5.1,0.9
31.7'16.5,3.17
30.9 '15.5' 2.5
30.9 x15.5, 2.5
31.7,31.7,3.17

100
120
250
400
100

GBPeS
GBPC10
GBPC1,GBPC6
KBl
GBPC12-35
KBU4,6,8

ANTI-sTATIC PVC TRAY
ANTI-sTATIC PVC TRAY
ANHSTATIC PVC TRAY
ANTI-STATIC PVC TRAY
ANTI-sTATIC PVC TRAY
ANTI-STATIC PVC TRAY

12.5, 12.5 ,8.7
12.5 '12.5, 1.0
12.5 x12.5 '.75
12.2'6.1 Xl.5
12.5, 12.5' 1.25
12.2 ,6.1 x1.5

31.7,31.7'.87
31.7,31.7'2.5
31.7 ,31.7,.75
30.9, 15.5 x3.8
31.7,31.7,3.17
30.9 , 15.5 ,3.8

200
150
250
300
100
250

30

1.1

1.69
0.87

2.42
2.64

1.1
1.2

1.6/1.9

.72/.88

4.19
3.53
3.53

1.9
1.6
2.1

AMMO BOX PACKAGING

-r
c

_I

FIG. 3

TABLE 4
Packaging

Available
Product Outlines

26MM Horizontal
Tape, Ammo Pack

D0-41,MPGOS
D0204AP, DO-15

52MM Horizontal
Tape, Ammo Pack

D0204AP, DO-41
D015
D0201AD, G3,G4,GP2
P600

Radial (Avisert,
GP10-E, RGP10-E
Panasert, Euroform) 0.25" (0.65MM) Lead
Tape, Ammo Pack
Diameter Only

Packaging
Codes

Dimension
'A"

Dimension
'Co

Quantity

'B"

Pkg 3

9.7'
(247MM)

1.7
(44MM)

'3.7"
(95MM)

3.0K
1.5K

10_0"
(254MM)

3_1"
(79MM)

4.3"
(110MM)

3.0K
2.0K
1.0K
0.3K

13.4"
(340MM)

1.8"
(47MM)

7.9"
(200MM)

Pkg 23

Pkg 8,9
12,13,16,17,
20, 21,41,43

-S23-

Dimension

Box

2.5K

•

HORIZONTAL TAPE-REEL PACKAGING
Axial leaded devices are packed in accordance with EIA Standard RS-296-E and the diagrams given below which refer to these specifications.

TABLE 1
COMPONENT
CASE TYPE

UNITS
PER REEL

COMPONENT
SPACING
"A" FIG. 1

MAX. OFF
ALIGNMENT
"E"FIG.1

GROSS WEIGHT
PER REEL

In.

mm

In.

mm

330
330
330
330
330
330
330
330

.047
.047
.047
.047
.047
.047
See RQ. 11
.047

1.2
1.2
1.2
1.2
1.2
1.2

7.1
5.00
4.9
5.4
4.6
5.5
1.95

32
2.29
2.22
2.44
2.07
2.51
.885

1.2

5.214.4

2.3612.02

12.0

7/13.0

178/330

See Fig. 11

2.917.5

1.31/3.40

.157

4.0

7/13.0

178/330

See Fig. 11

.471

.214

150015000

.157

4.0

7/13.0

178/330

See Fig. 11

.471/1.49

.214/.68

2500
5500
1400
5500
800
850/3500
750/3200
850/3500

.500
.200
.395
.200
.395
.157
.157
.472

12.7
5.0
10.0
5.0
10.0
4.0
4.0
12.0

13.0
330
13.0
330
13.0
330
13.0
330
13.0
330
7.0/13.0 178/330
7.0/13.0 178/330
7.0/330 178/13.0

.079
.047
.047
.047
.047
See Fig. 11
See Fig. 11
See Fig. 11

3.0
4.4
4.9
3.8
5.3

1.34
1.99
2.22
1.71
2.39

.11/.47
.31/1.46

.051.21
.141.66

.4012.42

.1811.10

In.

1.5KA(PAR)
0015
00201 AD
oo204AP
oo204MB
0041
DFS Sulface Mount
G31G4
GF1 Surface Mount

2000
4000
1400
4500
5000
5500
1500
160012000

.200
.200
.395
.200
.200
.200
.472
.395

5.0
5.0
10.0
5.0
5.0
5.0
12.0
10.0

750/3200

.472

GL34 Sulface Mount

2500

GlA1 Sulface Mount
GPtOE Vertical
GPtOE Horizontal
GP20
MPG06
P600
SMA Surface Mount
5MB Surface Mount
5MB Surface Mount

mm

REEL
OIMENSION
"O"FIG.2
13.0
13.0
13.0
13.0
13.0
13.0
13.0
13.0

ea.

mm

TAPE
SPACING
"B" FIG. 1

In.
2.06
2.06
2.06
2.06
2.06
2.06

52.4
52.4
52.4
52.4
52.4
52.4

2.06

52.4

2.06
2.06
2.06
2.06

52.4
52.4
52.4
52.4

2.0
1.2
1.2
1.2
1.2

Ibs.

kg.

TABLE 2

METRIC SPEC
Component
Body Diameter
Omm to5mm
(0" to .197")
Omm toSmm
(0" to 197")
5.01mm to 10mm
(.197" to .394")

Components Spacing
"A"(Lead to Lead)
S.Omm+O.Smm
(.197"+.020")
S.Omm + O.Smm
(197" + .020")
10mm +O.Smm
(.394" + .020")

Inside Tape
Spacing "B"
26mm+0.7Smm
(1.024" + .030)
S2.4mm+ I.Smm
(2.062" + .OS9")
S2.4mm + I.Smm
(2.062" + .OS9")

Cumulative
Pitch Tolerance
Not to
Exceed I.Smm
(.059") over
6 Consecutive
Components

The "CO-dimension of Fig.2 is between the
flanges of the component reel and shall be
.OS9"(1.5) to .31S"(8.00) greater than the
overall taped component width "W'.
Dimensions in inches and (millimeters)

*.250 (6.35)

.19115.00)

I 1_

_These are noainal values and have a t .0157-(,40)
tolerance range at each value FIG. 1

FIG. 2

INsrUMlr
-624-

PACKAGING FOR RADIAL TAPING

FIG.4

REEL PACKAGING

AMMO BOX PACKAGING

AVISERT
PKG6
PKG8
PKG10
PKG12

PANASERT
PKG14
PKG16
PKG18
PKG20

EUROFORM
PKG40
PKG41
PKG42
PKG43

-I"C" 1Arbor Hole Dia.
30tS.... ID

n.181>0.191)

-l=
I

CORE DIA.
34.9 to 102
11.31 TO 4.02)

i

I
I

I

55 MAX.
I'
12.11 MAX.) I

----II

330 MAX.
-113.0MAX.)-

FIG. 5 • REEL DIMENSIONS

"e" Dimension between the reel flanges shall be governed by the overall width of the taped components
and shall be 1.5mm(O.057) to 8.0mm(O.315") greater than the overall width
Package per EIA Standard RS-468-A. Available on reels or fan fold box (ammo pack).
All dimensions in millimeters and (inches)

INsr~
-625-

•

RADIAL TAPE-REEL PACKAGING
An dimensions in minimeters and (inches)

FIG.6· EUROFORM

'COMPONENT
ALIGNMENT

1

"'~~¥.:%\OIA.

~lJ) 1112':MINI~.~:::=.r-r
(.098)

18.5
lMj
L!m
....l1J!:
(.728)

15.0

... 0.85(0.28)
0.55(.022)

Ii

OIA.

1.40 MAX

~--~+-~~~~~I

JI

~

_

(.055)
,

•

I

AT'L
t 0.6(.024)
t
OA(.016)

10.0MAX
(.394)

Available for GP10 products only utilizing 0.65mm (0.25") diameter leads for Euroform Tape and Reeling by adding
suffix "E" (GP10GE. 1N4004GPE).Lead coating is stand~.

FIGURE 7· PANASERT

.. (;~)

1

r

g§.~~

;8~~~~T

. . ~OIA
2.03(.080)

f

16.0 MIN

i-I

-

-

g:l=:OIA.
1.4DMAX.
(.055)

5.5 MIN.

o

(.217)

-~-C=F=====F====~

at

•

t

g:~!:~

USER DIRECTION FEED
FIGURE 5· AVISERT

'COMPONENT
ALIGNMENT

. . ,02.0'
~.079)

2.72(.107) OIA.
2.03(.080)

-

~::!:~l OIA.
1.4DMAX.
(.055)

rC-Lot
t

t

0.9(.035)
0.5(.020)

Available only for 0041 case style products utilizing O.65mm (0.25")or 0.76(.030) diameter leads for Panaser! and Aviser!
Tape and Reeling. Lead coating is not available.

Standard polarity cathode oriented away from sprocket holes (Optional polarity cathode oriented toward sprocket holes)
-626-

SURFACE MOUNT TAPE / REEL PACKAGING
Packaged perE1A Standard 481-1 &-2

RMin .
• Topcovor
tape thickness (tl)

0.10
(·OO4lmax.
Thick

Bending radius

See Noto 2, Table 1

J

18.4 max.
(.724 max)

2.0
(0.079)

- I 1.--.1
Avatable
178±2.0
(7.00 ± .079)
or
330± 2.0
(13.0± .079
Diameters)

Embossed
carrior _ _ _-+
tape

_1_

H1!)-+--r.

1

~

20.2 min.
(0.795 min.)

Embossed
cavity
FIG. 9

FIG. '0

81216 MM Embossed Tape
E
T.... SIze
D
1.75± 0.10
8.12,16
1.5'.:~
MM
(.059}.:8iI (.069 ± .004)
Product
"!'ype
GL34

TapeSI••
8MM

Max.

Min.

8'

0'

(.1f5)

(1g)

TABLES

t

AoBoKo

4.0±10
(.157± .004)

0.400
(.016)

See Note 1
Tabl02

F

Mu.
K

P2

?-5±0.051
.138±.002)

(.~)
!.17~1

~
12MM

8.2
(.323)

SMC

~

5.5±0.051
(.2t7± .002)
1.5
(.059)

~
16MM

12.1
(.476)

Ad Dimensions in Millimeters and (Inches)

Po

GL41

~

;Min.
(1.969 min.)

".11>:1:.1u
.124±.004)

(.~~.~)

Constant
Dimensions
Min.
R

(.:")

W

P

(.3~~:~2)
12.0± .30
(.472 ± .012)

2.0±0.051
(.079±.002)

30

(1.81)

4.0±0.10
(1.57±.004)

8.0± .10
12.0± .008
(473± .008) (.315± .004)

Variable
Dimensions

(.~~s':.~~)
7.5± 0.051
(.295± .002)

(.100±.004)

(~.~~)

16.0±0.2
(.830 ±. 008)

4.0±0.10
(.57± .004)

12.0±0.10
(.47Z± .004)

NOTES; 1. Ao Bo Ko are determined by conlxment size. The clearance between the COf1l)Onent and the cavity must be within 0.05 min. to 0.5 max. for BMM tape and 0.05
min. to 0.650 max. tor 12MM tape. In addition. the oofT1XJnents cannot rotate more than 20 within the determined cavity.
2. Tape and cofT1X)nents will pass around radius -R- without damage.

:

1

+

Device
Polarization

For Machine Refreronce only
Including Draft ands Radii
Concentric Around So

I

AG.l'

User Direction of Feed
-627-

For components
2.0mm x 1.2mm
and largor

•

•

-628-

SALES OFFICES

PSD SALES OFFICES
Southeast Regional Sales Office
General Instrument Corporation
6855 Jimmy Carter Blvd.
Norcross. GA 30071
Tel: (404) 446-1265
Fax: (404) 446-1286

Central Regional Sales Office
General Instrument Corporation
85 W. Algonquin Rd. Suite 300
Arlington Heights. IL 60005
Tel: (708) 364-5880
Fax: (708)364-0649

Northeast Regional Sales Office
General Instrument Corporation
120 Andrews Road
Hicksville. NY 11802
Tel: (516) 933-3200
Fax: (516) 433-4412

Western Regional Sales Office
General Instrument Corporation
21601 Vanowen Street. Suite 205
Canoga Park. CA 91303
Tel: (818) 992-0982
Fax: (818) 992-1658

UNITED STATES
ALABAMA
Electramark
4950 Corporate Drive
Suite 130L
Huntsville. 35805
Tel: (205) 830-4400
Fax: (205) 830-4406
ARIZONA
Fred Board Associates
7353 Sixth Avenue
Scottsdale. 85252
Tel: (602) 994-9388
Fax: (602) 994-9477
Fred Board Associates
1041 W. Comababi
Tucson. 85704
Tel: (602) 299-1508
Fax: (602) 797-1683
CALIFORNIA
Prosales
3914 Murphy Canyon Rd.
SuileA220B
San Diego. 92123
Tel: (619) 467-7150
Fax: (619) 467-7154
Ewing-Foley
895 Sherwood Avenue
Los Altos. 94022-9990
Tel: (415) 941-4525
Fax: (415) 941-5109
Ewing-Foley
185 Linden Avenue
Auburn. 95603
Tel: (916) 885-6591
Fax: (916) 885-6594
Select Electronics
14730 Beach Blvd.
Bldg. F. Suite 106
La Mirada. 90638
Tel: (714) 739-8891
Fax: (714) 739-1604

CANADA
Pipe-Thomson Ltd.
5468 Dundas SI. West
Sufte 206
Islington. Ontario
M9B6E3
Tel: (416) 236-2355
Fax: (416) 236-3387
Davetek Marketing
107-3738 N. FraserWay
Burnaby. B.C. VSJ 5Gl
Tel: (604) 430-3680
Fax: (604) 435-5490
COLORADO
Lindberg Associates
6140 E. Evans Avenue
Denver. 80222
Tel: (303) 758-9033
Fax: (303) 758-5863
CONNECTICUT
Janco New England. Inc.
352 Boston Turnpike Rd.
Shrewsbury 01545
Tel: (508) 754-9840
Fax: (508) 754-9858

GEORGIA
Electramark
6030 Unity Drive
SuiteH
Norcross. 30071
Tel: (404) 446-7915
Fax: (404) 263-6389

KANSAS
Dy-Tronix Inc.
1999 Amidon
Suite 322
Wichita. 62703
Tel: (316) 838-0684
EASYLINK 62914257

ILLINOIS
Metcom Associates. Corp.
2Talcott Road
Park Ridge. 60068
Tel: (312) 696-1490
Fax: (312) 696-2568

Dy-Tronix Inc.
5001 College Blvd.
Suite 106
Leawood. 66211
Tel: (913) 339-6333
Fax: (913) 339-9449

INDIANA
Valentine &Associates
1000 North Madison Avenue
P.O. Box 242
Greenwood. 46142
Tel: (317) 888-2260
Fax: (317) 881-4904

MASSACHUSETTS
Janco New England. Inc.
352 Boston Turnpike Rd.
Shrewsbury. 01545
Tel: (508) 754-9840
Fax: (508) 754-9858

Valentine &Associates
1638 Lincolnway East
Southbend.46613
Tel: (219) 288-7070
Fax: (219) 233-1779
Valentine &Associates
408 Southway Blvd. East
Kokomo. 46902
Tel: (317) 453-3799
Fax: (317) 453-3897

FLORIDA
Graham Assoc. Inc.
9123 N. Military Trail
Suite 103
Palm Beach Gardens. 33410
Tel: (407) 622-4049
Fax: (407) 622-4595

IOWA
Dy-Tronix Inc.
23 Twixt Town Road
Cedar Rapids. 52402
Tel: (319) 377-8275
Fax: (319) 377-9163

Graham Assoc. Inc.
12360 66th SI. N.
Suite V5B
Largo. 34643
Tel: (813) 539-6779
Fax: (813) 539-6030

MEXICO
Panamtek
330 Bartlett
EI Paso 79912
Tel: (915) 581-2507
Fax: (915) 581-2645
MICHIGAN
Rathsburg Associates
34605 Twelve Mile Rd.
Farmington Hills.
48331-3262
Tel: (313) 489-1500
Fax: (313) 489-1480
MINNESOTA
High Technology
11415 Volleyview Road
Eden Prairie. 55344
Tel: (612) 944-7274
Fax: (612) 944-3229

Graham Assoc. Inc.
11190 N.W. 40th SI.
Coral Springs. 33065
Tel: (305) 341-5102
Fax: (305) 341-5118

INsr
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