1986_NEC_Linear_Products 1986 NEC Linear Products

User Manual: 1986_NEC_Linear_Products

Open the PDF directly: View PDF PDF.
Page Count: 442

Download1986_NEC_Linear_Products 1986 NEC Linear Products
Open PDF In BrowserView PDF
NEe

NEe Electronics Inc.

LINEAR'
PRODUCTS
1986

•

DISTRIBUTED BY

IIkvshaII
San Francisco Division
336 Los Coches Street
Milpitas, CA 95035
Electronics Group
Claude Michael Group

(408) 943-4600
(408) 943-4700

NEe Electronics Inc.

NEe

1986
LINEAR
DATA BOOK

February 1986
NECEL-000413
Stock No. 200100
©1986 NEC ELectronics Inc./Printed in U.S.A.

No part of this document may be copied or reproduced in any form or by any means without the prior written
consent of NEC Electronics Inc. The information in this document is subjectto change without notice. Devices sold
by NEC Electronics Inc. are covered by the warranty and patent indemnification provisions appearing in NEC
Electronics Inc. Terms and Conditions of Sale only. NEC Electronics Inc. makes no warranty, express, statutory,
implied, or by description, regarding the information set forth herein or regarding the freedom of the described
devices from patent infringement. NEC Electronics Inc. makes no warranty of merchantability or fitness for any
purpose. NEC Electronics Inc. assumes no responsibility for any errors that may appear in this document. NEC
Electronics Inc. makes no commitment to update or to keep current the information contained in this document.

. t-{EC

ii

,..,EC

II

GENERAL INFORMATION
QUALITY AND RELIABILITY

II

OPERATIONAL AMPLIFIERS

II

..

COMPARATORS

II
II
II
II
II

VOLTAGE REGULATORS
D/A AND A/D CONVERTERS
FUNCTIONAL BLOCKS
CHARGE COUPLED DEVICES
PACKAGING INFORMATION

iii

TABLE OF CONTENTS

,..,EC
Page

Section 1 - General Information
Introduction ..................................................................................... 1-1
Ordering Information ............................................................................. 1-1
Temperature Range .............................................................................. 1-1
Selection Guide .................................................................................. 1-2
Operational Amplifiers .......................................................................... 1-2
Comparators ................................................................................... 1-5
Voltage Regulators ............................................................................. 1-6
Digital to Analog Converters .................................................................... 1-7
Analog to Digital Converters .................................................................... 1-7
Functional Blocks .............................................................................. 1-7
Charge Coupled Device (CCD Sensors) .......................................................... 1-7
Part Number Index ............................................................................... 1-8
Industry Cross Reference ....................................................................... 1-10
Full Product Line Guide ......................................................................... 1-12
Discontinued Products ......................................................................... 1-14

Section 2 - Quality and Reliability
Introduction .....................................................................................
Electrical Testing and Screening ..................................................................
Quality Control Flowchart .........................................................................
Periodical Reliability Test .........................................................................

2-1
2-2
2-3
2-4

Section 3 - Operational Amplifiers
Single
jlPC301A General Purpose Operational Amplifier ................................................... 3-1
jlPC318 High-Speed Operational Amplifier ......................................................... 3-7
jlPC356 J-FET Input Operational Amplifier ....................................................... 3-11
jlPC357 J-FET Input Decompensated Operational Amplifier ....................................... 3-15
jlPC741 General Purpose Operational Amplifier .................................................. 3-21
jlPC811 J-FET Input Low-Offset Operational Amplifier ............................................ 3-25
jlPC813 J-FET Input Low-Offset Operational Amplifier ............................................ 3-27
jlPC4061 J-FET Input Low-Power Operational Amplifier ........................................... 3-29
jlPC4071 J-FET Input Low-Noise Operational Amplifier ........................................... 3-31
jlPC4081 J-FET Input Operational Amplifier ...................................................... 3-35
jlPC4250 Programmable Operational Amplifier ................................................... 3-39
Dual
jlPC358 Dual Low-Power Operational Amplifier ................................................... 3-45
jlPC812 Dual J-FET Input Low-Offset Operational Amplifier ....................................... 3-49
jlPC814 Dual J-FET Input Low-Offset Operational Amplifier ....................................... 3-53
jlPC1458 Dual General Purpose Operational Amplifier ............................................ 3-55
jlPC4062 Dual J-FET Input Low-Power Operational Amplifier...................................... 3-59
jlPC4072 Dual J-FET Input Low-Noise Operational Amplifier ...................................... 3-61
jlPC4082 Dual J-FET Input Operational Amplifier ................................................. 3-67
jlPC4359 Dual High-Speed Programmable Current Mode Operational Amplifier..................... 3-71
jlPC4556 Dual Decompensated High-Performance Operational Amplifier ........................... 3-79
jlPC4557 Dual High-Performance Operational Amplifier ........................................... 3-83
jlPC4558 Dual High-Performance Operational Amplifier ........................................... 3-87
jlPC4559 Dual High-Performance Operational Amplifier ........................................... 3-93
jlPC4560 Dual High-Performance Operational Amplifier ........................................... 3-97
jlPC4570 Dual Ultra Low-Noise, Wideband, Operational Amplifier................................. 3-103

iv

t-IEC

TABLE OF CONTENTS (cont)
Page

Section 3 - Operational Amplifiers (cont)
Quad
tJPC324 Quad Low-Power Operational Amplifier .................................................
tJPC3403 Quad High-Performance Operational Amplifier .........................................
tJPC4064 Quad J-FET Input Low-Power Operational Amplifier ....................................
tJPC4074 Quad J-FET Input Low-Noise Operational Amplifier ....................................
tJPC4084 Quad J-FET Input Operational Amplifier ...............................................
tJPC4574 Quad Ultra Low-Noise, Wideband, Operational Amplifier ................................
tJPC4741 Quad High-Performance Operational Amplifier .........................................
Definition of Terms ............................................................................

3-107
3-111
3-115
3-117
3-121
3-125
3-127
3-131

Section 4 - Comparators
tJPC311 Single Precision Voltage Comparator ............................•......................... 4-1
tJPC319 Dual High-Speed Voltage Comparator ..................................................... 4-7
tJPC339 Quad Low-Power Voltage Comparator ................................................... 4-13
tJPC393 Dual Low-Power Voltage Comparator .................................................... 4-17
Definition of Terms ............................................................................. 4-21

Section 5 - Voltage Regulators
tJPC305 Precision Positive Voltage Regulator ....................................................... 5-1
tJPC317 Three-Terminal Adjustable Positive Voltage Regulator ...................................... 5-5
tJPC337 Three-Terminal Adjustable Negative Voltage Regulator ..................................... 5-9
tJPC2600 Series Three-Terminal Positive Voltage Regulator ....................................... 5-13
tJPC78LOOH Series Three-Terminal 0.1 A Positive Voltage Regulators.................. ............. 5-17
tJPC78LOOJ Series Three-Terminal 0.1 A Positive Voltage Regulators ............................... 5-23
tJPC78MOO Series Three-Terminal 0.5 A Positive Voltage Regulators................................ 5-29
tJPC7800 Series Three-Terminal 1.0 A Positive Voltage Regulators.. .. . . . . . ...... . . .... ..... . ... . . .. 5-35
tJPC79LOO Series Three-Terminal 0.1 A Negative Voltage Regulators................................ 5-41
tJPC79MOO Series Three-Terminal 0.5 A Negative Voltage Regulators............................... 5-45
tJPC7900 Series Three-TerminaI1.0A Negative Voltage Regulators ................................. 5-51

Section 6 - DI A and AID Converters
Digital-to-Analog
tJPC603 6-Bit High-Performance D/A Converter .................................................... 6-1
tJPC61 0 10-Bit Polarized DIA Converter ............................................................ 6-9
tJPC624 8-Bit High-Speed Multiplying D/A Converter .............................. ,.............. 6-17
tJPC6012 12-Bit High-Speed Multiplying D/A Converter ........................................... 6-27
tJPD6900 8-Bit CMOS Video D/A Converter ...................................................... 6-35
tJPD7011 8-Bit NMOS DIA Converter ............................................ . . . . . . . . . . . . . . .. 6-39
Analog-to- Digital
tJPD6950 8-Bit CMOS Video AID Converter ....................................... . . . . . . . . . . . . . ..
tJPD7001 8-Bit CMOS Serial Output AID Converter ..............................•................
tJPD7002 10-Bit CMOS Integrating AID Converter ................................. ".............
tJPD7003 8-Bit CMOS High-Speed AID Converter ................................•................
tJPD7004 10-Bit CMOS Successive Approximation AID Converter..................................

6-45
6-51
6-59
6-69
6-75

v

TABLE OF CONTENTS (coni)

~EC
Page

Section 7 - Functional Block.
pPC398 Monolithic Sample-and-Hold Circuit ....................................................... 7-1
pPC494 Switching Regulator Control Circuit ....................................................... 7-3
pPC751n52 Quad Addressable Read/Write Amplifier ...................................•......... 7-13
pPC754 Magnetic Servo Head Preamplifier ....................................................... 7-19
pPC1042 Switching Regulator Control Circuit .................................................... 7-21
pPC1060 Precision 2.5 Volt Reference Regulator .................................................. 7-27
pPC1555 Precision Timer Circuit ................................................................ 7-29
pPC1571 Compander ........................................................................... 7-35
pPC1663/1664 Ultra-Wideband Differential Amplifier .............................................. 7-41
pPC3423 Overvoltage "Crowbar" Sensing Circuit ................................................. 7-45
pPD5555/5556 CMOS Timers .................................................................... 7-51

Section 8 - Charge Coupled Device.
pPD791 4096-Bit CCD Image Sensor ............................................................... 8-1
pPD7951024-Bit CCD Image Sensor ............................................................... 8-9
pPD799 2048-Bit CCD Image Sensor............................................................. 8-17

Section. - Packaging Information
Packaging Information ............................................................................ 9-1
Thermal Information ............................................................................ 9-13
Taping Specifications........................................................................... 9-15
Surface Mounting Specifications ................................................................ 9-23

vi

NEe

GENERAL INFORMATION

1-A

D

GENERAL INFORMATION

!\fEe

Section 1 - General Information
Introduction ....................................................................... 1-1
Ordering Information .............................................................. 1-1
Temperature Range ................................................................ 1-1
Selection Guide ................................................................... 1-2
Operational Amplifiers ........................................................... 1-2
Comparators .................................................................... 1-5
Voltage Regulators ............................................................... 1-6
Digital to Analog Converters ...................................................... 1-7
Analog to Digital Converters ...................................................... 1-7
Functional Blocks ................................................................ 1-7
Charge Coupled Device (CCD Sensors) ........................................... 1-7
Part Number Index ................................................................. 1-8
Industry Cross Reference ........................................................ 1-10
Full Product Line Guide .......................................................... 1-12
Discontinued Products ........................................................... 1-14

t-IEC

GENERAL INFORMATION

Introduction

Ordering Information

NEC's Linear Catalog illustrates the extensive line of
components available to designers and manufacturers.
The variety of devices allows greater design alternatives
and the ability to choose parts that truly fit your
product needs. NEC's components are designed to
satisfy industrial, communication, instrumentation, and
consumer applications.

NEC integrated circuits may be ordered by contacting
either the local NEC sales office, representative, or
authorized distributor.

Numbering System
pPC

1234

Designed for easy reference, NEC's Linear Catalog is
divided into the following sections.
General Information - This section includes product
selection guides, cross reference, ordering information,
and handling precautions.
Quality and Reliability - An explanation and detailed
specifications of NEC's stringent Q&R product testing.
Operational Amplifiers - Popular second-source operational amplifiers, and state-of-the-art J-FET input
originals, complement a complete line of op-amps.
Most are available in surface mount packaging.

C
"L...-Package
B - Ceramic flatpack
C - Plastic molded DIP
0 - Ceramic DIP/CERDIP
G2 - Plastic miniflat
H - TO-220
HA - Plastic SIP
J - TO-92

'----Device Number
'-------Product Family
pPC - Bipolar Linear Circuits
pPD - MOS Circuits

Voltage Comparators - Some of the most popular
comparators are available in either DIP or surface
mount packaging.

Temperature Range

A/D-D/A Converters - A full line of DIA converters are
available with 6-, 8-,10-, and 12- bits; also, 8- and 10-bit
CMOS AID converters with full microprocessing
capabilities.

Ceramic Flatpack

Voltage Regulators - All standard 3-terminal regulators
are available in the 7800 and 7900 series, as well as the
pPC305 DIP.
Functional Blocks - A wide variety of special products
are offered including, SMPS controllers, timers, precision voltage references, and Charge Coupled Devices
(CCD Sensors).

D

High Reliability
Industrial

Commercial

-40°C to +85 °C'

-20°C to +70°C

Ceramic DIP

-40°C to +85 °C'

-20°C to +10°C

Plastic Miniflat

-40°C to +85 °C'

O°C to +70°C

TO·220

-40°C to +85 °C'

-20°C to +85°C

Operating Temperature
Plastic DIP

O°C to 70°C

Plastic SIP

-40°C to +85 °C'

-20°C to +80°C

TO·92

-40°C to +85°C'

-20°C to +85 °C

Storage Temperature

High Reliability
Industrial

Ceramic Flatpack

Commercial
-65°C to +150°C

Plastic OIP

-55°C to +125°C

Ceramic DIP

-55°C to +150°C

Plastic Miniflat

-55°C to +125°C

-55°C to +125°C
-55°C to +125°C

TO·220

-55°C to +150°C

Plastic SIP

-55°C to +125°C

10·92

-65°C to +150°C

• Available For Most Linear Devices.

1-1

ttlEC

GENERAL INFORMATION
Selection Guide
Operational Amplifiers
O'C to +70'C
O'C to +70'C
-20'C to +80'C

Temperature Range: C Package (plastic molded DIP)
G2 Package (plastic molded SO)
D Package (ceramic cavity DIP)
'Unless otherwise specified, v± = ±15 V, TA = 25'C
VCC'
NEC No,

Package

Generic

(+I-V)
Rec,

ICC
(mA)
Max,

Vio

liD

(nA)

Ib
(nA)

AWOL
(dB)

en2
(nVlJijZ)

'UNITY
(MHz)

Slew Rale

(mV)
Max,

Max.

Max.

Min.

Typ.

Typ.

Typ.

(VIps)

Single Operational Amplifiers

/lPC301A

C/8

LM301A

5·16

3

7.5

50

250

88

25

prog

prog

/lPC318

C/8

LM319

5·16

10

10

200

88

15

10

70

/lPC356

CIS

LF356

5·16

10

5

0,05

500
0,2

88

20

5

12

/lPC357

C/8

LF357

5·16

10

0,05

0.2

88

20

20

50

(AV~

/lPC741

C/8

200

500

88

25

2,5

0.05

0,2

88

20

4

3.5

2,5

0.05

0.2

88

20

2·16

0,25

10

0.05

0,1

69

30

n071

5·16

2,7

10

0,05

0.2

88

18

13

TL081

5·16

2.8

15

0.1

0.4

88

25

13

LM4250

1·16

proD

6

prog

proD

96

25

/lA741

7·16

2.8

LF411

5·16

3,5

LF412

5·16

TL061

(AV

~

5)
(GOWat
10 kHz)
0,6

0,5

G2I8
/lPC811'

C/8

15

G2I8
/lPC813'

C/8

25

G2I8
/lPC4061'

C/8

G2I8
/lPC4071

C/8

G2I8
/lPC4081

C/8

G2I8
/lPC4250

C/8

G2I8
Noles: 1. Recommended supply voltage range.
2. Input equivalent noise density at 1 kHz (RS = 100 0).
3. New product (Preliminary data).

1-2

proD

proD

5)

NEe

GENERAL INFORMATION

Operational Amplifiers (cont)
Temperature Range: G Package (plastic molded DIP)
G2 Package (plastic molded SO)
D Package (ceramic cavity DIP)
'Unless otherwise specified, v± = ±15 V, TA = 25°G

NEC No,

Package

OOG to +70 o G
OOG to +70 o G
-20oG to +80 o G

e.2

VCC'
(+I-V)

IcC
(mA)

V'O
(mV)

liO
(nA)

Ib
(nA)

AVOL
(dB)

'UNITY
(MHz)

Slew Rate

(nVlJiiZ)

Rec.

Max.

Max.

Max.

Max.

Min.

Typ.

Typ.

Typ.

3·30
(Single
Supply)

1.2

7,0

50

250

88

32

0.5

0.2

ORIG

5·16

6,8

3.0

0.05

0.2

88

20

4

15

Generic

(V//ls)

Dual Operational Amplifiers

IlPC358

C/8
02/8

LM358

D

• Specified at v± = +5 V,

IlPC812 3

C/8,02/8

IlPC8f43

C/8

ORIO

5·16

6,8

3,0

0.05

0,2

88

20

8

25

IlPC1458

C/8
02/8

MC1458

7·16

5.6

6

200

500

88

25

0,6

0.5

C/8

n062

2·16

0.50

10

0.05

0.1

69

30

n072

5·16

5.0

10

0,05

0.2

88

18

3

13

n082

5·16

5.6

15

0.1

0.4

88

25

3

13

15

60

6.0

200

12

20

5,0

(AV~

(AV~

/lPC4062 3

3

02/8
IlPC4072

C/8

G2/8
IlPC4082

C/8

G2/8
/lPC4359

C/14

LM339

5·22

22

IlPC4556

C/8

ORIG

4·16

5.6

1500

70

500

86

02/8

10)
(GBWat
10 kHz)

IlPC4557

C/8

ORIO

4·16

5.6

6.0

200

500

86

12

2

IlPC4558

C/8
G2/8

RC4558

4·16

5.6

6.0

200

500

86

12

2

IlPC4559

C/8

RC4559

4·16

5.6

6.0

200

500

86

12

IlPC4560

C/8

ORIO

4·16

5.6

6.0

200

500

86

ORIG

4·16

8.0

5.0

200

1000

90

IlPC4570 3

C/8

G2I8

3
10
(GBWat
10 kHz)

02/8
4,5

10)

2,8

15
(GBW It
10 kHz)

Notes: 1. Recommended supply voltage range.

2. Input equivalent noise density at 1 kHz (RS = 1000).
3. New product (Preliminary data).

1-3

t-IEC

GENERAL INFORMATION
Operational Amplifiers (cont)
Temperature Range:

OOG to +70 o G
OOG to +70 o G
-20 o G to +80 o G

G Package (plastic molded DIP)
G2 Package (plastic molded SO)
D Package (ceramic cavity DIP)

* Unless otherwise specified, V± = ±15 V, TA = 25°G

NEe

No,

Package

Generic

Vee'
(+I-V)
Rec,

lee

Vio

liD

Ib

AVOL

en2

'UNITY

(mA)
Max,

(mV)
Max,

(nA)
Max,

(nA)
Max,

(dB)

(nV/JijZ)

(MHz)

Slew Rate
(V//ls)

Min,

Typ,

Typ,

Typ,

0,5

0,25

Quad Operational Amplifiers

/lPC324

CI14
G2I14

LM324

3·30
(Single
Supply)

2,0

7,0

50

250

88

32

3·32
(Single
Supply)

7,0

7,0

50

250

88

32

* Specified at v± = +5 v.

/lPC3403

CI14
G2I14

MC3403

0,6

* Specified at v± = +5 V.

/lPC4064

CI14
G2I14

TL064

2·16

1.0

10

0,05

0,1

69

30

/lPC4074

CI14
G2114

TL074

5·16

10,0

10

0,05

0,2

88

18

13

/lPC4084

CI14

TL084

5·16

10,0

15

25

13

/lPC4574

CI14
G2I14

OHIG

±15

12

/lPC4741

CI14
G2I14

HA4741

2·16

7,0

10

1.6

Noles:

1. Recommended supply voltage range,
2. Input equivalent noise density at 1 kHz (RS = 100 0).
3. New product (preliminary data).

1-4

5,0

0,2

0.4

88

200

1000

90

50

300

88

ftt{EC

GENERAL INFORMATION

Comparators
Temperature Range: C Package
G2 Package (plastic molded SO)
'Unless otherwise specified, V± = ±15 V, TA = 25°C

NEC No.

flPC311
[Single)

Package

Generic

C/8
8218

LM311

VCC'
(+I-V)

4·18
5-36

DoC to +70°C
DoC to +70°C

ICC
Max,

ViD
Max,

Ib
Max.

AVOL
Typ.

ISINK'
Typ.

Response

Max,

(rnA)

(mV)

(nA)

(nA)

(dB)

(rnA)

(ns)

7.5

7.5

50

250

106

8.0

200

12.5

8.0

200

1000

92

3.2

80

2.0

5.0

50

250

106

4.0

1300

1.0

5.0

50

250

106

4.0

1300

liD

Time'

II

[Single
Supply)

flPC319
[Dual)

C/14
82114

LM319

5-18
5-18
[Single
Supply)

flPC339
[Quad)

C/14

LM339

G2I14

2-32
[Single
Supply)

• Specified at V+

flPC393
[Oual)

= +5 V.

C/8

G2I8

LM393

2-32
[Single
Supply)

• Specified at v+

= +5 V.

Notes: 1. Recommended supply voltage range.
2. V+ = +5 V, VOL = 0.4 V.
3. 100 mV input step with 5 mV overdrive.

1-5

t-IEC

GENERAL INFORMATION
Voltage Regulator.
Device

Drilinal

pPC305C

305

pPC317
pPC337

lM317
lM337

pPC2600
pPC78l05J
pPC78L08J
pPC78L12J
pPC78L15J
pPC78M05
pPC78M08
pPC78Ml0

Dperallng
TemperalUre
Range (OC)

11-+70
-20-+80
-211-+80
-30-+85

78L05
78108

-211-+1501
-20-+1501

78112
78115

-20-+1501
-211-+1501

78M05
78M05

-211-+80
-211-+80
-20-+80

78M12
78M15

pPC78M18

78M18

-211-+80
-211-+80

pPC78M24
pPC7805

78M24
7805

-211-+80
-20-+80

pPC7808
pPC7812
pPC7815

7808

-211-+80
-211-+80

pPC7818

7818
7824

pPC7824
pPC79L05
pPC79L08
pPC79L12
pPC79l15
pPC79M05
pPC79MOB
pPC79MI2
pPC79M18
pPC79M24
pPC7905
pPC7908
pPC7912
pPC7915
pPC7918
pPC7924

7815

7905

7908
7912
7915
7905
7908
7912
7918
7924
7905
7908
7912
7915
7918
7924

(W)

0.05

0.35

4.3

40

1.5

20

5.10

4.3
12

40
28

1.5
0.5
0.1

20
20
0.8

82

10.5

30

0.1

14.5
17.5

35
35
35

0.1

0.8
0.8

0.1
0.5

0.8
20

10.5

4.5-30
+1.3-+30
-1.3--30

30

103

153
1&3

83

123

-53
-&3

-211-+1251
-211-+1251

TO·220

35
35

0.5
0.5

20

TO·220
TO·220

21
27

35
40

0.5

20
20

0.5

20

20
20
20

TO-220

20

TO-220

20
20
0.7

TO-220

TO·220

TO·220
TO-220

35

1.0

10.5
14.5
17.5

35
35

1.0
1.0
1.0

21

35

1.0

27

40
-20
-23

1.0
0.07
0.07

-27

0.07

0.7

TO-92

-30
-25

0.07
0.35

0.7

TO·92

20

-25

0.35

0.35

20
20
20

TO·220
TO-220
TO·220
TO-220

-7
-10.5
-14.5

35

-7

-211-+1501
-20-+1501

-123

-10.5
-14.5

-183

-17.5

-30
-30

-20-+1501

-243

-27

-38

0.35
0.35

-7

-35

1.0

-35
-35

-153

-10.5
-14.5
-17.5

1.0
1.0
1.0

-183

-21

-35

-243

-27

-40

2. Output voltage accuracy ±10%.
3. Output voltage accuracy ±5%.

TO·92
TO-92
TO-92
TO·220

20
20

-83

-20-+80
-211-+80

TO·220
TO-220
TO-220
TO-92

0.5
0.5

-53

-211-+80
-211-+80

8 pin DIP

35
35

-17.5

-83

Package

12.5
14.5
17.5

-211-+1501
-20-+1501

Note.: 1. Junction temperature.

1-6

(A)

-211-+80

-211-+80
-211-+80

PT

Max.

Max.
40

-20-+80
-20-+80
-20-+1251
-20-+1251

Max.
Min.
8.0

-20-+80

pPC78M12
pPC78M15

7812

10

VOUT (V)

-35

1.0
1.0

0.7

TO·220
TO-220

TO-22O
TO-92
TO-92

20
20

TO-220

20
20

TO·220
TO·22O
TO-220

20
20
20

TO·220

TO-220
TO·220

t-IEC

GENERAL INFORMATION

Digital to Analog Converters
Part No.
pPC603

Resolution
6 Bit

Non-Linearity
0.4%

Conversion
Speed
3pS

suppl,
Voltage
±15

pPC610

10 Bit

0.2%

6pS

±15

Onboard VREF - Output
Buller

pPC624

8 Bit

0.19%

150 ns

±5
±15

Current Output

pPC6012

12 Bit

0.05%

400 ns

+5-+15
-12/-15

Current Output

pPC6900

8 Bit

1/2LSB

20 x 1()6 samples/sec

+5

Current Output

pPD7011
pPD7011C·l

8 BII

0.4%
0.2%

3pS

+5

Current Output

features
Onboard VREF - Output
Buller

a

Analog to Digital Converters
Part No.
pPC650

Resolution
12 Bit

Non-Linearity
0.05%

Conversion
Speed
45pS

Suppl,
Vo"a.e
+5
-15

pPC6950

8 Bit

±1/2 LSB

20 x 1()6 samples/sec

+5

Parallel Output

pPD700l

BBit

0.8%

140ps

+5

Serial Output

pPD7002
pPD7002C·l
pPD7003

10 BII

15 ms

+5

Three State Output

8 Bit

0.2%
0.1%
0.49"/,

4pS

+5

Three State Output

pPD7004

10BII

0.15%

100ps

+5

Serial/Parallel

Output
Parallel Output

Functional Blocks·
Device
No.
pPC398

Description
Monolithic Sample and hold circuit

pPC494

Switching regulator (SMPS) controller

pPC751

Quad read/write amp for hard disk media

pPC752

Quad addressable read/write amplifier
Magnetic servo head preamp

pPC754
pPC1042

Swllchlng regulator (SMPS) controller

pPC1060

2.5 Vprecision voltage reference. for use with 0/Aand
A/D converters
Precision Timer (NE 555 direct replacement)

pPC1555
pPC3423

Overvoltage "Crowbar" sensing circuit

pPD5555/5556

CMOS 555 Timers

·Contact manufacturer for specifications.

Charge Coupled Devices (CCD Sensors)
Device
No.
pPD791D

Description
4096 BII Array

pPD795D

1024 Bit Array

pPD799D

2048 Bit Array

1-7

GENERAL INFORMATION

NEe

Part "limber Index

Page

pPC301A General Purpose Operational Amplifier ...•.............................................•.
pPC305 Precision Positive Voltage Regulator .......................................................
pPC311 Single Precision Voltage Comparator ••.••.••.......................•......................
pPC317 Three-Terminal Adjustable Positive Voltage Regulator ...............•......•...............
pPC318 High~Speed Operational Amplifier ......................................•........•.••......

3-1
5-1
4-1
5-5
3-7

pPC319 Dual High-Speed Voltage Comparator ...•.•........................•.•.................... 4-7
pPC324 Quad Low-Power Operational Amplifier ................................................. 3-107
pPC337 Three-Terminal Adjustable Negative Voltage Regulator .....................••.............. 5-9
pPC339 Quad Low-Power Voltage Comparator ................................................... 4-13
pPC356 J-FET Input Operational Amplifier ....................................................... 3-11
pPC357
pPC358
pPC393
pPC398
pPC494

J-FET Input Decompensated Operational Amplifier ............................•.....•.... 3-15
Dual Low-Power Operational Amplifier ................................................... 3-45
Dual Low-Power Voltage Comparator .................................................... 4-17
Monolithic Sample~and-Hold Circuit ....................................................... 7-1
Switching Regulator Control Circuit ..........•.............•.............•................ 7-3

pPC603 6-Bit High-Performance D/A Converter .................................................... 6-1
pPC610 10-Bit Polarized D/A Converter ............................................................ 6-9
pPC624 8-Bit High-Speed Multiplying D/A Converter ................................•.••..•...... 6-17
pPC741 General Purpose Operational Amplifier .................................................. 3-21
pPC7511752 Quad Addressable Read/Write Amplifier ............................................. 7-13
pPC754 Magnetic Servo Head Preamplifier ....................................................... 7-19
pPD791 4096-Bit CCD Image Sensor .....................................••.••••...............•... 8-1
pPD7951024-Bit CCD Image Sensor ............................................•.................. 8-9
pPD799 2048-Bit CCD Image Sensor .........•...........................................•....... 8-17
pPC811 J-FET Input Low-Offset Operational Amplifier ...•.••..........•.......................... 3-25
pPC812 Dual J-FET Input Low-Offset Operational Amplifier .....•..................•.•.•..•....... 3-49
pPC813 J-FET Input Low-Offset Operational Amplifier .........................••.......•......... 3-27
pPC814 Dual J-FET Input Low-Offset Operational Amplifier ...............•..•••.................. 3-53
pPC1042 Switching Regulator Control Circuit ..•..........•••............ ;....................... 7-21
pPC1060 Precision 2.5 Volt Reference Regulator.................................................. 7-27
pPC1458 Dual General Purpose Operational Amplifier ............................................
pPC1555 Precision Timer Circuit ................................................................
pPC1571 Compander ......•.•.......................................•..•..•....................
pPC1663/1664 Ultra-Wideband Differential Amplifier .•.•..••......................................
pPC2600 Series Three-Terminal Positive Voltage Regulator ........... :...........................

3-55
7-29
7-35
7-41
5-13

pPC3403 Quad High-Performance Operational Amplifier ........•...............••.......•...••.. 3-111
pPC3423 Overvoltage "Crowbar" Sensing Circuit ................................................. 7-45
pPC4061 J-FET Input Low-Power Operational Amplifier ........................................... 3-29
pPC4062 Dual J-FET Input Low-Power Operational Amplifier ........... ,.......................... 3-59
pPC4064 Quad J-FET Input Low-Power Operational Amplifier .....•................•............. 3-115

1-8

t\'EC

GENERAL INFORMATION

Part Number Ind.ex (coni)

Page

J.lPC4071
J.lPC4072
J.lPC4074
J.lPC4081
J.lPC4082

J-FET Input Low-Noise Operational Amplifier ........................................... 3-31
Dual J-FET Input Low-Noise Operational Amplifier ...................................... 3-61
Quad J-FET Input Low-Noise Operational Amplifier .................................... ·3-117
J-FET Input Operational Amplifier .....................................................• 3-35
Dual J-FET Input Operational Amplifier ........................•.•....................•. 3-67

J.lPC4084
J.lPC4250
J.lPC4359
J.lPC4556
J.lPC4557

Quad J-FET Input Operational Amplifier ...............................•............... 3-121
Programmable Operational Amplifier .•..............................................•.. 3-39
Dual High-Speed Programmable Current Mode Operational Amplifier ..........•.....•.... 3-71
Dual Decompensated High-Performance Operational Amplifier ........................... 3-79
Dual High-Performance Operational Amplifier .....................•..................... 3-83

J.lPC4558 Dual High-Performance Operational Amplifier ...............•................•.......... 3-87
J.lPC4559 Dual High-Performance Operational Amplifier ........................................... 3-93
J.lPC4560 Dual High-Performance Operational Amplifier ........................................... 3-97
J.lPC4570 Dual Ultra Low-Noise, Wideband, Operational Amplifier................................. 3-103
J.lPC4574 Quad Ultra Low-Noise, Wideband, Operational Amplifier ......•.......•....•............ 3-125
J.lPC4741 Quad High-Performance Operational Amplifier ...............•...............•......... 3-127
J.lPD5555/5556 CMOS Timers.................................................................... 7-51
J.lPC6012 12-Bit High-Speed Multiplying DIA Converter ..•..........•............................. 6-27
J.lPD6900 8-BitCMOS Video DIA Converter ......•••............................................. 6-35
J.lPD6950 8-Bit CMOS Video AID Converter ... . . . . . . . . . . . . . . . . • . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. 6-45
J.lPD7001 8-Bit CMOS Serial Output AID Converter ......•.........••.............................
J.lPD7002 10-Bit CMOS Integrating AID Converter .•............................•.................
J.lPD7003 8-Bit CMOS High-Speed AID Converter ...........•............•.•...••...............•.
J.lPD7004 10-Bit CMOS Successive Approximation AID Converter .........•.•...•....•........•....
J.lPC7011 8-Bit NMOS DIA Converter .....•••...........................••.......................

6-51
6-59
6-69
6-75
6-39

J.lPC78LOOH Series Three-Terminal 0.1 A Positive Voltage Regulators ............•............•....
J.lPC78LOOJ Series Three-Terminal 0.1 A Positive Voltage Regulators ..........................•....
J.lPC78MOO Series Three-Terminal 0.5 A Positive Voltage Regulators ......•...................•....
J.lPC7800 Series Three-Terminal 1.0 A Positive Voltage Regulators ..................•..•...........
J.lPC79LOO Series Three-Terminal 0.1 A Negative Voltage Regulators ...............................
J.lPC79MOO Series Three-Terminal 0.5 A Negative Voltage Regulators ...... . . . . . . .. . . . . . . . . . . . . . . ..
J.lPC7900 Series Three-Terminal 1.0 A Negative Voltage Regulators ...............•................

5-17
5-23
5-29
5-35
5-41
5-45
5-51

1-9

1··

NEe

GENERAL INFORMATION
Industry Cross Reference
AMD

NEG

Motorola (cont)

NEG

AM 6012

pPC6012

UA 301A

pPC301A

OAC 08

pPC624

LM 305

pPC305

LM 311

pPC311

NEG

LM 317

pPC311

UA 1458

pPC1458

LM 324

pPC324

UA 301A

pPC301A

LM 339

pPC339

pPC305

MC 3403

pPC3403

UA311

pPC311

MC 34072

pPC842*

UA324

pPC324

MC 34074

pPC844*

pPC339

LM 358

pPC358

LM 358

pPC358

MC 4558

pPC4558

UA393

pPC393

MC 4741

pPC4741

UA398

pPC398

LM 741

pPC741

UA 4558

pPC4558

MC 78XX

pPC78XX

UA494

pPC494

MC 78LXX

pPC78LXX

pPC1555

MC 78MXX

pPC78MXX

UA 733

pPC1663

MC 79XX

pPC79XX

UA 741

pPC741

Fairchild

UA305

UA339

UA,555

UA 78XX

pPC78XX

National

NEG

UA 78LXX

pPC78LXX

OAC 08

pPC624

UA 78MXX

pPC78MXX

LM 1458

pPC1458

UA 79XX

pPC79XX

LM 2930

pPC2250

UA 79LXX

pPC79LXX

LM 301A

pPC301A

UA 79MXX

pPC79MXX

LM 305

pPC305

LM 311

pPC311
itPC317

Intersil

NEG

LM 317

lCM 7555

pP05555

LM 319

pPC319

pP05556

LM 320TX

pPC79XX

LM 324

pPC324

LM 337

pPC337

LM 339

pPC339

LM 340T

pPC78XX

LF 356

pPC356

LM 358

pPC358

LM 359

pPC4359

LM 393

pPC393

LM 398

pPC398

LF 411

pPC811

LF 412

pPC812

LM 4250

pPC4250

LM 555

pPC1555

ICM 7556

Motorola

NEG

OAC 08

pPC624

TL071

pPC4071

TL072

pPC4072

n074

pPC4074

n081

pPC4081

TL082

pPC4082

n084

pPC4084

MC 1403

pPC1060

MC 1408-8

pPC624

MC 1455

pPC1555

MC 1458

pPC1458

"New product - Data available May 86

1c 1O

ftt{EC

GENERAL INFORMATION

Industry Cross Reference (cont)
National (cont)

NEG

LM 741

IlPC741

LM 78XX

IlPC78XX

LM 78LXX

IlPC78LXX

LM 78MXX

IlPC78MXX

LM 79XX

IlPC79XX

PMI
DAC OlC
DAC02
DAC08

RGA

NEG
IlPC603
IlPC61 0
IlPC624

NEG

CA08l

IlPC4081

CA082

IlPC4082

CA084

IlPC4084

CA 1458

IlPCl458

CA 301A

IlPC30lA

CA311

IlPC311

CA 324

IlPC324

CA339

IlPC339

CA358

IlPC358

CA393

IlPC393

CA555

IlPC1555

CA 741

IlPC741

SGS

NEG

MC 1458

IlPCl458

12605

IlPC2605

L2610

IlPC2610

LS 301 A

IlPC301A

LM 317

IlPC317

LM 324

IlPC324

LM 339

IlPC339

LM 358

IlPC358

lM 393

IlPC393

LS 4558

IlPC4558

NE 555

IlPCl555

NE 571

IlPC1571

LM 741

IlPC741

SGS (cont)

NEG

L78XX

IlPC78XX

L78MXX

IlPC78MXX

L 79XX

IlPC79XX

Signetics

NEG

AM 6012

IlPC60l2

DAC08

IlPC624

MC 1408-8

IlPC624

MC 1458

IlPC1458

LM 311

IlPC311

LM 319

IlPC319

LM 324

IlPC324

LM 339

IlPC339

MC 3403

IlPC3403

LM 393

IlPC393

LF 398

IlPC398

NE 4558

IlPC4558

NE 555

IlPC1555

NE 5532

IlPC4570

UA 741

IlPC741

Texas Inst.

NEG

n061

IlPC4061

n062

IlPC4062

n064

IlPC4064

n071

IlPC4071

TL072
TL 074

Il PC4072
IlPC4074

TL08l

IlPC4081

TL082

IlPC4082

TL084

IlPC4084

TL431

IlPC1093

MC 1458

IlPC1458

LM 301A

IlPC301A

LM 311

IlPC311

LM 319

IlPC319

LM 324

IlPC324

LM 339

IlPC339

LM 358

IlPC358

LM 393

IlPC393

HC 4558

IlPC4558

HC 4559

IlPC4559

II

1-11

NEe

GENERAL INFORMATION
Industry Cross Reference (cont)
Texas Inst. (cont)

NEG

TL494

ttPC494

NE 555

ttPC1555

UA 741

ttPC741

UA 78XX

ttPC78XX

UA 78LXX

ttPC78LXX

UA 78MXX

ttPC78MXX

UA 79XX

ttPC79XX

UA 79LXX

ttPC79LXX

UA 79MXX

ttPC79MXX

Full Product Line Guide
COMPARATORS

SINGLE OP AMPS
Part No.

Package

Description

Part No.

Package

Description

ttPC301A
ttPC318
ttPC356
ttPC357
ttPC741
ttPC811
ttPC813
ttPC4061
ttPC4071
ttPC4081
ttPC4250

C·8 pin
C·8 pin
C·8 pin
C· 8 pin
C/G2· 8 pin
C/G2· 8 pin
C/G2·8 pin
C/G2·8 pin
C/G2· 8 pin
C/G2· 8 pin
C/G2· 8 pin

General Purpose OP Amp
High Speed Op Amp
HET Input Op Amp
J·FET Input Low Power. Op Amp
General Purpose Op Amp
JFET Input High Performance Op Amp
JFET Input High Performance Op Amp
J·FET Input. Low Power. Op Amp
J·FET Input. Low Noise. Op Amp
HET Input. Low Offset/8ias Current
Programmable Op Amp

ttPC311
ttPC31 9
ttPC339
ttPC393

C/G2·8 pin
C/G2· 14 pin
C/G2· 14 pin
C/G2· 8 pin

Precision Comparator (Single)
High Speed Comparator (Dual)
Low Power Comparator (Quad)
Low Power Comparator (Dual)

DUAL OPAMPS
ttPC358
ttPC812

C/G2· 8 pin
C·8 pin

ttPC814
ttPCI458
ttPC4062
tt PC4072
ttPC4082
ttPC4359
ttPC4556

C·8 pin
C/G2·8 pin
C/G2· 8 pin
C/G2· 8 pin
C/G2· 8 pin
C· 8 pin
C/G2·8 pin

ttPC4557
ttPC4558
ttPC4559
ttPC4560
ttPC4570

C·8 pin
C/G2·8 pin
C·8 pin
C/G2·8 pin
C/G2·8 pin

Low Power Op Amp
J·FET Input Low Offset Voltage. High
Stability. Op Amp
High Performance
General Purpose Op Amp
HET Input. Low Power. Op Amp
J·FET Input. Low Noise. Op Amp
HET Input. Low Offset/8las Current
High Performance
High Performance. Decompensated. Op
Amp
High Performance Op Amp
High Performance Op Amp
High Performance Op Amp
High Performance Op Amp
Ultra Low Noise. Wide Bandwidth Op
Amp

QUAD OPAMPS
ttPC324
ttPC3403
ttPC4064
ttPC4074
ttPC40B4
ttPC4574
ttPC4741

1-12

C/G2 ·14 pin
C/G2· 14 pin
C/G2· 14 pin
C/G2 ·14 pin
C·14 pin
C/GZ· 14 pin
C/G2· 14 pin

Low Power Op Amp
Low Power Op Amp
J·FET Input. Low Power Op Amp
J·FET Input. Low Power Op Amp
J·FET Input. Low Offset/Bias Current
Ultra Low Noise. High Bandwidth
High Performance Op Amp

CCD = CHARGED COUPLED DEVICES FOR
IMAGE SENSING
ttPC603
ttPC61 0
ttPC624
ttPC6012
ttPD6900
ttPD7011

D·14 pin
0·18 pin
D· 16 pin
C· 20 pin
C· 22 pin
C·18 pin

High Performance. 6·8it O/A
Polarized. 1O·8it O/A
Multiplying. High Speed. 8·Bit D/A
Multiplying. High Speed. 12·Bit D/A
Video DAC. 20 mHz CMOS
Serial/Paratlell/O. NMOS 8·Bit D/A

DIGITAL TO ANALOG CONVERTERS
ttPD791

D·24 pin

ttPD795

D·20 pin

ttPD799

o. 24 pin

4096·BIt Linear Image Sensor. CCO. 7
ttm by 5 ttm Photo Element Size
1024·Bit Linear Image Sensor. CCO.
14 ttm by 9 ttm Photo Element Size
2048·Bit Linear Image Sensor. CCO.
14 ttm by 9 ttm Photo Element Size

ANALOG TO DIGITAL CONVERTERS [CMOS]
ttPD6950
ttPD7001

C· 24 pin
C·16 pin

ttPD7002

C· 28 pin

ttPD7002(·I) C· 28 pin
ttP07003

C· 24 pin

ttP07004

C· 28 pin

Video ADC. 20 mHz Flash CMOS
Serial Output. 4 Channel Input. CMOS.
8·BIt Succesive Approximation A/D
4 Channel Input. CMOS. 8/1 O·Bit
Integrating AID (Accuracy 0.2% FSR)
Same as ttPD7002 with Higher
Conversion accuracy (0.1 % FSR)
High Speed. Parallel (FLASH). CMOS
8·Bit A/D (Conversion time 4 tts)
8 Channel Input. Serial or Parallel
Output. CMOS 1O·Bit A/O

ttlEC
Full Product Line Guide (cont)

GENERAL INFORMATION

VOLTAGE REGULATORS
Positive-3 Terminal Regulators-1.0 AMP
Part No.
Package
Description
I'PC317
TO·220
3 to 30 Volt. Variable
I'PC7805
To·220
5 Volt. Fixed
I'PC7808
TO·220
8 VOlt. Fixed
I'PC7812
TO·220
12 Volt. Fixed
I'PC7815
TO·220
15 Volt. Fixed
I'PC7818
TO·220
18 Volt. Fixed
I'PC7824
TO·220
24 Volt. Fixed

FUNCTIONAL BLOCKS
Package
Description
Part No.
C· 8 pin
Voltage Regulator Controller
I'PC305
C· 8 pin
Monolithic Sample and Hold Circuit
I'PC398
I'PC494
C/G2 ·16 pin Switching Regulator (SMPS) Controller
B/o· 22 pin
Quad Read/Write Amp for Hard Disk
I'PC751
I'PC752
8·22 pin
4 Input/Output. Hard Disk Amplifier
C·16 pin
Switching Regulator Control Circuit
I'PC1042
I'PC1060
C· 8 pin
2.5 Volt Precision Voltage Reference.
for use with o/A and A/D Converters
C/G2 . 8 pin
Precision Timer
I'PC1555
C. 16 pin
Compander
I'PC1571
C. 8 pin
Ultra Wide 8andwidth Differential Amp
I'PC1663
C· 14 pin
Ultra Wide Bandwidth Differential Amp
I'PC1664
C. 8 pin
Precision Timer
I'PC3423
I'PC5555/6 C/G2 . 8/14 pin CMOS Precision Timers

VOLTAGE REGULATORS
Negatlve-3 Terminal Regulators-O.1 AMP
I'PC79L05
To·92
5 Volt. Fixed
I'PC79L08
To·92
8 VOlt. Fixed
I'PC79L12
TO·92
12 Volt. Fixed
I'PC79L15
TO·92
15 Volt. Fixed

VOLTAGE REGULATORS
Positive-3 Terminal Regulators-O.1 AMP
I'PC78L05
TO·92
5 VOlt. Fixed
I'PC78L08
TO·92
8 VOlt. Fixed
I'PC78L1 0 TO·92
10 Volt. Fixed
I'PC78L12
TO·92
12 Volt. Fixed
I'PC78L15
TO·92
15 Volt. Fixed

VOLTAGE REGULATORS
Negative-3 Terminal Regulators-O.S AMP
I'PC79M05 To·220
5 Volt. Fixed
I'PC79M08 TO·220
8 Volt. Fixed
I'PC79M12 To·220
12 Volt. Fixed
I'PC79M15 TO·220
15 Volt. Fixed
I'PC79M24 TO·220
24 Volt. Fixed

VOLTAGE REGULATORS
Positive-3 Terminal Regulators-O.S AMP
I'PC2605
TO·220
5 Volt. Fixed Low Drop
I'PC2610
10·220
10 Volt. Fixed Low Drop
I'PC78M05 TO·220
5 Volt. Fixed
I'PC78M08 TO·220
8 VOlt. Fixed
I'PC78Ml0 10·220
10 Volt. Fixed
I'PC78M12 TO·220
12 Volt. Fixed
I'PC78M15 TO·220
15 Volt. Fixed
I'PC78M18 TO·220
18 Volt. Fixed
I'PC78M24 TO·220
24 Volt. Fixed
Contact your local NEC sales office for more information

VOLTAGE REGULATORS
Negative-3 Terminal Regulators-1.0 AMP
I'PC7905
10·220
5 VOlt. Fixed
I'PC7908
10·220
8 Volt. Fixed
I'PC7910
TO·220
10 VOlt. Fixed
I'PC7912_ . 10-220
12 Volt. Fixed
I'PC7915
10·220
15 Volt. Fixed
I'PC7918
10·220
18 Volt. Fixed
I'PC7924
10·220
24 Volt. Fixed
Noles: C = Plastic DIP G2 = Plastic Miniflat DIP
D = Ceramic DIP B= Ceramic Flat Pack

II

1-13

t-fEC

GENERAL INFORMATION
Discontinued Products
Old Part Number

Replacement

Old Part Number

Replacement

Old Part Number

.eplacement

IlPC550

None

IlPC254

None

IlPC616

IlPC3911

IlPC141C

IlPC305

IlPC256

IlPC4558

IlPC617

IlPC1 555

IlPC151

IlPC741

IlPC646/647

None

None

IlPC259
IlPC271

IlPC4560

IlPC154

IlPC311

IlPC646

IlPC6012

IlPC156

None

IlPC272

IlPC319

IlPC301

IlPC277

IlPC393

IlPC649
IlPC801

IlPC398

IlPC157
IlPC159

IlPC318

IlPC354

None

IlPC802

IlPC4250

IlPC177
IlPC209

IlPC339

Il PC451
IlPC452

IlPC324

IlPC803

IlPC4082

IlPC4359

IlPC251

IlPC1456

IlPC454

IlPC3403
None

IlPC804
IlPCl251

IlPC4084
IlPC358

IlPC253

None

IlPC458

IlPC4741

1-14

IlPC4081

t-IEC

QUALITY AND RELIABILITY

2-A

II

QUALITY AND RELIABILITY

t\'EC

Section 2 - Quality and Reliability
Introduction •...................................•......••..........................
Electrical Testing and Screening ........••......................................•...
Quality Control Flowchart ..............•••.....................................•...
Periodical Reliability Test •..............•••........................................

2-8

2-1
2-2
2-3
2-4

ftiEC

QUALITY AND RELIABILITY

Introduction

Wafer Processing

NEC Electronics is dedicated to producing the highest
quality electronic components at competitive prices
with on-time deliveries. In order to guarantee this high
level of product reliability, it is essential to build quality
into the product - at every phase of operation.

During the wafer processing stage, the in-process quality inspections that occur are as follows:

NEC has introduced the concept of Total Quality
Control (TQC) across its entire semiconductor product line. By adopting TQC, NEC builds high quality
into its products, thus assuring higher reliability. This
concept and methodology of TQC are company-wide
activities involving all levels of management, engineers, quality control staff, and support staff functions;
NEC's goal is to further improve the superior product
that is synonymous with its name. That's why extensive
failure analysis tests are performed and corrective
actions taken prior to marketing products. At the same
time, research and development efforts to achieve even
higher standards are an ongoing process.

Process

Inspection Item

Wafer

Resistivity, Dimension, and
Appearance, Lot Sampling
Inspection

PhotoLithography

Alignment and Etching, 100
percent inspection

Diffusion and
Oxidation

Oxide Thickness, Sheet
Resistivity, Lot Sampling
Inspection

Metallization and
Passivation

Thickness,Vth, C-V Characteristics, and Lot Sampling

Wafer Sort and
Scribe

DC Parameters, 100 Percent Inspection

Die Sort

100 Percent Visual
Inspection

Quality Control Implementation
Building excellence into a product requires the earliest
possible detection of failure in each phase. Immediate
action must be taken to remove the cause of failure.
Fixed-station quality inspection often precludes the
ability to take immediate action. It is, therefore, necessary to perform quality control functions at each step
- especially at the conceptual stage.
Significant quality stages include:
•
•
•
•
•
•

Product Development
Wafer Processing
Assembly
Electrical Testing and Screening
Pre-Inventory Inspection
Reliability Assurance Test

Product Development
The product development phase includes product
conception, review of the device proposal, organization and physical element deSign, engineering evaluations, and transfer of the product to manufacturing.

Assembly
The in-process quality inspections performed during
the chip-mounting and packaging stage are as follows:

Process

Inspection Item

Die

Incoming Material
Inspection

Die Attach

Appearance, Lot Sampling
Inspection

Wire Bonding

Bond Strength, Appearance, Lot Sampling

Packaging

100 Percent Appearance
Inspection

Fine Leak'

Lot Sampling

Gross Leak'

100 Percent Inspection

Note: 'For ceramic package devices only.

In every step of the product development phase,
quality and reliability requirements must be satisfied.
Utilizing the TQC approach has shortened the product
development cycle by two to three months. At NEC,
building superiority into the product is essential.

2-1

ttlEC

QUALITY AND RELIABILITY
Electrical Testing and Screening

Reliability Assurance Testing

Electrical testing and infant mortality screening are
performed at this stage. The flow chart below depicts
the process. (Please. note: The following diagram
illustrates NEC's basic flow and is similar to most
processes. Some product lines may have variations.
However, in all cases NECstrives for zero defects.)

A large part of NEC's Total Quality Control program
involves various types of reliability assurance tests performed to ensure the highest product quality and reliability possible.

Flow

No

Process

Frequency

1st Electrical

100%

2nd Electrical

100%

PDA

100%

Pre-Inventory Inspection

Every lot

Reliability
Assurance Tests

Every lot or
every month

Warehouse/Finished Goods
During the first electrical test, DC parameters are
tested in accordance with electrical specifications, on
100% of each lot. This prescreen performance is prior
to the infant mortality testing.
.
In the second ele.ctrical test, AC functional as well as
DC parameter tests are performed. If the percentage of
defective units exceeds a set limit, the lot is subjected
to an additional burn"in. During this second burn-in,
the defective units undergo a failure analysis. The
results of this analysis are then fed back for appropriate corrective action.

Pre-Inventory Inspection
Prior to warehouse storage, lots are subjected to an
incoming inspection according to the following sampling plan:
Electrical test: DC parameters
Function test
Appearance

2-2

LTPD3%
LTPD3%
LTPD3%

The High Temperature Operating Life Test is used to
accelerate failure mechanisms by operating the devices
at an elevated temperature. The data obtained is then
translated to a lower temperature.
Integrated circuits are highly sensitive to the general
accelerating effect of humidity in causing electrolytic
corrosion between biased lines. High Temperature and
High HumidityTestsare performed to detectfailure mechan isms which are accelerated by these conditions. It is
especially effective in accelerating leakage-related failures and drifts in device parameters due to process
instability.
Anothercommon test is the High Temperature Storage
Test. In th is test, devices are su bjected to elevated temperatures with no applied bias. This test is used to detect
any mechanical problems or process instability.
The Environmental Test is performed to detect problems
related to packaging, material, susceptibility to environmental extremes, and problems related to usage of the
devices.

Summary
Building quality and reliability into products is the most
efficient way to ensure product excellence. NEC's adoption of quality control functions at each process step
forms a consolidated quality control system, which
guarantees a superior product.
With company-wide practice of Total Quality Control,
NEC is committed to producing superior products.
Through continuous research and development, extensive failure analysis and process improvements, higher
standards of quality and reliability are continuously set
and maintained.

tVEe

QUALITY AND RELIABILITY

Quality Control Flowchart
Industrial
Cavity DIP

Industrial

Plastic DIP

Commercial
Plastic DIP

100% Electrical Sorting

100% Visuallnspeclion

x 100 Magnification

Bond Strength Test
(Process Check)

100% Electrical Sorting

Lot Sampling

Electrical Testing L TPD 3%

Shipping
83-001888C

2-3

t-IEC

QUALITY AND RELIABILITY
Periodical Reliability Test

Industrial Miniflat IC

Industrial Cavity DIP
Test Items

Environmental
Test

Life Test

Test Items
Test Conditions

Temperature Cycle

-65"C to +150"C,
10 cycles, 30 min each temp

Thermal Shock

100"C and 0 "C, 15 cycles,
5 min each temp.

Bias Temperature Test

TA = 125"C, Maximum Rated
Voltage, 1000 hours

260 "C, 10 sec, once
-65"C to +150"C,
10 cycles, 30 min each temp

Thermal Shock

100"C and 0 "C, 15 cycles,
5 min each temp

Mechanical Shock

1500G, 0.5 ms,
XYZ Axis, 5 times

Variable Frequency
Vibration

100 Hz to 2000 Hz, 20G,
XYZ Axis, 4 times

Constant Acceleration

2000G, XYZ Axis, I min each

High Temperature, High
Humidity Storage Test

TA= 65 "C, RH=95%,
1000 hours

Lead Fatigue

250 g, 90 degrees, 3 times,
3 or 4 leads

Pressure Cooker Test

TA = 125"C, RH = 100%,
48 Hr

Solderability

230 "C, 5 sec, once, with
rosin flux

Bias Temperature Test

TA = 125"C, Maximum Rated
Voltage, 1000 hours

Test Items

Test Conditions

Soldering Heat

260"C, 10 sec, once

Temperature Cycle

-65"C to +150"C,
10 cycles, 30 min each temp

Thermal Shock

100"C and 0"C, 15 cycles,
5 min each temp

Lead Fatigue

250 g, 90 degrees, 3 times,
3 or 4 leads

Solderability

230 "C, 5 sec, once, with
rosin flux

Bias Temperature Test

TA = 125"C, Maximum Rated
Voltage, 1000 hours

High Temperature Storage TA = 150"C, 1000 hours
Test

2-4

230 "C, 5 sec, once

Temperature Cycle

Industrial Plastic Molded DIP

Life Test

Test Conditions

Solderability

Soldering Heat

High Temperature Storage TA = 175"C, 1000 hours
Test

Environmental
Test

Environmental
Test

High Temperature, High
Humidity Storage Test

TA= 65 "C, RH=95%,
1000 hours

Pressure Cooker Test

TA = 125"C, RH = 100%,
96 Hr

Life Test

High Temperature Storage TA = 150"C, 1000 hours
Test

Note: 1. Periodical reliability test is carried out every three months
for each product.

ttlEC

OPERATIONAL AMPLIFIERS

3-A

II

OPERATIONAL AMPLIFIERS

ttiEC

Section 3 - Operational Amplifiers
Single
pPC301A General Purpose Operational Amplifier .................................... 3-1
pPC318 High-Speed Operational Amplifier .......................................... 3-7
pPC356 J-FET Input Operational Amplifier .................................•...... 3-11
pPC357 J-FET Input Decompensated Operational Amplifier ........•........•...... 3-15
pPC741 General Purpose Operational Amplifier .................................... 3-21
pPC811 J-FET Input Low-Offset Operational Amplifier ...................•......... 3-25
pPC813 J-FET Input Low-Offset Operational Amplifier ............................. 3-27
pPC4061 J-FET Input Low-Power Operational Amplifier ............................ 3-29
pPC4071 J-FET Input Low-Noise Operational Amplifier ............................. 3-31
pPC4081 J-FET Input Operational Amplifier ....................................... 3-35
pPC4250 Programmable Operational Amplifier ..................................... 3-39
Dual
pPC358 Dual Low-Power Operational Amplifier .................................... 3-45
pPC812 Dual J-FET Input Low-Offset Operational Amplifier .................•...... 3-49
pPC814 Dual J-FET Input Low-Offset Operational Amplifier ........................ 3-53
pPC1458 Dual General Purpose Operational Amplifier .............................. 3-55
pPC4062 Dual J-FET Input Low-Power Operational Amplifier ....................... 3-59
pPC4072 Dual J-FET Input Low-Noise Operational Amplifier ..............•.•....... 3-61
pPC4082 Dual J-FET Input Operational Amplifier .............................•.... 3-67
pPC4359 Dual High-Speed Programmable Current Mode Operational Amplifier ...... 3-71
pPC4556 Dual Decompensated High-Performance Operational Amplifier ............ 3-79
pPC4557 Dual High-Performance Operational Amplifier ............................ 3-83
pPC4558 Dual High-Performance Operational Amplifier ............................ 3-87
pPC4559 Dual High-Performance Operational Amplifier ........••.................. 3-93
pPC4560 Dual High-Performance Operational Amplifier ............................ 3-97
pPC4570 Dual Ultra Low-Noise, Wideband, Operational Amplifier .................. 3-103
Quad
pPC324 Quad Low-Power Operational Amplifier ..................................
pPC3403 Quad High-Performance Operational Amplifier ..........................
JiPC4064 Quad J-FET Input Low-Power Operational Amplifier .....................
JiPC4074 Quad J-FET Input Low-Noise Operational Amplifier ......................
JiPC4084 Quad J-FET Input Operational Amplifier.................................
JiPC4574 Quad Ultra Low-Noise, Wideband, Operational Amplifier .................
JiPC4741 Quad High-Performance Operational Amplifier ..........................
Definition of Terms .............................................................

3-B

3-107
3-111
3-115
3-117
3-121
3-125
3-127
3-131

NEe
NEe Electronics Inc.

JlPC301A
GENERAL PURPOSE
OPERATIONAL AMPLIFIER

Pin Configuration

Description
The IlPC301A is a general purpose amplifier offering
higher performance than 709 type operational amplifiers.
This amplifier offers virtually foolproof operation with
overload protection on both input and output to prevent
latch-up when the common mode range is exceeded. In
addition, circuit stability is assured by use of a single
30-pF capacitor. Frequency compensation can also be
tailored to meet the needs of individual circuits with a
single external capacitor.

Features

o

o
o
o
o
o

Wide common mode and differential voltage range
Short-circuit protection
No latch-up
Offset voltage null capability
Adjustable frequency and transient response
characteristics
LM301A direct replacement

83·Q02060A

Equivalent Circuit
c,

C2

r-----------~------------_r------_+~----_+~B----~----------------~-ov+

R12
500 k

~------_+----r---~~+-~O,
Output

Offset

Null

+-----------+---1(' 012
0"

40 k

022

011

:1---+---+

.:t----------t

5k

20 k

40 k

R,
BO k

0,

020

"2

R,

"6

R11
450

R,

"3

R,

10 k

",

1k

250
83-0020598

3-1

ftiEC

pPC301A
Electrical Characteristics

Ordering Information

T A = 25°C, V± = ±5 V to ±15 V
Limits
Parameter
Inpul Offsel
Vollage
InpUI
Offset Vollage
Drift
Inpul Offset
Current
Input
Offset Current
Drift
Inpul Bias
Current

Symbol Min. Typ.
Vlo
t.Vlo/t.T

Max.

Unit

2.0

7.5

mV

RS:550kO

6.0

30

pV/oC

Hi:5 50 kO,
V = ±15V

3

50

nA

0.6

nAloC

Package

Operating
Temperature
Range

pPC30lAC

Plaslic DIP

DoC 10 +70°C

Absolute Maximum Ratings
TA = 25°C
Power Disslpalion
DiHerenllal Input Vollage

t.Viol t. T

0.02

V±=±15V

Input Voltage (Nole 1)
OUIPUI Short Circuli Duralion

70

Ib

250

Operaling Temperature Range

nA

Storage Temperalure Range
0.5

MO
V±=±15V.
Vo = ±IO V.
RL <': ao

AVOL

88

104

dB

Supply
Current

ICC

1.8

3

mA

OUIPUI
Vollage
Swing

Vom

±12 ±14

V

V±=±15V.
RL2:10kO

Output
Vollage
Swing

Vom

±10 ±13

V

V±=±15V.
RL<':HO

Common
Mode Input
Vollage Range

Vicm

±12

V

V±=±15V

Common
Mode
Rejection
Ratio

CMRR

70

90

dB

RS:550kO

Supply
Vollage
Rejection
Ratio

SVRR

70

90

dB

RS:550kO

3-2

Part
Number

Vollage Belween V+ and V110

Input
Impedance
Large Signal
Voltage Gain

Test
Conditions

36 V
350 mW
±30 V
±15 V
Indellnile
010 HO°C
-5510 +125°C

Nole: 1. For supply voltages less than ±15 V. the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

ftiEC

pPC301A

Typical Characteristics
TA = 25°C
Standard Compensation and Offset Balance Circuit

Single Pole Compensation

/.IPC301A

t--"II"""'---o v83-002061 A

83-oo2062A

Open Loop Frequency Response

Large Signal Frequency Response

120

32

v± =
TA

100

~

80

iii'
:!!.
.~

"

f

""

v±1 =±1JV

28

T.~+25°~ -

I

24

30PF~ ~=3PF

60
40

~

20

-20

±15 V
+25°C

10

1

100

1k

""" ""

"

10 k

100 k

Frequency (Hz)

\
C, =3pF

\30 PF

'\
"1

1M

\

I

10 M

I"......... "- 1'..

o

1k

\

10k

20

50

-

100k 200

500

1M

I

10M

Frequency (Hz)

Voltage Follower Pulse Response
10

,
E

.•

.~

III

--2

-4

-6

y± = ±15 V
TA = +25°C
Av=1

- 1\

r-

Input

; \
I

---/?utput

'i /"

V

\.
\.

"'--- --- ,

I
I

I

I

-8

-10

10

20

30

40

50

60

70

80

90

Time (pa)

3-3

ttlEC

pPC301A
Typical Characteristics (Cont.)
TA = 25°C

Open Loop Frequency Response

Two Pole Compensation
120

v± = ±15 V

-......

100

TA= +25°C

f\
\\

80

Ic

a

I

60

1'\

40
20

-20

10

1

83-002063A

100

1k

10 k

Frequency (Hz)

\
\

20
16

f!l.

1\

12

S

;e

~

o

10k

20

50

100k

200

i \

-2

I

Output

'j

I
I

"1

I

__ A.

v±

+15V

TA -

+25~C

A.., =1
C, =30pF

-8

C2

-10

1M

500

\!

-6

i
~

t--

Input-!-

T\
-4

J\

r-I

i\

~

.E

l!
!l

I

10M

TA - +25°C

24

..•8-

~

1M

10

v± =±15V

28

~.

100k

Voltage Follower Pulse Response

Large Signal Frequency Response
32

'"""

20

10

30

Frequency (Hz)

40

50

60

70

= 300 pF
80

90

Time (PS)

Open Loop Frequency Response

Feedforward Compensation
120

~

6

__
1_
C2= 21T 1oR2
C, 150pF

f

TA

i'-.. ......

80

10
l!-

v± = ±15V

........

100

80

i'.

........

40

"-

20

10= 3 MHz
-20
83-002064A

10

100

1k

10k

100 k

Frequency (Hz)

3-4

= +2SoC

""

1M

10 M

100

I

,..,EC

IlPC301A

Typical Characteristics (Cont.)
TA = 25°C
Large Signal Frequency Response
32
21

...

,

2.

-;

:

~

TA

\

~ 20

"'&

Inverter Pulse Response
10

y±:::: ±15V

16

Y±=±15V

= +25°C

TA= +25°C

---. ~--.

1\

~

f

'\

&

:

12

o

100k

500

200

.........

1M
Frequency (Hz)

-

::1:--

--- I
II
il

-. ---

-- --- ---

Output

~---

-I

I

AII=1

(

I
I

-2

~

~

---

Input

-I

-10

10M

•

Time lIAS)

II

Operating Characteristics
TA = 25°C
Input Current

Supply Current

100

2.5

-

80

~

,

60

j:

----

10-.

0

1 1.5

q I 1111
_

0

20

U

80

TA -

2.0

j
..
ril

-i

Lzooc

25iC
10°C

1.0

0.5

o

80

±5

I

±15

±10

Ambient Temperature (Oe)

±20

Supply Voltage (V)

Common Mode Rejection Ratio

Common Mode Input VoHage Range
120

20,-----,------;-----,------,-----,-----,

TA=+25°C

~

1100

& 16~----~------~----4_-----4--~~~----~

~

&

:

~

Ii

12~----~------~--~~~--~~----+_----~

i

i

.5

!
! .r-~~~----_r----_+------r_----+_----~
8
8

~

~

0±~5------~----±~1~0----~------±~,~5----~----~±20
Sup,"y voltage (V)

J

Rs:51 kO

~

'"",

80

80

U

20

10

100

1k

10k

Frequency (Hz)

""

r.....

100k

'--

I

1M

3-5

ttiEC

JlPC301A
Operating Characteristics (Cont.)
TA = 25°C

-- --- -"'" "" ""

Supply Voltage Rejection Ratio

Current Umiting

±15

120
C1 =30pF
TA ~ +25°C

iii

100

'-

~

&

80

~

t

60

~

II:

&

40

1

20

~

-20
10

100

'"

~

~lsUPPIY

""
"'~i~
"

10k

1k

100 k

1\

TF+80'f\

i'...
/"..

1M

I

10 M

Frequency (Hz) (for Singi. Pole Compensation Circuit)

Voltage Gain

110
-20"C

---::: ~

100

---

I ~ ~ f..-90

~

~

80
±5

±10

3-6

-

25'C
8 0"C

±1.

Supply Yo"g. (V)

TA

25"C

I

±20

\

-20"C

Y±:::: ±15 V

o

10

,.

20

25

Output Current (mA)

120

~

~

30

35

t-IEC

pPC318
HIGH-SPEED
OPERATIONAL AMPLIFIER

NEe Electronics Inc.

Pin Configuration

Description
Thef./PC318 isa precision high-speed operational amplifier designed for applications requiring wide bandwidth
and high slew rate. It features a factor of ten increase
in speed compared to general purpose operational amplifiers, without degrading the DC performance. By incorporating internal unity gain frequency compensation,
external compensation components are eliminated. The
high-speed and fast settling time of the f./PC318 make it
ideal for use in D/A converters, oscillators, sample and
hold circuits.

Features
D Very high slew rate
D Maximum bias current of 500 nA
D Operates from supplies of ±5 V to ±20 V
D Internal frequency compensation
D Input and output overload protected
D LM318 direct replacement

83-002082A

Equivalent Circuit
C,

C,
1

8

~o-~------------~----~------~~+-----~~----r---~-------------------.

- Input

O-~--"t-'-----!:.
R"

2.

6

'----+---r-+----Q Output

+In.ul~--~~~==;====:;=~==E1J!--l-----=~--1

4
~~'----------~--------~------~-+--~---+----~------~--~~---+--~----OV83-002081C

3-7

II

t-fEC

pPC318
Ordering Information

Electrical Characteristics

Part
Number

Package

Operating
Temperature
Range

pPC318C

Plastic DIP

DoC 10 +70°C

TA = 25°C, V± = ±15 V
Limits

Absolute Maximum Ratings
TA = 25°C

Voltage 8nun V+ and V-

40 V

Power Dissipation

500 mW

Differential Input Current (Note I)

±lomA

Input Voltage (Note 2)
Output Short Circuit Duration
Operating Temperefure Range
Storage Temperature Range

±15V
Indefinite
DoC to +70°C
-55 to +15O°C

Notes: 1. The inputs are shunted with back-to-back diodes for overvoltage protection. Therefore, excessive current will flow
If a differential input voltage in excess of 1 V is applied
between the inputs unless some limiting resistance is used.
2. For supply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

Parameter

Symbol

Input Onset
Voltage

Vio

Input Offset
Current
Input Bias
Current
Input
Impedance

RIN

0.5

3

MO

AVOL

88

106

dB

Slew Rate

SR

50

70

VIIlS

Output
Voltage
Swing

YOM

Common
Mode Input
Voltage Range

Vicm

±11.5

Common
Mode
Rejection
Ratio

CMRR

70

100

dB

Supply
Voltage
Rejection
R.tio

SVRR

65

80

dB

Supply
Current

ICC

Large Signat
Voltage Gain

Min. Typ.

Max.

Unit

4

10

mV

tlo

30

200

nA

Ib

150

500

nA

±12 ±13

5

V

mA

10

Test
Conditions

RS=IOoO

Vo=±loV.
RL 2: 2 kO
Av = 1
RL 2: 2 kO

RL = 00,
Vo = 0 V

Typical Applications
Feedforward Compensation for
Greater Inverting Slew Rate

Offset Balancing Circuit

5k

Input o-~""'I\r~-~-~

8 6

>~-+--O

Output

pPC318C
27 k
1%

27 k
1%

2.5 k

• Slew rate typically 150 VIpS
* Balance circuit necessary for increased slew
83-002083A

3-8

83·002084A

t\'EC

/lPC318

Operating Characteristics
TA

= 25°C
Voltage Gain

Input Current
2 5 0 r - - - - - - - , - - - - - - - - , - - - - - - - - , - - - - - - - - - - - - - - - - , 50

120

V±=±15V
/!TA

200~------~------_+--------r_------_,------_+

~
1150 -;;;,----1~-=-:c-=~1-=""'~F:::::::=:::::;~~~~~

I
..
o

.~

40
;(
30 S

100 ~------~------_+--------r_------~------_+ 20

50~------~------_+--------r_------~------_+

O~

_______L______

~

-20

115

~c

I ..".
0>

;;

40

10

100

95

=5

±10

Supply Voltage Rejection Ratio

--

L >~'"......

"S

...

--

~

~

'"

1k

10 k

100 k

a:

80

~

1.

60

"

~

-g

::;

1M

Frequency (Hz)

40

~

''\.....
-2 0
100

Q

.2

40 -Nega';.e
SUPPIY,(/
Positive Supply
20

i

Rs:::: 2 k
TA "'"" +25 C
100

:!O

-,
~
"

.2

g

..

TA = -t-25°C

~

60

~

g

"

0

I

20

12
~

-

100

1k

i

1

'"
,'l

0

.

'"

200

\

~

§i

1

25°C

4

\

\
......
.........

-200

r\
\

-400

o
o

10

15

Output Current (rnA)

10M

TA = +25°C

400

1\

TA = +80 a C

1M

100 k

Input Current

0>

~
.5

10 k

Frequency (Hz)

V+=-'-15V

10

,

~

10M

Current Limiting
14

II

Common Mode Rejection Ratio
120

80

I

±20
Supply Voltage (V)

100

~c

-

§i

Ambient Temperature (0C)

iii
:!O

L

,'l 105

~

0
80

60

~

%:,,"c
/so"c

-20°C

./

________L ________L______~

20

/

110

~

20

25

-0.8

'-0.6

-0.4

-0.2

0.2

0.4

0.6

\

I
~

0.8

DiHerentiallnpul Voltage (V)

3-9

NEe

IlPC318

Operating Characteristics (Cont.)
TA = 25°C
Large Signal Frequency Response
2B

Open Loop Frequency Response
120

V±= ±15V

""'\

24

TA

= +25°C
100

~

60

~

40

;,

.......

~

20

I

-20
10

100M

10M

100

1k

10k

I

13S

K'-V
\

90

""

1M

100 k

Frequency (Hz)

Voltage Follower Pulse Response

4S

..........

10M

100M

Inverter Pulse Response
20

16

16

-

€

f
i

180

~

20

&

22S

" "-

Frequency (Hz)

12

V+ = ±15V
TA = +2S o C

,OL

~

r\
1M

..........

iD

\
\

100k

........

BO

\
\

10 k

-

~

--I --

i\

1\

/Ou pU1

I

/'npu,

-4

I
-B

I

\/

I

i!.

i/

~

_£ -1..

v+ ±15 V
TA - +25°C

-16
1.0

0.6
Tlme(ps)

3-10

:\

€

1.4

-4
-B

IV

X
_...F-

-12

I

1.8

I

I

1\

UI

S

"

- -- - -- -- --

·r

1/

V

0.2

12

10-

I /

-12

-20
-0.2

--

\

/~utPut

I

/11"put

1/
1/

/

V±= ±15 V
TA = +25°C

- -

-

",
Feed Forward

-16
-20

-0.1

0.1

0.5

0.3
Time (PS)

0.7

I

0.9

I

!.
!l

J

tt{EC

JlPC356
J·FET INPUT
OPERATIONAL AMPLIFIER

NEe Electronics Inc.
Description

Pin Configuration

The tlPC356 is a J-FET input operational amplifier with
matched P-channel ion implanted J-FETs. In addition to
the obvious advantages of J-FET inputs, the tlPC356 is
designed for high slew rate, wide bandwidth, and
extremely fast settling time.

Features
D Low input offset voltage: 5 mV max (trimming technique used)
D Offset adjust does not degrade drift or CMRR
D The NPN sink output stage allows use of large capacitive loads (10,000 pF) without a stability problem
D Internal compensation and large differential input voltage capability
D LF356 equivalent
63-002189A

Equivalent Circuit
7
r-------~----------------~--------4_----------_Qv+

- Input

+ Input

0--+-------------,

.,
t----t-----j--l4----t----+_Q Output

.,

50k

~~--~----~------~----~--~--------~~~---+----~--~-----+----~--o~
83·002188

3-11

II

ttiEC

JiPC356
Absolute Maximum Ratings

Ordering Information
Part
Number

Package

Operating
Temperature
Range

IlPC356C

Plastic DIP

O°C 10 +70°C

Inpul OHsel
Voltage

Vio

Inpul OHsel
Currenl

lio

Inpul Bias
Currenl

Ib

Large Signal
Voltage Gain

AVOL

BB

Max.

Unit
mV

50

pA

200

pA

106

dB

Supply
Currenl

ICC

Common
Mode
Rejection
Ratio

eMRR

80

100

dB

Supply
Voltage
Rejection
Ralio

SVRR

80

100

dB

Oulpul
Voltage
Swing

VOM

Common
Mode
Voltage

VICM

Slew Rale
Inpul Noise
Voltage
Gain
Bandwidlh
Products

10

Test
Conditions
RSS 50 0

RL 2: 2 kO.
Vo = ±IO V

OHsel
Voltage
Drill

DiHerential Inpul Voltage

±30 V
±15 V
Indefinite

Siorage Temperalure Range

-5510 +125°C

Note 1. For supply vOltages less than ±15 V. the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

Typical Application

mA

Offset Voltage Null Circuit

SR

V+

±12 ±13
RI2:IOkO
....................................
±IO ±12

V

+10±15.1
-12

V

RI 2: 2 kO

v83-002190A

VIIlS Rise
....................................

en

12

20

VIlls

20

nV/y'HZ

Fall
f= I kHz.
RI = 100 0

Operating Characteristics
TA

= 25°C
Open Loop Frequency Response
120

GBW

MHz

V±=±15V

100

Over Operating Temperature Range
fnpul OHsel
Voltage

350 mW

Operating Temperalure Range

2

30

36 V

Power Dissipation

Oulpul Shorl Circuil Duration

Limits
Symbol Min. Typ.

Vollage Belween V+ and V-

Inpul Voltage (Nole I)

Electrical Characteristics
TA = 25°C, V± = ±15 V
Parameter

TA = 25°C

Vio
t>Viol t> T

"

iD

~

mV
IlV/oC

RSS500.
TA = TOPT

~"

80

60

TA = TOPT

!<
!S

Inpul Bias
Currenl

Ib

nA

TA = TOPT

Inpul OHsel
Currenl

lio

nA

TA = TOPT

~
,!l

.s
8.
0

""

40

"

.........

i'-.

20

o

1

10

100

,.

i'-.

"

10.

Frequency (Hz)

3-12

.........

100 k

<

'"

1M

~

10M

t-IEC

pPC356

Operating Characteristics (Cont.)
TA = 25°C
Voltage FoUower Pulse Response

Undistorted Output Voltage Swing
28

15

V±~±15V

v± ~ ±15V
Ay=1

RL=2 k

24

10

~
\

~

10 k

\
\
\

-15
-1

10M

1M

/
V

-10

!

"""

lOOk

\

l'output

\

o

/

".put

2

3

Timo (jAs)

Frequency (Hz)

Input Equivalent Noise

Voltage Swing
40

200

RL=2kO:

Y±=±15V
As = 100n

160

~

~

I
~

120

'"

80

V

"-

Z

40

o

V '"

'\.

V

"'-"-..

120

10

-

1k

... V
,/

~
10k

~

~

o

o

100k

~

15

±10

±20

Supply Voltago (V)

Freq......y (Hz)

Input Bias Current

Voltage Swing
10

34

V±=±15V

V±~±15V

32

~

V

---

co

s

~

il

i

!;

~ o. 1

V

V
4

V
0.1

1

~

i
1.0
Output Load (Idl)

10

~

0.0 1

20

10

10

20

....-

30

~.,.

40

50

...V
60

Ambient Temperature (Oe)

3-13

t-fEC

J.lPC356
Operating Characteristics (Cont.)
TA = 25°C

Common Mode Rejection Ratio

Input Bias Current

--......"-

100

300

V±=±15V

iD

250

i

I
,;

200

/

150

III

iS

100

----

50

o

10

/

V

~

I

80

8

;;.

~

60

I

40

V±=±15Y
RL= 2k

"'-

J

/

.

""

~

~

E

U

o

10

"'-

20

10

1k

100

""

100k

10 k

Common Mode Voltage (V)

Frequency (Hz)

Supply Voltage Rejection Ratio

Supply Current

~
10M

1M

,...,.~20oe
~

- --

i-"'"

o

±5

I

±15

±20

Output Sink Current

Output Source Current
15
V±

~

±15V

~

10

·r

-20°C

v± = ±15V

.........

-10

~~

UI

&

&

~

!!

25°C

i
'S

~

I

70 0 e

0

I
til

10

15

20

25

Output Source Current (rnA)

3-14

TA - +70°C

Supply Voltage (V)

15

..·r

TAj5 0 e

V

±10

Frequency (Hz)

~

A

~

~

V
V
2

~

30

35

40

70 0 e

-20°C

25 c C

-5

o

o

10

15

20

25

Output Sink Current (rnA)

30

35

I

40

NEe
NEe Electronics Inc.

pPC357
J·FET INPUT
DECOMPENSATED
OPERATIONAL AMPLIFIER

Description

Pin Configuration

The JlPC357 is a decompensated operational amplifier
with matched P-channel ion implanted J-FET inputs.
When the closed loop gain is greater than five (Av > 5)
the JlPC357 has a slew rate of 50 V per microsecond and
a bandwidth of 20 MHz. This device is ideal for applications which require high-input impedance and high-frequency operation.

Features

o

o
o
o
o
o

Low input offset voltage: 5 mV max
Offset adjust does not degrade drift or CMRR
High slew rate: 50 VI JlS (Av > 5)
Wide bandwidth: 20 MHz
Suitable for high-speed inverting amplifiers and
active filter applications
LF357 equivalent

83-002205A

Equivalent Circuit
r-------~----------------~--------~----------_Ov+

- Input

0--+------------,

+ Input

+-----+-----!----1I4----+-..+_o output

013
R5

5k
L--..+--~----+_

______

~

____

R,
5k

R,
50k

+_--~--------+_~~_+----~--~~_+----+_--O~

83-002188

3-15

II

t\'EC

pPC357
Ordering Information
Part
Number
pPC357C

Package
Plallie DIP

Electrical Characteristics
= 25°C, V± = ±15 V,

TA

Oplratlng
Tlmperatura
Ranga
DOC 10 +70°C

Limits

Paramater
InpUI0Il811
Vol....
Input OHaIl
Curl'ltll

Absolute Maximum Ratings
TA = 25°C
VOI"'I BBlwHn v+ lid V-

36V
350mW

Power DIsI".uon
DllI8rlnllallnput VollIgl

+30 V
+15V
lodlllall8

Input Vol".1 (S88 nOllI
output Sbert Circuli Durliion
Operating Tampanlll1 Ringe

s....... T.mparllull Ringe
Nota: For supply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification Is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

Typical Application
Offset Voltage Null Circuit

Input Bias
Currant
Large SlgOlI
Vol.... Gila
Supply
Currant
Common
Mode
Rejacllon
Rilla
Supply
Vollage
Rljlclloa
Rilla
Oulput
Vol".1
Swing
Cammon
Mod. VOIlagI
Slaw RIIa

V+

Input Naill
Valilgl

Symbol Min. Typ.

Max.

UIII

Via

2

5

mV

lio

3

50

pA

Ib

3D

200

pA

AVOL

88

5

ICC

dB

106
10

V83-002190A

3-16

RS:55DO

RL<::2kO,
VO=±IOV

mA

CMRR

80

100

dB

SVRR

80

100

dB

.~~~. ;!;I.~ ..........~ .... ~! ~ ".0. ~~.. .
±IO ±12
Vlem
SR
In

V

±10+15.1
-12

V/fJS

50

V/fJS

Rise

Fall
1= I kHz.
nV/.JHi
RI = 1000

20

MHz

mV

Via
AVlo/AT

RI <:: 2 kO

V

50

Gain
8andwldlh
GBW
20
Praduell
Over Operating Temperature Range
InpUI 0II1II
Vol....
on...
Vol....
Drift
Inpul BIIS
CUrr.1d
Input 01IIII
Currlnl

Test
COldlllons

RS:5 50 0,
TA = TOPT

pV/oC TA = TOPT

5

Ib

8

nA

TA = TOPT

110

2

nA

TA = TOPT

NEe

Il PC357

Operating Characteristics
TA = 25°C
Open Loop Frequency Response

Undistorted Output Voltage Swing

120

28

v±

24

100

'"'"

iC
~

.~

80

",!!!
0

0>

60

~

.§"
[

40

0

20

o

10

1

100

~

20

0>

.j

16

en

'"'"

10 k

1k

100 k

J

12

~

,

%

,~

0

~

1M

o
10 k

10 M

1M

100 k

10 M

Frequency (Hz)

Frequency (Hz)

Voltage Follower Pulse Response

II

Input Equivalent Noise

15

200

V±=±15V

I

10

V± = ±15 V
Rs = 100 n

Av= 1

160

/

Input"-..,.

~
0
0>

'g,"

~;;

I'output

%
- 5

1

oS

/

0

~

J

\

~
0

I'\.

"""

60

~

Z

40

V

-1

120

'S

\

V

-10

o

10

"'--r-1k

120

28
RL ..,-2kO

l,...-- I""'"

V±-±15V
24

10-'

0: 30
~

·r

·r
J

/'

en

20

en

V

'S

10

"if
~

V

"-

%
0

~

I

20

/

16

/

~

i

. . .V

12

//

0

,/'

~

ij
o
o

100 k

Voltage Swing

Voltage Swing
40

~

10 k

Frequency (Hz)

Time{Jls)

8.

±15V

RL. = 2 k
AR= 5

V±=±15V

g

±10
Supply Voltage (V)

15

±20

/
0.1

1.0

I

10

Output Load (kO)

3-17

!VEe

pPC357
Operating Characteristics (Cont.)
TA = 25°C
Input Bias Current

Input Bias Current

10

300
V±=±15V

V±

= ±1S V

250

C

~

s

l
a

.

iii
'S

]"

-

0.1

..........

V

0.01
20

10

10

20

30

IJ

,..V

1

200

/

150

/

100

-

50

40

50

o

70

60

~

10

Common Mode Rejection Ratio

80

:!!.

ia:

...t

60

""

.

~

a:

"

g
~

10

100

1k

b.....

10 k

10

60

!I

40

1M

~

c---......
i'...

V±=±15V

~

'"
i'...

.......

Neg~

'"

~

"""

100 k

80

.

1

~

20

o

iii 100
:!!.
.2

~

E

i--

V± = ±15 V
Rl = 2 k

40

.
"

/

120

a:

,.~

/

Supply Voltage Rejection Ratio

100

r--.... r--....

V

Common Mode Voltage (V)

Ambient Temperature (OC)

iii"

/

Supply

Positive

~PIY

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

2:

Ji

o

10

"""""

20

100

1k

10k

Frequency (Hz)

",""

1M

100 k

Frequency (Hz)

Supply Current

""

10 M

Output Source Current
15

v±

~

6

,. V

ii

5

u

icil

5

,..,..-

4

2

I-""'"

,..,..

-

,..-~
,..- .......-

~

I8-

ATAJ5 C

20°C

~

0

TA

10

25°C

~

1
'S

= -t-70°C

WC

0

~

I
g

o

±5

±10
Supply Voltage (V)

3-18

.......... ~20OC

±15V

±15

±20

10

15

20

25

Output Source Current (rnA)

30

35

I

40

NEe

J,lPC357

Operating Characteristics (Cont.)
TA = 25°C
Output Sink Current
-15

~

v± = ±15V

.........
-10

~ \"'7O'C

-20'C

25'C

-5

o

o

10

15

20

25

30

35

I

40

Output Sink Current (mA)

II

3-19

pPC357

3-20

NEe

NEe
NEe Electronics Inc.

IlPC741
GENERAL PURPOSE
OPERATIONAL AMPLIFIER

Description

Pin Configuration

The JlPC741 is a general purpose operational amplifier
which incorporates internal frequency compensation
(C1 = 30 pF). It is intended for a wide range of analog
applications where high quality and low cost are required. High common mode voltage range and latchfree operation make this amplifier ideal for use as a voltage follower.

Features
D
D
D
D
D
D

Internal frequency compensation
Short-circuit protection
Offset voltage null capability
Large common mode and differential voltage range
No latch-up
JlA741 direct replacement

83-002015A

Equivalent Circuit
,-----~------~------~--------~--~------~------------~__ov+

Input

o-----f------+---+----.

R,
30

n

+ Input
Output

R10
25 n

C,
30 pF

Q"
Offset

Null

0---4

o---{---+
5

R,

R,

1k

5k

4
L--~--~--+----+----~--+---~-~----~---+-__oV

83-002014C

3-21

II

ttiEC

Il PC741

Ordering Information
Part
Number

Package

Electrical Characteristics
= 25°C, V± = ±15 V

TA

Operating
Temperature
Range

pPC741C

Plaslic DIP

DoC to +70°C

pPC741G2

Plastic Miniflat

DoC to +70°C

Limits

Absolute Maximum Ratings
TA

= 25°C

Voltage Between V+ and V

36 V

Power Dissipation. C Package

350 mW

Power Dissipation, G2 Package

440 mW

Differential Inpul Voltage

±30 V

Input Voltage (Note 1)

±15 V

Outpul Short Circuit Duralion

Indefinite

Voltage Between Offsel Null and VOperating Temperature Range

±0.5 V
010 +70°C

Siorage Temperature Range

-55 to +125°C

Notes: 1. For supply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

Typical Application
Offset Voltage Null Circuit

Symbol

Input OHsel
Voltage

Vio

Input Offset
Current
Input Bias
Currenl

83-002016A

Max.

Unit

1.0

6.0

mV

lio

20

200

nA

Ib

80

500

nA

large Signal
Voltage Gain

AVOl

Offset Voltage
Adjustable
Range

Min. Typ.

Test
Conditions
RS:Sl0kO

106

dB

Rl2: 2 kO,
Vo = ±10 V

""Vi.

±15

mV

VR1=10kO

Supply
Current

ICC

1.5

2.8

mA

Power
Consumption

Po

45

85

mW

Common
Mode
Rejection
Ratio

CMRR

Supply
Vollage
Rejection
Ratio

SVRR

Output
Voltage
Swing

VOM

Outpul
Voltage
Swing

VOM

OUlput Short
Circuit
Currenl

IlPC741C/G2

3-22

Parameter

ISHORT

88

dB

RS:S 10 kO

dB

RS:Sl0kO

±12 ±14

V

Rl2: 10 kO

±10 ±13

V

Rl2: 2 kO

70

90

89

20

103

mA

Rl = 0

t\'EC

JlPC741

Operating Characteristics
TA = 25°C
Open Loop Frequency Response

Large Signal Frequency Response

120

32
TA:::: 25°C

11 0

V±=±15V

100
0

.

70

~

40

RL;;:::10kO

..........

0

I~

TA=25°C
V±=±15V-

28

r......

t"-..

a6
E5

\
\

..........

0

i'.

0

0

" '"

~

0
0
0

100

10

1k

10k

'" "

lOOk

Frequency (Hz)

o

1M

~

"- r'--.....

o

10k

1k

1M

100k

Frequency (Hz)

Output Voltage Swing

II

Output Voltage Swing
RL2::2kO

30
40

iE
~

./

.,
'j

./

&

J!!

./

~ 20

....... 1'

J
o

v±
0,1

10

...... 1'

V'

±15V
100

00

±20

±10
Supply Vonage (V)

Load Resistance (kO)

Power Consumption

Supply Current

100

I
i

E 50

!
J

- -

./'

L

./

~

./'

V

/'

".,...

0

L

V

v

'/

V

~

±10

Supply VoRage (V)

±20

±10

±20

Supply Voltage (V)

3-23

ttlEC

pPC741
Operating Characteristics (Cont.)
TA = 25°C
Supply Current

Output Short Circuit Current
0

V± = ±15V

V± = ±15V

0

I

j

-~

0

~ 1~--t---+---+---+---+---1---1---1----r--~

J

-

r-

0

-

-

r---r-~--~---+---t---t--~---r---r--,I

oL_~20~~--~--~--2~0~~--~~~~--~60~--~~ao

0

20

20
40
Ambient Temperature (OC)

Ambient Temperature (OC)

Power Consumption

I

50r---r---t---t---+---+---+---+---+----r--~

I

20

20

40

60

60

Ambient Temperature (OC)

Input Offset Current
V±-±15V

60

40

i

20

u

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

......... t--.
"""-

£
I

0

-20

-40

3-24

20

20
40
Ambient Temperature (0C)

V± = ±15V

\.

"'

100

..........

...........

.........

0

0

20

20

-.........

40

Ambient Temperalure (DC)

80

cS

I'\.
'\

I
I

I

.5

150

~

e

60

Input Bias Current

100 r---r---r----,----,----,---,----,----....,.----r----,
V±=±15V

t
j

60

60

ao

60

60

NEe
NEe Electronics Inc.

pPC811
J-FET INPUT LOW-OFFSET
OPERATIONAL AMPLIFIER

PRELIMINARY INFORMATION
Description

Pin Configuration

The tlPC811 operational amplifier offers high input
impedance, low offset voltage, high slew rate, and
stable ac operating characteristics. NEC's unique highspeed pnp transistor (fT = 300 MHz) in the output stage
solves the oscillation problem of current sinking with a
large capacitive load. Zener-zap resistor trimming in
the input stage produces excellent offset voltage and
temperature drift characteristics.

Features
D Stable operation with 10,000 pF capacitive load
D Low input offset voltage
-2.5 mV max
-7 tlV/oC temperature drift
D Low input bias and offset currents
D Low noise: en = 20 nV/VHZ
D Output short-circuit protection
D High input impedance
D Internal frequency compensation
D High slew rate: 15 V/tlS

Equivalent Circuit

L -_ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _

Ordering Information
Pari
Number

JlPC811C
JlPCallG2

7
v+o-------~--------~-----

~83.~0 1~902~.

Package

Operating
Temperature
Range

8·Pin Plastic DIP

-2010 +7DoC

a·Pin Plastic Miniflal

-2010 +70°C

-Input

6
Output

Trimmed
R2

4

V-o-~~--~---------+--~
83-001901A

3-25

IIiJII

fttIEC

pPC811
Recommended Operating Conditions
Parameter
Supply VOllage

Symbol

Min.

V±

±5

Typ.

Absolute Maximum Ratings
TA

= 25°C

Max.

Unit

±16

V

VOllage Belween V+ and V-

pF

Power Oissipalion, CPackage (Note II

350mW

rnA

Power Dlsslpallon, G2 Package (Note 21

440mW

Capacitive Load

CL

10,000

Oulpul Currenl

10

10

Oillerenliallnpul VOllage
Common Mode Inpul Vollage (Note 31

Electrical Characteristics
TA

= 25°C, V± =

Oulpul Shorl Circuli Duralion

±15 V
LImits

Parameter

Symbol Min. Typ, Max. Unit

Input Ollset Voltage

Vlo

I

2.5

mV

Input Ollset Current

110

25

100

pA

Input Bias Current

Ib

50

200

pA

Voltage Gain

AVOL

BB

106

dB

Test
Conditions
Rs = 50 0

RL=2kO,
VO=±IOV

Supply Current

Icc

Common Mode
Rejection Rallo

CMRR

70

100

dB

Supply Voltage
Rejection Rallo

SVRR

70

100

dB

Output VOllage Swing

Vom

±12 ±13.5

V

RL=IOkO

Output Voltage Swing

Vom

±10 ±12

V

RL = 2 kO

Common Mode Input
VOllage Range

Vlem

±11

V

Slew Rate
Input Equivalent Noise
VOllage

en

Unity Gain Frequency

2.5

3.4

rnA

15

VIpS Av=+1

20

y1iZ 1= I kHz

4

MHz

nVI

Rs= 1000,

Over Operating Temperature
Input Ollset Voltage

Vio

Input Ollset Voltage
Drift

Ll.Vio/Ll.T

mV

Rs = 50 0,
TA = Topt

/lV/·C TA = Topt

Input Bias Current

Ib

7

nA

TA = Top!

Input Ollset Current

110

2

nA

TA = Top!

3-26

Operallng Temperature Range
Storage Temperature Range

36V

±30 V
±15V
Indefinite
-20 to +70·C
-55 to +125·C

Notes: 1. Thermal derating factor is 5 mW/·C when ambient
temperature is higher than 55 ·C.
2. Thermal derating factor is 4.4 mW/·C when ambient
temperature is higher than 25 ·C.
3. Forsupply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum
Rati ngs" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

NEe
NEe Electronics Inc.

J.lPC813
J-FET INPUT LOW·OFFSET
OPERATIONAL AMPLIFIER

PRELIMINARY INFORMATION
Description

Pin Configuration

The t/PC813 operational amplifier is a high-speed
version of the t/PC811. NEC's unique high-speed pnp
transistor (fT = 300 MHz) in the output stage yields a
high slew rate of 25 V/t/s under voltage-follower
conditions without an oscillation problem. Zener-zap
trimming in the input stage produces excellent offset
voltage and temperature drift characteristics.
With ac performance characteristics that are two times
better than conventional bi-FET op amps, the t/PC813
is ideal for fast integrators, active filters, and other
high-speed circuit applications.

Features

o
o
o

o
o

o

o

o

High slew rate: 25 V/t/s
Stable operation with 220 pF capacitive load
Low input offset voltage
-2.5 mV max
-7 t/V/oC temperature drift
Low input bias and offset currents
Low noise: en = 20 nV/$z
Output short-circuit protection
High input impedance
Internal frequency compensation

83-001902A

Ordering Information
Part
Number

Package

IJPC813C

8-Pin Plastic DIP

Operating
Temperature
Range

8-Pin Plastic Miniflat

Equivalent Circuit
7
v+o-------~----------~---,

-Input
Output

R1

Tdmm",rl
R2

4
V-o---~---+----------+---~
83·0Q1901A

3-27

II

ftt{EC

JlPC813
Recommended Operating Conditions
Typ.

Max.

Absolute Maximum Ratings

Unit

TA = 25°C

Symbol

Min.

Supply Voltage

V±

±5

±16

V

Voltage 8etween V+ and V-

Capacitive Load

CL

220

pF

Power Dissipation. C Package (Note IJ

350 mW

OutpUI Current

10

10

rnA

Power Dissipation. G2 Package INoie 21

440 mW

Parameter

Differential Input Voltage

Electrical Characteristics

Input Voltage INote 3J

TA = 25°C. V± = ±15 V

Output Short·Circuit Ouration
Limits

Parameter
Input Offset Voltage
Input Offset Current
Input 8ias Current

Symbol Min. Typ. Max. Unit
I

Vio

2.5

mV

liD

25

100

pA

Ib

50

200

pA

88

d8

RL = 2 kO.
Vo=±IOV

rnA

Both channels

Supply Current

Icc

Common Mode
Rejection Ratio

CMRR

70

100

d8

Supply Voltage
Rejection Ratio

SVRR

70

100

d8

Output Voltage Swing

Vom

±12 ±13.5

V

RL = 10 kO

Output Voltage Swing

Vom

±10 ±12

V

RL = 2 kO

Input Voltage Range

Vicm

±II

Slew Rate
en

Unity Gain Frequency

3.4

25

V//ls Av = 1

20

y'HZ I = I kHz

nVI

R8=1000.

MHz

Over Operating Temperature Range
Input Offset Voltage

Vio

Input Offset Voltage
Drift

t:.V i01 l'.T

mV

Rs = 50 O.
TA=Topt

/lVI 'C TA=ToPt

Input 81as Current

Ib

nA

TA=Topt

Inpul Oflset Current

liD

nA

TA = Topt

3-28

±15 V
Indefinite

Operating Temperature Range
Storage Temperature Range

-55 to +125'C

Notes: 1. Thermal derating factor is 5 mW/oC when ambient

AVOL

2.5

±30 V

R8 = 50 0

Voltage Gain

Input Noise
Voltage

106

Test
Conditions

36 V

temperature is higher than 55'C.
2. Thermal derating factor is 4.4 mW/'C when ambient
temperature is higher than 25'C.
3. For supply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

NEe
NEe Electronics Inc.

J.lPC4061
J-FET INPUT LOW-POWER
OPERATIONAL AMPLIFIER

PRELIMINARY INFORMATION
Description

Pin Configuration

The pPC4061 is a J-FET input low-power operational
amplifier featuring low supply voltage operation from
±1.75 V. Supply current is ten times smaller than
pPC4081 type J-FET input op-amp. With very low input
bias current characteristics, the pPC4061 is an excellent choice for hand-held measurement equipment
and other low-power application circuits.

Features
D
D
D
D
D
D
D
D

Low supply current: 230 pA
Very low input bias and offset currents
High slew rate: 3 Vips
High input impedance
Low supply voltage operation
Output short-circuit protection
Internal frequency compensation
TL061 direct replacement

83-002015A

Equivalent Circuit
V'
R4

Rl

R9

OS~______________________~~0=9______~________~~~__________~r-

____,

011
-Input

R.
+Input

017

010 Q12

01.

RS
R7

Cl

013
07

Rl0

OFFSET 1
NULL

OFFSET 5
NULL

0----+----------.
R2

06

R3

:1------+

019
R6

V-·
6

Output
83~002820B

3-29

II

~EC

pPC4061
Ordering Information
Part
Number
pPC4061C
pPC4061G2

Absolute Maximum Ratings
TA

Operating
Temperature
Range
-20 to +70°C
-20 to +70°C

Package
Plaslic DIP
Plaslic Minillal

Recommended Operating Conditions
Limits
Parameter

Symbol Min. Typ.

Supply
Voltage

V±

OUlpUI
Currenl

10 Source
10 Sink

±2

load
Capacitance
(Voltage
Follower)

Max.

Unit

±16

V

5
3.5

mA

220

= 25°C

Voltage Belween V+ and VPower Dissipation INoie I), C Package
Power Dissipation INote 2), G2 Package
Dillerenliallnpul Voltage
Inpul Voltage, INoie 3)
Oulpul Shorl Circuit Duration
Operating Temperalure Range
Storage Temperature Range

Test
Conditions

36 V
350 mW
440 mW
±30 V
±15 V
Indelinile
-2010 +70°C
-5510 +125°C

Notes: 1. Derate at 5 mW/oC above 55°C.
2. Derate at 4.4 mW/oC above 25°C.
3. For V±

< ±15 V, VIN (max) = V±.

Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated inthe operational sections of
this speCification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

pF

Electrical Characteristics
TA

= 25°C,

V±

= ±15 V
Limits

Parameter
Inpul Ollset Voltage
Input Ollset Voltage
Input Ollset Voltage Drift
Input Ollset Current
Input Ollset Current
Input Bias Current
Input Bias Currenl

Symbol

Min.

Typ.

Unit

10

mV

HS = 50

15

mV

RS = 50, TA = TOPT

pvrc

HS = 50, TA = TOPT

Vio
Vio

2

AViol AT

10
5

50

pA

1.5

nA

10

100

pA

lio
lio
Ib
Ib

3

AVOL

Supply Currenl
Common Mode Rejection Ralio

ICC
CMRR

70

95

dB

Supply Voltage Rejection Ratio

SVRR

70

95

dB

Vom

±12

±14

V

Vicm
10 Source
10 Sink
SR

±12

+15,-13

V

Outpul Voltage Swing
Common Mode Input Voltage
OulpUI Currenl
Slew Rale
Input Noise Voltage

230

+5
-3.5

en

d8

75

30

Gain Bandwidlh Producls
GBW
Over Operating Temperature Range

260

TA = TOPT

nA

large Signal Voltage Gain

69

Test
Conditions

Max.

RIN = 10k, Vo = ±1O V

pA

mA

HIN = 10k

Vom=±10V

Vips

HIN = 10k

nV/y'Hz

f = I kHz

MHz

large
Signal
Voltage
Gain
66
d8
__
~~
____
~__________
~~
T~A~=_T~O~PT~_________________
AVOL ______________________________________
CMRR
70
Common
Mode
Rejection
Ratio
90
d8
__________-'----___________________________________________________
TA = TOPT. _ _ _ _ _ _ _ _ __
Supply Voltage Rejeclion Ratio

SVRR

70

90

d8

OulpUI Voltage Swing

Vom

±3.8

±4.1

V

Common Mode Inpul Voltage

Vicm

H.7
-2.8

+5.2
-3.5

3-30

TA=TOPT

NEe
NEe Electronics Inc.

IlPC4071
J-FET INPUT LOW-NOISE
OPERATIONAL AMPLIFIER

Description

Pin Configuration

The J-FET input operational amplifier of the tJPC4071
is designed as low-noise versions of the tJPC4081.
The features ofthetJPC4071 have more improved input
equivalent noise voltage, input offset voltage, and
input bias current, than those of the tJPC4081. The
tJPC4071 is an excellent choice for a wide variety of
applications, including preamplifier and active filter
circuits.

Features

o
o
o
o
o

o
o

o

Low noise: en = 18 nV/VHZ
Low input bias and offset currents
Output short-circuit protection
High input impedance: J-FET input stage
Internal frequency compensation
High slew rate: 13 V!jj.S
Latch-free operation
TL071 direct replacement

83-00224SA

Equivalent Circuit
,---------~----------~----~----~------~-------ov~

- Input

R8

+ Input

0----1----------+----'

~-'V'oIV--+------+--------o Output

R,

013

0 ,5

03

....------,.

OFFSET
NULL
o--+-----/----~

R,

R,

L---~----~

____

R5
~

__________

0,

R,
~

__

~~

____

4
~----~~--~__ov-

83-0022446

3-31

t¥EC

JlPC4071
Absolute Maximum Ratings

Ordering Information
Part
Number

TA

Operating
Temperature
Range

Package

IlPC4071 C

Plastic DIP

IlPC4071 G2

Plastic Minillat

= 25°C

Voltage Between V+ and V-

36 V

Differential Input Vollage
Input Vollage Isee Note

0° to +70°C

±30 V

11

±15 V

Power Dissipation, C Package

350 mW
440mW

Power Dissipation. G2 Package

Recommended Operating Conditions
Limits
Parameter

Symbol

Supply Voltage

V±

Capacitive Load
IAv = +IJ
Outpul Currenl

Min. Typ. Max. Unit
±5

±16

V

CL

100

pF

10

10

rnA

Indefinite

Outpul Shorl Circuit Ouration
Operating Temperature Range

Test
Conditions

o to +70°C

Storage Temperature Range

-55 to +125°C

Note: 1. For supply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
TA

=

25°C, V±

= ±15 V
Limits

Parameter

Symbol

Min,

Typ,

Max,

Unit

Test
Conditions

Input Offsel Vollage

Vio

10,0

mV

Input Offsel Current

lio

50

pA

TA = 25°C Isee Note IJ

200

pA

TA = 25°C Isee Note IJ

dB

RL~2

2.7

mA

Input Bias Current

30

Large Signal Vollage Gain

AVOL

Supply Current

ICC

88

106
2.0

Common Mode Rejection Ratio

CMRR

70

86

dB

Supply Vollage Rejection Ratio

SVRR

70

86

dB

Output Vollage Swing

Vom

±12

±13.5

Output Vollage Swing

Vom

±IO

±12

Common Mode Input Voltage Range

Vicm

±IO

Slew Rate
Input Noise Vollage
Unity Gain Bandwidth

SR

kQ, Vo =±10 V

RL~ 10 kQ

RL ~ 2 kQ

V
V

13

AV = 1

V//ls

.... ,e? ..... , ........ 1.8..•.......... n.V!~ ............ ~~ ~ .1.0.0.1?:.f .~.I. ~~~ ................. .
4
RS = 100 Q, I = 10Hz to 10kHz
GBW

3

MHz

Over Operating Temperature
Input Offset Vollage

13

Average Input Offset Voltage Drift
Input Bias Current
Input Offset Current

liD

mV

/lvrc

10

2

RS:S 50 Q, TA = TOPT
TA = TOPT

nA

TA = TOPT

nA

TA = TOPT

Note: 1. Input bias currents are temperature sensitive. Short time measuring method is recommended to maintain the junction temperature
close to the ambient temperature.

3-32

ttiEC

pPC4071

Typical Application
Offset Voltage Null Circuit

6
3

V83-003074A

Operating Characteristics
Power Dissipation
600

Open Loop Frequency Response
120

I

V±=±1SV
RL=2 kO

500

i
g

100

G Package

;;g
c

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

C Package

~c

.

l"'-... ......
-......::

300

200

80

~

60

~
~

40

100

o

'"

......

400

J
~

~

o

o

20

40

80

60

"-'-

100

1

10

100

Large Signal Frequency Response

100 k

"""'1M

10 M

Output Voltage Swing
40

V±

= ±15 V
RL

RL.=10kO

= 10 kO

~

20

'i'"
'"

.

"

\1+

'"8,

= ±10V

\

~
>

;; 10

~

0

o
1k

~
~

2k

10 k

Frequency (Hz)

30

/

20

,

~

\.

\

V± - ±5 V

100

10 k

1k

"-'-

Frequency {Hz}

{eel

30

g'

"'-i'..

20

Ambient Temperature

".;:

II

= 25°C

TA

0

I\.

1M

10

./
o
10M

o

,/

/

V

./

,/

±10

±20

Supply Voltage (V)

3-33

ftIEC

pPC4071
Operating Characteristics (Cont.)
TA = 25°C

Voltage Follower Pulse Response

Output Voltage Swing
30

V±=±15V

./

V

o

100

/

~

/

3k

1k

Input Bias Current

Input Equivalent Noise Voltage

~
!

10

1
E

V

'"

0.1

103r-----t-----+-----+-------i

110
f-----t-----+-----+-------i
z

..c

i

./

......... V

V±=±15V
Rs =100 n

J
1l

/

~

",; 1.0

1

2

10

r~::::::::~~~~~~~~~~~~~~

f-

~

1L-_ _ _ _L -_ _ _ _

0.01

-20

20

40

80

60

Ambient Temperature (OC)

Supply Current

1--:::l:==:::::::::~;;;;;;;;==1==.--1

"
!

~ 1.5 f - - - - - + - - - - - + - - - - - + - - - - - I

f-----+------+----+-----i

!l-

UI

0.5 r - - - - - t - - - - - - j - - - - - + - - - - - - - i

0~

o

_ _ _ _L __ _ _ _

±5

~

____

±10
Supply Voltage (V)

3-34

10

100

~

~

____

±15

~

I

±20

~

_ _ _ __ L_ _ _ _~2

1k
Frequency (Hz)

2.5.------,------,.-------,------,

1.0

I
,l.

10'.------,-----,-----,-----,

v± = ±15V

"a

= ±15 V

Time (,us)

100

2.0

V±

10

Load Resistance (0)

I

RL=2kO
CL = 100 pF

1\
1\

V

/
300

Output

10k

lOOk

ftt{EC

tJPC4081
J-FET INPUT
OPERATIONAL AMPLIFIER

NEe Electronics Inc.

Pin Configuration

Description
ThepPC4081 is a single operational amplifier with a combination of matched ion implanted P-channel J-FET
inputs with standard bipolar transistor technology. The
very low-input bias current and high slew rate (ten times
that of general purpose operational amplifiers) makes
this device an excellent choice for integrators, active filters, and pulse amplifier applications.

Features
D Wide common-mode and differential input voltage
range
D Low input bias and offset currents
D Output short-circuit protection
D High input impedance: J-FET input stage
D Internal frequency compensation
D High slew rate: 11 VIps typical
D Latch-free operation
D TL081 direct replacement

83~002245A

Equivalent Circuit
r---------~----------4r----~----~------~-------Ov+

-Input

R,

+ Input

6

0-------,1----------+----'

+--'VII'r----+-------f-------~ Output

R,

Q,

OFFSET
NULL

Q15

-r-----..

0----+----1-------+
R,

R.

Rs

R,

L---~----~----+-----------~

R11

D,

4
____~----~----__~--~--~v83-0022448

3-35

II

ttlEC

pPC4081
Electrical Characteristics

Ordering Information

TA = 25°C, V± = ±15 V
Limits
Parameter

Symbol Min. Typ.

Max.

Unit

Input 011811
Vollagl

Vio

5.0

15.0

mV

Input 011811
Currenl

110

5

200

pA

Inpul Bias
Curranl
Large Signal
Vollage Gain
Supply
Curranl
Common
Mode
RejeCiion
Rlilo

Ib
AVOL

3D
BB

ICC

400

2.0

2.B

RS:;:; 50 0

CMRR

70

76

Plastic Minillat

DOC to +7o°c

36 V

Power Dissipalion. CPackage

350 mW

Power Dissipation [Note I). G2 Package

440 mW

Dinerenlial Input Voltage

±30V
±15V

Output Short Circuit Durliion

Indallnlte

operliing Temparatura Range
Storage Temperature Range

YOM

±12 ±13.5

OUlpul
Voltage
Swing

VoM

±Io ±12

Common
Mode Inpul
Voltage
Swing

Vicm

±Io

V

Slew Rlla

SR

11

V/(..IS

Input
Equlvalenl
Noise
Voltage

en

25

Unity
Gain
Bandwidth

GBW

3

70

76

dB

v

RL2::lokO

-55 to +125°C

Notes: 1. For supply voltages less than ±22 V. the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

Typical Applications
Offset Voltage Null Circuit
Av= I

b

MHz

100 k

v-

Vlo
t.Viol t.T

Input Bils
Curranl
lio

pPC4081C/G2

nV/y'iiZ f = I kHz.
RS=loOO

Over Operating T8mperature

3-36

IlPC4oBIG2

Voltage Belween V+ and V
RL 2:: 2 kO,
Vo=±loV

dB

Output
Voltage
Swing

Input 011811
Curranl

Plastic DIP

Input Voltage [Nole I)

SVRR

Input
Offset
Voltage Drill

Package

IlPC40BIC

Operating
Temparature
Range

Absolute Maximum Ratings

mA

Supply
Vonage
RejeCilon
Rallo

Input 0ff181
Voltage

Part
Number

TA = 25°C

pA
dB

106

Test
Comlitions

20

mV

RS:;:;500.
TA=ToPT

10

nA

TA = ToPT

5

nA

TA = TOPT

10

83·002246A

ttiEC

pPC4081

Operating Characteristics
TA = 25°C
Large Signal Frequency Response

Open Loop Frequency Response
120

30
V± = ±15 V
RL -2kO

100

iii

"
0

" "-

60

~
~

40

\

"

o
1

10

100

~

10 k

1k

" '"
100 k

Frequency (Hz)

" '" I
1M

o

10M

100

10 k

1k

30

20

0

10

./
o

V

/

V

o

I

10M

II

OutputVoHage Swing

-

V± = ±15V

~

1

~

1M

30
RL=10kO

&

100 k

Frequency (Hz)

Output Voltage Swing

I

\.

"\

V±=±5V

40

-t

\

V±=±10V

20

a.

RL=10kO

= ±15V

" ""-

80

:2-

~

V±

V

/

~
./

/'

V
/
I

±10

o

±20

/
100

Supply Voltage (V)

300

10

3k

1k
Load Resistance (kQ)

VoHage Follower Pulse Response

Input Bias Current
100

./

-5

V

""- Output

r\

V±=±15V

RL=2kO
CL=100pF

v± = ±15V

10

~

'\

!II r·~ I I III
o

1

2

nme~)

3

4

J

1.0

i5

~

0.1

~
0.01

-20

-

/"

V

V"

20

./

40

80

80

Ambient Temperature (Oe)

3-37

t\'EC

pPC4081
Operating Characteristics (Cont.)
TA=25°C
Input Equivalent Noise Voltage

Supply Current

10'

2.•

Y± = ±15V
R.~1000

2.0

~ 103

:c
g

~

f

:>

102

·i
Z

i

J

r----r----

/'
1.•

u

i:

!

1.0

10

D••

1

10

100

1k

Frequency (Hz)

3-38

10 k

I

100 k

0

~
0

±.

±10
Supply VoHag. (V)

±1.

~

±20

t-IEC

pPC4250
PROGRAMMABLE
OPERATIONAL AMPLIFIER

NEe Electronics Inc.

Pin Configuration

Description
The pPC4250 is a very versatile monolithic operational
amplifier. The quiescent power dissipation, input offset
and bias current, slew rate, and gain bandwidth product
are determined by a single external programming resistor. Because this device is individually programmable, a
large variety of circuit functions can be realized by stocking a single operational amplifier type. In addition, this
device operates from as little as ±1 V, making it ideal for
portable applications.

Features

o

o

o
o
o
o
o

±1 V to ±18 V power supply operation
Standby power consumption as low as 500 nW
Programmable electrical characteristics
Internal frequency compensation
Offset-voltage nulling capability
Short-circuit protection
LM4250 direct replacement

83-002256A

Equivalent Circuit
r-----------------------------------------~------------------------Ov+
140k

R6

2.Sk

6k

Rs

5k

R10

RII

Q.
QIO

r

o-+-~------~~------------------~~----~

~~ET
+

10k

R,

10k

R2

-Input
R13

+ Input 0-----+--------1: Q,

o:u~

""""'' ' ' -0
100 k

6

Output

0--+---------;
10k

Rs

~~05--+---~5~k~--~-------------+--------~----------~--------------+-----OV­
Null
83-002255C

3-39

II

t-IEC

pPC4250
Ordering Information

Absolute Maximum Ratings
TA = 25°C
Volll1811a1w8111 V+ Ind VPower Dil8ipatlon. CPlcklge
Powlr Dll8lpatlon. 82 Plcklgl
Dllllreniial Input Volla88
Input Volllll (NOla I)

350 mW
440 mW
±30V
±15V
150pA
Indefinitl
o to +70°C
-55 to +125°C

ISET CarnRl
Oulput Short Circuit Duration
Oplrating Templraturl RIIIII
Storlgl Temparatun Range
Note:

Part
Number

36 V

pPC4250C
pPC4250G2

Package

Operating
Temperature
Range

Pllslic DIP
Plastic Mlnillal

DOC 10 +70°C
o·C 10 +70·C

1. For supply voltages less than ±15 V. the absolute maximum
input voltage is equal to the supply voltage.

Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
TA = 25°C. V± = ±15 V

Limits
Paramatsr

Symbol

Typ.

Max.

Unit

5

mV

ISET= I pA. RS::; 100kO

110

...................~ ...... ~~ ....I~~! .~.I.~~ .................................... .

Ib

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

20
10

.................. io· .....

Input Bias Cumld

Test
Conditions

:::::::::::::::::::~:::::: ~~::: :I~ri:~ :(~~.:!~ ~ ~I:.~:~ :R~:~: ~~~ ~~::::::::::::::
6
mV
ISET=IOpA.RS::;IOOkO
···················6······ ~v··· ·lsET ·~·I·O~A: v±· ~ ±1.5 v: RS·;';· ioo to·············

Input onaet Voillge

Input Ollaat CurreRI

Min.

nA
nA

ISET = 10 pA
ISET= I pA
~A·· . ·ISET·~ ·1· ~;.: v± ~ ±1.5·V .•.......................

75
nA
ISET = 10 pA
··················75······ ~ ... ·lsET·~ ·I·O~A:

Voltage Gain

AVOL

11

ICC

~

±1·.5"V·························

...~~ ..................... ~~ ....Im.~ .I.~~.. !~.~ .~~~ .V: ~~:~. ~~~ ~~ .............. .
95

Supply Curnnt

v±·

dB
pA

ISET = 10 pA. Vo = ±Io V. RL = 10 kO
ISET = I pA

:::::::::::::::::::~::::: :~~::: :I~ri:~ :(~~: !~: ~ ~Iy~:::::::::::::::::::::::::
100

pA

ISET = 10 pA

330

pW

ISET = I pA

··················90····· .~;. ... ·lsET ·~·I·O~A: v±· ~ ±1.5 v·························

··················24····· ·~w··· ·ISET·~·I·~;.:v± ~ ±1.5·V·························

Power Dll8lplllon

3-40

Po

..............................................................................
3.000
pW
ISET = 10 pA
................. ·iio···· ·~w··· ·ISET ";';I·O·~A: v±· ~ ±1".5 v·························

NEe

JlPC4250

Electrical Characteristics (Cont.)
TA = 25°C, V± = ±15 V
Limits
Parameter

Symbol

Min.

Typ.

Max.

±13.5

V

. ':1:0:6' .................... 'v ...
Input Voltage Range

Yicm

Test
Conditions

Unit

ISET

= I pA

'1' ~A" vi ~ ±1·.5 'v' ........................ .
..............................................................................
±13.5

V

'ISET'~

ISET = 10 pA

.·:1:0:6·····················v··· 'lsET'~ 'I'O'~A" v:t'~' ±1'.5 ·Y·························
Output Yoltage Swing

Yom

Common Mode Rejection Ratio

CMRR

... ~~ ..................... ~~ ....Im.=: .I.~~ .. ~~ .~.I.O. ~~.......................... .

Supply Voltage Rejection Ratio

SVRR

74
dB
ISET = I pA. RS S 10 kO
..............................................................................

70

dB

74

dB

ISET = 10 pA. RS S 10 kO
ISET = 10 pA. RS S 10 kO

II

Typical Application

v+

v+
7 pPC4250C/G2
6

RSET

~

ISET

vISET =

v-

v+ + lv-I -

0.5

ISET=

v+ -

O~

RSET

RSET

83-0022578

Offset Null Circuit

500 Nano-Watt x 10 Amplifier

v+
3.3 M

-1.0 V

v83-002258A

8?,-002259A

3-41

NEe

JlPC4250
Operating Characteristics
TA = 25°C
Input Bias Current

Input Bias Current
.0

1000

30
100

C-

C-

oS

oS

~

3

V±=±1.5V

10

i;;

v± =±1.5 v

ISET= 10pA

~

20

i;;

10

V±=±15V

3
V±

±15V=

t

t

f - - ISET

lpA

~1.5V -

V±

I

0.1
0.1

10

-10

100

-20

20

r---

j15Y

V±

60

.0

80

Ambient Temperature (DC)

ISET (PA)

Input Offset Voltage

Input Offset Current
10

1111111
±1.5V:S;V±:S;±15V

'PA~ISETd'0pA

.53.

II
:!l

I

1

-

-

s

±1.5Y
"

C

C

20

.3.

en
~

10

......

......

......

"

V

V

±4

±10

±12

±14

II1II'
±1.5V

L'2.

I
±8

±6

= ±1.5 v

V±

iJl
g

±2

V±

10

8

./

!l

;3

~

./

1l.

~

~

100

~

0.1
10

0.1

±16

100

ISET (,uA)

Supply Current (,uA)

Supply Current

II

Open Loop Voltage Gain

100

t----80

f.--

v±

1011A

ISET

±15V

~

f.--

±1.5V

i

f.--

0.

.§

l

o

100 kO

.

10

1l.

v±

RL

v±

±15

v, Yo

±10V

......rI

.

i-'

10

."..

'::1 J,u' IJJ I ±O.6~

0

ISET

= 1 pA

V± = ±15 V
V±

0
-20

40

20

60

10'

80

0.1

1.0

Ambient Temperature (OC)

Gain Bandwidth Product

Slew Rate

r-

is.

100 k

v±

~

.;

~
~
~

±15V

.......: ~

10 k

V±

RL

10 kO

1.0

./.~p

RL. = 100 kO

il

100

10

.
~e

10
ISET (PAl

1M

0-

I

./

±1.5V

v±

!'"

= ±1.5 V

~

±15V

0.1

v±

±1.5V

0.01

1k
0.1

1.0

10
ISET(JJA)

I

100

0.001
0.01

1.0

10

100

ISETWA)

3-43

~EC

pPC4250
Operating Characteristics (Cont.)
TA = 25°C
Phase Margin

RSET
100M

II
RL= 100kCl

80

...-

60

~

-

40

r-

20

o

K±=±15V

0.1

i-"'"
~

I V±=

1M

1.0

v± = ±15V

10

.V±.=.±15V

1.5 ...........

j
........

100k

ISET (PA)

3-44

~
I
>
S

"..

/'

r-..

........

10M

I

100

~

&!

10 k
0.01

0.1

10
Supply Current (IIA)

100

ftiEC

pPC358
DUAL LOW-POWER
OPERATIONAL AMPLIFIER

NEe Electronics Inc.

Pin Configuration

Description
The tJPC358 is designed to operate from a single power
supply, with the option to operate from split power supplies. This amplifier offers the circuit designer low power
supply current drain, input common mode voltage, and
large output voltage swing both of which include ground.

Features
D Internal frequency compensation
D Large output voltage swing:
o V to (V+ - 1.5 V)
D Input common-mode voltage range includes
ground
D Wide power supply range:
single supply 3 V to 30 V DC
D Dual supplies: ±1.5 V to ±15 V DC
D LM358 direct replacement

J.(PC358C/G2
83-002285A

Equivalent Circuit
112 Circuit
8
r-------------------~----~----~----~--~---ov+
100 llA

Cc
-Input

RSC

1,7
Output

3,5

+ Input 0---------+--------+--------'
t-------------"---l:""

Q"

QlO

t-----I----t:::

an

Q"

50pA

4
'--------+------------------'~-------+-------+-----~'--_o

GND IV-J

83-0022848

3-45

II

t-IEC

JlPC358
Ordering Information
Part
NumbBr
pPC358C

PackagB

Operating
Temperature
RangB

Plasllc DIP

O°C 10 +70°C

pPC358G2

Plaslle Minilla!

O°C 10 +70°C

Absolute Maximum Ratings
TA = 25°C
Voillge 8e1ween v+ Ind V
DiHerenlial Inpul Vollllge
InpPl Voillge
Power Dissipllion, CPickage
Power Dissipllion, G2 Pickage
Oulpul Sholl Circuli Durllion
Operlling Temperllure Ranga
Slorlge TemparllUre Range

32 V
32 V
-0.310 +32 V
350 mW
440 mW
Indellnl..
010 +70°C
-5510 +125°C

Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

Electrical Characteristics
= 25°C, V± = ±15 V,

TA

Parameter
InpulOH88I
Voillge
Inpul 811s
Currenl
InpPl OHael
Currenl
Common
ModelnpPl
Volilge
Ringe
Supply
Currenl
Voillge Glln
Oulpul
Voilige
Swing
Common
Mode
RelaCiion
Ralio
Supply
Voltege
RelaCilon
Ralio
Channal
Separllion
Oulpul
Currenl
(Source)
Oulpul
Currenl
(Sink)

3-46

limits
S,mbol Min. T,p. Max.
Vio

2

Ib

45

lio

Vlem

0

0.7

ICC

Unit
mV

Test
Conditions
RS:50n

250

nA

50

nA

V+
-1.5

V

1.2

mA

RL = 00

d8

RL::::: 2 kn

V

RL:::::2kn

AVDL

88

YOM

0

CMRR

65

70

d8

SVRR

65

100

dB

120

db

I = 1kHz
10 20 kHz

10 SOURCE 20

40

mA

+Inpul = 1 V
-Inpul = 0 V

10

20

mA +Inpul = 1 V

12

50

+Inpul = 1 V
pA -Iopul = 0 V
Vo = 200 mV

CS

10 SINK

100
V+
-1.5

-Inpul = 0 V
....................................

~EC

jlPC358

Operating Characteristics
TA

= 25°C

Supply Current

Input Bias Current
100

75

"~
S

8

- -

50

~

!

~

25

~===t=~:::r::::~::+~~

!l

OL-__~__- L__~__- J_ _ _ _L -_ _~_ _J -_ _~g

o

10

20

30

o

40

o

10

---

c

~

,....

RL

"~

§. 60

r--+-..
RL

~

20 kO

.3;;

2 kO

80

%

50

0
E

..:!!

g

~

40

40

r---- r---

ij
00

~

10

20

30

40

30

- 20

20

Supply Voltage (V)

100

~

Open Loop Frequency Response

---

i

60

::;

40

100 ~-"~""",_---t------__j
80t------t--"~~~--__j

60t------t------t---"~~~--,_-----,----_,----_1

0

§
E
E

80

120 t------t------t------__j

80 f----------+--------+---------~--.~---

8

1'-

60

40

,40r-----~----,------r-----------,~0~M~O~--------

a:

~

----r----

Ambient Temperature (0C)

Common Mode Rejection Ratio

~

11

Current Limiting

0

iii'

40

30

70

120

120

TA:::: +25°C

20

Voltage Gain
160

",'1'"

~

Supply Voltage (V)

Supply Voltage (V)

..~

f'
V-

40~----t------t------+-"~~._---T----_T----~

20 ~---------+----------~--------~--------~~

~

1oLo----------1Lk---------1~OLk---------,~00Lk---------,~M~
Frequency (Hz)

10

100

1k

100 k

1M

Frequency (Hz)

3-47

fttIEC

JlPC358
Operating Characteristics (Cont.)
TA = 25°C

Voltage Follower Large Signal Pulse Response

Large Signal Frequency Response
20

a:

15

·r
t
,g

10

!

U>

f

V,N

\

"

'"V

'S

~

V· -'-' 15 V

+15V

~~
+

+7V

t;

/

~
10.

1•

1M

100 k

J

~v

2.

"-f'..,

5

0

I

RL> 2 kO

100 k

Frequency (Hz)

ru
o

Current Sinking

10

1\
\

20

40

30

Time(ps)

Current Sourcing

10

)

v+ = 15V

:E:

J
,g
!
0

1.0

./V+

0.1

/

0.01
0.001

V
0.01

·~'rtt'

r

+

0.1

1.0

Output Sink Current (rnA)

3-48

10

Vo

i

~

@

100

0 0 .001

1.0
Output Source Current (rnA)

10

100

ttiEC

pPC812
DUAL J-FET INPUT LOW-OFFSET
OPERATIONAL AMPLIFIER

NEe Electronics Inc.
PRELIMINARY INFORMATION
Description

Pin Configuration

Dual operational amplifier pPC812 offers high input
impedance, low offset voltage, high slew rate, and
stable ac operating characteristics. NEC's unique highspeed pnp transistor (IT = 300 MHz) in the output stage
solves the oscillation problem of current sinking with a
large capacitive load. Zener-zap resistor trimming in
the input stage produces excellent offset voltage and
temperature drift characteristics.

Features

o

o
o
o
o
o
o
o

Stable operation with 10,000pF capacitive load
Low input offset voltage:
3 mV max
7 pV;oC temperature drift
Low input bias and offset currents
Low noise: en = 20 nV/y"Hz
Output short-circuit protection
High input impedance
Internal frequency compensation
High slew rate: 15 Vips

Equivalent Circuit

pPC812C/G2

Ordering Information
Part
Number

IIPC812C
IIPC812G2

112 Circuit

Package

Operating
Temperature
Range

8·Pin Plastic DIP

-2D 10 +70'C

8-Pin Plastic Miniflal

-2010 +70'C

V+~------~----------~---.

Input

1.7
Output

Q10

83·001901A

3-49

NEe

tJPC812

Absolute Maximum Ratings

Electrical Characteristics

TA

TA

= 25°C

Parameter
Voltage Belween V+ and VPower Dissipation
Differential Input Voltage
Common Mode Input Voltage
(Note 3)

Symbol

jJPC812C

V+-V-

36

36

V

Po

350
(Note 11

440
(Nole 2)

mW

Vid

±30

±30

V

Vi em

±15

±15

V

Indelinite

Indefinite

Output Short Circuit Duration
Operating Temperature Range
Storage Temperature Range

= 25°C, V± = ±15 V

jJPC812G2 Unit

Limits
Parameter

Vio

I

3.0

mV

Rg = 50 n

lio

25

100

pA

TJ=25'C

Input Bias Current

Ib

50

200

pA

TJ=25'C

dB

RL = 2 kn.
Vn = ±IO V

rnA

Both channels

AVOL

80

106

-20 to +70 -20 to +70 'C

Supply Current

Icc

Tstg

-55 to +125 -55 to +125 'C

Common Mode
Rejection Ratio

CMRR

70

100

dB

Supply Voltage
Rejection Ratio

SVRR

70

100

dB

Vom

±12 ±13.5

V

RL = 10kn

Output Voltage Swing

Vom

±IO ±12

V

RL = 2 kn

Input Voltage Range

Viem

±11

V

Slew Rate
Input Noise Voltage

Recommended Operating Conditions

Channel Separation

Symbol

Min.

V±

±5

Capacitive Load
Output Current

Typ.

6.8

Output Voltage Swing

rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Supply Voltage

Test
Conditions

Input Offset Current

Topt

Ratings" may cause permanent damage to the device. This is a stress

3-50

Unit

Input Offset Voltage

Voltage Gain

Note: 1. Thermal derating factor is 5 mW/'C when ambient temperature is higher than 55'C.
2. Thermal derating factor is 4.4 mW/'C when ambient
temperature is higher than 25 'C.
3. Forsupply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum

Parameter

Symbol Min. Typ. Max.

en

15

V/jJs Av=+1

20

Jill

nVI

Unity Gain Frequency

Rg=IOOn,
1= I kHz

MHz
CS

Max.

Unit

±16

V

CL

10.000

pF

Input Offset Voltage

Vio

10

10

rnA

Input Offset Voltage
Drift

t.Viol t.T

120

dB

f= I Hzto
20 kHz

mV

RS=50n.
TA = Topt

Over Operating Temperature

jJV/'C TA=Topt

Input Bias Current

ib

7

nA

TA = Topt

Input Offset Current

lio

2

nA

TA=Topt

fttIEC

pPC812

Operating Characteristics
TA = 25°C
Voltage Follower Pulse Response

Voltage Follower Pulse Response
RL

RL=OO
CL=O

GND

J

\

I

~

GND

\'

I ",I

5 VIdlv Vertical

Voltage Follower Pulse Response
CL = 220 pF

~

I

~

\,

.I

I

= 2,200 pF

5 Vldiv Vertical
2 j.ls/div Horizontal

Voltage Follower Pulse Response

GND

CL

\

\

1 tAs/div Horizontal

I

= 2,200 pF

\

\

.

2 kO

CL

GND

\

\

l

I

l

,

I\,
\

J

~

5 VIdlv Vertical

5 V/div Vertical
8 J.ls/div Horizontal

2 #S/div Horizontal

Voltage Follower Pulse Response
CL = 10,000 pF

I

GND

I.

II

J

~

,

.\.
\

I
5 VIdly Vertical
10 ps/div Horizontal

3-51

II

tJ PC812

3-52

ttiEC

fttIEC

NEe Electronics Inc.

JlPC814
DUAL J-FET INPUT LOW-OFFSET
OPERATIONAL AMPLIFIER

PRELIMINARY INFORMATION
Description

Pin Configuration

Dual operational amplifier pPC814 is a high-speed
version of the pPC812. NEC's unique high-speed pnp
transistor (fT = 300 MHz) in the output stage yields a
high slew rate of 25 Vips under voltage-follower
conditions without an oscillation problem. Zener-zap
resistor trimming in the input stage produces excellent
offset voltage and temperature drift characteristics.
Having ac performance characteristics that are two
times better than conventional bi-FET op amps, the
pPC814 is ideal for fast integrators, active filters, and
other high-speed circuit applications.

Features
D High slew rate: 25 Vips
D Stable operation with 220-pF capacitive load
D Low input offset voltage:
-3 mV max
-7 pV/oC temperature drift
D Low input bias and offset currents
D Low noise: en = 20 nV/y'Hz
D Output short-circuit protection
D High input impedance
D Internal frequency compensation

jiPC814C
83-001903A

Ordering Information
Part
Number

Package

!,PC814C

8-Pin Plastic DIP

Operating
Temperature
Range

-20 to +70'C

Equivalent Circuit (112 Circuit)

Tr!mmed
R2

4
V-o---~---+----------+---~

3-53

II

,..,EC

pPC814
Absolute Maximum Ratings

Electrical Characteristics

TA = 25°C

TA

Voltage Between V+ and V-

= 25°C, V± = ±15 V
Limits

36 V

Power Dissipation

Parameter

350mW

Symbol Min. Typ. Max.

Unit

Test
Conditions

mV

RS

Differential Input Voltage

±30 V

Input Offset Voltage

Vio

I

Common Mode Input Voltage (Note I)

±15 V

Input Offset Current

liD

25

100

pA

Input Bias Current

Ib

50

200

pA

Output Short Circuit Ouration

Indefinite

Operating Temperature Range

-20 to +70'C

Storage Temperature Range

AVOl

88

106

d8

Rl = 2 kn,
Vo=±IOV

rnA

Both channels

-55 to +125'C

Note: 1. Forsupply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damageto the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Recommended Operating Conditions
Paramater

Voltage Gain

Min.

Supply Voltage

V±

±5

Capacitive load

Cl

220

pF

Output Current

10

10

rnA

Typ.

Supply Current

ICC

Common Mode
Rejection Ratio

CMRR

70

100

dB

Supply Voltage
Rejection Ratio

SVRR

70

100

dB

Output Voltage Swing

Vom

±12 ±13.5

V

Rl = 10 kn

Output Voltage Swing

Vom

±IO ±12

V

Rl = 2 kn

Input Voltage Range

Vicm

±11

V

Slew Rate

Symbol

Max.

Unit

±16

V

= 50 n

Input Noise Voltage

6.8

25

Vips Av=+1

en

20

VHZ

CS

120

nVI

Unity Gain Frequency

RS = 100 n,
f = I kHz

MHz

Channel Separation

dB

f = I Hzto
20 kHz

mV

RS = 50 n,
TA=T opt

Over Operating Temperature
Input Offset Voltage
Input Offset Voltage
Orilt

pV/'C TA = Topl

Input Bias Current
Input Offset Current

2

nA

TA=T opl

nA

TA=T opt

Operating Characteristics
TA = 25°C
Voltage Follower Pulse Response

Voltage Follower Pulse Response
Rl-OCl

RL-2kO

CL=O

CL = 220 pF

I

I(
GND

I
I

\
\

J

,

-

I

I

GND

,J

1

I

l

1\,
\

i

I
5 V/div Vertical
500 ns/div Horizontal

3-54

..

\
5 V/div Vertical
500 ns/div Horizontal

NEe
NEe Electronics Inc.

JlPC1458

DUAL GENERAL PURPOSE
OPERATIONAL AMPLIFIER

Pin Configuration

Description
The pPC1458 ia a dual general purpose operational
amplifier which incorporates internal frequency compensation. This circuit was designed for a wide range of general applications. Large common mode voltage range
and latch-free operation make this device ideal for
voltage-follower applications where quality and cost
are major concerns.

Features

o
o
o

o
o

Internal frequency compensation
Short-circuit protection
Large common mode and differential input voltage
No latch-up
MC1458 direct replacement
pPC1458C/G2
83-002118A

Equivalent Circuit
112 Circuit

v-

2.6

R,
300

R5
39 k
1.7
Output

R"

250

R,
50 k

C,
30 pF

R,
1k

R3
SOk

R,

R,

R12

R11

1k

Sk

SOk

SOk

v83-002117C

3-55

II

t-IEC

pPC1458
Ordering Information
Part
Number

Package

Operating
Temperatur.
Range

pPC1458C

Plastic DIP

DoC to +70°C

pPC145882

Plastic Minillat

DoC 10 +70°C

Electrical Characteristics
= 25°C, V± = ±15 V

TA

Limits
Parametar
Input Onset
Voltage
Input
OHsat Voltage
Drift

Absolute Maximum Ratings
TA = 25°C
Voltage BatweBtl V+ and V-

36 V

Power Dissipation. CPackage

350 mW

Power Dissipation. 82 Package

440 mW

DlHerBtltilllnput Voltage

±30 V

Input Voltage (Note I)

±15V

Output Short Circuit Duration

Indelinl"

Operating Temperature Ringe

oto HO·C

Siorag. TempBrltun Range

-55 to + 125·C

Note: 1. For supply voltages less than ±15 V,the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

3-56

Symbol Min. Typ.
1.0

Vio

Unit

6.0

mV

RS:510kO

pYrc

RS:510kO

ll.Vlo'll.T

Input OHsat
Current

lio

20

200

nA

Input Bias
Current

Ib

80

500

nA

Large Signal
Voltage Gain

AVOL

88

104

dB

RL2:2kO,
VO=±IOV

dB

1= 10 Hz,
RL =2kO

Channel
Separation

CS

120

Supply
Current

ICC

3.0

5.6

mA

Power
Consumption

PD

90

170

mW

Common
Mode
Relectlon
Ratio

CMRR

Supply
Voltag.
Relectlon
Ratio

SVRR

Output
Voltage
Swing

Yom

Output
Voltage
Swing
Input
Impedance

70

Test
Conditions

Max.

90

dB

RS:510kO

dB

RS:510kO

±12 ±14

V

RL2:10kO

Vom

±10 ±13

V

RL 2: 2 kO

RIN

0.3

89

103

MO

!\fEe

JlPC1458

Operating Characteristics
TA = 25°C
Open Loop Frequency Response

Large Signal Frequency Response

120

32
TA=25°C

110

TA = 25 c C

v± =±15 v

r--...

90

iii'
:!!.
c

~
8,
~

I'

80

±15 V

RL.2: 10 kO

"-

70
60

.

20

·f

""'- .......



V

§.

Ii

,/

ae

.3"

.•

./

100

V

Ii.

o

- ...-

o

,.,... V

./

./

±10

Supply Voltage (V)

±20

o
o

'"

V

lL"

../

±10

±20

Supply Voltage (V)

3-57

ftt{EC

JlPC1458
Operating Characteristics (Cont.)
TA = 25°C
Tcc

~

Oulput Short Circuit Current

TA Characteristics

V±=±15V

V±=±15V

-

-

t-- i--

.......

0

0
20

-20

40

80

60

20

~-20

150

\.

t--r-+-+--+---t--t---+----j v± = ±15 V
i

'\.

~

.s
5
a

100

"iii~

0

1

;

If.

20

40

80

Input Onset Current
V± = ±1S

v

0

~'"

l"-

I

0

-20

-40

-20

20

40

Ambient Temperature COe)

3-58

...........

.........

r--.......

-20

20

---

40

Ambient Temperature COC)

0

0

"'-

50

0

60

Ambient Temperature (0C)

o~

80

V±=±15V

"

100

I

20

60

Input Bias Current

Power Consumption
200

I

40

Ambient Temperature ("e)

Ambient Temperature (OC)

60

80

60

80

NEe
NEe Electronics Inc.

pPC4062
DUAL J-FET INPUT LOW-POWER
OPERATIONAL AMPLIFIER

PRELIMINARY INFORMATION
Description

Pin Configuration

ThepPC4062 is a low-power, J-FET input, operational
amplifier featuring low supply voltage operation from
±1.75 V. Supply current of pPC4062 is 1/10 the supply
current of a pPC4083 op-amp. With very low input bias
current characteristics, the pPC4062 is an excellent
choice for hand-held measurement equipment and
other low-power application circuits.

Features
D
D
D
D
D
D
D

Low supply current: 400 pA
Very low input bias and offset currents
High slew-rate: 3 Vips
High input impedance
Low supply voltage operation
Output short-circuit protection
Internal frequency compensation

pPC4062C/G2
83·0Q2118A

Equivalent Circuit
112 Circuit
y+
R9

R4

Rl

09

R8
017

Q10 Q12

018

RS
R7

Cl

013
Rl0

07

06

R2

R3

019

R6

y-

1,7

Output
83-0028206

3-59

II

ttiEC

jlPC4062
Absolute Maximum Ratings

Ordering Information
Part
Number

TA

Operating
Temperature
Range

Package

/lPC4062C

Plastic DIP

/lPC4062G2

Plastic Minillat

oto +70°C
oto +70°C

Limits
Symbol Min. Typ.

Supply
Voltage

V±

Output
Current

10

±1.15

Load
Capacitance
(Vllltage
Follower)

Max.

Unit

±16

V

5

mA

100

pF

36 V

Power Dissipation INote 1). C Package

350 mW

Power Dissipation (Note 2). G2 Package

440 mW

Dillerentiallnput Voltage

±30 V

Input Voltage (Note 3)

Recommended Operating Conditions
Parameter

= 25°C

Voltage Between V+ and V-

±15 V

Output Short Circuit Duration

Indefinite

oto +70°C

Operating Temperature Range

Test
Conditions

Storage Temperature Range

-55 to +125°C

Notes: 1. Thermal derating factor is 5 mW/oC for T A> +55°C.
2. Thermal derating factor is 4.4 mW/oC for TA > +25°C.
3. For supply voltages less than +15 V, the absolute maximum
input voltage is equal to the supply voltage.

Electrical Characteristics
TA

= 25°C, V± = ±15 V

Limits
Parameter

Symbol

Min.

Typ.
2

Unit

15

mV

20

mV

RS = 50. TA= TOPT

/lV/oC

RS = 50, TA = TOPT

InpUI Onset Voltage

Vio

Input Onset Voltage

Vio

IRllut Onset Voltage

Mio/AT

Input Offset Cu rrent

liD

50

pA

Input Onset Current

liD

1.5

nA

Input Bias Current

Ib

Input Bias Current

Ib

10

100

pA

3

nA

500

/lA

large Signal Voltage Gain

AVOl

Supply Current
Common Mode Rejection Ratio

Icc
CMRR

70

95

dB

Supply Voltage Rejection Ratio

SVRR

70

95

dB

Output Voltage Swing

Yom

±12

±14

V

+15

V

Common Mode Input Voltage
Output Current
Slew Rate
Input Noise Voltage
Gilin Bandwidth Products
Channel Separation

3-60

69

Viem

±12

10
SR

±5

-13

V
rnA

3

RS = 50

dB

75
400

Test
Conditions

Max.

en

30

V//ls
nVI y'llZ

GBW

1

MHz

120

dB

Vom =±10V
f = 1 kHz
f = 1 to 20 kHz

fttfEC

pPC4072
DUAL J-FET INPUT LOW-NOISE
OPERATIONAL AMPLIFIER

NEe Electronics Inc.

Pin Configurations

Description
The J-FET input operational amplifiers of thetJPC4072
are designed as low-noise versions of the tJPC4082.
Features of the tJPC4072 include improved input noise
voltage, input offset voltage, and input bias current
compared to the tJPC4082. These features make the
tJPC4072 an excellent choice for a wide variety of
applications including audio preamplifier and active
filter circuits.

Features
D
D
D
D
D
D
D

Low noise: en = 18 nV/y'HZ
Low input bias and offset currents
Output short-circuit protection
High input impedance
Internal frequency compensation
High slew rate: 13 V/tJs typical
Latch-free operation

pPC4072C/G2
83-002275A

Ordering Information
Pari
Number
pPC4072C
pPC4072G2
pPC4072HA

Package
Plastic DIP
Plastic Minillat
Plastic SIP

Operallng
Temperalure
Range
Dto +70°C
oto +70°C
oto +70°C

83-OO2822A

3-61

II

t\'EC

JlPC4072
Equivalent Circuit
112 Circuit

r-----------~----------~----~r_----~------~--------~v+

-Input

R,

3,S

+ Inpul

0-----+----------+----'

1,7

t-.......'VIr--I-------j---------

40

~

RI.. == 2 kO

t"....
.........

200

100

""
i'..

20

20

60

40

o

100

80

1

100

10

1k

Large Signal Frequency Response

"

1M

1

"

~ 20

.

·i
"':i'

V± - ±10V

15

,

>

10

\

V"I. - ±5 V

1k

V± = ±15 V

RI.. = 10 kO

Ii
~

\

0>

2k

10k

Frequency (Hz)

10M

g>

./

20

.

",



J)l

0
>

,
,

\

~

""
1M

0

~
~

10

V

o

2

100

10M

/

~

/
1k

300

10k

3k

Load Resistance (kO)

Output Voltage Swing

Voltage Follower Pulse Response

40

.
g

~

RI.. - 10 kO

./

1: 30
~

/

0>
C

~

f

20

>

io

10

,/

~

,/

,

3"

0

/ '"
±10

Supply Voltage (V}

3-64

~

2

30
V± = :!:15 V

100

lOOk

~

r-...

Output Voltage Swing

30

o

10k

i'..

Frequency (Hz)

Ambient Temperature (OC)

j
.5

i'..

0>

J)l

-5

/
r-- ~~

Output

1\

\

±20
Time (Ils)

RI.. = 2 kO:
CL = 100 pF

V±=±15V

I
""

t-IEC

pPC4072

Operating Characteristics (Cont.)
TA = 25°C
Input Bias Current

Input Equivalent Noise Voltage

100

104

~

10

~

V±=±15V
RS=1000

~

V±= ±15 V

103

&

ai 1.0
J

i

V

o. 1

. /~

0.01
-20

~

/

>

.~

t

./

20

102

Z

w

40

60

80

I

Ambient Temperature ("C)

10

i

I

1 ~------~I~OO~------~lk--------~IO~k--------'~OOk
10
Frequency (Hz)

II

Supply Current
5.0

4.0

/

1

1: 3.0

~

~

8:

2.0

ril

1.0

~

0
0

±5

±10

±15

~
±20

Supply Vohage (V)

3-65

pPC4072

3-66

NEe

NEe
NEe Electronics Inc.

JlPC4082
DUAL J-FET INPUT
OPERATIONAL AMPLIFIER

Pin Configuration

Description
The ,uPC4082 is designed around matched ion implant
P-channel J-FET inputs, along with standard bipolar
technology. Featuring very low input bias current and ten
times the slew rate of general purpose operational amplifiers, this device is well suited for active filters, integrators, and pulse amplifier applications.

Features

o
o

o
o
o
o

o
o

Wide common-mode and differential input voltage
ranges
Low input bias and offset currents
Output short-circuit protection
High input impedance: J-FET input stage
Internal frequency compensation
High slew rate: 13 Vips typical
Latch- free operation
TL082 direct replacement

,uPC4082C/G2

83-002275A

Equivalent Circuit
112 Circuit
8V+

2.6
-Input

0----....-

3,5

+ Input

0-----+-------+---'
1.7

+---'VIIV--t---+-+--o Output
R,
R,

C,

R,

R5

R,

L--~--~---~----_+--~---~-~-+__oV-

83-0022748

3-67

II

t-IEC

JlPC4082
Ordering Information
Part
Number

Package

pPC4D82C

Plaslic DIP

pPC4D82G2

Plaslic Minillat

Electrical Characteristics
TA = 25°C, V± = ±15 V

Operating
Temperature
Range
DOC 10

Limits

+7D o C

O°C 10 +70°C

Absolute Maximum Ratings
TA = 25°C
Voltaga 8atwaen V+ and V

36 V

Powar Dissipation, CPackage

350 mW

Power Dissipation INota 1). G2 Package

440 mW

Differential Input Voltage
Input Voltaga INota 1)

±30 V
±15 V

Output Short Circuit Duration

Indefinile

Oparating Tamperature Range

oto +70°C

Storaga Tamparature Ranga

-55 to +125°C

Note: 1. For supply voltages less than ±15 V. the absolute maximum
input voltage is equal to the supply voltage.
Commenl: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

Parameter

Symbol Min. Typ.

Max.

Unit

5.0

15.0

mV

200

pA

400

pA

Input Offset
Voltage

Vio

Input Offset
Currenl

lio

Input 8ias
Current

Ib

Larga Signal
Voltage Gain

AVOL

30
88

106

Test
Conditions
RS:::; 50

d8

RL 2: 2 kO,
Vo = ±1O V

mA

80th
ainpliliers

Supply
Current

ICC

Common
Mode
Rajection
Ratio

CMRR

70

76

d8

Supply
Voltage
Rejection
Ratio

SVRR

70

76

d8

Outpul
Voltage
Swing

Yom

±12 ±13.5

V

RL 2: 10 kO

Output
Voltage
Swing

Vom

±10 ±12

V

Rl 2: 2 kO

Common
Mode
Inpul
Voltage
Range

Vicm

±10

4.0

Slew Rale

SR

13

Input
Equivalenl
Noise
Voltage

en

25

Unity Gain
8andwidth

GBW

Channel
Separation

CS

5.6

Vips

Av= 1

$I I = 1 kHz.
nVI Hz RS=1000
MHz

120

dB

Over Operating Temperature Range
Input Offset
Voltage
Input
Offset Voltage
Drift

3-68

20

Vio
t.Viol t. T

Input 8ias
Current

Ib

Input Offset
CUrrent

110

10

10

mV

RS:::; 50 O.
TA = TOPT

pV/oC

TA = TOPT

nA

TA = TOPT

nA

TA = TOPT

ftffEC

pPC4082

Operating Characteristics
TA = 25°C
Large Signal Frequency Response

Open Loop Frequency Response
120

30

v±

= ±15 V

RL - 2 kO

..

100

.........
80

iii

..

i'...

~

c

"

60

0

E
;g

40

"'"

~

.........

20

100

10

10.

1•

f\

~

~

100 k

10

0

i'...

Frequency (Hz)

"''"
1M

100

1•

Frequency (Hz)

30

~

10

,/
o

/'

/'

/

/

V

..

/'

~ 20

.'"•
c

"'

f
~

10

0

i

~
~

o

I

10 M

II

Output Voltage Swing
V± = ±15 V

~

f
1

'"

30
RL = 10 kO

20

~

1M

100 k

10.

Output Voltage Swing

·r"'

\.

"\

V±= ±5V

o

10M

40

..

\

V±=±10Y

8,
,!l

o
1

20

·r"'

'""'

RL=10kO:

V±=±1SV

±10

±20

V

o

V
/

100

./

V--

3.

1•

300

.....-

Supply Voltage (V)

Load Resistance (kO)

Input Bias Current

Voltage Follower Pulse Response

-

10

100
V±=±15V

/

10

1
~

U

1.0

V

~

iii

!

0.1
~

0.01

-20

-

./

V
20

-5

V

>-

Output

~

",

Rl = 2 kO:

Cl=100pF
V±=±15V

/"

40

Ambient Temperature (0C)

60

80
Time (ps)

3-69

ftt{EC

pPC4082
Operating Characteristics (Cont.)
TA = 25°C
Input Equivalent Noise Voltage

Supply Current

10'

5.0

V±=±15V
Rs=1000

4.0

/

C

So
3.0

1

r----r---

~

~

2.0

1.0

~

ij
1

0
10

100

1k
Frequency (Hz)

3-70

10 k

100

0

±5

±10
Supply Voltage (V)

±15

±20

pPC4359
DUAL HIGH-SPEED
PROGRAMMABLE CURRENT MODE
OPERATIONAL AMPLIFIER

~EC

NEe Electronics Inc.

Pin Configuration

Description
The pPC4359 consists of two current differencing
input amplifiers. Design emphasis has been placed on
obtaining high frequency performance while providing
user programmability. Each amplifier provides high
gain-bandwidth product, high slew rate, and stable
inverting operation in closed loop designs with a gain
of ten or greater.

Features
D User programmable gain bandwidth product, slew
rate, input bias current, output stage current
D High gain bandwidth product:
300 MHz for Av = 10 to 100
30 MHz for Av = 1
D High slew rate:
60 VIps for Av = 10 to 100
30 VIps for Av = 1
D Operates from a single 5 V to 22 V supply
D Current differencing inputs allow high common-mode
input voltages
D LM359 direct replacement

pPC4359C
83-002096A

Ordering Information
Number

Package

Operating
Temperature
Range

pPC4359C

Plastic DIP

DOC to +70°C

Part

Equivalent Circuit
112 Circuit
12
r---~--------------~------~--~--------~------ov+

3

Compo---------+

ISET

6,10

-Input o---------~_r::

~----------+-----+----+------o Output

7,9
+Input

O---t---...,

4,11

L-----~~~~__~__~____~~--~----------~--__~__~----__oGND
83-00209SA

3-71

II

NEe

pPC4359
Absolute Maximum Ratings
TA = 25°C
22 V
20 rnA

Supply Voltage Hange v+
Input Current 11M

2mA
570mW
oto +70°C

Set Current ISEl
Power Dissipation Po
Operating Temperature Hange. Topt
Storage Temperature Hange. Tstg

-55 to +125°C

Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics

TA = 25°C. ISET = 0.5 rnA, V±

= ±12 V
Umlts

Parameter

Tesl

Symbol

Min.

Typ.

AVOL

62
15
200

70
30
300
30
60
80
1.0
1.0
1.0

1.1
1.1
1.1

pA/pA
pA/pA

ISEl - 5pA
ISEl: 5pA

+Inputs = 2 rnA
+Inputs = 0.2 mA

Isn: 5pA

+Inputs = 20 mA

3.0

5.0

%

Isn: 5pA

+Inputa : 20 rnA to 0.2 mA

Input Bias Current

5.3
30

15

pA
pA

-Inputa
-Inputa

Input Hesistance

2.5

kO

-Inputs

3.5
10.3
0.002
65
4.7
4.5
17
48

0

10: 15. mArml• f = 1 MHz
HL : 600 O. all inputs grounded

Open Loop Voltage Gain
Gain Bandwidth

GBW

Slew Hate

SH

Channel Separation

CS

Mirror Gain

Mirror Gain

Output Resistance
High Level Output Voltage
Low Level Output Voltage
Output Source Current

-Input
+Input
{-Input)
"\+Input

HO

9.5
ISOURCE

Output Sink Current

ISINK

Supply Current

ICC
SVRH

Supply Voltage Hejection Ratio

3-72

0.9
0.9
0.9

16
1.5

40

Max.

Unll

dB

f=I00Hz.HL=1 kO

MHz
MHz

HIM = 1 kO. CCOMP = 10 pF. AV = 1
HIM = 50 to 200 o. AV = 10 to 100
HIM: 1 kO. CCOMp: 10 pF. AV: 1

VIpS
VIpS

0.05

dB
pA/pA

V
V
rnA
mA

22

Conditions

rnA
dB

HIM :s200 0
f: 100 Hz to 100 kHz. HL : 1 kO
TA: 25°C
TA: TOPT
TA: TOPT

TA = 25°C
TA = TOPT

HL : 600 O. -Inputs = 100 pA. +inputa grounded
HL = 100 O. all inputs grounded
Vo = 1 V. VCOMP : 0.5 V. +Inputs grounded
Vo = 1 V. -Inputs = 100 pA. +inputs grounded
HL : 00. +Inputs grounded
f : 120 Hz. +inputa grounded

~EC

JlPC4359

Operating Characteristics
TA = 25°C
Open Loop Gain

Open Loop Frequency Response
100

0

T~~ J~.I~"

90

ISET= a.SmA
'I 10 kHz

=

ISET= 0.5 mA

V+=+12V

80

RF=5kO

r..
V

-~

L

0

""

20

I

10

o

100

1k

10k

100k

1M

0

100M

10M

Gain Bandwidth Products

II

Slew Rate
100

t---

I----

i

i!-

~

20

Supply Voltage M

1000

..t

I

15

10

Frequency (Hz)

TA 25°C
Av=100
fo = 10 MHz

TA 25°C
Av- 1O

RI=50n

I"

!:NO=2V

L..--

I'

./

100

L.

.-

10-

·Ii

]
~

~

V

I

/
10

0.1

0.01

/"

~

1
0.01

1.0

Phase

Gain and Phase Feedback Gain = -10

TA - 25°C
ISET=O.5 rnA
V+ = +12 V
All = 100
RF=5kO

r--... ..........

80

iii"
:2c

~

.......

!

~

o

...........

60

40

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

ill

180

.Ill

150

90

in
:E. 30

60

~

I

CF= 1 pF

10M

0.

!

Frequency (Hz)

<~ ~
~

20

10

100

k,

~

= 25°C

C'"l°rl

ISET::; 0.5 mA
Vi =+12V
All = 10

R'=5t
1.0M

V

C'=2~F/V

TA

r-

C,-OpF/

C'=0.5~F,..1:::::

120

30

Gain

20

1.0

Set Current (mA)

Gain and Phase Feedback Gain = -100

I

~

0.1

Set Current (rnA)

0.1 M

CF

= 0.5 pF

Ic,l,~~

I II

1

/~ ~
Gain

CF=2pF
1.0M

10M

J

180
150
120
90

60
30

I

100M

Frequency (Hz)

3-73

t-IEC

/1PC4359
Operating Characteristics (Cont.)
TA = 25°C
Mirror Gain

Inverting Input Bias Current
2

I

I

liN ;=GND
ISET

0

v+

=

0.5 rnA
+12 V

1.00

.-t--

...... t--....

8

---

I-..

'"

0.90

TA

-v

_ISET

0.80
-20

+40

+20

t60

+80

·-25°C
t12 V
5"A

I
0.1

1.0

10

Mirror Current -

Temperature (OC)

(rnA)

Supply Rejection

Mirror Gain
0
1.00

"~

21"A

IIN-

200IJA

50

0

0.90

0

I- ~A
f--

Isr

'-25°C
·12 V

S(A

0.8 0
20

·20

..-40

...

·60

Temperature (0C)

I

TA
10 e-V'

"j=mllill I

0
100

Channel Separation (Amp1 - Amp 2)

,.

iii'

5

v

0.5 rnA

0

1

Av2

100

RL2

""

25°~

I
I III

t-25°C
=

TA =
V± = ±12 V

RL -:::: 100 kO

II

0

"'\

RK = 1 kO

RL1

\

\

5

\

1500

0

\

111111
10 0

12 0

r..

I'.

60

~

a

1M

100 k

Output Swing

"

I

10 k

1k

Frequency (Hz)

0
TA
VIN-<-0 1-+++l+I-l+t--+++-+++lH-H-+l+l+l+----++-l-l++l ISET
AVl

t-25°C
+12 Voc -;-" 1 Vp_p

"

,
f\.

'-

i""-

I-

0
100

1k

10 k

100 k

Frequency (Hz)

3-74

1M

10

100 k

1M
Frequency (Hz)

10

t\'EC

JlPC4359

Operating Characteristics (Cont.)
TA = 25°C
Supply Current

Supply Current

100

i-----

30

:;;

.s

-

10

~

/'v----'f

VOIDC)

AVIAC) = RF/(Rs

AVIAC) = RF/Rs
VOIDC)

= VBE + RF [v+ -

VBE
Rs

'E = 0.026111+ (ill+)

+ ISH]

VOIDC)
83-002112A

Inverting AC Amplifier (Self Biasing)

V+

eo
VOIDC)

AVIAC)
VOIDC)

= RF/(Rs + rEI
= VBE

(1

.~ RF)

'E: Emilie, Resistance of 01
ISI)'RF

Rs

83-002114A

3-76

+ 'E)

= VSE

(1

'E: Emilie, Resistance of 01

= 0.2 mA, 'E = 130 0)

RF
+ Rs)
+ lSI

).RF
83-002113A

~EC

pPC4359

Typical Applications (Cont.)
Video Line Driver Application

+12V t---------~~----------i
RF

7.5 k

+

6
20 k

100/lF

2

+

eOut

Coaxial

II

r_--

R2/R4
- 2R4' 5 MHz
83-002291 A

Electrical Characteristics
TA = 25°C. V± = ±15 V
Limits
Parameter

Symbot

Input Offset Vollage

ViO

Input Offset Current

liD

Input Bias Current

Ib

Vollage Gain
Power Dissipation

Min.

Typ.
0.5

Max.

Unit

Test
Conditions

6.0

mV

200

nA

180

500

nA

AVOL

100

86

d8

RL

PD

90

170

mW

Both channals

dB

RSS10kO

103

dB

RS S 10 kO

RSS 10 kO

~

2 kO. Vo

Common Mode Rejection Ratio

CMRR

Supply Vollage Rejection Ratio

SVRR

Output Vollage Swing

YOM

±12

±14

V

RL

Output Vollage Swing

YOM

±1O

±11.5

V

10 = ±25 mA

Common Mode Input Voltage Range

Vicm

±12

±14

V

5

VIlls

Slew Rate

SR

Input Noise Voltage

en

Channel Separation

CS

3-80

70

90
89

IlV,P-P
105

dB

~

= ±10 V

2 kO

Av ~ 10 [20 dBI
Rs=1 kn.f=1 Hztol kHz
f = I kHz

ttlEC

pPC4556

Operating Characteristics
TA = 25°C
Open Loop Frequency Response

Large Signal Frequency Response

120
V±

100

~e

80

"
g'"

60

"

"

"-""-

40

20

1

10

100

v'

±15 V

9.

::t15 V

I

24

-;;

~ 20

~.

"

"-i'..
"-

10 k

1k

_co

32

28

~

0

o

-=

100 k

'"

~

16

il

.g

"- ~

12

~

1M

\

100

10 M

10 k

1k

1M

100 k

Frequency (Hz)

Frequency (Hz)

Output Voltage Swing

Input Bias Current

20,---------,---------,---------,---------,
V+' = ±15V

-----.

V±=±15V

200

1 160
~ 120
0

iD

80

0.

e

<

40

~

9@
40

60

80

20

Output Current (rnA)

40

60

80

Ambient Temperature (0C)

Common Mode Input Voltage Range

Supply Current
20

.
i.
~

r

~

10

....-f--

,W
~

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

o

I
o

±10
Supply Voltage (V)

-20
±20

o

V

....-V

~

r- ...........

-

r-.. .............

r-.

±10
Supply Voltage (V)

3-81

ftt{EC

JlPC4556
Operating Characteristics (Cont.)
TA = 25°C
Input Noise Voltage

Pulse Response
10

1000
V± = ±15 V

\
\

"-5

20
Time {tLs)

3-82

300

~8,

100

~

~
"0
Z

30

10

-10
10

~

30

40

1

~

"(
~

"---

10

~

2

100
Frequency (Hz)

1k

ttlEC

pPC4557
DUAL HIGH·PERFORMANCE
OPERATIONAL AMPLIFIER

NEe Electronics Inc.

Pin Configuration

Description
The pPC4557 is a dual operational amplifier which features higher output drive current than that of the
pPC4558. This feature allows driving of headphone
speakers directly. Other characteristics of this device are
low noise and no crossover distortion, which make it the
ideal choice for audio applications.

Features
D Internal frequency compensation
D Large common-mode and differential input voltage
ranges
D No latch-up
D Low noise

II

Ordering Information
Number

Package

pPC4557C

Plastic DIP

pPC4557C

Oparatlng
Temperature
Range

Part

83-002298A

Equivalent Circuit
112 Circuit
8
v+o---------~--------~----------~--~------~--_.

Os~--------~------~~---1--~1(

1,7
~~~-r-----r----+--oOu~t

Rs

t--; I---t--~--_,._---+----C

012

+---;::: 0,.
C,

R,

R.

R,

D

4
v-o-----~--~--~----~------~------_+------+_----~--~
83-0021568

3-83

ttlEC

pPC4557
Absolute Maximum Ratings

Electrical Characteristics

TA = 25°C

TA = 25°C, V± = ±15 V

Voltage Batwlln V+ and V-

36 V

Power Diaalpatlon (Nota II

Limits

700mW

Parameter

DlHerential tnput Voltage

±30V

Input Vottage (Note 21

±15V

InpulOHsel
Voltaga

Output Short Circuit Duration

5s

Operating Temperatura Ringe

oto +70°C

Storage Temperature Ranga

-55 to +125°C

Notes: 1. When the ambient temperature is more than 25°C, derate
linearly at 7 mW/oC, (TJmax) = 125°).
2. Forsupply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device a!lhese or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

Noise Measurement Circuit

100 k

+15 V
1k

CRT

>---'-OVo
50

n

1k

-15V

InpulOHsal
Current

Symbol

Min. Typ.

liD

Input Bias
Currant
Lallla Signal
Vollage Gain

AVOL

Power
DiS8ipation

Po

86

Max.

Unit

0.5

6.0

mV

5

200

nA

180

500

nA

100
90

170

RL <': 2 kO,
VO=±IOV

mW

80lh
channels

d8

RS:5 10 kO

pV/V

RS:5 10 kO

Supply
Voltaga
Relaction
Ratio

SVRR

Oulput
Voltage
Swing

Yom

±12 ±14

V

RL<':2kO

Output
Voltaga
Swing

Yom

±IO ±11.5

V

10=±25mA

Common
Mode Inpul
Voltage Ranga

Vlcm

±12 ±14

V

Slaw Rate

SR

Input Noisa
Voltage

en

Channel
Separation

CS

70

90

30

150

1.0

105

Channel Separation

=20 log ( -1 - .V02
- )
1000
VOt

Vips

Av = I

pVp_p

RS=lkO.
f I Hz
to 1 kHz

dB

to k

50 k

3-84

dB

CMRR

Channel Separation Measurement Circuit

n

RS:510kO

Common
Mode
Rejactlon
Ratio

83-002172A

50

Test
Conditions

=

f=lkHz

t\'EC

pPC4557

Operating Characteristics
TA

= 25°C
Large Signal Frequency Response

Open Loop Frequency Response
120

36

V±=±15V

v± = ±15 V
100

m

80

.

60

!<

40

"-

·i

""

~ ::

""-

l!-

",g:'"

.

!

"-

"'-""-

20

o

32

1

10

100

1k

10 k

f>
~

'\
\
\
\

20
16

i

12

0

"-

"

o
10

1M

100 k

Frequency (Hz)

100

\

10k

1k

'-.......

............
1M

100 k

Frequency (Hz)

Output Voltage Swing

II

Input Bias Current

20r----------,---------,----------,----------,
V±

120

v± =

= ±15 V
100

!

80

u

60

I

±15 V

"--r--

r6

!

40

~
L -_ _ _ _ _ _

~

20

______

~

________

40

~

60

______

20

~

~g

o

80

-20

20

40

60

80

Ambient Temperature (OC)

Output Current (mA)

Common Mode Input Voltage Range

Supply Current
20

.

:E
go

&!

r

10

i

~

!<

.

V

I---

....-v
-'"

V

;;

~
1l

"'-.

:Ii

1

-10

~

o

J

o

±10
Supply Voltage (V)

~

±20

-20

o

r-- r-

--

"'-.

r-.. "'-.

10
Supply VoHage (V)

3-85

ftt{EC

JlPC4557
Operating Characteristics (Cont.)
TA = 25°C

Input Noise Vollage Density

Voltage Follower Large Signal Pulse Response
1000

10

V±=±15V

/
V

\

~

300

~

\

~
~

·z1

I

100

30

10

~

"

~

I----

10

100
Frequency (Hz)

d

8 0 Head Phone

1000

2.5

~W

typical

maxImum power

Note:
NEe cannot assume any responsibility for any circuits shown or represent that
they are free from patent infringement.

Input

Output

dBm

VRMS

mW

+6

1.55

2.0

0

0.775

0.5

-6

0.388

0.125
83-0023036

3-86

~EC

JiPC4558
DUAL HIGH·PERFORMANCE
OPERATIONAL AMPLIFIER

NEe Electronics Inc.

Pin Configuration

Description
The tJPC4558 is a dual operational amplifier with
internal frequency compensation. Using low noise
lateral PNP input transistors on the amplifier inputs
allows the use of this device for signal processing
applications, such as low-noise audio preamplifiers
and signal conditioning circuits. The simplified output
stage eliminates crossover distortion under any normal
load conditions.

Features
D
D
D
D
D
D

Internal frequency compensation
Short-circuit protection
Large common mode and differential voltage range
No latch-up
Low noise
RC4558 direct replacement

tJ PC4558C/G2

83-002157A

Equivalent Circuit
112 Circuit
8
v+o---------~--------~--------~~--~------~--_.

R,

05~------~--------~~---+--~~

R,
1.7

t--'V\tv---+------j-----t--oOutput
R,

-:- Inputo-----+-------~---'
I-+--~~~~----t:" 012

R,
4
V-o-----~--~--_+----_+------~------~----~~--~~--~
83-0021568

3-87

II

NEe

JlPC4558
Electrical Characteristics

Ordering Information

TA

Operating
Temperature
Range

Part
Number

Package

/lPC4558C

Plastic DIP

/lPC4558G2

Plastic Miniflat

= 25°C, V± = ±15 V
Limits
Parameter

Symbol Min. Typ. Max.

Input Offset Voltage

Vio

Input Offset Current

lio

Absolute Maximum Ratings

Input Bias Current

Ib

TA = 25°C

Large Signal Voltage
Gain

AVOL
Po

Voltage Between V+ and V-

0.5

60

6.0

mV

200

nA

500

nA

B6

350mW

Power Consumption

Power Dissipation, G2 Package

440mW

Common Mode
Rejection Ratio

CMRR

Supply Voltage
Rejection Ratio

SVRR

Output Voltage Swing

Yom

Differential Input Voltage

±30 V

Input Voltage (Note I)

±15 V

Output Short Circuit Duration

Indefinite

Operating Temperature Range, C or G2 Package
Storage Temperature Range, C or G2 Package

90
70

Note: 1. For supply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Vicm

Slew Rate

SR

Input Noise Voltage

en

Channel Separation

CS

90
30

-55 to +125°C
Common Mode Input
Voltage Range

170

150

Rs 0:: 10 kO

dB

RL? 2 kO,
Vo=±lOV

mW

Both channels
(see note)

dB

Rs 0:: 10 kO

36 V

Power Dissipation. C Package

Test
Conditions

Unit

/lV/V Rs 0:: 10 kO

±12 ±14

V

RsO::IOkO

±10 ±13

V

RS 0::2 kO

±12 ±14

V
V//ls Av= 1

1.0

Rs =lkO,
/lVp.p f = I Hz to
I kHz
105

dB

f= I kHz

Note: The total of internal power dissipation.

Channel Separation Measurement Circuit

Noise Measurement Circuit

50 k

100 k

500

+15 V

1I2/lPC4558C/G2

1k

CRT
>---4-0Vo

Channel Separation

1/2/lPC4558C/G2
500

10 k

= 20 log

(_1_ • Vo,

V02)

1000

1k

Noise _ Vo
Voltage - 2000
-15 V

83-002172A

3-88

83-002173A

t-IEC

pPC4558

Operating Characteristics
TA=25°C
Large Signal Frequency Response

Open Loop Frequency Response
120

36

V± = ±15V

V±~±15V

100

"- "-

80

Iii'

i

"\

"-

~

~
::.

60

40

'""-

20

o

32

1

10

100

10k

1k

1

\

"

"

100k

Frequency (Hz)

1M

f'......

~

~

o

10M

100

!

1M

11

120

2S

V±=±15V

~~

V±~±15V

100

/'

~

I

100k

'"

Input Bias Current

Output Voltage Swing

OJ

10k

1k

~

Frequency (Hz)

30

·r.
f

,

\

20

(l

60

'--

-

.,,;

,/

10

80

i

V

IS

~

I
~

5 100

1k

Load _

40

20

~

o

10k

...nco (Q)

-20

40

20

60

80

Ambktnt Temperature (Oe)

Common Mode Input Voltage Range

Supply Cunent
0

~

1

u 2 ~--1----r---+--~----~--+---1----r---+--~

J
~

O~~~~__~__-L__~__L-~__~__-L__~~
±10

I

0

j
i

lr---+---+---1---~--~--~--~---r--~----1

Supply Voltage (V)

0

I

1

o

i

±20

8

-1 0

-20

V
V l.--'

r-.. t--. t-...

V

--

l.--' J...-'

........

t--. r--....

10

t--.

~

!

20

Supply VoltaGe (VI

3-89

ttiEC

pPC4558
Operating Characteristics (Cont.)
TA = 25°C

Input Noise Voltage Density

Voltage Follower Large Signal Pulse Response

10

1000
V± = ±15V

/
V

\

¥

300

. \

?

i

~ 100
~

1\

.~

z

..~

30

~

"-.

10

----

10

100

Frequency (Hz)

100pF

Input

>----4--li:j--t-OOutput

o--"IW-;;::I-,....-+--I
2.2 kO

10 k

AIAA Preamp Au

= 32.5 dB

Distortion 0.03% (Vo = 1 YRMS. f = 1 kHz
Noise 1.0pVRMS (Input EQUIV, Input EaUIV
Short Peak Del. Average Indication)

Vo - Distortion Characteristics
10r-------,--------r-------,
V±=±15V
TA= +25°C

.=

RL= 10kO:
1 kHz

1 . 0 1 - - - - - - - - - - 1 1 - - - - - - - t - - - - - -.....

l

I

0.11----------1po....,------t---------,H

0.01'-----_ _-'-_ _ _ _ _ _-'-_ _ _ _ _ _- '
0.01

0.1

1.0
Output Voltage (YRMS)

3-90

10

83·0021668

NEe

jiPC4558

Peak Level Meter
This circuit converts the peak voltage (about ±10 mV
to ±10 V) of the input signal to a DC voltage (about
0.2 V to 1.3 V) and drives the meter.
Since the output voltage is proportional to the logarithmic value of the peak voltage of the input signal, indication of a much wider dynamic range can be obtained
compared to conventional linear indicating methods.
Peak Level Meter
1$953

30 k

100 k

30 k

30 k

15 k

1$953
20 k

II

51 k
-40 dB

~

(0 dB

-r5 dB

= 1 Vp)

3.3 J1F

lOOk

30 k

30 k

15 V
Log Compression

Note:

200 k

15 V
Full Wave Rectification

10 k

-15 V

l'

20 k

Peak Hold Meter AMP

NEe cannot assume any responsibility for any circuits shown

or represent that they are free from patent infringements.
83-0021708

3-91

pPC4558

3-92

ttlEC

NEe
NEe Electronics Inc.

J.lPC4559
DUAL HIGH·PERFORMANCE
OPERATIONAL AMPLIFIER

Description

Pin Configuration

The pPC4559 is a dual operational amplifier featuring
improved slew rate and gain bandwidth product when
compared to the pPC4558. With low noise and internal
frequency compensation, this device is a good choice
for active filter designs and audio applications.

Features

o
o
o
o
o
o

Internal frequency compensation
Large common mode and differential input
voltage ranges
No latch up
Low noise
Output short-circuit protection
RS4559 direct replacement

~PC4559C

Ordering Information

83-002304A

Part
Number

Package

Operating
Temperature
Range

/lPC4559C

Plastic DIP

0° 10 +70°C

EquivGlent Circuit
112 Circuit

•

~O---------~--------~----------~--~------~---.

.,

o,~------~--------~~---+--~~

015

••

o.

1,7

. ••

~_'V\IV_-+----_+----+___oOutpul

3,5

+ Inpulo-----+--------+-----'

.,

,

+--il---t--~---..,...---+---i: 012

.2

c,

., .,

4
V-o-----~--~--_+----_+----

••

o

__~------~----__~--~~-----'
63-0021568

3-93

II

NEe

pPC4559
Electrical Characteristics

Absolute Maximum Ratings

TA = 25°C, V± = ±15 V

TA = 25°C
Voltage Between V+ and VPower Dissipation
Differential Input Voltage

Limits

36 V
350mW
±30V
±15V
Indefinite

Input Voltage (Note II
Output Short Circuit Duration
Operating Temperature Range
Storage Temperature Range

oto +70°C
-55 to +125°C

Paramalar

Symbol Min. Typ.
Vlo

0.5

6.0

mV

Input Ollsat
Current

110

5

200

nA

Input BI.s
Currant

Ib

60

500

nA

Large Signal
Vollage Glln

AVOL

Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

POWIr
Consumption

Po

100 k

+15 V
1k
CRT
>-4-0Vo

1k

Noise
Vo
Voltage = 2000

-15V
83-002172A

Channel Separation Measurement C;'cuit
50 k

50 Q

Channel Separation
10 k

= 20 log

V02)
1
( 1000·
V01

B3-Q02173A

3-94

Unit

Input DHaIl
Voltlge

Note: 1. For supply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.

Noise Measurement Circuit

Max.

Common
Modi
Relectlon
Ratio

CMRR

Supply
Vollagl
Relectlon
Rllio

SVRR

Output
Vollage
Swlng

Yom

Output
Voltaga
Swing
Common
Mode Input
Voltlge Range

86

100
90

70

dB
170

90

Tast
Conditions
RS:510kn

RL:2::2kn.
VO=±IOV

mW

dB

RS:510kn

dB

RS:510kn

±12 ±14

V

RS:2:: 10kn

Yom

±IO ±13

V

RS:2:: 2 kn

Vlcm

±12 ±14

V

Slew Rill

SR

2.0

VlpI

Av= I

Input Noise
Voltage

an

6

pVp_p

RS = !kn,
f= I Hz
to I kHz

Channel
Separellon

CS

105

dB

89

103

f= I kHz

ttlEC

pPC4559

Operating Characteristics
TA = 25 C C
Large Signal Frequency Response

Open Loop Frequency Response
32

"0

V±=±15V

V±=±15V

100

iE

"-

80

~

60

~

40

"-

'Q,

"""- "-

:!!.

f

-t

1

100

10

1k

\

24

1

20
16

•

f

""-

'0

o

2.

10 k

"""- I'-.
"
100 k

1M

\

> 12
'5

!

\..

8

~

o

10

100

Frequency (Hz)

~

••

f&

.0

~

I.

V

l!!

I

10

I

V± = ±15V
100

/

l

60

U

60

I

"--r--

i

/

5 100

II

Input Bias Current
120

,.----

V±=±15V

1M

Frequency (Hz)

Output Voltage Swing
30

..........

100 k

10 k

1k

i
~
1k

40

20

~

o

10k

.0

-20

40

60

Ambient Temperature (OC)

Load Resistance (0)

Common Mode Input Voltage Range

Supply Current
20

~

j

r

10

&

V

l!!
~

1
i::Ii

~
o
o

.
~
E

1

±10

Supply Voltage (V)

~

±.o

r...... """-

-10

u

-20

,-....-

o

........V

~

V

--- ......... r......... """-r.........
10

Supply Voltage (V)

3-95

t-IEC

J.lPC4559
Operating Characteristics (Cont.)
TA = 25°C

Input Noise Voltage Density

Voltage Follower Pulse Response
1000

10

Y±=±15V

Ie

j
:!il

0

I
-5

\

/
/
20

3-96

~

100

z=
'[

15

30

30

.5

-10

Time""')

300

:si!.

\

10

~

40

I

10

~
~
"-

----

10

Frequency (Hz)

100

,..,EC

J1PC4560
DUAL HIGH-PERFORMANCE
OPERATIONAL AMPLIFIER

NEe Electronics Inc.
Description

Pin Configuration

The jiPC4560 is a dual operational amplifier with
improved slew rate and gain-bandwidth product when
compared to the jiPC4559 with unity gain frequency
compensation. Low input noise and high output current
drive capability makes this device ideal for audio
applications and active filters.

Features

o
o

o
o
o

Internal frequency compensation
Large common mode and differential voltage
range
No latch-up
Gain-bandwidth products: 10 MHz typical
Low input noise voltage: 6 jiV p _p typical

pPC4560C/G2

Ordering Information

83-002171A

Pari
Number

Package

Operating
Temperature
Range

IlPC4560C

Plastic DIP

0' to +70'C

Plastic Minillat

0' to +70'C

Electrical Characteristics
TA = 25°C. V± = ±15 V
Limit

Parameter

Absolute Maximum Ratings
TA = 25°C
Voltage Between V+ and V-

36 V

Power Dissipation INote I). CPackage

700 mW

Power Oissipation INote I). G2 Package

440 mW

Dillerential Input Voltage

±30 V

Input Voltage INote 2)

OV

Output Short Circuit Duration

Os

Operating Temperature Range

oto +70'C

Storage Temperature Range

-55 to +125'C

Note: 1. When the ambient temperature is more than 25'C. derate
linearly at 7 mW/'C (TJMAX = 125'C).
2. For supply voltages less than ±15 V. the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Symbol

Test
Min. Typ. Max. Unit Conditions

Input Offset Voltage

Vio

0.5

6.0

mV Rs oS 10 kn

Input Offset Current

liD

5

200

nA

Input Bias Current

Ib

60

500

nA

Large Signal Voltage
Gain

AVOL

Power Consumption

Po

Common Mode
Rejection Ratio

CMRR

Supply Voltage
Rejection Ratio

SVRR

Output Voltage Swing
Common Mode Voltage
Range

Yom
Vicm

88

105
120

70

dB
170

100
89

RL 2: 2 kn.
Vo=±IOV

mW 80th channels
dB Rs oS 10 kn

103

d8 RsoS 10 kn

±12 ±14

V Rs 2: 2 kn

±IO ±13

V 10 = ±25 rnA

±12 ±14

V

Slew Rate

SR

2.8

Input Noise Voltage

en

6

IlVp.p Rs = I kn.
I = I Hz to
1 iI'v--I-----I----40---o Output
Rs

+Input

0-----+---------1----'
+--lI----I--'--_1--+--r Q12
c,

c,

R,

R,

R.

D

V-o---~--+--~---~--_'--------~----~--4--~
83"'()()2170B

Noise Measurement Circuit

Channel Separation Measurement Circuit
50 k

100 k

>---oV02

son

+15V
1k

CRT

Channel Separation

> .....--OVo
1/2pPC4560C/G2

son

10 k

V02)
1
= 20 log ( 1000· V01

1k

Noise _ Vo
Voltage - 2000
-15V

63-002172A

3-98

aa-002173A

~EC

pPC4560

Operating Characteristics
TA = 25°C
Large Signal Frequency Response

Open Loop Frequency Response
120

V±= ±15Y

V± = ±15V
100

'"'"

80

it
~

..

60

~

40

~
J!!

20

o
1

10

100

"i: 28

t

·r

'"'\
\
\

24

,

.. 20

'"

10k

1k

32

~, ,

"-

100k

Frequency (Hz)

I"
;;

~

" I
"

1M

12

o

10M

i\.

""

<

..........

100

10k

1k

100k

Frequency (Hz)

Output Voltage Swing

!

1M

II

Input Bias Current

20

V± = ±15V
V±=±15V

-a

15

/I+vol

-t

f
f
•

--.......

l-voll

10

100

1

j

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

60

r---

j

J

J

80

40

20

20

40

60

o

80

-20

40

20

80

80

Ambient Temperature (DC)

Load R.alstance (kO)

Common Mode Input Voltage Range

Supply Current
20

1

4

1!

i

u

i

JI

3

",....

f

i

---

....-

r--. ........... ..........

i

2

V

-10

u

-20
±10

Supply Voltage M

±20

o

.........

V

,-V

r-.... ...........

r-.....

10

Supply Voltage M

3-99

fttIEC

pPC4560
Operetlng Characteristics (Cont.)
TA = 25°C
Pulse Response

Input Noise Voltage Density

10
V± = ±15V
Av=1

/

~>

.!;.

\
\

II
-5

100

f
I

30

10

.!l

z°

<
~

.

!

.5

ij

\

Rs=1oon

'"'"

61=1 Hz

.....

lil

-10
10

20

30

40

10

nme~)

100

1k

Frequency (Hz)

Application Circuit
Head Phone Amp
+20 V

51 k

c. +

10k

10p

V,N o---tr--1~-r---i

d

8 n Head Phone
2.5 mW typical

maximum power

Nole:
NEe cannot ...ume any responllbility 'or any clrcults'hown or representtha'

Input

they are free from patenllnfrlngement.

dBm

Output
VRMS

mW

+8

1.55

0
-8

0.77.

0.5

0.388

0.125

2.0

83-00230lB

3-100

~EC

pPC4560

Application Circuit (Cont.)
C3
0.0022 pF

C4
0.01 pF

+15 V

Cs
100,uF

Input

0--'Mr--f:::r"'---+---i

>---......--~-~Output

2.2 k

R'

R6
'0 k

83-0021818

II

Distortion Characteristics

O.OO~.L.,:--------::lO.:-'-------:':':.0:-------7.,.
Output Voltage (VRMS)

3-101

pPC4560

3-102

NEe

NEe
NEe Electronics Inc.

jJPC4570

DUAL ULTRA LOW-NOISE, WIDEBAND,
OPERATIONAL AMPLIFIER

Description

Pin Configurations

The tJPC4570 is an ultralow-noise, wideband, high
slew-rate, dual operatio. ,al amplifier. Input equivalent
noise is three times better than the conventional 4558
type op-amp. The gain bandwidth product and the
slew-rate are seven times better than 4558. In spite of
fast ac performance, the tJPC4570 is extremely stable
under voltage-follower circuit conditions. Supply current is also im~. oved compared with conventional
wideband op-amps. ThetJPC4570 is an excellent choice
for pre-amplifiers and active filters in audio, instrumentation, and communication circuits.

Features

o
o

o
o
o

Ultralow noise: en = 4.5 nV/y'Hz
High slew-rate: 7 V/tJs
Wide bandwidth: GBW = 15 MHz at 100 kHz
Internal full-frequency compensation
NE5532 equivalent

pPC4570C/G2

83-002275A

Ordering Information
Part
Number

pPC4570C
pPC4570G2
pPC4570HA

Package

Operating
Temperature
Range

Plastic DIP
Plastic Minillal
Plastic SIP

-2010 +70'C
-2010 +70'C
-2010 +70'C

83-002B22A

3-103

IJ

fttIEC

pPC4570
Equivalent Circuit
112 Circuit
1 9

I

v+

I
I
I
I

v

"-«

'"

"....

v

~ ~

h

3,7
Input

4,6
+1 nput

~

::}

L.M'

"-

I
I
I

I
I
I

-

I
I
I
I
I
I

2,8

I
II

::-l
,

......
V

V

V-

.......

-

'"

I

.......
,.....,

I
I
I

I
::

5

I

V-

.......

O~ ut

I

~

I

I
I

~

v83-002821B

3-104

fttIEC

pPC4570

Absolute Maximum Ratings

Electrical Characteristics

TA

TA

= 25°C

Voltage Between V+ and VDifferential Input Voltage

= 25°C, V± = ±15 V

Limits

36 V
±30 V

Parameter

Symbol Min. Typ. Max.

Unit

Power Dissipation. Cand HA Packages (Note I)

350 mW

Input offset voltage

Vlo

0.3

5

mV

Power Dissipation. G2 Package (Note 2)

440mW

Input offset current

lio

10

200

nA

Input bias current

Ib

500 1000

nA

liD

dB

Input Voltage (Note 3)

±15 V

Output Short Circuit Duration

10 s

Operating Temperature Range

-20 to +70°C

Test
Conditions
Rs = 50 Q

Large signal
voltage gain

AVOL

Supply current

Icc

Notes: 1. Thermal derating factor is 5 mW/oC when ambient
temperature is higher than 55°C.

Common mode
rejection ratio

CMRR

00

100

dB

2. Thermal derating factor is 4.4 mW/oC when ambient
temperature is higher than 25°C.

Supply voltage
rejection ratio

SVRR

80

100

dB

3. Forsupplyvoltages less than ±15 V, the absolute maximum

Output voltage
swing

Vom

±12 ±13.5

V

RL::' 10 kQ

Output voltage
swing

Vom

±12 ±12.0

V

Rl::' 2 kQ

Common mode
voltage

Vicm

±IO ±14

V

Storage Temperature Range

-55 to +125°C

input voltage is equal to supply voltages.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Slew rate

SR

90

8

57

rnA

V/i/sRL=2kQ

Gain bandwidth

GBW

10

15

MHz

Power bandwidth

PBW

50

70

kHz

Unity gain
Irequency

lunity

Phase margin

RL = 2 kQ
Vo = ±IO V

Vo = 27 Vp.p•
THO:sI%

MHz
60

Total harmonic
distortion

THO

0.002

%

Vo = 3 VRMS,
2 to 20 kHz

Channel separation

CS

120

dB

1= 20 Hz
to 20 kHz

Input RMS noise
voltage

1.2
0.5

0.65

i/VRMS

RIAA

i/VRMS

Flat + JISA

Input noise voltage

en

4.5

nV/JljZ I = I kHz

Input noise current

in

0.7

pA/JljZ I = I kHz

3-105

II

~EC

JlPC4570
Operating Characteristics
TA = 25°C
Input Noise vs Frequency Characteristics

Phase Gain vs Frequency

1o,---------,----------,----------,----------,
50

--

RL = 10kO:

CL::: opF

~VOL

~.~----~------~-------4------~

¢

~61---------+---------j---------+---------j

f--

r-

90

-... r-...

-180

.... t--

~ 4

~

,

0.

£

21----------+------1-------+------1

I

01LO--------~lO~0--------~lk----------,JO-k--------~100k

50
_

AVOL

¢

r--

Frequency (Hz)

Gain, Phase vs Frequency

Voltage Follower Pulse Response
V, --: ±15 V
RL = 2 kO

RL:-;- 10 kO
CL = 220 pF

-

CL --=47pF

Slew Rate - 7 Vips
90

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

....... r- 1-_
r-- r--

I
I

-180

1M
Frequency (Hz)

3-106

1\
1\

II

I

/

1/
10

lOOk

10M

1M

lOOk

Frequency (Hz)

I
I

tJ

I

10M

GND

\

1\
10

Time (/Jsj

12

NEe
NEe Electronics Inc.

pPC324

QUAD LOW-POWER
OPERATIONAL AMPLIFIER

Pin Configuration

Description
The tlPC324 is a quad operational amplifier designed
to operate from either single or split power supplies,
with very low current drain. The input common mode
voltage of these amplifiers includes ground and they
are internally frequency compensated for unity gain
stability.

Features
D Internal frequency compensation
D Large output voltage swing: 0 V to V+ - 1.5 V DC
D Input common mode voltage range includes
ground
D Wide power supply range:
Single supply 3 V to 30 V DC
Dual supplies ±1.5 V to ±15 V DC
D LM324 direct replacement

83-002213A

Ordering Information
Part
Number

Operating
Temperature
Range

Package

pPC324C
pPC324G2

Plastic DIP

0° 10 HO°C
0° 10 HO°C

Plastic Mlnlflal

Equivalent Circuit
114 Circuit

v+
6.A

6.A

100pA

Cc

0,

>---+
RSC

1,7,8.14
Output

3,5, 10, 12

0"
+Input
~------+--r 010

~--!---c- 0"

0"

SOpA

11

GND (V-)
83-0022128

3-107

!\fEe

pPC324
Absolute Maximum Ratings

Operating Characteristics

TA = 25°e, V± = ±5 V

TA = 25°e

Voltage Between V+ and V-

32 V

Differential Input Voltage

32 V

Input Voltage

Supply Current

-0.3 to +32 V

Power Dissipation, C Package

570 mW

Power Dissipation, GPackage

550 mW

Operating Temperature Range. Cor GPackage

o to +70°C

Storage Temperature Range, Cor GPackage

-55 to +125°C
f-----j----,----,---+--+__

Electrical Characteristics

TA

= 0 to 70°C

TA = 25°C, V± = ±5 V
Parameter

S,mbol

Limit
Test
Min. Typ. Max. Unit Conditions

Input Offset Voltage

Vio

2

Input Bias Current

Ib

45

Input Offset Current

lio

5

Common Mode Input
Voltage Range

Vicm

Supply Current

ICC

Large Signal Voltage
Gain

AVOL

Output Voltage Swing

YOM

88

250

nA

50

nA

V+
-1.5

V
Input Bias Current

mA RL = = on
all op·amps

100

dB RL 2': 2 kn

100

75

V+
-1.5

V

CMRR

55

85

dB

Supply Voltage
Rejection Ratio

SVRR

55

10

dB

Output Current
(Source)

0

Supply Voltage (V)

0.8

Common Mode
Rejection Ratio

Channel Separation

,.

0

mV Rs=on

CS
IOSOURCE

20

RL = 2 kn

~

i(I

----

50

~

i

'5

f = 1 kHz to
20 kHz

120

dB

40

rnA + Input = 1 V.
-Input = 0 V

Output Current (Sink)

IOSINK

10

20

rnA

-Input = 1 V.
+ Input = 0 V

Output Current (Sink)

IOSINK

12

50

rnA

-Input = 1 V.
+ Input = 0 V

00

10

...
r-

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

i-"""

TA = +25°C

'0

30

40

Supply Voltage (V)

Voltage Gain
160

RL=20kO

120

....- ~

m
~

r--

~
RL=2kO

c
·iii

"~

80

J!
~

~

40

00

10

'0
Supply Voltage (V)

3-108

30

40

NEe

pPC324

Operating Characteristics (Cont.)
TA = 25°C
Current Limiting

Common Mode Rejection Ratio
120r----------,----------r---------,----------,

70

~

60

C
.§.

~

8

m
~

~

i..

50

,

~

0

40

"

I--- r---....

30

-20

20

a:

----I----40

60

~g

~

~g

•
<3•

a0r---------+---------+---------~--------__l

60r----------+----------r----------r--------~

40r----------+----------r----------r--------~

20r----------t----------r----------r--------~;

ij
O~________J __ _ _ _ _ _ _ _~_ _ _ _ _ _ _ _~~------~g

ao

100

1k

10 k

100 k

1M

Frequency (Hz)

Ambient Temperature (OC)

Open Loop Frequency Response

E1

Large Signal Frequency Response
20

,40r-----,-----.-----,-------------,0-M-n---------.

I

a: 15

..

~

Vo

1\

.j

C/I

f
:!l

10

\

~ r-o..

;f .,. · ,"
""-i"

i
1k

Frequency (Hz)

lOOk

+15V

~

10 k

'"

100 k
Frequency (Hz)

1M

Voltage Follower Large Signal Pulse Response
RL:::::2 kO
V+ -15 V

-

/

I

\

\

fU I I 1 1 1 I ~
o

10

20

30

40

Tim&(pS)

3-109

pPC324

3-110

NEe

NEe
NEe Electronics Inc.
Description

pPC3403
QUAD HIGH· PERFORMANCE
OPERATIONAL AMPLIFIER

Pin Configuration

The IlPC3403 quad operational amplifier is designed
with four independent high gain frequency compensated operational amplifiers. Featuring operations from
either single or split power supplies from 3 V to ±18 V.
The common mode input range includes the negative
supply which eliminates the need for external biasing
circuitry in most applications.

Features

o

o
o
o
o
o

Input common mode voltage range includes ground
or negative supply
Output voltage can swing to ground or negative
supply
Wide power supply range:
Single supply of 3.0 to 36 V
Split supplies of ±1.5 to 18 V
Class AB output stage for minimal crossover
distortion
Short-circuit protected outputs
MC3403 direct replacement

63-002223A

Equivalent Circuit

114 Circuit

V+

14

+ Input

Output
1.1'.6,'\"

AS
2.4 kG
GND(V-)

11

83-0022228

3-111

II

NEe

IlPC3403
Absolute Maximum Ratings

Ordering Information

TA = 25°C
Voltage Between V+ and V-

Part
Number

36 V

Package

Operating
Temperature
Range

Dilferentiallnput Voltage

±36 V

pPC3403C

Plastic DIP

DOC to +lO°C

Input Voltage INote I)

±18 V

pPC3403G2

Plastic Minillat

O°C to +lO°C

Power Dissipation, CPackage

570 mW

Power Dissipation, G2 Package

°

Operating Temperature Range

550 mW

to +70°C

Storage Temperature Range

-55 to +125°C

Note: 1. The absolute maximum input voltage is equal to the supply
voltage.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
TA

= 25°C, V± = ±15 V

Limits
Parameter

Symbol

Min,

Input Offset Voltage
Input Offset Current

liO

Input Bias Current
Large Signal Voltage Gain

AVOl

Input Voltage Range

Vicm

Common Mode Rejection Ratio

CMRR

Supply Voltage Rejection Ratio
Supply Current
Output Short Circuit Current
Isee Note)

10SHORT

Unit

2,0

7,0

mV

V+ = +5 V, V- = GND

5

50

nA

V+ = +5 V, V- = GND

45

250

nA

V+ = +5 V, V- = GND

86

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

98

+13 to +13.5 to
-15
-15
70

89

V+ = +5 V, V- = GND, RL = 2 kn

V

90

dB
103

dB

103

d8

V+ = +5 V, V- = GND

,.........~.~ ...... ?,~...... ~~ ....~O. ~~: ~~.=:.":': ~I! ~~a.n~!I~ ........................ .
2.5

7.0

mA

±10

±20

±45

mA

±12

±13.5

V+ = +5 V, V- = GNU, all channels

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

CS

120

Note: Do not exceed the maximum power dissipation rating.

3-112

dB

RL = 10 kQ
..............................................................................
. . =!=.I.O .••• :±:I.~ •...••....••..~ ..•. ~~ ~ ~:O. ~c:
V+ - 1.7 V+ - 1.5
V
Rl = 10 kn, 5 V:5 V+:5 30 V, v- = GNU

Output Voltage Swing
Channel Separation

Max,

... ~6...••. ~~ .•.........••. ~~ ..••~O. ~ :±:I.~ ~'. ~~.=: .2. ~C:

SVRR

ICC

Test
Conditions

Typ,

dB

, = I kHz to 20 kHz

NEe

JlPC3403

Operating Characteristics
TA = 25°C
Open Loop Frequency Response

Power Bandwidth

120

30

100

,.iii

"'S~.

"

80

<

60

;g

40

'"I'"

20

o

1

10

100

a:
~

l

o

'"

.,·i'"

10

I'" i

100 k

1M

\
i\.

o

10 M

~

10 k

1k

I

r--

1M

100 k

Frequency (Hz)

Frequency (Hz)

Output Swing

Input Bias Current

30

~

\

r

10 k

1k

20

~

II

60

/

!'E

./

20

i
10

,

t---

~

/

0

- -

40

S

/

!

20

/
±5

±10

o
±15

-40

-20

20

40

60

80

Temperature (Oe)

Supply Voltage (V)

Input Bias Current
60

~

40

~

u

Iii

~

--

20

±5

±10

±15

Supply Voltage (V)

3-113

pPC3403

3-114

t-IEC

fttlEC

NEe Electronics Inc.

pPC4064
QUAD J-FET INPUT LOW-POWER
OPERATIONAL AMPLIFIER

Description

Pin Configuration

The pPC4064 is a low power J-FET input quad operational amplifier that will operate at voltage levels as
low as ±2.0 V. Input current is typically less than 1 rnA.
With input bias and offset currents as low as a few pA.
the pPC4064 is an excellent choice for hand-held
measurement equipment.

Features
D
D
D
D
D
D
D

Low supply current
Very low input bias and offset currents
High slew rate
High input impedance
Output short circuit protection
Internal frequency compensation
TL064 direct replacement

11

Ordering Information
Operating
Temperature
Range

Part
Number

Package

IIPC4D64C

14·pln plastic DIP

-20 10 +70·C

IIPC4D64G2

14-pln Mlnlflal

-20 10 +70·C

B3-003133A

Equivalent Circuit
114 Circuit
r-------------~r_------------~--------_r--------------~v+

R.

R.

Q5~----------~~Q~·~------------t_----~~~------~r_----,

IMo---l---+--'

L-----~__~------~__________~------------~~~_+------~v-

83--0031348

3-115

!\fEe

pPC4084
Absolute Maximum Ratings

Recommended Operating Conditions

TA = 25°C

Supply Voltage Differential

36 V

Power Dissipation. CPackage (Note I)

570mW

Power Dissipation. G2 Package (Note 2)

550mW

Differential Input Voltage (Note 3)

±30V

Output Short Circuit Duration

Indefinite

Operating Temperature Range

-20 to 70°C

Parameler

Limits
Min Typ Max

Symbol

Supply Voltage

Vsupp

Output Current
Load Capacitance

±2

V

10

5

rnA

CL

220

pF

Nole:
1. Derate at 8 mW/oC when TA > 25°C.
2. Derate at 5.5 mW/oC when TA> 25°C.
3. For supply voltage less than ±15 V. the absolute maximum input

voltage is equal to the supply voltage.

Electrical Characteristics
TA = +25°C. Vsupp = ±15 V

Parameter

Symbol

Min

limits
Typ

Input Offset Voltage

Vlo

Input Offset Voltage

Vlo
aViol a T

10

Input Offset Current

110

Input Offset Current

110

Input Bias Current

Ib

Input Offset Voltage Drift

Input Bias Current
Large Signal Voltage Gain
Common Mode Rejection Ratio
Power Supply Rejection Ratio
Output Voltage Swing

±Vo

Common Mode Input Voltage

Supply Current

70
70

Tesl
Conditions

10

mV
mV
pV/oC

5

50
1.5

pA

100

nA
pA

TA = Topt

10

3

nA

TA = Topt
Rl = 10k. Vo = 10 V

Ib
70

Unll

15

2

AVOL
Isupp
CMRR
PSRR

Max

76

BOO
95

dB

1000

Rs = 50n
Rs=50n. TA=Topt
Rs=50n.TA=Topt

pA
dB

95

dB

±12

±14

V

Vcm

±12

+15
-13

V

Output Current

10

-3.5

Slew Rate

SR

3

VIpS

Rl = 10k

Input NOise Voltage

en

30

nV/y'iiZ

1= 1 kHz

Gain Bandwidth Product
Channel Separation

rnA

GBW

Rl = 10k

±Vo = ±10 V

MHz

CS

120

dB

I = Ito 20 kHz

Electrical Characteristics
TA = +25°C. Vsupp = ±5 V

Parameler

Limits
Typ

Symbol

Min

AVOL
CMRR

20

Common Mode Rejection Rallo

70

90

dB

Power Supply Rejection Ratio

PSRR

70

90

dB

Output Voltage Swing

±Vo

±3.8

±4.1

V

Vcm

+4.7
-2.8

+5.2
-3.5

V

Large Signal Voltage Gain

Common Mode Input Voltage

3-116

Max

Unll

Unil

±16

Tesl
Condilions

dB

Rl = 10k

NEe
NEe Electronics Inc.

pPC4074
QUAD J-FET INPUT LOW-NOISE
OPERATIONAL AMPLIFIER

Description

Pin Configuration

The J-FET input operational amplifiers of thepPC4074
are designed as low-noise versions of the pPC4084.
Features of the pPC4074 include improved input equivalent noise voltage, input offset voltage, and input bias
current compared to the pPC4084. The pPC4074 is an
excellent choice for a wide variety of applications,
including audio preamplifier and active filter circuits.

Features

o

o
o

o

o
o
o

o

Low-noise en = 18 nV/y'Hz
Low-input bias and offset currents
Output short-circuit protection
High-input impedance: J-FET input stage
Internal frequency compensation
High slew-rate: 13 Vips typical
Latch-free operation
TL074 direct replacement

83·0D2213A

Equivalent Circuit
114 Circuit

r---------~----------~----~------~----~------~v+

R,

3,5.10,12

+ Input o - - - - - j - - - - - - - - - - - j - - - - - '

1,7,8,14

t--¥./V--+------+--------Q Output
a,

Q"

a,

D,
R,
R,
R,
R,
11
L -__~----.+_____.+___________+ _ - - - - + _ - - - - . _ .______+_--___+--_o GND (V-)
83-0022786

3-117

II

,..,EC

pPC4074
Ordering Information
Part
Number

Package

pPC4074C

Plastic DIP

pPC4074G2

Plastic Mlniflat

Recommended Operating Conditions
Limits

Operating
Temperature
Range

Parameter

Supply
Voltage

Absolute Maximum Ratings

(AV=+11
Output
Current

Differential tnput Voltage
tnput Voltage (Note I)
Power Dissipation (C Package)
Power Dissipation (G2 Package)
Output Short Circuit Duration

36 V
±3D V
±15 V

350 mW
440mW

Indefinite

Operating Temperature Range
Storage Temperature Range
Note: I. For suppty voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

3-118

v±

Capacitive
Load

TA = 25°C
Voltage Between V+ and V-

Symbol Min. Typ.

10

±5

Max.

Unit

±16

V

100

pF

10

rnA

Test
Conditions

t'tIEC

J1PC4074

Electrical Characteristics
TA

= 25°C, V± = ±15 V

Limits
Parameter

Symbol

Min.

Typ.

Max.

Unit

Test
Conditions

Input Offset Voltage

Vlo

3

10.0

mV

RSoS50n

Input Offset Current

110

5

50

pA

TA = 25'C [Note I)

30

200

pA

TA = 25'C (Note I)

Input Bias Current

Ib

Large Signal Voltage Gain

AVOL

Supply Current
Common Mode Rejection Ratio

Icc
CMRR

70

86

dB

Supply Voltage Rejection Ratio

SVRR

70

86

dB

Output Voltage Swing

VOM

±12

±13.5

V

RL:o:l0kn

Output Voltage Swing

YOM

±IO

±12

V

RL:O: 2 kn

Common Mode Input Voltage Range

Vicm
SR

±10

Slew Rate
Input Equivalent Noise Voltage

106
8

10

dB

RL :0: 2 kn. Vo = ± 10 V

rnA

Four amplifiers

V
13

V//1s

18

nV/JHz

4

IlVRMS

3

MHz

CS

120

dB

ViD
aViD/aT

10

en

Unity Gain Bandwidth
Channel Separation

88

Av= 1
Rs = 100 n. f = 1 kHz
Rs = 100 n. f = 10 Hz to 10 kHz

II

Over Operating Temperature Range
Input Offset Voltage
Input Offset Vollage Drill

13

mV

Rs oS 50 n. TA = TOPT

IlV/'C

TA=TOPT

Input Bias Current

Ib

nA

TA=TOPT

Input Offset Current

liD

nA

TA=TOPT

Nole: 1. Input bias currents are temperature sensitive. Short time measuring method is recommended to maintain the junction temperature
close to the ambient temperature.

3-119

fttfEC

pPC4074
Operating Characteristics
TA = 25°C
Power Dissipation

Open Loop Frequency Response

1000

120

c

°

~

:;0

G2 Package

~

400

~

--.....

0-

"~

~c

~_CPackage

600

!

"",""r,

100

800

;;.§.

~

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

........

80

[

60

ll,

I

.!!

g

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

200

40

40

60

80

o

100

"" "........

f------ -

i

20

20

V± =±15 V
RL=2kO

"""- I
........

1

10

100

Ambient Temperature (0C)

1k

10k

lOOk

1M

Output Voltage Swing

Large Signal Frequency Response
30,-------r-------~------,--------,------,

40

V±=±15V

RL = 10 kO
RL = 10 kO

;

•

I

~

1: 30

-----+---

20

"'"

·i

r-------,I~v~±-~--±~,0~V+--------+-l

VI

•

I
~

Ii'

20

'ii>
10

o

~

J-----~~~~----~--~

"

10

OL--------L------~--------L--------L~~--~I
100

1k

2k

10k

1M

./

/'

10'

/ '""

Output Voltage Swing

Voltage Follower Pulse Response

.

€

5

B

g

io

.

·i
VI

-5

RL =2kO:

/
V

Output

1\
\

I
>

;; 10

~

0

Load Resistance (kO)

3-120

±20

Supply Voltage (V)

20

./

±10

10M

Frequency (Hz)

30

1'"

10M

Frequency (Hz)

Time(jJs)

CL = 100pF
V± = ±15 V

I
"'

fttIEC

JlPC4084

QUAD J·FET INPUT
OPERATIONAL AMPLIFIER

NEe Electronics Inc.
Description

Pin Configuration

The tlPC4084 offers four operational amplifiers with
matched ion implanted P-channel J-FET inputs with
standard bipolar technology in a single 14 pin DIP.
With low input bias current and slew rates ten times
that of general purpose amplifiers, this device is ideally
suited for pulse amplifiers, active filters and integrator
designs.

r------1'4J

Output 0

-Input D

+ Input

0

Features
D Wide common-mode and differential input voltage
range
D Low input bias and offset currents
D Output short-circuit protection
D High input impedance: J-FET input stage
D Internal frequency compensation
D High slew-rate: 11 V/tls typical
D Latch-free operation
D TL084 direct replacement

83-OO2279A

Equivalent Circuit
114 Circuit

r-----~-----~--~--_4r_--1_----Ov+

3,5,10,12

1,7,8,14
Output

+ Input o - - - t - - - - - + - - - - - . J

t---'V'V"v--t----t----oQ

03

R,

02

R,

~-~--~--+------~

___

~--~

__

"

~~-4_-0V-

83-002278B

3-121

II

t\'EC

pPC4084
Electrical Characteristics

Ordering Information

TA = 25°C, V± = ±15 V
Limits
Parameter

Symbol Min. Typ.

Input Offset
Voltage

Vio

Input Offset
Current

lio

Input 8ias
Current

Ib

Large Signal
Voltage Gain

5.0

30

Max.

Unit

15.0

mV

200

pA

400

pA

Test
Conditions

DoC to +70°C

Voltage Between V+ and VPower Dissipation (Note I)

AVOL

88

dB

106

RL 2: 2 kO.
Vo = ±IO V

CMRR

Supply
Voltage
Rejection
Ratio

SVRR

Output
Voltage
Swing

VOM

±12 ±13.5

V

RL2:IOkO

Output
Voltage
Swing

VOM

±IO ±12

V

RL 2: 2 kO

Common
Mode
Input
Voltage
Range

Vicm

±IO

V

Slew Rate

SR

II

Input
Equivalent
NOise
Voltage

en

25

Unity Gain
Bandwidth

GBW

Channel
Separation

CS

B.O

11.2

mA

All
amplifiers

Differential Input Voltage
Input Voltage (Note I)
Output Short Circuit Duration
Operating Temperature Range

70

70

76

dB

76

Storage Temperature Range

dB

Vips

Av= I

v'iil

r = I kHz.
nV/ Hz RS = 100 0
MHz

120

dB

Over Operating Temperature Range

3-122

Plastic DIP

Absolute Maximum Ratings

Common
Mode
Rejection
Ratio

Input Offset
Current

pPC4084C

TA = 25°C

ICC

Input
Offset
Voltage
Drift
Input Bias
Current

Package

Operating
Temperature
Range

RS:S 500

Supply
Current

Input Offset
Voltage

Part
Number

20

Vio

t.Viol t. T

Ib
lio

10

10

mV

RS:S 50 0,
TA = TOPT

/lV/oC

TA = TOPT

nA

TA = TOPT

nA

TA = TDPT

36 V
570 mW
±30 V
±15 V
Indefinite
010 HO°C
-55 to +125°C

Note: 1. For supply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

ttiEC

/lPC4084

Operating Characteristics
TA = 25°C
Large Signal Frequency Response

Open Loop Frequency Response
120

RL

100

iii

"- ~

80

~

c

~

60

f

40

30

v± = ±15 V

"- ~

1

10

~ 20

"-

""

10.

~
~

r--...

10

0

"-

lOOk

"I

1M

Frequency (Hz)

o

10M

1•

100

10 k

~g>
j

20

.'"

30

v± = ±15 V

/'

~

!
0

10

,/
o

V

/

/

J'"

'"

/"

20

.j

'"

&
l!
~

1

10

8

I
2

o

II

Output Voltage Swing

= 10 kO

V

'"

10 M

1M

100 k

Frequency (Hz)

40
RL

\.

"\

V± = ±5 V

Output Voltage Swing

30

\

V±=±10V

'"

1;;

= 10 kO

.\

.
c

1k

100

RL

V±=±15V

OJ'"

20

o

= 2 kO

±10

o

±20

/
100

V---

V
/
1•

300

Supply Voltage (V)

3.

10

Load Resistance (kO)

Input Equivalent Noise Voltage

Voltage Follower Pulse Response
10'

-5

I

/'

... Output

'"

'\

RL=2kO
CL. = 100 pF
V± = ±15 V

v± =

±15V
R6=1000

~

.

103

%
~
~

102

-5Z

~

10

1
Time (uS)

----10

r----

100

,.

10.

100

Frequency (Hz)

3-123

!ft{EC

pPC4084
Operating Characteristics (Cont.)
TA

= 25°C

Input Bias Current

Supply Current

100

2.S

V±= ±15 V

..

10

~

!!
!

/

1.•

'3

0.1

0.01

- -20

V

V

1
3

.
:
~

./

I
~

20

/'
1.5

1.0

O.S

40

Ambient Temperature (OC)

3-124

S

2.0

60

80

~

~
~

0
0

±S

±10
Supply Voltage (V)

±15

±20

NEe
NEe Electronics Inc.

J.lPC4574
QUAD ULTRA LOW-NOISE, WIDEBAND,
OPERATIONAL AMPLIFIER

Description

Pin Configuration

The pPC4574 is an ultra low noise, high slew rate quad
operational amplifier specifically designed for audio,
instrumentation, and communication circuits. The low
noise and high frequency capabilities make it ideal for
preamps and audio filters for instrumentation and
professional audio.

Features

o

o
o
o
o

Ultra low noise
High slew rate
Wide bandwidth
Internal full frequency compensation
Quad equivalent to NE5532

II

Ordering Information
Part Number

/lPC4574C
/lPC4574G2

Operating
Temperature
Range

Package

14·pin plastic DIP
14·pin plastic minillal

J,lPC4574C/G2

-2010 +80'C

83-003135A

-2010 +80'C

Equivalent Circuit
114 Circuit
v-o-----~r-------~--~--------------~----~--_.

Q. ::r------+-E:......::.'--------------+~C Q,.

-Input

+Input

0---+-------+--....1
R.

+-----t:

R3
v-o---+_~~-+--

Q,.

"------+----+---+---0 Output
R.

o

__~--------4__ _~~--------+___~~
83-{)o31368

3-125

ft¥EC

J.lPC4574
Absolute Maximum Ratings
TA =

25'C

Voltage Belween V+ and V-

36V

Power Dissipalion. CPackage

570mW

Power Dlssipalion. 82 Package (Nole I)

550mW

Dillerenliallnpul Voltage (NOIe 2)

±30V

Oulpul Shorl CirculI Duration

lOs

Operating Temperalure Range

-2010 BO'C

Slorage Temperalure Range

-5510+125'C

Note:
1. Derate at 5.5 mW/'C when TA > 25'C.
2. Forsupply voltages less than ±15 V. the absolute maximum Input
voltage is equal to supply voltage.

Electrical Characteristics
TA

+25'C. v± = 15 V
Parameter

Symbol

Min

LlmHs
Typ

Max

Unit

Inpul Ollsel Voltage

Vlo

0.3

5

mV

Inpul Dllsel Currenl

110

10

200

nA

430

1000

nA

12

mA

Inpul Bias Currenl
Large Signal Voltage Gain
Supply Currenl

Ib

00

110

dB

Test
ConditIons
Rs=50Cl

Rl =2k.Vo=±10V

Common Mode Relection Ratio

AVOL
Isupp
CMRR

BO

100

dB

Power Supply Rejection Ratio

PSRR

80

100

dB

OulpUI Vollage SwIng

±Vo

±12

±13.5

V

Rl 2: 10k

Oulpul Voltage SwIng

±Vo

±10

V

Rl 2: 2k

Common Mode Voltage

Vcm

±10

±12.B
±14

8.5

V

AC and Noise Characteristics
Limits
SR

4

6

Unit
VIps

GBW

10

14

MHz

Power Bandwidlh

PBW

50

70

Unity Gain Frequency

lunity

Parameter
Slew Rale
Gain Bandwidth Product

Symbol

Phase MargIn
TOial Harmonic Dislortion
Channel Separation

THO
CS

Min

Typ

Max

kHz

Test
Conditions
Rl =2k
Vo = 27 V pop. THO os; 1%

MHz
50

degrees

0.002
120

%

Vo = 3 V rms. 210 20 kHz

dB

1=20t020kHz

1.2

pV rms

RIAA + 30 kHz LPF

pV rms

Flat + JISA Rs = 100

Inpul Noise Voltage

en

Inpul Noise Vollage Densily

en

5.0

nV/v'Hi

1= 1 Hz

Inpul Noise Current Density

in

0.7

pA/v'Hi

1= 1 Hz

3-126

0.53

0.65

NEe
NEe Electronics Inc.
Description

IlPC4741

QUAD HIGH-PERFORMANCE
OPERATIONAL AMPLIFIER

Pin Configuration

The tlPC4741 is a quad operational amplifier designed
using four independent internally compensated highperformance 741-type operational amplifiers. The
superior AC and DC characteristics of bandwidth,
slew-rate, and noise make this device ideal for active
filter and audio amplifier applications.

Features
D Internal frequency compensation
D Output short-circuit protection
D Large common mode and differential input
voltage range
D No latch-up
D No crossover distortion
D Wide power supply range: ±2 V to ±20 V
D HA4741 direct replacement
83-002236A

Equivalent Circuit
1/4 Circuit

v+o-------4r----------------~------~--------~----~--_.

as~----------------~--_4~~------~~--r

2,6,9,13
- Input

o-----r

3,5,10,12

+ Input

o---------t-----------t-----'

Rs
1,7,8,14

+-..JV\,........+--+--+-o Output
R,

11
V-o-------~--_4--__~~--___4--------_~----+_----_4___4--~

83-0022358

3-127

II

NEe

tJPC4741
Ordering Information

Absolute Maximum Ratings
TA = 25°C
Voltage between V+ and V-

40 V

Power Dissipation C Package

570 mW

Power Dissipation 62 Package

550 mW

Differential tnput Voltage

±30 V

Input Voltage (Note I)

Part
Number

Package

Operating
Temperature
Range

ttPC4741C

Plastic DIP

0' to 70°C

ttPC474162

Plastic Minillat

0' to 70'C

±15 V
Indelinite

Output Short Circuit Duration (Note 2)

oto +70'C

Operating Temperature Range

~55to

Storage Temperature Range

+125'C

Notes: 1. Forsupply voltages less than ±15 V, the absolute maximum
input voltage is equal to the supply voltage.
2. Short-circuit to ground on one amplifier only.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
= 25°, V± = ±15 V

TA

Limits
Parameter

Symbot

Min.

Typ.

Max.

Unit

Input Offsel Voltage

ViD

1.0

5.0

mV

Input Offsel Current

liD

30

50

nA

100

300

nA

210

mW

100

dB

Input Bias Current
Large Signal Voltage Gain
Power Consumption

Ib

AVOl

88

150

Po

Common Mode Rejection Ratio

eMRR

Supply Voltage Rejection Ratio

SVRR

Output Voltage Swing

80

dB

94
90
94

Test
Conditions
RS:Sl000

RL2':2kO,VO=±10V

dB

YOM

±12

±13.7

V

RL2': 10 kO

Output Voltage Swing

YOM

±10

±12.5

V

RL 2': 2 kO

Common Mode Input Voltage

Vicm

±12

±14

V

Slew Rate

8R

1.6

Input Noise Voltage

en

9

Channel Separation

CS

108

3-128

Vips

Av = 1

nV/v'liZ 1=1 kHz
dB

1= 10 kHz

ttiEC

JlPC4741

Operating Characteristics
TA = 25°C
Large Signal Frequency Response

Open Loop Frequency Response
120

30

v-+: "'-

..........
80

..~
e

"~

60

~

""

40

20

o

,

10

V± = ±15 V

±15 V

RL::O 2 kO
CL=50pF

'00

'"

.......

'"
.

,

'00

10.

'~

"\

,M

100 k

,.

o
100

10 M

!l'"

20

]
::;

10

·
E
E

,/

......

V

/

V

/

/

~

/

20

·i'"
-~......;J
..... 0,

5.0 k

0,

0"

L---

R"

'---

v~ll

~

+

.....

100

R"

4

R,.
5.4 k

0 ..

1
GNO

y- •
83-00231BA

4-1

ttiEC

pPC311
Absolute Maximum Ratings

Ordering Information

TA = 25° C
Voltage Between V+ and V-

36 V

Part
Number

Package

Operating
Temperature
Range

Output to Negative Supply Voltage

40 V

pPC3ll C

Plastic DIP

DoC to +70° C

Ground to Negative Supply Voltage

30 V

pPC3ll G2

Plastic Minillat

DoC to +10° C

Oillerentiallnput Voltage

±30 V

Input Voltage (Note 1J

±15V

Power Dissipation. C Package

350mW

Power Dissipation. G2 Package

440mW

lOs

Output Short Circuit Duration
Operating Temperature Range. C or G2 Package
Storage Temperature Range. Cor 62 Package

Oto+10°C
-55 to +125° C

Note: 1. For supply voltages less than ±15 V. the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
TA

= 25° C. V± = ±15 V
limits

Parameter

Symbol

Min.

Test
Conditions

Typ.

Max.

Unit

2.0

7.5

mV

V+ - V- = 5 V to 30 V. Rs:s 50 kn

Input Ollset Voltage

ViO

Input Ollset Current

liD

6.0

50

nA

V+ - V- = 5 V to 30 V. Rs:s 50 kn

Input Bias Current

Ib

100

250

nA

V+ - V- = 5 Vto 30 V. Rs:S 50 kn

AVOL

106

Voltage Gain
Response Time

tRSP

200

Saturation Voltage

VSAT

0.75

Strobe ON Current

ISTB ON

3.0
50

nA

Output leakage Current

1.5

ns

Input step 100 mY. overdrive 5 mV

V

Y,N 2" 10 mY. 10 = 50 rnA

rnA

10LEAK

0.2

Positive Supply Current

Icc+

5.1

7.5

rnA

Negative Supply Current

5.0

rnA

Icc-

4.1

Input Voltage Range

Viem

±14

Saturation Voltage

VSAT

0.23

Y,N 2" 10 mY. 10 = 35 rnA

V
0.4

V

V+ 2" 4.5 V. V- = 0 V. V,N:S -10 mV.lo = B rnA

Over Operating Temperature Range
Input Ollset Voltage

Vio

10

mV

V+ - V- = 5 V to 30 V. Rs:S 50 kn. TA = 0 to 70°C

Input Ollset Current

110

70

nA

V+-V-=5Vt030V.Rs:S50kn. TA=Ot070°C

300

nA

V+ - V- = 5 Vto 30 V. Rs:S 50 kn. TA = 0 to 70°C

Input Bias Current

4-2

t-t{EC

IlPC311

Typical Applications
Offset Null

Open Collector Output
V+

V+

3k

8

>--+---oVo
7

83-002320A
83-002323A

Strobing
Emitter Follower Output

..

V+

8

......---oVo
83-002321 A

Increasing Input Stage Current

.-_-.-----0 V+

83-OO2324A

83-002322A

4-3

NEe

pPC311
Operating Characteristics
TA = 25°C
Input OHset Current

Input Bias Current
500

t---

400

1 300
~

a

!

~o

V" ~ f15V-

- --

-

.........

Pins 5, 6 and 8 Shorted

Pins 5, 6 and 8 Shorted

1

t--- r-

1.
0

10

j!!

200

---

0

!

!

Normal

100

o

o

o

20

40

--- -

r----......

V±=±15V

60

80

-

Normal

o

20

60

40

80

Ambient Temperature (0C)

Ambient Temperature (0 C)

OHset Error

Input Characteristics

100
V±=±15V

~

s

8,

Maximum

~

g

~

V

10

0

,

!

/

-

,/

1 1S0~+--i--t-4--4--+--+--~4--+-4~+--+--t-4--i

1/

J~ 125j-~~--t-i'~::+==+~j-i'-t~~~-t--r-i'~
100~+--i--t-4--i--+--+--~4--+-4~+--+--t-4--i

I

Typical

i

.~

oli

50r-+--+-1--+--r-i--+-+--+-4--+-~-+--r-+-~

voy Vii tRt It'e

1

10k

75r-~-i--t--r-i--t--t--~~-+~~~-t--t--r-i

lOOk

1M

25~+--i--+--r-i--+--+--~-r-+--r-;r-+--+--r-i

10M

-12

-8

Input Resistance (kO)

-4

12

Transfer Function

Common Mode Limits
60

-0. 5

~

~

V±~~30V

50
Reterenced to
Supply Voltages

'E

-1. 0

r

40

8,

;:;

I

16

Differential Input Voltage (V)

~

-1. 5

.

~

~

c

~

~

~

~

E +0. 4

30

I 20

0

+0. 2

Follower

Output
RL=600n

10

10

20

30

0

40

50

Ambient Temperature (OC)

4-4

"

Emitter

60

70

80

1.0

0.5

I'...

Normal Output

RL

= 1 kO

v- == 40 V

II

"} i'--.

'""

Diffe,enliallnput Voltage (mV)

0.5

1.0

,..,EC

pPC311

Operating Characteristics (Cont.)
TA = 25°C

rvt.

Response Time lor Various Input Overdrives

I

5

20 mV

4

IJ V
I

~y
,-.. j---""

5mV

3

V/

I'---

2mV

2

I

500

VIN

_

-

-

-

'/./

-L.

'" '"

0.4

0.6

\ \
~ .1
../
\

j---,2.mV'--

Vo -

//' V

1

I

Response Time lor Various Input Overdrives

5mV'--

1-

il

-

VIN

+

,

\

2mV'--

-

5..

_

Vo

I

J

J

:J.,

:J.,

:J.,

_

-

I I I I I I·j.. II i,:[ I I I I I IJJ
o

0.2

0

0.2

Time (us)

Response Time lor Various Input Overdrives

&

5

5

•

5mV
2mV

5
-1

•
r •
1 •

/

711

11

r1-

V

j

:

~

/

:

t

-

'i'V+

i

~+

-

_

III v
'6/

•

-1 5

>
E-o

I

20mV

,

,

V-

Vo

b

2.

,

~

'j::

_

15

>

.!

f

\

,---,

..

-15

,

\, \

-

-

~

V-

,

:j::

Vo-

2.0

,

-

:j::

:\:

5.
V± = ±5 V

t

Time {tIs)

Output Limiting Characteristics

Output Saturation Voltage

•. 7

14 •

• ,8
•. 7

•. 6

~
0.4

./

3

,,/

/'

.....

l,...""'"

V

v

,..-

2.

3.

Output Current (rnA)

..

{\

,

! /I '\.2 ~ ~
-........
~
.~,

•. 2

1.

.......-

12.

:c

l/
.., /
••

:l 11

-

+

r-----20mv~ IL\ ~

Time (.us)

I.

V'N

I'.

S

V± = =5 V

~ 0.5

..

~-

,1\ "-

-1. !--2Imv~

-

~

-10

,.

I
-5 !--5 mv/

-5

~

0.6

Response Time for Various Input Overdrives
~

•

0.4

Time (us)

4•

5.

~a,;on-

•. 6

•. 5

8.

..4

6.

•. 3

V
& I
//
•V

r-

Short Circuit
Current

4.

•. 2

2.

•. 1

•

,.

15

•

Output Voltage (V)

4-5

!c

~

:ic

!

t-fEC

pPC311
Operating Characteristics (Cont.)
TA = 25°C
Supply Currenl

Supply C!.!!'!'ent

--------

Positive Supply
-OutPul~

/

10

v±=1±15V

----

~

/' ~nd
Negalive Supply
OUIPUIHir

o

o

10

15

20

I

25

30

Leakage Currenl.
10-8

OU'~'

10-'

I
f

10-10

...I

Vo=40V

--

~

,~

10-1

25

35

---

15 V

-- I

V±=±15V
45

55

Ambient Temperature (OC)

4-6

-

Input
V,N

Posillve Supply
Output Low

I
Positive and
Negative Supply

OU'PU'119 h
o

o

10

20

30

40

SO

Ambient Temperature (OC)

Supply Voltage (V)

g

r--

65

75

60

t-----70

I

80

NEe
NEe Electronics Inc.

jlPC319
DUAL HIGH·SPEED
VOLTAGE COMPARATOR

Pin Configuration

Description
The tlPC319 is a precIsion high-speed comparator
designed to operate from single or split power supplies
from +5 V to ±15 V. It features excellent input characteristics and drive compatibilities to all popular logic
families. The tlPC319 is designed for commercial
temperature ranges.

Features
D
D
D
D
D
D

Operates from single 5 V supply
Typically 80 ns response time at ±15 V
Open collector output
Minimum fan-out of two each side (TTL)
High common mode slew rate
LM319 direct replacement
83-002341A

Equivalent Circuit

112 Circuit

II

11

.,

R,

.,

R,
R,

V

V

"-

va,
,...,.

r-... a,
Va,

Va,

5,10

V

""-

-I nput

,9

a,

"'"

""-

=:= c,

"r-..'
a
R,

a,

a,

R,

R"

~

R"

R"

+1 nput

42

R,

Va"

""-

a,

R,

R"

Note:
Pins 1,2,13,14
No Connection

,..

a,,"'-

.......

R25

R"

R"

R23

-

a" .........

R20

a20

>-0,,>-

~

R"

~a"
R"

0"

R"
7,1

o,',/'

42

a,,)1--

11""

O"r

a"

~,'

R"

a"r

R"

Quip ut

R"
8
GN o

6

v83-0Q2340A

4-7

ttlEC

pPC319
Absolute Maximum Ratings

Ordering Information

TA = 25°C

Temperature
Range

Voltage Between V+ and V-

36 V

Part
Number

Output in Negative Supply Voltage

36'1

JlPC319C

Plastic DIP

25 V

JlPC319G2

Plastic Minillat

Ground to Negative Supply Voltage
Ground to Positive Supply Voltage

18 V

Oifferentiallnput Voltage

±5 V

Input Voltage [Note 1)

Package

O'C to +70'C

±15 V

Power Dissipation. C Package

500mW

Power Dissipation. G2 Package

550 mW
10 s

Output Short Circuit Duration

oto +70'C

Operating Temperature Range. Cor G2 Package
Storage Temperature Range. Cor G2 Package

-55 to +125'C

Nole: 1. For supply voltages less than ±15 V. the absolute maximum
input voltage is equal to the supply voltage.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
TA =25°C. V± = ±15 V
Limits
Parameter
Input Offset Voltage

Symbol

Min.

Typ.

Max.

Unit

Test
Conditions

Vio

2.0

8.0

mV

Input Offset Current

liD

BO

200

nA

Input Bias Current

Ib

400

1000

nA

Voltage Gain

AVOL

Response Time

tRSP

80

ns

Input 100 mV. overdrive 5 mV

Saturation Voltage

VSAT

0.75

1.5

V

VI :S -10 mV.lo = 25 rnA

Output Leakage Current

10LEAK

0.2

10

JlA

VI?10mV.lo=35mA

Positive Supply Current

Icc+

4.3

rnA

V+ = +5 V. V- = 0 V

Positive Supply Current

Icc+

8.0

12.5

rnA

V±=±15V

Positive Supply Current

Icc+

3.0

5.0

rnA

V±=±5V

Vlcm

±13

V

V±=±15V

0.4

V

V+? 4.5 V. V- = O.V. VI:S -10 mV. 10 = 3.2 rnA

Input Voltage Range
Saturation Voltage

VSAT
Over Operating Temperature Range

78

92

0.23

V± = ±5 Vto ± 15 V. Rs :S 500

dB

Input Offset Voltage

Vio

10

mV

Input Offset Current

liD

300

nA

V± = ±5 Vto ±15 V. Rs:S 5 kO. TA = 0 to +70'C

Input Bias Current

Ib

1200

nA

V± = ±5 V to ±15 V. Rs:S 5 kO. TA = 0 to +70'C

4-8

V± = ±5 V to ±15 V. Rs:S 5 kO. TA = 0 to +70'C

t\'EC

pPC319

Typical Applications
Split Supplies

Single Supply
V+ (<; 18 V)

V+ (<; 18 V)

VRL (<; 36 V + V-)

VRL (<; 36 V)

Vo

Vo

V- (:0- -25 V)

V- (:0--25 V)
83-002343A

83-002342A

Operating Characteristics
TA = 25°C
I nput Currents

Input Characteristics
1000

500

400

;;£

i

-------

800

Ib

..

Ib_

Ibl

V±=±15V

r--....

\/

C 600

£

~

300

a
!
}

.

0

iii 200

~

400
200

J~

100
-200

',0

-400

--20

20

40

60

80
DIHerentiallnpul Voltage (V)

Ambient Temperature (0C)

Transfer Function

Common Mode Limits
20

a
~
:::;

i:.

,,:,-"~1

5v
E
E

<3

1=""1

'1

VT - 2

-20

20

40

Ambient Temperature (OC)

I
60

Vi"=±15V
RL=1.4kO

15

a

/

8.

::g

~

10

II

l
;3

J!

80

v.:.=15V

-1.0

-0.6

-0.2

//

Vv:L=5V

+0.2

+0.6

-t1.0

Difte,entiallnput Voltage (V)

4-9

tttfEC

pPC319
Operating Characteristics (Cont.)
TA = 25°C
Response Time lor Various Input Overdrives

61

.

5

\ \ I'\.
2+~ \ "-

2

V\

1
0

~

"

5mV
:!-

-

=

..

~

5

1
0

200

i

300

.

€

//

100

V± - ±15 V
VRL_=+SV_

,L- 5007

~
~

I

100

Response Time lor Various Input Overdrives

:~:::~::~:;:===~===~====~==~'J-±~--±1-5T!V'---'
____
f---+-'+1~'\.--"H--+---+--~~~~~:ri_

6
5

3

3

\

1 t--201~
0l,

~

01

f'"f

2 mV--+--+---+--j

IY-

\

·1"

1/7 ~5~V

'If-- ~

2

\-~

/) /

1
o

I'.

100

200

'P

20

/

V

0.2

100

300

Output Limiting Characteristics

/

/
J /
"
/
j

"E-

80

u

60

~
c:;

V±=±15V
Input OVerjrlVe

0.6

1.2

100

J

Output Voltage (V)

4-10

300

200

120

= 5 mY

40

20
0.4

P

0

Output Saturation Voltage

.......

P

Time (ns)

25

/

,

P

V+=±15V
VR1.=+SVRL=500n

Time (ns)

/
V

2Lv

D-

J-

I I I I I I I II
o

20m:t.../j" V

4

4

\

300

200
Time (ns)

Response Time lor Various Input Overdrives

\ \

I

I

/ V/T
1/ 1/-----12 mV
/ !/7 r--- 5~V
II /

Time (ns)

2

i

i

1

-----

"-

100

I
_20~V

2mV

I I I J I I I II
o

I

I

VRL +5 V
RL=5000

'\ I\"\.

3

-

Response Time lor Various Input Overdrives

-

0.8

1.0

1/

'"....--- - -- i
1.0

_

~hort Circuit
Current

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

0.8

~

./

-

0.6
0.4

Power Dissipation

0.2

j/
5.0

10
Output Voltage (V)

15

~

o

..~°

ttiEC

J.lPC319

Operating Characteristics (Cont.)
TA = 25°C
Supply Current

Supply Current

0

/~

8. 0

0

2.0

10

.,/'

/"

V

-

V
±5

I

V
....... lcC+

I

Icc-

-

~

V±=±15V

ICC+

l-

ICC-

I~

±10

~

_I-

20

±20

±15

Supply Voltage (V)

40

60

80

Ambient Temperature (ee)

Supply Voltage Range

4or------------,,------------.--=---------,
~

VRlRange

~

V+Range

II
~

L--------------~,-0--------------~20-------------3~0 g
Negative Supply Voltage (V)

4-11

pPC319

4-12

t-IEC

NEe
NEe Electronics Inc.

jJPC339
QUAD LOW-POWER
VOLTAGE COMPARATOR

Pin Configuration

Description
The tJPC339 is a quad comparator designed to operate
from a single or split powersupply over a wide range of
voltages, with very low current consumption. Even
when operating from a single power supply the input
common mode voltage includes ground.

1----,r - - - - ; t 4 t

OutputC

Features
D Input common-mode voltage range includes ground
D Wide power supply range:
Single supply 2 V to 36 V DC
Duai supplies ±1 V to ±18 V DC
D Low power consumption
D Compatible with all forms of logic
D Open collector output
D LM339 direct replacement
83-002310A

Ordering Information
Part
Number

Package

Operating
Temperature
Range

IlPC339C
IlPC339G2

Plastic DIP
Plastic Mlnlflal

DOC to +70°C
DoC 10 +70°C

II

Equivalent Circuit
114 Circuit

+ Input

- Input

Output

0------+----+-------'

83-0023098

4-13

NEe

IlPC339
Absolute Maximum Ratings
TA

= 25°.c

Voltage Belween V+ and V-

36 V

3lP!

Differentialtnput Voltage

-0.3 to +36 V

Common Mode Input Voltage
Power Oissipation. CPackage

570 mW

Power Dissipation. G2 Package

550 mW

Output Short Clrcuilto Ground

Indefinile

Operating Temperature Range. Cor G2 Package
Storage Temperature Range. Cor G2 Package

-55 to +125°C

Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
TA

= 25°.c. V+ = 5 V

limits
Parameter

Symbol

Min.

Typ.

Max.

Test
Conditions

Unit

Input Offset Voltage

Vio

mV

Vo = 1.4 V. VREF = 1.4 V. RS = 0 0

Input Bias Current

Ib

25

250

nA

Vo = 1.4 V

Input Offset Current

liD

5

50

nA

Vo = 1.4 V

V+ -1.5

V

2

mA

Rl =

dB

Rl = 15 kO

o

Common Mode Input Voltage Range Vicm
Supply Currenl
Icc
Voltage Gain

AVOl

large Signal Response Time

tRSP

Output Sink Current

IOSINK

0.8
106
6

00

1.3

I'S

Rl 5.1 kO. VRl = 5 V

16

mA

VIN(-) = 1 v. VINI+) = 0 V. VO:O; 1.5 V

Saturation Voltage

VSAT

0.2

Output leakage Current

IUlEAK

0.1

0.4

V

VINI-) = 1 v. VINI+) = 0 V. IOSINK = 3 mA

nA

VINI+) = 1 v. VINI-) = 0 V. Vo = 5 V

Typical Applications
V+
V+

Output
VIN

1.2
13.14

0------1
Output

1.2
13.14

R,

VHYS

VREF = 0 to V+ -l.SV

VREF
83-002311A

4-14

=( _R_1_)
V+
R1 + R2

= 0 to V+ -

1.SV
83-002312A

t\'EC

pPC339

Operating Characteristics
TA = 25°C
Supply Current

Input Bias Current
50

RL=OC
1.2

1

1,0

~

/'

.?~ 0.8

'"
0.6

------- ---~

C

o

~

--

/"
./

'D

'T.:'"~ooc

1
~

~25°C

..

0

3D

ID

!,!;;.l0oe

!

f.,----

20

II-_~______~--~T~A~7~0~OC~~::::::::~::=-~--~ ~
lD

10

20

30

L -_ _ _ _ _ _

~

______

10

0

~

_ _ _ _ _ _ _ _L -_ _ _ _ _ _

20

Supply Voltage (V)

30

. .".

Response Time for Various Input Overdrives

~

,...

20mV

f

~

-~¥
vo-

11

,
s
c5

j
0.1

I

'0

Supply Voltage (V)

Output Saturation Voltage

11

~~

.s>
j

~

0.01

~

g
100
Output Sink Current (rnA)

I

100mV

-

\.
TA

= 25°C

-50

11

!

r--

__

-100

I
I
0.5

1.0

1.5

2.0

Time(ps)

Response Time for Various Input Overdrives
100 mV Input Overdrive

[

'I

1

>

/ I
I 20mv/
'/ I
i/
J

/
5mv/

I~-=

!J

.s 100

VIN

11

!

5.1 k

Vo

+

&

~

_

-

50

TA = 25°C

0.5

1.0

1.5

2.0

Time (.us)

4-15

II

J,lPC339

4-16

fttfEC

NEe
NEe Electronics Inc.

pPC393
DUAL LOW-POWER
VOLTAGE COMPARATOR

Pin Configuration

Description
The pPC393 is a dual comparator designed to operate
from either single or split power supplies from + 2 V to
±18 V. It features low power supply current drain and
input common mode voltage which includes ground,
even when operated from a single supply. ThepPC393
is designed for Commercial temperature ranges.

Features

o

o
o

o
o

o

Input common-mode voltage range includes ground
Wide power supply range:
Single supply 2 V to 36 V DC
Dual supplies ±1 V to ±18 V DC
Low power consumption
Compatible with all forms of logic
Open collector output
LM393 direct replacement

J,lPC393CI pPC393G2

S3-002359A

..

Equivalent Circuit
112 Circuit
v+

Output

Input

0::------+----+------'

83-0023588

4-17

NEe

JiPC393
Ordering Information

Absolute Maximum Ratings
TA = 25°C
Voltage Belween V+ and V-

36 V

DiHerenlial Input Voltage

36 V
-0.3 to +36 V

Common Mode Input Voltage
Power Dissipation. C Package

Part
Number

Package

pPC393C

Plastic DIP

pPC393G2

Plastic Miniflat

Operating
Temperature
Range
DOC to HO°C

350 mW

Power Dissipation. G2 Package

440 mW

Output Short Circuit to Ground

Indefinite

oto +70°C

Operating Temperature Range. Cor G2 Package
Storage Temperature Range. Cor G2 Package

-55 to +125°C

Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress

rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
TA=25°C.V+=5V
Limits
Parameter

Symbol

Min.

Typ.

Max.

Unit

Test
Conditions

Input Offset Voltage

Vi.

2

5

mV

Vo = 1.4 V. VREF = 1.4 V. Rs =

Input Bias Current

Ib

25

250

nA

Vo = 1.4 V

50

nA

Vo = 1.4 V

Input Offset Current

Ii.
Common Mode Input Voltage Range Vlcm
Supply Current
Icc

on

0
0.6

mA

RL=oo

Voltage Gain

AVOL

106

dB

RL = 15 kn

Large Signal Response Time

tRLS

1.3
mA

-INPUT = 1 V. + INPUT = 0 V. Vo ~ 1.5 V

Output Sink Current

IOSINK

16

Saturation Voltage

VSAT

0.2

Output Leakage Current

IOLEAK

0.1

0.4

V
nA

- INPUT = 1 V. + INPUT = 0 V. IOSINK = 3 mA
+ INPUT = 1 V. - INPUT = 0 V. Vo ~ 5 V

Typical Applications
v+

V+

Output
1.7

t---t-'V\f'y-.......--Q Outpul
1.7

VREF

= 0 to V+ -

1.5 V
83-002360A

VREF

= 0 10 V+ -1.5 V
83-002361 A

4-18

NEe

pPC393

Operating Characteristics
TA = 25°C
Supply Current

Input Bias Current
50

RL=OO
1.0

"oS

0.8

I
()

~

~

0.6

~

0.4

/./

----

.......-............
.,..,

/'
~

~

40

_~TA~25oe

~

~TA=70°C

iii

~

~

()

30

TA = 25°C

'5

r
30

40

TA

~

-

2.

~

20

10

TA = O°C

TA = Dec

10

Supply Voltage (V)

Output Saturation Voltage

we

~

~
~

•

10

20

40

30

Supply Voltage (V)

Response Time lor Various Input Overdrives

10

~

~

&

f

~

0

~

20mV

100mV

~

I

&

~

§

~

!

VIN

_

5.1k
-

+

r-

-

-

\.

,.oS

~

;~'"~~~
Vo

'5

l!!

f-h.

TA = 25°C
-50
-100

~

100
Output Sink Current (rnA)

0.5

1.0

1.5

2.0

Time{tls)

Response Time lor Various Input Overdrives
100 mV Input Overdrive

y
I I
I 20mv/

1

,.g

f
~

I

I
I

'7~

I

J

II

J

VIN

_

5.1 k

Vo

100

+

-

50

TA= 25°C

.E

0.5

1.0

1.5

2.0

Time cps)

4-19

pPC393

4-20

r-rEC

NEe

DEFINITION OF TERMS

Input Offset Voltage: The voltage between the input
terminals when the output is within a specified voltage
range.

Input Voltage Range: The range of common mode
voltage at the input terminals within which operating
specifications are assured.

Input Bias Current: The bias current of the input
transistors.

Output Leakage Current: The current into the output
terminal, at a given output voltage and input drive,
equal to or greater than a specified value.

Input Offset Current: The difference in current in the
two input terminals when the output is at a specified
voltage.

Output Sink Current: The maximun negative current
that can be output by the comparator.

Voltage Gain: The ratio of the change in output voltage
to the change in input voltage.

Saturation Voltage: The low output voltage level at a
specified current "sink" level.

Common Mode Rejection Ratio [CMRR]: The ratio of
the input voltage range to the maximum change in
input voltage over this range.

Overdrive: The input step voltage required, at some
predetermined input level, to change the output state
to high or low from its initial state.

Supply Voltage Rejection Ratio [SVRR]: The ratio of
change in input offset voltage to the change in supply
voltage.

..

4-21

DEFINITION OF TERMS

4-22

t-IEC

ftlEC

VOLTAGE REGULATORS

5-A

II

VOLTAGE REGULATORS

ttiEC

Section 5 - Voltage Regulators
tJPC305 Precision Positive Voltage Regulator ........................................ 5-1
tJPC317 Three-Terminal Adjustable Positive Voltage Regulator ........................ 5-5
tJPC337 Three-Terminal Adjustable Negative Voltage Regulator ....................... 5-9
tJPC2600 Series Three-Terminal Positive Voltage Regulator ......................... 5-13
tJPC78LOOH Series Three-Terminal 0.1 A Positive Voltage Regulators ................ 5-17
tJPC78LOOJ Series Three-Terminal 0.1 A Positive Voltage Regulators. .... . . . .. ... . . .. 5-23
tJPC78MOO Series Three-Terminal 0.5 A Positive Voltage Regulators ................. 5-29
tJPC7800 Series Three-Terminal 1.0 A Positive Voltage Regulators ................... 5-35
tJPC79LOO Series Three-Terminal 0.1 A Negative Voltage Regulators ................. 5-41
tJPC79MOO Series Three-Terminal 0.5 A Negative Voltage Regulators ................ 5-45
tJPC7900 Series Three-Terminal 1.0A Negative Voltage Regulators .................. 5-51

5-8

t-iEC

jlPC305
PRECISION POSITIVE
VOLTAGE REGULATOR

NEe Electronics Inc.
Description

Pin Configuration

ThejlPC305 is a precision adjustable voltage regulator
designed for a wide range of applications including
digital and analog circuits. This device features fast
response to both line and load transients, low standby
power dissipation, and freedom from oscillation with
variation in resistive or inductive loading. This device is
ideal for use in general purpose power supply circuits.

Current Limit [

1

Booster Output [

2

Unregulated Input C 3
GND [

\..J
jJPC305C

B
7
6

4

5

P
P
P

Regulated Output

COMP/S.D.

Feedback

P

Reference Bypass
83-002478A

Features

o

o

o
o

o

Output voltage adjustable from 4.5 V to 30 V
Output currents in excess of 10 A possible by adding external transistors
Load regulation better than 0.1%full load with current
limiting
DC line regulation guaranteed at 0.03%1V
LM305 direct replacement

Equivalent Circuit
Unregulated
Input

2.8 k

600

R,

,----1-------t"' 012

'----+----+---------.,---1;:..0,.
>---1: 013
!----1.

1.86 k

0"

a"

Booster
Output

R8

1.32 k

t-----+--[,

+----1::
05

R,

0,

0,

Current Limit

Regulated
Output
4.4

R6

D,
Compensation!
Shut Down

6.8 k

R3

Feedback

Reference
Bypass
2.2 k

Rs

Ground

83-002477A

5-1

t-IEC

pPC305
Absolute Maximum Ratings

Ordering Information

TA = 25°C
Input Voltage

40 V
40 V

Peak Output Current

Part
Number

Package

Operating
Temperature
Range

pPC305C

Plasllc DIP

oto +70°C

50 mA

Power Dissipation

350 mW

oto +70°C

Opanting Tempentun Ranga

.

Stonge Temperature Ranga

-55 to +125°C

Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
LimHs
Parameter

Symbol

Min.

Typ.

Max.

Input Voilige Ranga

VIN

8.0

40

v

Output Voltage Range

Vo

4.5

30

v

Inpul Output Voltage DIHanntial
load Regulation
Lln~

Regulation

3.0

v

= 18 n
.........................................................................................
0.02

0.05

%

REGIN

0.025

0.06

%/V

VIN - Vo ,,; 5 V

0.015

0.03

%/V

VIN - Vo > 5 V

0.003

Temperature Stability
Feedback sense voltage

1.65

%/V

0.3

1.0

%

1.8

1.90

V

CHEF = 10 pF. f = 120 Hz
DOC :5 TA :5 70°C

....................O:~~~ ............. ~.....1.0. ~~ ~! ~ .I~.~~z: ~~W~.~ ...................... .
0.002

%

long Term Slibility

0.1

%

Standby Current Drain

1.0

CREF: Bypass capaCitor of pin 5.
RSC: Output current sense resistor.

5-2

0 :510:5 12 mAo RSC

REGl

Ripple Rejection

Standby Current Drain

30

Test
Conditions

Unit

2.0

CHEF = 0.1 pF

t-iEC

pPC305

Operating Characteristics
TA = 25°C
Load Regulation

-

r"""'IIIIo
~

g

I.
i

-0.01

Load Regulation

~

t"-

o"d

-20°C

- -r--

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

-0.02

""

;;

%
0

TA

-0.03

~ -0.02

'\

c
0

:;

~

\

-0.04

11,
f!

~ -0.06

0

-0.08 -

Rse = 130 -

I

I----O~C/
201oC~

~

'"

lL\\
V\

/

~

/"

,

I

~

\

\ \
\ \

20

10

15

10

.......

/

TA=2SloC/

-0.1

o

\

80"C./

~

Rsc=O

-0.04

-

r-- r-- .......

80°C

V
~ ~ KA

Load Current (rnA)

3.2
1.0
. . / T~=25"C/ ' VI
,.- ./°tC-r--

~

/·20"C

g

2.6

J

2.4

'\

8b"c.t

./

~

;; 0.6

%
0

.

~ 0.4

~

R1/R2

\.

3.0

j

2.8

"\

.......

Rl = 1.11 X Vo (0)

2.2

r-Rsc

113 n

o

10

20

30

40

2.0

50

-

"\

............
0.2

~ 2 kO

1\

a:

o

40

Optimum Divider Resistance Values

Current Limiting Characteristic

~ 0.8

I

\
30

Load Current (rnA)

10

5

Output Current (mA)

~

-

20

50

Output Voltage (V)

Supply Voltage Rejection

Current Limit, Sense Voltage
0.6

0.1
Vo

10 V

TA - 25°C

.

~ 0.5
<>

f!

,g

i

'"'§

0.4

F-

:J
C

~

0.3

(J

-- -----

,.

£g
~

l

r--

11,
f!
~

0.05

.
t"-...

0.02

.=-

0.01

-

0.005

0.002

0.2 0

20

40

60

Junction Temperature (0C)

80

........

CREF

CREF

==
0

10~F

f::::: 120 Hz

--,

0.001
1

10

20

50

Input/Output Voltage Differential (V)

5-3

NEe

pPC305
Operating Characteristics (Cont)
TA = 25°C
Transient Response
4or------,------,------,r------r---.R~s~CC7.,0~0~--'

~----_+------1_----_1~----_+--~VIN~SV----

--~+---_

1\

line

1

Vo

10 V

~.:C -40~----_t------1_----~------_+------+_----_;
Rsc="100

.t
~

I----f-CL = 0 --f------+---Full Lc ld Current - 20 rnA -

No Load Current =- 1.0 rnA
400 ~ _____ CL = 111F 1_--------jr-----'----'-;'---'-'---''--_t'_'
1.-"""---_1

~

~----_+------1_----_1~----_+--- Vo = 10 V -

o

1\, __ _

Load

~--~~--·----~-I------~---+--~--~I
-400~O------~----~,0------J-------2~O------~-----J30
TimeC/ls)

Applications
5 V -- 15 mA Regulator

10 V -- 200 mA Regulator

130

1.3

n 0.5 W

T

288505

T
R13.,.
C

VIN 2':: 13 V

'

C'3.3 PF

o-4.....,--{!1

Rl2.4S •
83-002486A

83-002487A

1 A Regulator

15 V -- 1 A Foldback Current Limit

r--------------------r------.....,.-o VIN
1.302W

VIN 2:: 19 V O--4-......--+--~Hl.I

R,
1.S02W
L---------------------~

83-002488A

NEG cannot assume any responsibility for any circuits shown or
represent that they are free from patent infringement.

5-4

____-o
J,

L~d

83..()(l2489A

t-IEC

pPC317
THREE-TERMINAL ADJUSTABLE
POSITIVE VOLTAGE REGULATOR

NEe Electronics Inc.

Pin Configuration

Description
The IlPC317 is an adjustable three-terminal positive voltage regulator capable of supplying in excess of 1.5 A
over a 1.3 V to 30 V output voltage range.
Output voltage can be fixed by two external resistors.

Features

D Output current up to 1.5 A
D Current limit constant with temperature

1 3 2

It\
Adj. Output Input

D Internal thermal overload protection
D Equivalent to LM317

83-002523A

Ordering Information
Part
Number

Package

Operating
Temperature
Range

pPC317H

3 pin SIP

-20°C 10 +80°C

Equivalent Circuit
Input

R27

R1

R2

R3

R.

-K

::J

02.....

RS

01O

~

~

Q18

~

Q13>-

Q18;:t---

R18

R2

-K
OS-K 07

C1

R1.

C2

R10

R11

R12

R13

,.

01.

.r

~ Q11 Q12;:t-

R21

R20

017'

08

R1'

L.t::;:02S

f--

021

R8

03)t--K0 '

R8

......

R17

SpF

r""'I

01

~~D

V 023

Q20

01S......

'*

II

C3=~

R6
R7

bn;

&'
,,01'

&,0.&'08

k

f-

l~D

H:::026
~

'--

~

R22

RM

R2.
R2S

Output
Adj
83·0019548

5-5

~EC

pPC317

Recommended Operating Conditions

Absolute Maximum Ratings
TA=+25°C
'
Input-Output Voltagl Ollfarentlal
hitiiiii;1 PaWBi DiHip.UGn (NGte 1)
Oplrallng Templrature Range
Storagl Tamparlture Ranga
leld Temperature (Soldering. IDs)
Tharmal Reslstlnciliunclion to c..e)
Tbarmal ReslSllncl (juncllon to Imbllnt)

40 V
2DW

-20°C tD +150°C
-65°C tD +150°C
300°C
4°C/W
B3°C/W

Note: 1. Internally limited.
Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage tothe device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Limits
Symbol Min. Typ. Max.

Parameter
input-Oulput
Voltaga
Dllllrintial
Output
Voltage

VIN - Vo

3

38.7

V

Vo

1.3

3D

V

Input Voltlge

VIN

4.3

40

V

Output
Current
Operallng
Temperature
Range

10

0.01

1.5

A

TJ

-20

+125

°C

Unit

Test
Conditions

Electrical Characteristics
(VIN - Vo

== 5 V, 10 = 0.5 A, O°C ~ TJ ~ +125°C)

Parameter

Symbot

Min.

Limits
Typ.

Max.

TBst
Conditions

Unit

Line Regulallon (NOla I)

REGIN

...•..•.. ~:O........O:~~ .... ~~~ •••~A. ':". ~~~~'. ~.~ ~ !~I~. -:-. ~~). ~ ~~.~ ..............•••
0.02
0.07
%/V O°C:5 TJ:5 +125°C. 3 V:5 (VIN - VO):5 40 V

load Regulation (NOlI I)

REGl

..........~.~ .••.•. ~ •.5••..• ~. ~9 ...~~:=: ~.~ ~J. ~.~~o.C: .. ~.~~ ~ ~0.:S. ~.~ .A..•.•.••.••••••
20
70
mV
V0:55V. 0°C,,;TJ,,;+125°C.10mA,,;lo,,;1.5A

.••••••••. ~•.•..••

Thermal RagullllDn
Adluatmant Pin Currlnt
Adjustment Pin Current Chlnge
Relarenea Voltagl
VREF Drill
lDI~ Current
Peak Output Currant

REGTH
IAOJ
bolAOJ
VREF
boVREFI boT

1.20

4.7

VN

Rlppla RllactlDn Rilio

RR

1.5
0.07
100
5
1.30

10

%VO
%/W
pA

VO~5V. 0°C,,;TJ,,;+125°C.IOmA,,;lo,,;1.5A
TJ = 25°C. 0.2 ma:5t :5 20 ma

V

10 mA,,; 10 ,,; 1.5 A. 3 V,,; (VIN-Vol ,,; 40 V. Po ,,; 20 W

%

DO C:5 TJ:5 +125°C

mA

(VIN - Vol = 40 V

_... :~ •••••~.~ •••••• ~.~•••••••A•••••~ ~.~.(~!~.-:- .V.O) .~. ~~ ~ ••••••••...•.....••..•..•..

0.15
Output Nol.. Voltage

..

0.7

10
10PEAK

0.3
0.02
50
0.4
1.25

~~ ...... ~~ ....~~ ~ ~.~ .• ~J. ~.~~0.c: .l~.~~ ~ ~o. ~.l:~ .A.............. .

O.B
0.001

(VIN - VO):5 40 V

(~~2) TJ = 25°C. 10 Hz:51 :510 kHz

.......... ~~ .............. ~~ .... ~~~J. ~ ~: Y~.=: !~.v:! ~ !~~ ~~'. ~~I~.=: .l.~ ~~.s
56
65
dB
CAOJ = 10 pF. 10 V. f = 120 Hz. llVIN = 1 VRMS

Not.: 1. Measured at constant junction temperature. using pulse testing with a low duty cycle. PW = 10 ms. duty cycle"; 2%.

5-6

........ .

ttlEC

pPC317

Typical Applications
Output

Input

R,
C'N

O.1,uF

+

Co
1pF

R,

Vo = [1

R,
JXVREF
R,

+-

83-00195SA

5-7

pPC317

5-8

t-IEC

NEe
NEe Electronics Inc.

JlPC337
THREE-TERMINAL ADJUSTABLE
NEGATIVE VOLTAGE REGULATOR

PRELIMINARY INFORMATION
Description

Pin Configuration

The tlPC337 is an adjustable three terminal negative
voltage regulator capable of supplying up to 1.5A over
a voltage range of -1.3 to -30 V. Output voltage is set
by only two external resistors.

r--------------------------------,
___
0 )
NEe

Features
D
D
D
D

pPC337

Output current up to 1.5A
Current limit constant with temperature
Internal thermal overload protection
Output transistor safe area protection

Ordering Information

,nput

J

/1'"

ADJ

Input

Output
83-003110A

Part
Number

Package

Operating
Temperature
Range

I'PC337H

TO-220

-20°C to +85°C

Block Diagram
r - - - - -.........------------~-------.........-~

Input

'--------t---+.---------------------.+---<>

Output

'-------------------------------<>

Ad)
83-o03111A

5-9

t-IEC

pPC337
Absolute Maximum Ratings
(TA

Recommended Operating Conditions

= 25°e)

Limits

Input Output Voltage Diflerential

-40 V

Total Power DissIpation

25 W (Note 1)

Operating Temperature Range

Parameter

S,mbol

Input Output Voltage Differential

Min. Typ. Max.

VIN'VO

-3

-5 -38.7

Uni.

V

-20 to +85°C

Input Voltage

VIN

-4.3

-40

V

Operating Junction Temperature

-20 to +150°C

Output Voltage

Vo

-1.3

-30

V

Storage Temperature

-65 to +150°C

Output Current

10

0.01

1.5

A

Operating Junction Temperature

TJ

-20

125

°C

Junction to Case Thermal Resistance

4°C/W

Junction to Ambient Thermal Resistance

83°CIW

Note: (1) Thermal overload protection circuit shuts off the output
whenever TJ ?: 150°C.
Comment: Stresses above those listed under "'Absolute Maximum
Rati ngs"' may cause permanent damage to the device. Th is is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics
V,WVO = -5 V, 10 = 0.5 A, ooe::; T j

::;

+ 125°e
Limits

Parameter

Symbol

Min.

Max.

Unit

0.01

0.04

%/V

TJ = 25°C. 3 V;;; IVIN·VOI ;;; 40 V
(Note I)

0.02

0.07

%/V

O°C;;; TJ oS 125°C. 3 V oS IV,N' Vol oS 40 V

15

50

mV

TJ = 25°C. (Note 1)

0.3

1.0

%

10mAoSIOoSI.5A

IVOI ?:5V

20

70

mV

ooS TJ oS 125°C (Note 1)

IVO'oS5V

0.3

1.5

%

10mAoS1OoS1.5A

IVOI ?:5V

line Regulation

load Regulation

Thermal Regulation
Adjustment Pin Current

REGL

REGTH
'AOJ

Adjustment Pin Current Change

l!.IAOJ

Reference Voltage

VREF

-1.20

Test
Conditions

Typ.

0.003

0.04

%/W

65

100

/lA

5

/lA

-1.30

V

-1.25

IVOI oS5 V

TJ = 25°C.IVIN·VIi = 40 V, Vo = -10 V.
oS 10 oS 0.25A. t = 10 ns

o

TJ = 25°C. 3 V oSIV,N'VO' oS 40 V.
lOrnA oS 10 oS 1.5A (Note 2)
3 V oS IVIN'Vo' oS 40 V. 10 rnA oS 10 oS 1.5A
(Note 2)

l!.VREF/l!. T

0.6

%

O°C oS TJ oS 125°C. 10 = 5 rnA

Minimum load Current

10 Min

2.5

10

rnA

IVIN'Vo' = 40 V

Peak Output Current

1.5

2.2

2.9

A

3 V oSIV,N'Vol oS 15 V

'OPEAK

0.15

0.4

A

IVIN'Vo' = 40 V

0.003

%

TJ = 25°C. 10 Hz oS f oS 10 kHz

60

dB

TJ = 25°C.l!.Vo = 1 Vrms

70

dB

f = 120 Hz. Vo = 10 V

VREF Drift

Output Noise Voltage
Ripple Rejection

en
RR

66

Note: 1. Pulse Measurement Pw = 10 ms. duty cycle;;; 2%.
2. Internal Power Dissipation;;; 20 W.

5-10

CAOJ = 0
CAOJ = 10 /IF

NEe

pPC337

Typical Connection
f-o--..,....-..,....-o

+

Vo

C'N
O.1pF

VO=[1+~].Vref
R1

83-003112A

Typical Applications
1. Variable Output Regulator
Va = -1.3 V to -30 V
Input
(-4.3 V to -40.0 V)
Output

R2 Value

-1.25

0
120
360
1032
2184
2760

-2.5
-5.0
-12
-24
-30

I
I

pPC337H

ADJ

:

I Output
I

Vo
R1
120n

C'N
0.1 p,F

: ; Co
_ 1pf

'"

~R2

II

I
83-00311SA

2. Ripple ReJection Improvement
Input

f-o--""--""--"""1""--o

Vo

- Co
111f

+

83-003114A

3. Current Regulator

10
Operating Range
R1S12S0
IO~10mA

83-003115A

5-11

pPC337

5-12

t-{EC

t-IEC

JlPC2600 SERIES
THREE-TERMINAL
POSITIVE VOLTAGE REGULATORS

NEe Electronics Inc.

PRELIMINARY INFORMATION
Pin Configuration

Description
The pPC2600 series are monolithic three terminal
positive regulators which employ protection circuits
against the dangerous overvoltages always present on
the battery rail of the car. They are intended as fixedvoltage regulators for car instrumentation in vehicles
with 12 V battery and can supply an output current up
to 500 mA.

Features
D
D
D
D
D
D
D
D

1 3 2

I t\
Input Gnd Output

Output voltages of 5 V and 10 V
Output current up to 500 mA
No external components
Low dropout voltage
Load dump voltage surge protection
Reverse voltage protection
Internal thermal overload protection
Internal short circuit current limiting

B3-<102523A

Absolute Maximum Ratings
TA = 25°C

Ordering Information
Number

Package

Operating
Temperature
Range

IlPC2600H

Plastic SIP

-30to+85°C

Part

Recommended Operating Conditions
TA = 25°C
Hem

Input voltage
Output Current
Opereting Junction
Temperature Range

Symbol

Limit
Test
Min. Typ. Max. Unit Condlltons

12

VIN
10

TI

50
-12

28

DC Input Voltage. VIN 10C)
DC Input Reverse Voltage -VIN 10C)
Positive Transient Voltage. VI,
It = 40 ms. duty cycle = 1%) lurge)
Negative Trlnslent Voltage. -VIN
It = 30 mI. duty cycle = 1%)llurga)
Internal Power Olilipation. Pr ITe = 25°C)
Operating Junction Temperature Range. Tapt III
Operating Temperature Range. Top.
Storage Temperature Range. Tstg
Thermal Rellstancellunctlon to caBal. Rlh U-ol
Thermal Rellatsnce IIunctlon to ambient). Rut 11.1)

-35 V
-28 V
120V
-90 V

20 WINotel)
-30 to +150°C
-30 to +85°C
-65 to +150°C
83°C/W

Note: 1. Internally limited.

V

500 mA

+125 °C

5-13

fttIEC

pPC2600 SERIES
Block Diagram

2 OUTPUT

3GND
83-0018898

Electrical Characteristics
TA = 25°C
Hem
Output Voltaga

Symbol

Min.

Limit
Typ.

Max.

Unit

Test
Conditions

pPC2605

Vo

4.8

5.0

5.2

V

12 V:5 VIN :5 16 V. 10 = 500 mA

pPC2610

Vo

9.55

10.0

10.45

V

12 V:5 VIN :516 V.lo = 500 mA

Line Ragulation

REGIN

7

20

mV

12 V:5 VIN :516 V.lo = 50 mA

Load Regulation

REGL

0.3

1.0

'IoVo

VIN = 14 V. 50 mA :510:5 500 mA

Qulascant Curranl

pPC2605

IBIAS

37

mA

VIN = 14 V.lo = 500 mA

pPC2610

IBIAS

150

mA

VIN = 14 V. 10 = 500 mA

d8

15 V:5 VIN:517 V.lo = 500 mA
f = 100 Hz

Ripple Rejection

RR

56

pPC2605

VN

27

pVRMS

VIN = 14 V.lo = 500 mA

pPC2610

VI

53

pVRMS

VIN = 14 V.lo = 500 mA

Dropout Vollage

VOIF

1.3

Short Circuit Currant

10ahori

Paak OUlput Current

10peak

Output Resistance

Ro

Lockoullnput Voltage

VIN (cutl

Output Voltage Drift

LWo/L\.T

OUlpul Noise Voltage

5-14

650

28

V

10 = 500 mA

900

mA

VIN = 14 V

1.000

mA

VIN=14V

0.07

Q

VIN = 14 V. 400 mA :510 :5 500 mA
f= 1 kHz

V

Vo = 0

32
0.4

1.7

35

mV/oC

VIN = 14 V. 10 = 50 mAo
-12°C:5 TA:5 +80°C

t-IEC

pPC2600 SERIES

Timing Waveform

'1 :5 40 ml, duty cycle:5 1%
. -_ _ _ 12:5 30 ms, duty cycle:5 1%

Input Vol"ge

0

_---'L-_ _ _ _ _+...L.-_-L_...L.-.....,I-h,.--__

Outpul Current

0

-------1-f-f-"'--+-......

OutputVoltago

0 _ _ _ _ _..............

---I--II......J"-'-----

C
___

_-'-_--IO_I......J"-OL-........

63-0018918

Typical Application
Input

0-....,...-<>--\

C'N

O.1pF

1--o----1r--o Oulput
Co
O.1pF

83-00189OA

5-15

pPC2600 SERIES

5-16

~EC

NEe
NEe Electronics Inc.

/lPC78LOOH SERIES
THREE· TERMINAL 0.1 A
POSITIVE VOLTAGE REGULATORS

Pin Configuration

Description
TheJlPC78LOOH series of three terminal regulators are
monolithic positive voltage regulators which feature
internal current limiting and thermal shutdown. They
are intended for use as fixed voltage regulators in a wide
range of applications, including local on-card regulators where distribution with single pOint regulation is a
problem.

NEe
JAPAN
78LXXH

This device is not recommended for new designs. Use
JlPC78LOOJ instead.
3

o

1

It\

Features

o
o
o

2

Output

Output current in excess of 100 mA
No external component required
Internal thermal overload protection
Internal short circuit current limiting

Gnd

Input
83-002510A

Equivalent Circuit

l

0 ........

R13
20.

r--K

J.

Inp

" a,

I

Va"
......
Va

01O

...... "
RI1

4.

R14
0

........
13,......

R12
200

R.
100

~,

R10
2

700

~~D'

0,

R16
300

u.

/.

R11
100

~R'

500-7k

,.
R,

R2
10.

R,
2.

Quip

,t?-

8~

u.

~R,

/

1.3k-14k

0 ........

'(

~o,
"----

f-----K

o,;J -Ko,
,.
R,

Q,

4.
R,

R,
1.3 k

3
GND

83-0025098

5-17

t-IEC

pPC78LOOH SERIES
Ordering Information

Typical Application

Part
Number

Package

Operating
Temperature
Range

pPC78L05H

Plastic SIP

-20·C to +SO·C

pPC78L08H

Plastic SIP

-20·C to +SO·C

pPC78L1oH

Plaslic SIP

-20·C to +SO·C

pPC78L12H

Plastic SIP

-20·C to +SO·C

pPC78L15H

Plaslic SIP

-2o·C to +8O·C

pPC78LIoH

Plaslic SIP

-2o·C 10 +8o·C

In pul

0.33 pF [Note 2]

Internal Power Dissipation

r

: =C2 INaIe 1]

Notes:
[1] Although no output capaCitor Is needed
for stability, it does Improve transient
response.
[2] Required it regulator is located an appreciable distance from power supply filter.

30V
35V

Input Voltage fpPC78LloHI78L12HI78L15H)

Outp ul

2

pPC78LOOH

: =c,

Absolute Maximum Ratings
Input Vollage fpPC78L05H178L08H)

1

83-002511A

800mW

Operating Temperature Range

-20 to +SO·C

Siorage Temperatura

-5510 +150·C

Operating Junellon Temperature Range

-20 \0 + 150·C

Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics - pPC78L05H
VIN

= 10 V, 10 = 40 rnA, O°C:5 TJ :5125°C, CI = 0.33pF, Co = 0.1 pF
Limits

Parameter
Output Voltage

Symbol

Min.

Typ.

Max.

Vo

4.6

5.0

5.4

Line Regulallon

REGIN

Load Regulation

REGl

oulpul Voltage

Vo

Quiescent Current

IBIAS

Quiescent Current Change

.t:.ISIAS

Output Noise Voltage

VN

Ripple Re)eclion

RR

Temperature Coefliclent 01
Output Voltage
Dropout Voltage
Short Circuit Current

5-18

Vo/.t:.J

Test
Conditions

Unit

55
200
mV
TJ = 25·C. 7 V:s VIN:S 20 V
...............................__ .........................................................................................................................._. __ ._-_ .. 45
150
mV
TJ=25·C.8V,;:;VIN:s2oV
11

60

mV

TJ = 25·C. 1 mA,;:; to';:; 100 mA

5.0

30

mV

TJ = 25·C. I mA:s 10:S 40 mA

------------------._ ... _----------------

5.5
V
7 V:S VIN :S 20 V. I mA:s 10 :S 40 mA
-------_ ...4.5
-_._.- ... -.- .............. _--._ .... -.. _----.-._----_ .. - .-.- .... --._-----_ .. -_. -._.-.-----_._._._-_ ........ _............................................
4.5
5.5
V
VIN = 10 V. 1 mA:s 10 :S 70 mA
~
~
~
~=~~
.......................................
_..................................................................................................................
5.5
mA
TJ = 125·C

1.5

mA

0.2

mA

VIN = 10 V. I mA:s 10 :S 40 mA

30

pV

TA = 25·C. 10 Hz:s I:s 100 kHz

50

dB

1= 120 Hz. 8 V:s VIN:S lB V. TJ = 25·C

-0.65

mV/·C

10=5mA

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

40

8 V:s
VIN';:; 20 V.lo = 40 mA
....•.•.•...................... _.................................

Voo

1.7

V

TJ = ~·C

IOSHOR1

150

mA

TJ = 25·C

fttfEC

pPC78LOOH SERIES

Electrical Characteristics -IIPC78L08H
VIN

= 14 V, 10 = 40 rnA, O°C:5 TJ :5125°C, CI = 0.33pF, Co = 0.11lF
Limits

Parameter
Oulput Vollage
Line Reguillion
LOld Regulation

Teet

S,mbol

Min.

T,p.

Max.

Vo

7.36

8.0

B.64

V

80

200

mV

70

150

REGIN
REGL

Quiescenl Curren! Change

40

mV

.. .1:~ ............. ~.~.......~ ......O:~ ~.:;; .V.I~ ~ ~~ .V: !.~~ ~ ~~:s. ~~ ~~................ .

IBIAS

.......... ~.~ ...... ~.~...... ~~ ....~J. ~. ~~:~ ..................................... .

AIBIAS

8.8

V

5.5

mA

1.5

mA

VIN = 14 V, I mA 05 10 05 70 mA

TJ = 25°C

12 V 05 VIN 05 23 V, 1005 40 mA
..............................................................................
mA

VIN = 14 V, I rnA 05 10 05 40 mA

60

0.2

pV

TA = 25°C. 10 Hz:5 1:5 100 kHz

45

d8

1= 120Hz. 12V05VIN0522V.TJ = 25°C

VO/AT

-0.8

mVI"C

1.7

V

TJ = 25°C

10SHORT

150

mA

TJ

VN

Ripple Rejeellon

RR

38

Dropoul Vollage
Shan Circuli Curren!

TJ = 25°C, I mA :510 :5 40 mA

Vo

Oulpul Noise VollIge
Temperature Coallicleni 01
OutpUI Vollage

TJ = 25°C

.......... !~ ...... ~~ ...... ~~ ....~J.~. ~~:~'.! .II!~ ~ ~~ ~ .I~~.~~ .................... .
7.2

Quiescenl Curren!

Conditions

TJ = 25°C, 10.5 V 05 VIN 05 23 V
..............................................................................

8.0

Outpul Vollage

Unit

10

= 5 mA
= 25°C

Electrical Characteristics -IIPC7 8L 1 OH
VIN

= 17 v, 10 = 40 rnA, O°C:5 TJ :5125°C, CI = 0.33pF, Co = 0.1 pF
Limits

Parameter
Output Vollage
Line Regulation
Load Regulation
Output Vollage
Quiescent Current
Quiescent Current Change

S,mbol

Min.

Vo

9.2

Max.

Unit

10

10.8

100

230

mV

80

170

mV

18

90

mV

9

mV

9.0

45
11.0

9.0

11.0

V

6.0

rnA

5.5

mA

1.5

rnA

REGIN
REGl
Vo

Test

T,p.

4.0

IBIAS
L;IBIAS

V

Conditions

TJ = 25°C. 12.5 V 05 VIN 05 25 V

___ . o __ • • • • • • • • • • • • ___________________ • ___ • _______ • __ • __ _

TJ=25°C.I mA05 100540 mA
12.5 V 05 VIN 0525 V. I rnA 05 10 0540 rnA

------ ............ _---------- .. _-------_ ...... -.. -_ .... ----------------------------------------------

---------------------

VIN=17V.I mA 05 10 0570 rnA
TJ = 25°C
13 V05 VIN 05 25 V. 1005 40 mA

0.2

Output Noise Vollage

VN

Ripple Rejection

RR

Temperature Coefficient 01
Output Vollage

TA = 25°C. 10 Hz 05 105 100 kHz
dB

VohT

-0.9

mV/OC

10SHORT

150

Dropout Vollage
Short Circuli Current

70

44

37

10 = 5 rnA

1.7

5-19

t-IEC

pPC78LOOH SERIES
Electrical Characteristics -IlPC78L12H
VIN

= 19 V, 10 = 40 rnA, O·C::; TJ::; 125·C, CI = 0.33pF, Co = 0.1 pF
Limits

Paramaier

Oulpul Voltage
Line Regulallon

Symboi

Min.

Vo

11.1

REGIN

Test

Typ.

max.

Conditions

Unii

12

12.9

V

TJ = 25°C

120

250

mV

TJ = 25°C. 14.5 V:s VIN:S 27 V

100

200

mV

TJ=25°C.16V:SVIN:s27V

Load Regulallon

REGL

.......... ~~ ...... I.~O...... ~~ ....~J.~. ~~~~'. ~ .~A. ~ ~~ ~ .I~~.~~ ......... " ......... .
10
mV
TJ = 25°C. I mA::; 10 ::; 40 mA
50

OUlpUI Voltage

Vo

10.8
13.2
V
14.5V:SVIN:S27V.I mA:S10:S40mA
..............................................................................
10.8

Qulescenl Currenl
Quiescenl Currenl Change

V

VIN=19V.I mA:S10:S70mA

6.5

mA

TJ = 25°C

6.0

mA

TJ = 125°C

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

.o.IBIAS

•.•••••.•.....•.•• ~.~ •.•••. ~~ •••• 1.6.~;: ~!N. ;S.~~~: 1.0.~.4!I. '!I~ ....................... .
0.2
mA
VIN = 19 V. I rnA:S 10 :s 40 rnA
80

pV

TA = 25°C. 10 Hz::; I::; 100 kHz

42

dB

1= 120 Hz. 15 V:s VIN:S 25 V. TJ = 25°C

VO/.o.T

-1.0

mvrc

1.1

V

TJ = 25°C

10SHORT

150

mA

TJ = 25°C

VN

Ripple Relectlon

RR

36

Dropout Vollage
Short Circuli Currenl

13.2

IBIAS

Outpul Noise Voltage
Tempel'llure CoeHicienl 01
Outpul Vonage

4.2

10

= 5 mA

Electrical Characteristics -IlPC78L 15H
VIN = 23 V, 10 = 40 rnA, O·C::; TJ::; 125·C, CI = 0.33 pF, Co = 0.1 pF
limits
Parameter
Output Voltage
Line Regulilion
Load Regulation

Symbol

Min.

Vo

13.8

REGIN
REGL

Max.

Quiescenl Curninl
Qulncenl Currenl Chlnge

Vo
IBIAS
.o.IBIAS

15

16.2

V

300

mV

liD

250

.......... ~~ ...... I.~~ ..... ~~ ....~J. ~ ~~~~'. ~ .~A. ~ ~~ ~ .I~~.~~ .................... .
75

mV

13.5

16.5

V

13.5

16.5

V

TJ = 25°C. I mA::; 10 ::; 40 mA

17.5V:SVIN:S30V.I rnA:S10:S4OrnA
..............................................................................
VIN=23V.I rnA:s 10:S70 rnA

..........~.~ ...... ~.~...... ~~ ....~J.~. ~~~~ ..................................... .
6.0

mA

TJ = 125°C

1.5

mA

20 V:s VIN :s 30 V. 10 :s 40 rnA

..............................................................................
rnA

VIN = 23 V. I rnA:S 10 540 rnA

pV

TA = 25°C. 10 Hz::; I::; 100 kHz

39

dB

1= 120 Hz, 18.5 V:s VIN:S 28.5 V. TJ = 25 C

VO/.o.T

-1.3

mvrc

10 = 5 rnA

1.7

V

TJ = 25°C

10SHORT

150

mA

TJ = 25°C

Ripple Rejection

RR

Dropout Vollage

5-20

TJ = 25°C

TJ = 25°C. 17.5 V:s VIN:S 30 V
..............................................................................

0.2
VN

Short Circuli Currenl

Conditions

90

Oulpul Noise Vollage
Ternparalure CoeHicieni 01
OUlput Voltage

Unit

130

12
OUlpUI Voltage

Test

Typ.

33

Q

NEe

pPC78LOOH SERIES

Operating Characteristics
TA = +25°C
Current Limiting Characteristics

Worst Case Power Dissipation ys. Ambient Temperature
1.0

tJPC78L05
VIN = 10V

100'b,W

0.8

I"

~
i5

a

0.6

.~

TJ~7yC_

i5

~

r--.

d.•

&

TJ
0.2

TJ

= 25°C

/'

<

.0

20

~

1

~

~

@

60

Ambient Temperature

80

@

~

rC)

-- ----tJPC78L05

pPC78L05

= 25°C

V

I--

r--

c
~

u

/

3.5

1

VIN = 10V

o

Vo= 5V
10 = 40 rnA

3.0
~

10

20

~

25

50

pPC78L05

VO=5V
TJ = 25°C

2
=

"lUO rnA

1C'=0i'A~

50 rnA

'f~40iA"'-..

10

10mA

lo=100mA,

~

Dropout Conditions
t:. Vo=5% ofVo

~
J.
f
1
o'L-------~2~5------~50~------7~5~----~,Loo~-----,~25

r

Junction Temperature (Oe)

~~

~b

100

125

tJPC78L05

10

10

75

Dropout Characteristics

Dropout Voltage as a Function of Junction Temperature

r

~b

Ambient Temperature (Oe)

Input Voltage (V)

I--

200

Quiescent Current as a Function of Temperature

'.0

5.0V

I

150

Output Current (rnA)

lo=40mA

TJ

100

50

100

Quiescent Current as a Function of Input Voltage
Vo

1

~ 1~5'C

r

1'....

~~

~~

W'

~

1

!

J

10
Input Voltage (V)

5-21

NEe

pPC7 SLOOH SERIES
Operating Characteristics (Cont.)
TA = ±25°C

LC3d Transient Respciise
20

~

17.5

i!l

5

1
t

Ii
:ll

0
IlPC78LOS

rPC78L05

c

Input Voltage

II

12. 5

~

\

Load Current

10 0

u

"0

10

0

0

~

1

~

7.5
100

14

I\,

c

Output Voltage

0

t

0

I

1

Output Voltage

IV

c

~100

i

~

10 = 100 rnA
~(Retstive ILOad)

o -200 0

10

12

~

<
VIN= 10 V

;;

~
2

V0.15 V

%

0

10

20

Ripple Rejection as a Function Frequency
100
90

30

40

50

Output Impedance as a Function 01 Frequency
10

.u PC78LOS

tlPC78L05

1--+-+-+t-+-+-H+----1---+-+-++---1 VIN '--' 8 V to 18 V
10

=-c

VIN = 10 V

40 rnA

lo=40mA
Co = 0.1 J.iF

80

iO

70

i..

60

lO

a:

i;;;

60

Time (t.ts)

Time (ps)

S

2

50

].

1

40

i

~

E

30

O. 7
'5 o. 5
o o. 4

20

o. 3

10
0

J..-"'":

~~~~-+-_+_+~-+--~-H-_+-~~~__11

o. 2

~~~-ll50--,OLO-~~5~00~~,~k-~~5~k--,0~k-L-L-5UO-k-,~O;k

o. 1

10

Frequency (Hz)

5-22

V
~

./
10

50

100

500

1k

Frequency (Hz)

5k

10 k

50 k 100

ttiEC

pPC78LOOJ SERIES
THREE-TERMINAL 0.1 A
POSITIVE VOLTAGE REGULATORS

NEe Electronics Inc.
Description

Pin Configuration

The pPC78LOOJ series of three terminal regulators are
monolithic positive voltage regulators which feature
internal current limiting and thermal shutdown. They
are intended for use as fixed voltage regulators in a wide
range of applications, including local on-card regulators where distribution with single point regulation is a
problem.

~,....-]
NEe

78LOO

Features
D
D
D
D

Output current in excess of 100 mA
No external component required
Internal thermal overload protection
Internal short circuit current limiting

3 2 1

/1'"

Output

GND

Input
83-003097A

Equivalent Circuit
r-_--------.----~--_--~--~---() Input

R17

R9

R11

R,O

1

.........-~----<>---.........--IBIAS

Output Noise Voltage

VN

Ripple Rejection

RR

120
50

Dropout Voltage
Short Circuit Current

10SHORT

Peak Output Current

10PEAK
Mo/L'>T

Output Voltage Drift

s: 38 V

TA = 25·C. 10 Hz s: f s: 100 kHz

54

dB

f = 120 Hz, 28 V s: VIN oS 38 V

2.0

V

10= 1.0A.TJ = 25°C

A

TJ = 25·C. VIN = 38 V

0.4

1.7

Test
Conditions

2.4

2.8

1.4

A
mV/·C

TJ = 25·C. VIN = 33 V
10 = 5 mAo O·C s: TJ s: 125·C

Operating Characteristics
TA = +25°C
Worst Case Power Dissipation vs.
Ambient Temperature

IJ

Output Voltage vs. Ambient Temperature
lol5mA

In'lnl'e

20

~
5

c

;

!

15

I
10

so

Hea,l Sink

--

I
QJ

~

With 10° C/W Heat Sink

~

No Heat

sinl
25

,g

;;

r--....

~

,uPC780~H

./ '/'

-

..........

""'-

~~~~1-so

~

"PC7812:;- /

-100

~

.

-150 IJPC7824r

-200
-250

so

-300

75

100

Ambient Temperature (Oe)

125

25

25

so

75

100

125

150

Ambient Temperature rC)

5-39

NEe

pPC7800 SERIES
Operating Characteristics (Cont.)
TA = +25°C

Peak Output Current as a Function of
Input/Output Differential Voltage

Dropout Voltage as a Function of Junction Temperature
2. s

2.0

~

3.0

------..::::::::::::-- :::::::---

.....
~ r---

1. 5

f
f '·

O

2.5

10

1A

0

'5 1.5

200mA

I""--

c

0.5

~ 2.0

!

500mA

g

20 rnA

i

0

1.0
75 "C

0.5

~

9

-25

25

50

100

15

~----~----~'0~--~'5~--~2~0----~2~5~---3f.0~--~35·

125

Junction Temperature (OC)

Inpul to Output Voltage Differential (V)

Load Transient Response (pPC7805H)

Line Transient Response
~

t
~
I
~

1.0

~

0.5

j

i

!c

10

10

Output Voltage

t

V

-0.5

t

I'A

-

V-

~

-1.0

I

Input Vollage

J

Jf'...

&

=

!l

JiPC7805H

15

10

-10

= 500 rnA

-Vo~5V

o
10

20

30

40

50

10

60

Time (PS)

12

Time (.us)

Dropout Characteristics (pPC7805H)

Quiescent Current
10

-

jlPC780SH

1 A ""-

~ ~OO mA

pPC7824H

O.SA ""-

~~""- ~ ~
OA "~ >Q ~

(

0.1 A

I

'0 ~

~ "P'

1

V~ ~

J Iff

j

/1

/

/'"
~

IL
10

Input Voltage (V)

5-40

/

If

1

,uPC781 2H

15

20
Input Voltage (V)

25

30

35

40

ttfEC

NEe Electronics Inc.

pPC79LOO SERIES
THREE-TERMINAL 0.1 A
NEGATIVE VOLTAGE REGULATORS

PRELIMINARY INFORMATION
Pin Configuration

Description
The pPC79LOO series is composed of four monolithic
three terminal negative voltage regulators that employ
current limiting, thermal shutdown, and output transistor safe area protection. They are intended as fixed
voltage regulators in a wide range of applications,
including local or on-card regulation forelimination of
noise and distribution problems associated with singlepoint regulation. The four devices in the pPC79LOO
series (pPC79L05, 08, 12, and 15) have output voltage
ratings of -5, -8, -12, and -15 volts, respectively.

F]
U79LOO

, 3 2

/t~

Features

GND

D
D
D
D

Input

Output

Output current up to 100 mA
Internal thermal overload protection
Internal short circuit current limiting
Low noise

83-D03116A

Equivalent Circuit
~--~--~--~--~--------------------------------------~--~~ GNO

A9

R.

II

A,

A10
A6

'--------------------------'i---+----,~-----------'~--_+_<> Output
D3

R11

R'3

t-----+---i------i:...

021

A,.
R'9

-+-__-+____+-____________________-+-__---+-__________--'-______---+--<>

L...-_ _

Input
83-0031178

5-41

ttiEC

pPC79LOO SERIES
Absolute Maximum Ratings

Ordering Information
Part
Number

Package

/lPC79L05J

(TA = 25°C)

Operating
Temperature
Range

T092

-30 or -35 V (Note I)

Input Voltage

-20°C to +05°C

/lPC79LOOJ

T092

-20°C to +05°C

/lPC79L12J

T092

-20°C to +05°C

/lPC79L10J

T092

-20°C to +05°C

700mW

Internal Power Dissipation
Operating Ambient Temperature

-20 to +05°C

Storage Temperature

-55 to +150°C

Operating Junction Temperature Range

-20 to + 150°C

Thermal Resistance

Recommended Operating Conditions
Parameter

Symbol

Input Voltage

VIN

(1) -30 V for /lPC79L05. 08
-35 V for /lPC79L 12. 15

Limits

Type
Number

Min.

Typ. Max.

/lPC79L05

-7

-10 -20

/lPC79LOO -10.5 -14 -23

Comment: Stresses above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Unit

V

/lPC79L12 -14.5 -19 -27
/lPC79L15 -17.5 -23 -30

Output Current
Operating Junction
Temperature

10

All

TJ

All

-20

100°C/W

Note:

40

70

rnA

75

125

°C

Electrical Characteristics - J,lPC79L05
V IN = -10 V, 10 = 40 mA, O°C:c::: TJ:c::: 125°C
Limits
Parameter

Symbol

Min.

Typ.

-4.0

-5.0

Test
Conditions

Unit

-5.2

V

TJ = 25°C

-5.25

V

-7 V oS VIN oS -20 V. 1 rnA oS 10 oS 40 rnA

5

60

mV

TJ = 25°C. -7 V oS VIN oS -20 V

10

50

mV

TJ = 25°C. 1 mAoSIOoSl00mA

6.0

rnA

TJ = 25°C

0.5

rnA

-7 V oS VIN oS -20 V. 10 oS 40 rnA

0.1

rnA

V'N=-10V.l rnA oS 10 oS 40 rnA

100

/lVrms

TJ = 25°C. 10 Hz oS f oS 100 kHz

70

dB

f = 120 Hz. -8 VoS VIN oS -10 V.
TJ = 25°C

Output Voltage

Vo

Line Regulation

REGIN

Load Regulation

REGL

Quiescent Current

10lAS

4.2

Quiescent Current Change

Max.

-4.75

L::.IBIAS

Output Noise Voltage

VN

Ripple Rejection

RR

Dropout Voltage

VOIF

1.1

V

TJ = 25°C

10SHORT

120

rnA

TJ = 25°C. VIN = -20 V

Peak Output Current

10PEAK

180

rnA

TJ = 25°C

Output Voltage Drill

LWo/L::.T

0.4

mV/oC

10=5mA

Short Circuit Current

5-42

50

t\'EC

pPC79LOO SERIES

Electrical Characteristics - JlPC79L08
VIN

= -14 V, 10 = 40 mA, OOG:S TJ:S 125°G

Limits
Parameter

Symbol

Min.

Typ.

-7.7

-8.0

V

TJ = 25°C

V

-10.5 V oS VIN oS -23 V

60

mV

TJ = 25°C, -10.5 V oS VIN oS -23 V

80

mV

TJ=25°C.l mAoS 10 oS 100 mA

6.0

mA

TJ = 25°C

0.5

mA

-10.5 V oS VIN oS -23 V.lo oS 40 mA

0.1

mA

VIN=-14V,1 mAoSIooS40mA

110

/lV rms

TJ = 25°C. 10 Hz oS f oS 100 kHz

70

dB

f = 120 Hz, -12 V oS VIN oS -22 V,
TJ = 25°C

TJ = 25°C

Line Regulation

REGIN

Load Regulation

REGL

12

Quiescent Current

IBIAS

4.2

Ripple Rejection

RR

Dropout Voltage

-7.6

t;IBIAS
VN

Test
Conditions

-8.3

Vo

Output NOise Voltage

Unit

-8.4

Output Voltage

Quiescent Current Change

Max.

50

VOIF

1.1

V

Short Circuit Current

10SHORT

85

mA

TJ = 25°C. VIN = -23 V

Peak Output Current

10PEAK

180

mA

TJ = 25°C

Output Voltage Drift

t;Vo/ t; T

0.6

mV/oC

10 = 5 mA

Electrical Characteristics - JlPC79L 12
VIN

= -19 V, 10 = 40 mA, OOG

:S TJ:S 125°G
Limits

Parameter
Output Voltage

Symbot
Vo

Test
Conditions

Min.

Typ.

Max.

Unit

-11.5

-12.0

-12.5

V

TJ = 25°C

-12.6

V

-14VoSVINoS-27V.l mAoSIooS40mA

-11.4

Line Regulation

REGIN

45

mV

TJ = 25°C. -14.5 V oS VIN oS -27 V

Load Regulation

REGL

14

100

mV

TJ = 25°C, 1 mAoS 10 oS 100 mA

Quiescent Current

IBIAS

4.2

6.0

mA

TJ = 25°C

0.5

mA

-14.5 V oS VIN oS -30 V, 10 oS 40 mA

Quiescent Current Change

t;ISIAS

Output Noise Voltage

VN

Ripple Rejection

RR

Dropout Voltage

0.1

52

mA

VIN = -19 V. 1 mA oS 10 oS 40 mA

140

/lV rms

TJ = 25°C. 10 Hz oS f oS 100 kHz

70

dB

f = 120 Hz. -15 V oS VIN oS -25 V,
TJ = 25°C

TJ = 25°C

VOIF

1.1

V

Short Circuit Current

10SHORT

40

mA

TJ = 25°C. VIN = -27 V

Peak Output Current

10PEAK

180

mA

TJ = 25°C

Output Voltage Drift

t;vo/ t; T

0.8

mV/oC

10 = 5 mA

5-43

II

~EC

pPC79LOO SERIES
Electrical Characteristics - pPC79L 15
VIN

= -23 V, 10 = 40 rnA, O°C:S TJ:S 125°C

Limits

3Jmboi

rOranlGIUr

Output Voltage

Vo

Test
Conditions

Min.

Typ.

Max.

Unit

-14.4

-15.0

-15.6

V

TJ = 25°C

-15.75

V

-17.5 V ~ VIN ~ -30 V.
1 rnA ~ 10 ~ 40 rnA

-14.25

Line Regulation

REGIN

10

45

rnV

TJ = 25°C. -17.5 V ~ VIN

Load Regulation

REGl

15

125

rnV

TJ=25°C.1

Quiescent Current

ISlAS

4.2

Quiescent Current Change

L>IBIAS

Output Noise Voltage

180

VN

Ripple Rejection

RR

Dropout Voltage

VOIF

Short Circuit Current

50

67
1.1

10SHORT

Peak Output Current

10PEAK

180

Output Voltage Drllt

L>Vo/L>T

1.0

Typical Connection

Input

0--..,....--1:
CON

pPC79LOO

~t--~--<>OUIPut

::=

COUT

CIN: 0.1 100.47 pF; required If regulator Is located
an appreciable distance from power supply tIIter.
COUT: 2: D.22pF [recommended mylar capacitor].
83·Q03118A

5-44

~

-30 V

rnA~10~100rnA

6.0

rnA

TJ = 25°C

0.5

rnA

-17.5 V ~ VIN

0.1

rnA

VIN = -23 V. 1 rnA ~ 10 ~ 40 rnA

jJV rrns

~

-30 V.lo ~40 rnA

TI = 25°C. 10 Hz ~ f ~ 100 kHz

d8

f = 120 Hz. -18.5 V ~ VIN
TJ = 25°C

V

TJ = 25°C

rnA

TJ = 25°C. VIN = -30 V

rnA

TJ = 25°C

rnV/oC

10 = 5 rnA

~

-28.5 V.

t-IEC

NEe Electronics Inc.

pPC79MOO SERIES
THREE·TERMINAL 0.5 A
NEGATIVE VOLTAGE REGULATORS

PRELIMINARY INFORMATION
Description

Pin Configuration

The tlPC79MOO series is comprised of five monolithic
three terminal negative voltage regulators that employ
current limiting, thermal shutdown, and output transistor safe area protection. They are intended as fixed
voltage regulators in a wide range of applications,
including local or on-card regulation forelimination of
noise and distribution problems associated with singlepoint regulation. Five output voltages are available: -5,
-8, -12, -15, and -24 volts.

NEe

79MOO

Features
D
D
D
D

~Input

o

1

3

2

/t"'-

Output current up to 500 mA
Internal thermal overload protection
Internal short circuit current limiting
Low noise

GND

Input

Output
83-003119A

Equivalent Circuit
~--~--~--~--~--------------------------------------~--~-oGND

RS

Ag

'------+---__+----+-____________________

~

___ + - - - - - - - - - - _ + _______

__+~

Inpu'
83·0031208

5-45

ttlEC

JlPC79MOO SERIES
Ordering Information
Part
Number

Absolute Maximum Ratings
(TA = 25°C)

Operating
Temperature
Range

Package

-35 V

Input Voltage

pPC79M05H

SIP

-20°C to +85°C

Internal Power Oissipation

pPC79M08H

SIP

-20°C to +85°C

Operating Ambient Temperature

20 W (Note I)
-20 to +85°C

pPC79MI2H

SIP

-20°C to +85°C

Storage Temperature

pPC79MI5H

SIP

-20°C to +85 °C

Junction to Case Thermal Resistance

4.0°C/W

-20°C to +85 °C

Junction to Air Thermal Resistance

83°C/W

pPC79MI8H

SIP

Note: (1) Output automatically turns off if TJ > 150°C.
Comment: Stresses above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress

Recommended Operating Conditions
Parameter

Symbol

Type
Number

rating only and functional operation of the device at these or any

Limits
Min. Typ. Max.

Unit

--------'-----:c:==-~--'':':_-::::_--pPC79M05 -7 -10 -25
Input Voltage

Output Current
Operating Junction
Temperature

VIN

pPC79M08 -10.5 -14

-25

pPC79MI2 -14.5 -19

-30

pPC79MI5 -17.5 -23

-30

pPC79M24 -27

-38

-33

-55 to +150°C

other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

v

10

All

5

350

mA

TJ

All

-20

125

°C

Electrical Characteristics - JlPC79M05
VIN = -10 V, 10 = 350 mA, ooe s TJ s 125°e
Limits
Parameter
Output Voltage

Symbol

Vo

Min.

Typ.

Unit

-5.2

V

TJ = 25°C

-5.25

V

-7 V 0; VIN 0; -25 V.
5 mA 0; 10 0; 350 mA

7.0

50

mV

TJ = 25°C. -7 V 0; VIN

0;

-25 V

3.0

30

mV

TJ = 25°C, -8 V 0; VIN

0;

-18 V

30

100

mV

TJ = 25°C, 5 mA 0; 10 0; 500 mA

mV

TJ = 25°C, 5 mA 0; 10 0; 350 mA

-4.8
-4.75

Line Regulation

REGIN

load Regulation

REGL

Quiescent Current

IBIAS

Quiescent Current Change
Output Noise Voltage

20
4.2

t:dBIAS
100

VN
54

Ripple Rejection

6.0

mA

TJ = 25°C

0.5

mA

-8 V 0; VIN

0.4

mA

5 mA 0; 10 0; 350 mA

200

pV rms

60

d8

0;

-25 mA

TJ = 25°C, f = 10 Hz to 100 kHz

d8

TJ = 25°C
-8 V 0; VIN
f=120Hz
TJ=25°C

RR
50

Oropout Voltage

Test
Conditions

Max.

10 = 300 mA
0;

-18 V,

VOIF

1.1

V

Short Circuit Current

10SHORT

400

mA

TJ = 25°C. VIN = -25 V

Peak Output Current

10PEAK

mA

TJ = 25°C

Output Voltage Drift

MoiL':. T

mV/oC

10 = 5 mA

5-46

620

800

0.4

1020

10=100mA

ftt{EC

JlPC79MOO SERIES

Electrical Characteristics - pPC79M08
VIN = -14 V, 10 = 350 mA, OOG:O; TJ:O; 125°G
Limits
Parameter
Outpul Voltage

line Regulation
load Regulation
Quiescent Current
Quiescenl Current Change
OutpUI Noise Voltage

Symbol
Vo

Typ.

Max.

Unit

-7.7

-8.0

-8.3

V

TJ=25'C

-8.4

V

-10.5 V::; VIN::; -25 V.
5 rnA ::; 10 ::; 350 rnA

8.0

80

rnV

TJ = 25'C. -10.5 V::; VIN::; -25 V

4.0

50

rnV

TJ = 25'C, -II V::; VIN ::; -21 V

30

160

rnV

TJ = 25'C. 5 rnA::; 10::; 500 rnA

rnV

TJ = 25'C, 5 rnA::; 10::; 350 rnA

-7.6

REGIN

REGL

20
4.2

IBIAS
L':.IBIA8

110

VN
54

Ripple Rejection

RR

Dropout Voltage

VOIF

6.0

rnA

TJ = 25'C

0.5

rnA

-10.5 V::; VIN ::; -25 rnA

0.4

rnA

5 rnA::; 10::;350 rnA

220

pV rrns
dB

60

50

Short Circuit Current

108HORT

Peak Output Current

10PEAK

Output Voltage Drift

L':.Vo/L':.J

Test
Conditions

Min.

1.1
400
620

800

1020

0.6

TJ = 25'C, 1= 10 Hz to 100 kHz

dB

TJ = 25'C
-11 V::; VIN ::; -21.5 V.
1=120Hz

V

TJ=25'C

rnA

TJ = 25'C. VIN = -25 V

rnA

TJ = 25'C

rnV/'C

10 = 5 rnA

10 = 300 rnA
10= 100 rnA

IJ

Electrical Characteristics - pPC79M12
VIN = -19 V, 10 = 350 mA, OOG:O; TJ:O; 125°G
Limits
Parameter
Output Voltage

line Regulation
load Regulation
Quiescent Current
Quiescent Current Change
Output Noise Voltage

Symbol
Vo

Test
Conditions

Min.

Typ.

Max.

Unit

-11.5

-12.0

-12.5

V

TJ = 25'C

-12.6

V

-14 V::;VIN::;-30 V,
5 rnA::;10::;350 rnA

-11.4

REGIN

REGL

9.0

80

rnV

TJ = 25'C. -14.5 V::; VIN::; -30 V

5.0

50

rnV

TJ = 25'C, -15 V::; VIN::; -25 V

30

240

rnV

TJ = 25'C. 5 rnA::; 10::; 500 rnA

rnV

TJ = 25'C, 5 rnA::; 10::; 350 rnA

6.0

rnA

TJ = 25'C

0.5

rnA

-14.5 V::; VIN::; -30 rnA

0.4

rnA

5 rnA ::; 10 ::; 350 rnA

280

pV rrns

20
4.2

IBIAS
L':.IBIA8

140

UN

54

60

dB

TJ = 25'C. 1= 10 Hz to 100 kHz

Ripple Rejection

RR
dB

TJ = 25'C
-15V::;VIN::;-25V.
1=120Hz

Dropout Voltage

VDlF

1.1

V

TJ = 25'C

Short Circuit Current

108HORT

200

rnA

TJ = 25'C, VIN = -30 V

Peak Output Current

10PEAK

rnA

TJ = 25'C

Output Voltage Drift

L':.Vo/L':.T

rnV/'C

10 = 5 rnA

50

620

800
0.8

1020

10 = 300 rnA
10= 100 rnA

5-47

t-{EC

pPC79MOO SERIES
Electrical Characteristics - pPC79M15
VIN

= -23 V, 10 = 350 mA, O·C:::; TJ:::; 125·C

Limits
Parameter
Output Voltage

line Regulation
Load Regulation
Quiescent Current
Quiescent Current Change
Output Noise Voltage

Symbol
Vo

Typ.

Max.

Unit

-14.4

-15.0

-15.6

V

TJ = 25°C

-15.75

V

-17.5 V 5 VIN 5 -30 V.
5 mA 5 10 5 350 mA

-14.25

REGIN

REGL

9.0

80

mV

TJ = 25°C. -17.5 V5 VIN 5 -30 V

50

mV

TJ = 25°C. -18 V 5 VIN 5 -28 V

30

240

mV

TJ = 25°C, 5 mA 510 5 500 mA

mV

TJ = 25°C, 5 mA 510 5 350 mA

4.2

IBIAS
L>IBIA8

180

VN

6.0

mA

TJ = 25°C

0.5

mA

-17.5 V5 VIN 5 -30 mA

0.4

mA

5mA5105350mA

360

pVrms
d8

60

VOIF

1.1

Short Circuit Current

108HORT

200

Peak Output Current

10PEAK

Output Voltage Drift

Mo/M

620

800

1020

1.0

TJ = 25°C, f = 10 Hz to 100 kHz

d8

TJ = 25°C
10 = 300 mA
-18.5 V5 VIN 5 -28.5 V.
10=100mA
f= 120Hz

V

TJ = 25°C

mA

TJ = 25°C, VIN = -30 V

mA

TJ = 25°C

mV/oC

10 = 5 mA

RR
50

Dropout Voltage

Conditions

7.0
20

54
Ripple Rejection

T~~t

Min.

Electrical Characteristics - pPC79M24
VIN

= -33 V, 10 = 350 mA, O·C:::; T J :::; 125°C

Limits
Parameter
Output Voltage

Line Regulation

Symbol
Vo

REGL

Quiescent Current

181AS

Quiescent Current Change
Output Noise Voltage

Typ.

Max.

Unit

-23.0

-24.0

-25.0

V

TJ = 25°C

V

-27 V5 VIN 5 -38 V.
5mA5105350mA

-22.8

REGIN

Load Regulation

-25.2
9.0

80

mV

TJ = 25°C. -27 V5 VIN 5 -38 V

5.0

50

mV

TJ = 25°C. -30 V5 VIN 5 -36 V

30

360

mV

TJ = 25°C. 5 mA 510 5 500 mA

mV

TJ = 25°C. 5 mA 510 5 350 mA

20
4.2

L>IBIA8
300

VN
54

Ripple Rejection

RR

Dropout Voltage

VOIF

6.0

mA

TJ = 25°C

0.5

mA

-27 V 5 VIN 5 -38 mA

0.4

mA

5mA5105350mA

600

pVrms
dB

59

50

Short Circuit Current

108HORT

Peak Output Current

10PEAK

Output Voltage Drift

L>VoI L> T

5-48

Test
Conditions

Min.

1.1
10
620

800
1.4

1020

TJ = 25°C. f = 10 Hz to 100 kHz

dB

TJ = 25°C
-28 V 5 VIN 5 -38 V.
f = 120 Hz

V

TJ = 25°C

mA

TJ = 25°C. VIN = -38 V

mA

TJ = 25°C

mV/oC

10 = 5 mA

10 = 300 mA
10=100mA

NEe

pPC79MOO SERIES

Typical Connection

Input O--~r---l

1---..---0

Output

COUT

CIN: 0.1 to 0.47 ,uF; required if regulator is located
an appreciable distance from power supply filter.
COUT: 20.22 tJF [recommended mylar capacitor].
83·003121A

5-49

pPC79MOO SERIES

5-50

t-IEC

ttiEC

JlPC7900 SERIES
THREE-TERMINAL 1.0 A
NEGATIVE VOLTAGE REGULATORS

NEe Electronics Inc.
Description

Pin Configuration

The tlPC7900 series of three terminal regulators are
monolithic negative voltage regulators which feature
internal current limiting and thermal shutdown. They
are intended for use as fixed voltage regulators in a
wide range of applications, including local on-card
regulators where distribution with single point regulation is a problem.
1 3 2

Features

o
o
o
o

It\
Gnd Input Output

Output current in excess of 1.0 A
No external components required
Internal thermal overload protection
Internal short circuit current limiting

83-002523A

Equivalent Circuit

Gnd

R,
R23

~o,

~/' ~ ~

.. 0,

~

R20,/.

V

R24,J.

~

0,
011

'-t
rK"

R,

jFJ

~

Va"

"'"I

I

R20

~-K

I
I
I

0,

0,

VI'.,

;k

11

I
I
I

R,

Va"

012

1

-~

Yo"
.......
R12

h<

_ ..J

'®

R,

----K

R,

0,,>-

L-

....... 016

019~

-

~

O.

0,

.......
,¥1

Ivo

........

~'

L-

....... 015

R,

R,

0" rK"

R"
C,

T
Note·

A
B

- 5 V to -8 V Options
-2Vto-24VOptiOns

R19

~j

I-

014rK"

R,
R,

ul

....... 020

~

R11

-

~

~ 0,

R18
C,

:3-

0 18

R16

R"
Ru

R"
3
Input (fin)
83-002537C

5-51

fttIEC

J.IPC7900 SERIES
Typical Application

Ordering Information
Part
Number

Package

Operating
Temperature
Range

/JPC7905H

Plastic SIP

-20°C to +80°C

/JPC7908H

Plastic SIP

-20°C to +80°C

/JPC7912H

Plastic SIP

-20°C to +80°C

/JPC7915H

Plastic SIP

-20°C to +80°C

/JPC7918H

Plastic SIP

-20°C to +80°C

/JPC7924H

Plastic SIP

-20°C to +80°C

tJ PC79XX

Input

Output

c,

c,

(1) 0.33"F

(2) more

than
O.3311F

Notes: (1) Mylar film type capacitors are

Absolute Maximum Ratings
Input Voltage (pPC7905/08/12115/1 8)

-35 V

Input Voltage (pPC7924)

-40 V

Intarnal Power Dissipation

Inlernally Limited

recommended.
(2) Required If regulator Is located an
appreciable distance from power
supply filter.
83-002539A

Operating Temperature Range
Storage Temperature Range

-55 to +150°C

Operating Junction Temperature
Range

-20 to 125°C

Comment: Stress above those listed under "Absolute Maximum
Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device at these or any
other conditions above those indicated in the operational sections of
this specification is not implied. Exposure to absolute maximum
rating conditions for extended periods may affect device reliability.

Electrical Characteristics - tJPC7905
= -10 V, 10 = -SOD mA, DOG::; TJ::; 12soG

VIN

Limits

Parameter
Output Voltage

Symbol
Vo

Min.

Typ.

load Regulation
OU188G8nt Current
Ouleacent Current Change

-5.25

V

-7 V:s VIN:S -20 V. -5 mA:s 10:S -1.0 A. PT:S 15 W

100

mV

TJ = 25'C. -7 V:s VIN:S -25 V

50

mV

TJ = 25'C. -8 V:s VIN:S -12 V

REGIN

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

REGl

..••....•. ~~ ...... I.~O.....• ~~ •.•. ~J.':". ~~~~ . -:-.5.~~.~.19.~.-:-.1:~~ •.•..•.•••.•..••••••
20
80
mV
TJ 25°C. -250 mA:S 10 :S -750 mA

IBIAS
t.IBIAS

=
= 25°C
1.3
mA
-7 V:s VIN :s -25 V
..............................................................................
1.0

2.0

0.5
Output Noise Voltage
Ripple Re)ectlon

VN
RR

Dropout Voltage

54

mA

mA

100

pVRMS

TJ

-5 mA :S 10 :S -1.0 A
TA = 25°C. 10 Hz:S f:S 100 kHz

62

dB

f = 120 Hz. -8 V:s VIN:S -18 V.lo = -500 mA

1.1

V

10 = -1.0 A. TJ = 25°C
TJ

Peak Output Current

IOPEAK

-2.1

A

Output Voltage Drift

t.VOI t.T

-0.4

mVrC

S-S2

Test
Conditions

Unit

.. -:-~:8.... -:-.5:~ .... :-:~.~ ......V
.....~J. ':". ~~~~ ..................................... .
-4.75

line Regulation

Max.

= 25°C
10 = -5 mAo O°C:S TJ:S 125°C

NEe

pPC7900 SERIES

Electrical Characteristics - tlPC7908
= -14 V, 10 = -500 rnA, O°C ~ TJ ~ 125°C

VIN

Limits
Parameter
OUlpul VOllage

Symbol
Vo

Min.

Typ.

Max.

Test
Conditions

Unit

· .-:-!:7.... -:-.8:~ .... :-:~.~ ......V
.....~J.~. ~~:~ ..................................... .
-7.6

-8.4

V

-10.5 V,,; VIN oS -23 V. -5 mA oS 10 oS -1.0 A, PT oS 15 W

6.0

160

mV

TJ = 25°C, -10.5 V oS VIN oS -25 V

2.0

80

Line Regulalion

REGIN

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

Load Regulallon

REGL

· ......... ~~ ...... ~~~ ..... ~~ .... ~J.~. ~~:~'.

Oulescenl Currenl
Oulescent Current Change

IBIAS

100

mV

TJ = 25°C, -250 mA,s; 10,s; -750 mA

1.0

2.0

mA

TJ = 25°C

AIBIAS
0.5

Output Noise Voltage

VN

Ripple Rejection

RR

54

Dropout Voltage

-:-.5. ~~.:;;.I~.:;;. -:-.1:~ ~................... .

30

mA

200

/lVRMS

62

dB

1.1

V

Peak Output Current

10PEAK

-2.1

A

Output VOllage Drift

AVO/AT

-0.6

mY/DC

-5 mA ,s; 10 ,s; -1.0 A
TA

= 25°C, 10 Hz,s; f ,s; 100 kHz

f = 120 Hz, -11.5 VoS VIN oS -21.5 V.IO = -500 mA

= -1.0 A. TJ = 25°C
= 25°C
10 = -5 mAo o°c,s; TJ,s; 125°C
to

TJ

Electrical Characteristics - tlPC7912
~ 125°C

VIN = -19 V, 10 = -500 rnA, O°C ~ TJ

limits
Parameter
Output Voltage

Symbol
Vo

Min.

Typ.

Max.

Test
Conditions

Unit

· :-:1.1:~ .••-:-~~.~ .•.• -:-.1~:5•....
-11.4
-12.6
V

Y.... .~J.~. ~~:~ •..•....••........••.••...••...••..•..

10

240

mV

-14 V oS VIN oS -27 V. -5 mA oS 10 oS -1.0 A. PT oS 15 W
TJ = 25°C. -14.5 V oS VIN oS -30 V

Line Regulation

REGIN

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

Load Regulallon

REGL

· ......... ~~ ...... ~~~ ..... ~~ .... ~J.~. ~~:~,.
~~.:;;.I~.:;;. -:-.1:~~
30
120
mV
TJ = 25°C. -250 mA,s; 10,s; -750 mA

Oulescenl Current

IBIAS

Oulescenl Current Changa

AIBIAS

Output Noise Voltage

VN

Ripple Rejecllon

RR

Dropout Voltage
Peek Output Current

10PEAK

Output Vollag8 Drill

t..VO/t..T

-:-.5.

1.5

3.0

mA

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

TJ = 25°C

1.0
mA
-14.5 V oS VIN oS -30 V
..............................................................................
0.5
54

mA

300

/lVRMS

-5 mA ,s; 10 ,s; -1.0 A
TA = 25°C, 10 Hz,s; f,s; 100 kHz

62

dB

1.1

V

f = 120 Hz, -15 V oS VIN oS -25 V, 10 = -500 mA
10 = -1.0 A. TJ

-2.1

A

TJ = 25°C

= 25°C

o.e

5-53

fttIEC

pPC7900 SERIES
Electrical Characteristics - pPC7915
VIN

= -23 V, 10 = -500 mA, OOG:S; TJ:S; 125°G
Limits

i'arameter
Oulpul Vollage

Symbol
Vo

Min.

Typ.

REGL

Quiescenl Currenl Change

V

-17.5 V:s VIN:S -30 V. -5 rnA:s 10:S -1.0 A. PT:S 15 W

150

rnV

TJ = 25'C. -20 V:S VIN:S -26 V

.......... ~~ ...... ~~O...... ~~ ....~J. ':". ~~~~'. -:-.5. ~~.~.Ip.~. -:-.1:~~................... .
30

Quiescenl Currenl

-15.75

REGIN
3.0

Load Regulalion

Tost
Conditions

Unit

-14.4 -15.0
-15.6
V
TJ = 25°C
..............................................................................
-14.25

line Regulation

Max.

150

mV

TJ = 25°C. -250 rnA :s; 10 :S -750 rnA

1.5

IBIAS
AIBIAS

0.5
Oulpul Noise Vollage

VN

Ripple Rejection

RR

54

Dropoul Vollage

rnA

375

IlVRMS

60

dB

-5 rnA :S 10 :S -1.0 A
TA

= 25°C. 10 Hz:S f:S 100 kHz

, = 120 Hz. -18.5 V:s VIN :s -28.5 V. 10 = -500 rnA

= -1.0 A. TJ = 25°C
= 25°C
10 = -5 rnA. O°C:S TJ:S 125°C

1.1

V

10

Peak OUlpul Currenl

10PEAK

-2.1

A

TJ

Outpul Vollage Drift

AVO/AT

-1.0

rnVI'C

Electrical Characteristics - pPC7918
VIN = -27 V, 10 = -500 mA, OOG:S; TJ :::; 125°G
Limits
Paramoto,

Symbol

Min.

Typ.

Max.

Tost
Conditions

Unit

OUlpul Vollage

Vo

. :-:1.~.~ ...-:-~~.~ .... -:-.1~:7.....•V.....~J. ':". ~~~~ ........•........•......•.•...........
-17.1
-18.9
V
-21 V:SVIN:s-33V.-5rnA:Slo:S-1.0A.PT:S15W

line Regulalion

REGIN

15
360
rnV
TJ = 25'C. -21 V:S VIN:S -33 V
..............................................................................

Load Regulalion

REGL

Quiescenl Currenl

IBIAS

Quiescenl Currenl Change

AIBIAS

5.0

180

rnV

TJ = 25'C. -24 v:s VIN:S -30 V

90

360

rnV

TJ = 25°C. -5 rnA:S 10:S -1.5 A

30

180

rnV

TJ = 25°C. -250 rnA:S 10:S -750 rnA

1.5

3.0

rnA

TJ = 25°C

1.0

rnA

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

-21 V:s VIN :s -33 V
..............................................................................
0.5

Oulpul Noise Voltage

VN

Ripple Rejeclion

RR

54

rnA

450

Il VRMS

60

dB

Peak OUlpul Current

10PEAK

-2.1

A

OUlput Vollage Drift

AVO/AT

-1.0

rnV/oC

5-54

TA

= 25°C. 10 Hz:S f:S 100 kHz

f = 120 Hz. -22 V:s VIN:S -32 V.lo

10 = -1.0 A. TJ

1.1

Dropoul Voltage

-5 rnA :S 10 :S -1.0 A

= 25°C

= 25°C
10 = -5 rnA. O°C:S TJ:S 125°C

TJ

= -500 rnA

t-IEC

pPC7900 SERIES

Electrical Characteristics - pPC7924
= -33 V, 10 = -500 rnA, O°C:S TJ:S 125°C

VIN

Limita

Symbol

Parameter
OuipUi Voll_gl

Typ.

Min.

Max.

Test
Conditions

Unit

. :-:~~.~ ...~~~.~....-:-~~:O......~ ....~J.~. ~~:~ ..................................... .

Vo

-22.8

-25.2

V

18

480

rnV

6

240

rnV

-27 V:s VIN :s -38 V, -5 rnA :s 10 :s -1.0 A

REGIN

TJ = 25°C. -27 V:s VIN:S -38 V
..............................................................................

lOld Ragulilion

REGl

••.••••••• ~~ •••••• ~~O•.•••• ~~ ..••~e ~~:~ -:-.5. ~~.:;;.I~.:;;.-:-.I:~~ ••••••.•••••••.•••••
240
rnV
TJ = 25°C. -250 rnA:5 10:5 -750 rnA
30

QuilSC8tll Currenl

IBIAS

lina Rlgul8110n

Qull.CaoI Currenl Chlngl

.

= 25°C
..............................................................................
1.5

AIBIAS

OuljlUl Nolsa VOItlgI

VN

Ripple RajeClion

RR

TJ = 25°C. -30 V:s VIN:S -36 V

3.0

rnA

TJ

1.0

rnA

-27 V:s VIN :s -38 V

0.5
51

Dropoul Vollag.

rnA

600

pVRMS

-5 rnA:510:5-1.0A
TA = 25°C. 10 Hz:5 1:5 100 kHz
1= 120 Hz. -28 V:s VIN:S -38 V.lo = -500 rnA

59

dB

1.1

V

10 = -1.0 A. TJ
TJ

Palk OuipUi Curranl

10PEAK

-2.1

A

Output Voltage Orift

AVO/AT

-1.0

rnVrC

= 25°C
= 25°C
10 = -5 rnA. O°C:5 TJ:5 125°C

Operating Characteristics
TA = 25°C

II

Current Limiting Characteristics

Power Dissipation vs. Ambient Temperature
-6

100

50

---_/ /8HS

10

5.0
2.0

;:>< X

~

- ---

~

0.5
0.2

.......

50

75

-4

..........

-2

"\.,

..........

100

Ambient Temperature (Oe )

I

-3

,-'

0.1
25

10°C/W

No Heat Sink

'\

//

1.0

-5

'HS~O

/
20

/

10 V
V,
tlPC790SH
TJ = 25°C

./1

1

"

~
125

0.4

0.8

1.2

I--"'"
1.•

2.0

Output Current (A)

5-55

t-IEC

pPC7900 SERIES
Operating Characteristics (Cont.)
TA = 25°C
Peak Output Current as a
Function of Input/Output Differential Voltage

Load Transient Response

-2.5

::11 I flll111

-2.0

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

-1.5

TJ = 25"C

0.5

........
TJ

-1.0

125°C

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

"- I~

-0.5

. . . . r-.....

o
o

10

15

Input~Output

Differential {V}

20

-0.5

"-....I"
r-.
25

t--- VI = -10 V

<

}JPC7905H

~
2

r---rO~1

30

20

40

10

pPC7905H
V,
10 V

'0

100mA

TJ

25"C
CI Co = 0

1.0

V

0.1

~

TJ = 25°C

o

20

IlPC7905

60

40
Time (psI

5-56

100

Output Impedance as a Function of Frequency

::jj ~ 11111 ~ I !
=1-- 200 TmA

80

60
Time (tis)

Line Transient Response

1--10

j

80

~

100

0.01
10

100

1k
Frequency (Hz)

10 k

100

t\fEC

DIA AND AID CONVERTERS

6-A

II

CONVERTERS

t\fEC

Section 6 - DI A and AID Converters
Digital-to-Analog

pPC603 6-Bit High-Performance D/A Converter ...................................... 6-1
pPC610 10-Bit Polarized 01 A Converter ............................... . . . . . . . . . . . . .. 6-9
pPC624 8-Bit High-Speed Multiplying D/A Converter ............................... 6-17
pPC601212-Bit High-Speed Multiplying DIA Converter............................. 6-27
pPD6900 8-Bit CMOS Video DIA Converter ........................................ 6-35
pPD7011 8-Bit NMOS 01 A Converter .............................................. 6-39
Analog-to- Digital

pPD6950
pPD7001
pPD7002
pPD7003
pPD7004

6-B

8-Bit CMOS Video AID Converter ........................................
8-Bit CMOS Serial Output AID Converter .................................
10-Bit CMOS Integrating AID Converter ..................................
8-Bit CMOS High-Speed AID Converter ..................................
10-Bit CMOS Successive Approximation AID Converter ...................

6-45
6-51
6-59
6-69
6-75

t-IEC

pPC603
6·BIT HIGH· PERFORMANCE

NEe Electronics Inc.

D/A CONVERTER

Description

Pin Configuration

The tlPC603 is a monolithic digital-to-analog converter
designed to convert 6-bit binary coded decimal signals
to an analog output voltage signal. The reference voltage, weighted current source, current switch, and output
op-amp, are all integrated on board the device.

MSB

Features

Ordering Information
Part
Number

Package

pPC603D

Ceramic DIP

Operating
Temperature
Range

= 25°C

Voltage Between V+ and VPower Dissipation
Input Voltage
Output Short Circuit Duration
Operating Temperature Range
Storage Temperalure Range

3rd

Bipolar/Unipolar

4th

Current Adder

lSB

v+

F.S. Range Setting

GND
Analog Output

83-002364A

Pin Identification
Pin

Name

Function

MSB

Oala Bit I

2

2nd

Oala Bit 2

3

3rd

Data Bit 3

4

41h

Dala Bit 4

5

51h

Oala 8it 5

LSB

Oala Bit 6

V+

Power Supply Positive

Analog Output

Absolute Maximum Ratings
TA

V~

5th

D Linearity error: 0.4% (1 14 LSB of 6-bit) max
D Response speed: 3 tls max
D Temperature coefficient at full speed: 160 ppm/oC
max
D Input level TTL, OTL level, active low
D The output voltage range can be applied to any of the
3 following ranges: 0 to 10 V, -5 to +5 V, -10 to +10 V
D Built-in output short-circuit protection
D Possesses a linearity equivalent to that of a 7 -bit converter, and can be used as a 7-bit O/A converter by
the addition of external circuits
D Pin-for-pin compatible with PMI's "OAC-01 Coo

F.S. Adjust

2nd

±18 V
500 mW
-0.7 to +6 V
Indefinite
-20 to +80°C

9

Ground

Power Supply Ground

10

F.S. Range

Full Scale Range Selling

II

Currenl Adder
BipolarIUnipolar Control

12

BipolarIUnipolar

13

V-

Power Supply Negative

14

F.S. Adj.

Full Scale Adjusl

-55 to +150°C

Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device atthese or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

6-1

ttiEC

tJPC603
Equivalent Circuit

MSB

2nd

3rd

4th

5th

LSB

v+

Current

Scale

Adder

Setting

t6k

16k

14

F.S. Adjust

13

v-

12
Bipolar/Unipolar

GND

63-0023'638

6-2

NEe

pPC803

Electrical Characteristics
TA = +25°C, V± = ±15 V
Limits
Parameter

Llnaarlty Error

Symbol

Min.

Typ.

Max.

Tlst
Co.dltlon.

Unit

NL
0.4
%FSR Fig. 1. 2, 3
.........................................................................................
0.45

Full Scala Tamperature
Coefflclant (Nota 21

80

160

%FSR

Fig. I. 2, 3; TA = -20 to +80°C

ppm/DC Fig. I aach bit "ON" altar FS adlust TA = -20 to +80°C
FSR

Analog Output Ollsat Voltlga;

~~I~!I~~ ••••••.•••••••••••••••.••••••••••••.•••••.•••••••~5•••••• ~~ ••••F!~ .• I. ~~c.h. ~I! :'~~~". ~~t~~~t.~S. ~~I~~I.~~ :=.:-~"~ ~~O:.C••••
Bipolar (Nota 31

50
mV
Fig. 2; ±5 Voutput without FS adlust
.........................................................................................
100

Low Laval Input Voltaga (Notl 41

VIL

High Laval Input Voltaga (Notl 41

VIN

Input Tarminal Currant

liN

0.5

mV

Fig. 3; ± 10 V output wlt~oul FS adlust

V

Bit "ON"

V

2.1
5.0

pA

Bit "OFF"

oV:5 VIN :5 5 V

Analog Output FS Voltage;

~~I~~I~~ ••••••••••••••••••••.•.••••••• ::~ ~.~~•••••••••••:-!! :7.~ ....V•••••~L. ~ ~ .~'? .~I~ .. ~;. ~~t~~U! .F~. ~d!~~ .•••••••••••••••••••
Bipolar

V
........... '+4.93
:'5:94 ........... +5.94
':':4'.93 •••• it· ..

Fig. 2; ±5 V rlnga; RL = 2 kO without oHsatldlusllnd
FS adjust

.........................................................................................
+9.86

+11.89

V

........... :.: i i.iil" ......... ':"·9·.86 .... II'"
Supply Voltage
Ralaction Ratio

SVRR

0.15

Fig. 3; ±IO V rangl; RL =2 kO wilhout ollsatad/ustlnd FS
adlust

%FSR/V ±12 V:5 V±:5 ±18 V

Settling Tima (Nota 51

TS

3

/IS

Powar Consumption

Po

250

mW

Error $

';'

LSB. RL = 5 kn. CL = 30 pF

Notes; 1. %FSR and ppm FSR are the percentage and parts per million against full scale. respectively.
2. The average value of the differential coefficient at TC = -20 to +80°C.
3. Care should be taken, since the temperature drift after bipolar offset adjustment has been made will become larger for ICs in which
the offset voltage of the bipolar analog output is larger than the LSB value.
4. The input is active "Low."
5. When the load capacitance exceeds 30 pF there is a possibility of oscillation.

6-3

II

t-IEC

jlPC603
Typical Applications

Bipolar Operation (2), -10 V to + 10 V Output

Unipolar Operation, Output 0 to 10 V Range

Bipolar Offset

-15V

o-~--T--'

0.01

1

-15V

500

o---..----..-t---¥IAr-----Q +15V
0.01

Analog Output

1

lOOk

Analog
Output

500

1M

Va

F.S. Adjust

+15V
+15V

A

0

C

(MSB)

A

(LSB)

C

0

(MSB)

Example
Input
111111
100000
011111
000000

Digital Input
6 Bit Binary Code
Active Low

Input 6 Bit Offset
Binary code
Active Low

Output
0.00 V
4.92 V
5.08 V
10.00V

F
(LSB)

Example
Output
Input
111111 = -10.00 V
-0.16V
100000
011111 ~ +0.16 V
+10.00 V
000000
83-002367A

83-002365A

Compensation against Capacitive Loads (1)

Bipolar Operation (1), Output -5 V to +5 V Range
Bipolar Offset
-15V o-~--~~'---¥>h------Q +15V

0.01

T
rh

500

Analog Output

1M

Va

11
IlPC603D

A
(MSB)

B

C

0

o

(LSB)

o
Digital Input
6 Bit Offset
Binary code

Active Low

Example
Input
111111
100000 "'i
011111 "'i
090000

Output
-5.00 V
-0.08 V
+0.08 V
+5.00 V
83-002366A

6-4

The Ie is stable against capacitive loads of less
than 100 pF.
Care should be taken, since the settling time will
increase to about 5 fiS.

83-002368A

NEe

pPC603

Typical Applications (Cont.)

Operating Characteristics

Compensation against Capacitive Loads (2)

Output Response (1)

+15V

5k

+LSB

l
""\

10

IS953

,------+---+-0 Qulpul

II
u

-L!!.S

a -i.

-2LSB

-

.A/
y

/

"

«

I

IS953

10
Tlme(pS)
~PC603D

5k

-15V

o

o

Output Response (2)

This method can be applied only to the 0 to 10 V and
±5 V output ranges.
It Is possible to connect such operational amplifiers
as pPC318 etc. to the 8 pin as a voltage follower.

83-002369A

10

1-BIt DIA Converter
-15V

/
J

\

j

\

/

3M

lOOk

IS953
10
15953
IS953
IS953

Analog 0 utput

Time (,us)

? ? ? ? ? r-<'

I.

13

12

11

10

9

8

6

7

,uPC603D

1
MSBA
B

I

2

I

3

•

5

Glitch Waveform at 1/2 Scale

6

c
o

100000

E
4.92

LSB G 0-

'S

&

-2LSB

!:I
O~

o The linearity error can be reduced by adjusting the

o

~

3 MO resistor.
The output voltage may be set to any of the 3
ranges, with the circuits of figure " 2 and 3.

I
I
II

,

011111

I

1/

Y

-4LSB

I
I
II
10

83-G02370A

Time(JlS)

6-5

NEe

pPC603
Application Circuit.
Progressive comparison type AID converter
Input
utput

: Oto 10V

o

: 6-blt straight binary

-15Y~

J

b

(parallel, serial)

14

n
13

12

11

I
10

9

8

6

7

.PC603D

1

2

3

5

4

--

D-FF

--

T

-T

...Ee.!!...

r-T

-TA

.A

.......

D-FF

.......

!

eli'
.A

.......

D-FF

r-T

eli

I

-

.A

.......

~D

D-FF

D-FF

-T
f

Sample/Hold

A

Lr:-:- L:-:~ L:-:r- Lr:-:~ L:-:rD-FF

0-IOY

Hold

-=t?~_r

A

--

Analog Input

Sample and

L....o+15V

I

A
...

---1

or-

r-T

T

-T-

..A

.A

.......

-r--

.......

-

-r-

II

0, O2 Qa 0 4 Os Os 0 7

0-

I

a.

J,

...

Latch

CI_
8..Blt Ring Counter

0,

...

J.

J.

J,

0,

0,

II-BH Latch

Enable
Q.

0, 0,

666 6 6 6

Straight Binary

Straight Binary

Serl.. Output

MSB
Note: DaFF I, an Edge Trigger Type

LSB

Series Output
83-002375C

6-6

ttiEC

JiPC603

Application Circuits (Cont.)
Tracking type AID converter
Input
Output

Oto 10V
6-bit straight binary

-15V

Analog Inpul

J

--:h

[

1°·01

I.

n
13

12

11

I
10

9

8

5

6

7

L$"

MPC6030

1

2

•

3

E,+15V

l°.o1
>.~

~~

>.

~

+-a,

a,

a.

a,

a,

a,

Up Down Counter

Clock

JlJ1....o-J

II

UP/DOWN

I

Clock

LSB

MSB

Straight Binary Output

83-0016788

6-7

/lPC603

•

6-8

NEe

t-IEC

JlPC610
10·BIT POLARIZED
D/A CONVERTER

NEe Electronics Inc.
Pin Configuration

Description
The tJPC610 is a high performance precision monolithic
digital-to-analog converter which converts 10-bit binary
coded digital signals to an analog DC output voltage. All
of the necessary circuit blocks are incorporated on
board the converter to make designing simple. With the
built-in voltage reference and reference input, multiplier
operation is also possible.

MSB

Sign Bit

2nd

Reference Output

3,d

v+

4th

Reference Input

5th

Output

6th

Analog GND

Features

7th

v-

6th

Digital GND

9th

~

_ _ _---.r- LSB

D Full Scale Temperature: 100 ppm/ °C max
D Linearity error: 0.2% (1 /2 LSB of 8th bit) max

83-002377A

D Settling Time: 1.5 tJs typ

Pin Identification

D Built-in band-gap reference voltage source
D Multiplying type

Pin

D Sign-Magnitude binary code

D Low noise
D Low power dissipation

Name

Function

MS8

Data Bit 1

2nd

Data 8it 2

3rd

Data 8it 3

4th

Data Bit 4

5th
6th

Data Bit 5

7th

Data Bit 7

8th

Data Bit B

9th

Data Bit 9

10

LSB

Data Bit 10

±18 V

11

Digital Ground

Power Dissipation

500 mW

12

V- Supply

Analog Ground to Digital Ground

±0.5 V

13

Analog Ground

-5to +15 V

14

VOUT - Output

oto +7 V

15

Relerence Input

Ordering Information
Part
Number

Package

pPC6100

Ceramic DIP

4
Operating
Temperature
Range

Absolute Maximum Ratings
TA = 25°C
Voltage Between V+ and V-

Logic Input Voltage
Relerence Input Voltage
Relerence Voltage Source Output Current
Output Short Circuit Duration
Operating Temperature Range
Storage Temperature Range

1.0 mA

16

V+ Supply

Indelinite

17

Reference Output

-20 to +BO°C

18

Sign Bit

Data Bit 6

II

Power Supply Negative
Voltage Output
Power Supply Positive
Sign + or-

-55 to +150°C

Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device atthese or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

6-9

NEe

pPC610
Equivalent Circuit

~

+
>

:£

~

l'

~I
-

~

I~\
,

+

f---o
f---o

- ~~

~

f---o

- f---o~L
-~
- ~~L
f---o
- --o~
- ~~
f---o
- f---o~L
- ~~1.

~

~

>--0

w

~

- r=o

~

~

M

>--0

N

~

---o~

I

J

I~

i.\

~

~
- ~b

~

;

83-002376C

6-10

ttiEC

IlPC61 0

Electrical Characteristics

v± =

TA = +25°C,

+15 V
Limits

Symbol

Parameter

Min.

Typ.

Test
Conditions

Unit

Max.

II
Bil
Bipolar Operalion
.........................................................................................

Resolulion (Nole I)

10

Bil

linearlly Error (Nole I)

NL

0.1

0.2

O/OFSR

Unipolar Operalion

Sellling Time

TS

1.5

6.0

ps

TA

= -20 -

+80°C

Final Value ±20 mV

50
100 ppmfO C Using inlernal reference vollage source
..............................................................................

Full Scale Temperalure
Coefficienl (Nole 2)

30

60

Relerence Inpul Bias Currenl

liS

100

500

Reference Inpul Slew Rale

SR

1.5

nA
Vips

2.4

2.6

V

RL 2 20 kO

Zero Scale Offsel Vollage

±5

±IO

mV

Signbil "ON", olher bils "OFF"

Zero Scale Offsel Symmelry

±I

±5

mV

Full Scale OUlput Offset

±IO

±80

mV

0.015

0.15

Reference Vollage

VREF

Supply Voltage
Rejeclion Ratio

2.2

ppmloC Using exlernal reference voltage source

SVRR

GfoFSR/V ±12 V:5 V±:5 ±18 V

Power Dissipation

Po

300

mW

Logic Input Terminal Currenl

liN

10

pA

High Levelinpul Vollage (Nole 3)

VIH

0.8

Low Levellnpul Vollage (Note 3)
Full Scale OutpUI Voltage (Note 4)

VtN = -5

V~

+15V

V

2.0
11.0

-11.0

-10.0

V

V
All bils "ON". RL 2 2 kO
..............................................................................

Vo

10.0

V

Signbil "OFF", olher bils "ON". RL 2 2 kO

Notes: 1. Though the IC possesses a resolution of 10 or 11 bits, the linearity error is equivalent to 9 bits. In applications where perfect monotonicity is expected, employ the IC as an a-bit D/A converter.
2. The average value of the differential coefficient at TA = -20'C to +80'C.
3. The digital input is active "High" binary code.
4. The value when the internal reference voltage is directly applied to the reference input terminals.

Typical Characteristics
(TA = 25°C)
VREF - Vo+ Characteristic

Digital Input Response Characteristics

15r------,------~-------.-------r------~

V± = ±15 v

V±"" ±15V

10~------hr----~~~---4----~-+------~

:E

!

a

i

5~------~----~~~---4----~-+------~

1~
o

5

II
10

Time (J-Is)

t q 11
15

20

:E

10~----~------_+~~---+------~--~~~

I1
6
~

25

Reference Input Voltage (V)

6-11

II

~EC

jlPC610
Typical Applications

Typical Characteristics (Cont.)
(TA = 25°C)

Using internal reference voltage source
VREF

~ Vo~

Characteristic
Sign

Bit
LSB

MSB

.

~

-5

s'"

g
,0-

,

0

V+

Reference
Input

10k

-10
50k
R,

-150~------~------~--------~------~------~

Reference Inpul Voltage (VREF)

Note: Use resistors with good stability for R1 and R2'

o
Reference Input Response Characteristic

0/
V
0

\

5

/

\.

i1 I 1 I
o

m

w

•

Time (>.(8)

Sign

Magnitude

1

1111111111

=
= OV
= OV
1111111111 = OV

0000000000
0000000000

/

83~OO2378A

J
u

+ 10-8it Binary code

Sign

~

External reference and multiplier type

Sign
Bit

MSB

~

LSB

V+

Output Noise Voltage
V± = :!:1S v
1Hz - 20Hz

v-

Digital GND

Analog GND

o Multiplying coefficient

=

= 4.4

V FS
4.4 X V REF •
2.2 X V REF .
V MSB
V LSa
2_2 X 2- 9

=
=

2 sec

83-002379A

6-12

t-IEC

J,lPC61 0

Application Circuits

a-Bit + sign AID converter
Successive approximation type (sheet 1 of 2)

GND

+15V

-15V

10k

115V

Input

'-H-

SDk

~r

-f

+5V

V'N

0.01

~

Sample

Hold

ht

~PC610D

MSB
Sign

5k

~

Vo Sample Command
Bib

LSB LSB

-15V

II

r=
'---- f--

~2

0,

0,

~

~

r

~

L~~ L~r- L~_
D-FF

D-FF

r-T

"'-r-

I

I
I

1

A
"I

~

I

r-T

1

A

I
I

D-FF

r-T

D.
T

L

-4

I
I
I
I

I
I
I
I

T D'T

1

I
I

I

I

I

0,

I
I
I

'1

I
I

I
I

I
I

I
I
I

I

I

I
I

l Lrll
r

k'-

I
J

D. s~7
,-

L:-:_ L~rD-FF

D-FF

-T

r-T

1

T

A

A

~

~

I

"I
A

B

C

D

E

F

G

H

12-811 Ring Counter

6

CLOCK

I

I

J

I
K
L

--0

I

L

Lat.h
Enable

B-BitRegister

666666666

Sign

LSB

MSB Output
83-OO2385C

6-13

NEe

pPC610
Application Circuits (Cont.)
+ sign AID converter

8-bit

Successive approximation type (sheet 2 of 2)

CLOCK

AII~
8

C

______________________

~~

~~_ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ __ _ _

r_l~

__-,__________________________

__________~____________~r_l~______
______________________________
_____
~r_l~

------------------------------------~~
v,

c,
c,
c,

-----~~======================~->
~~================~=<

c.
c,
SO

,W

1

1

V'IN
FS
V'N
Vo
V'IN

FS/2

Note: D, VIN. V'IN and Vo show in case when an input equivalent to
an output of "101110110".

6-14

W

1

1 1L..,:.0_ _ _ _ __

!\fEe

J,lPC61 0

Application Circuits (Cont.)
Peak detector (positive/negative)

GND

-15V

Positive

Input
VIN

+15V

Negative

CLOCK

0.01

10k

f--H-

50k

~O1

'1

Comparator
-

pPC610

+

OUT

C.O.

br>=D-

LSB

Sign MSB

~ t-

UlO 0 1

0, ................... -e- +- ..... Q"
1O·Bit Up Down
Binary Counter

CLOCK

CLEAR

6

Reset

II
LSB

MSB

Sign

Digital Output

Analog
Output

Va

CLOCK

C.O.

V'N
FS

""""-

Vo
FS/2

--83-00238BC

6-15

pPC610
Precautions for Usage
1. To absorb surges and prevent oscillation, bypass the
power supply terminals with a capacitor of 0.01 fJF.
2. To utilize the r.hl'lrar.leri<>lir.<> nf th'" "pr.~1nn in filII
employ comp;n~nt~-~f g~~d-st~biiit/i~rth~ f~II~'~~;i~
adjustment resistor and the trimmer.
3. Since the settling time may increase or oscillation may
occur in the case of capacitive loads, the fJPC610D
should be used with load capacitance of 100 pF
or less.

6-16

NEe
4. The output amplifier will saturate at: I VREFI 2: 3 V in
the case of multiplier type operation. In this case the
response time and power supply current will increase.
5. Since the reference potential inside the pPC610D is
connected to the analog GND, common mode noise
in regard to analog GND will present a direct error.
Since analog GND and digital GND have independent
circuits within the IC, these should be connected
together outside the IC (if required).

pPC624
a-BIT HIGH-SPEED
MULTIPLYING
D/A CONVERTER

ttlEC

NEe Electronics Inc.
Pin Configuration

Description
ThepPC624 is a monolithic multiplying digital-to-analog
converter designed for high speed performance and
design/application flexibility. Advanced circuit design
allows settling time of 85 ns. The outputs are high impedance dual complementary current types, which allow
simple resistive loading, op-amp voltage conversion,
and other configurations. The adjustable threshold logic
input allows connection to all popular logic families.

THRESHOLD

CONTROL

COMPo

lOUT

VR.' (-)

v-

VREF (+)

lOUT

v+

MSB

LSB

2nd

7th

3rd

6th

4th

5th

Features
D
D
D
D
D
D
D

83-002390A

Wide range multiplying capability
Wide power supply range ±5 V to ±18 V
High output impedance and compliance
Variable logic threshold
Direct interface to TTL, CMOS, PMOS
Differential current outputs
Pin to pin compatible with PMI'S DAC-08

Pin Identification
Pin

Name

Function

Threshold Control
lOUT
V-

Current Output
Current Output

5

lOUT
MSa

Data Bit 1

3
4

Ordering Information

Power Supply Negative

6

2nd

Data Bit 2

Package

Operating
Temperature
Range

7

3rd

Data Bit 3

pPC624C

Plastic DIP

-20°C 10 +70°C

a

4th

Data Bit 4

pPC6240

Ceramic DIP

-20°C 10 +ao°c

9

5th

Dati Bit 5

10

6th

Data Bit 6

11

7th

Data Bit 7

12

LSB

Data Bit a

13

V+

Power Supply Positive

14

VREF+

Positive Reference Vollage

15

VREFCompensation

Amp Compensetion

Part
Number

Absolute Maximum Ratings
TA = 25°C
Supply Vollage
Logic Inputs
Logic Threshold Control Vollage
Analog Currenl Outputs
Relerence Inputs

36 V
V- to (V- +36 VI

V 10 V+
4.2 mA
V-IO V+

Relerence Inpul OIlierentlal Vollage

±18V

Reference Input Currenl

5.0 mA

Power Dissipation, 0 or C Package
Operating Temperalure Range. 0 Package
Operating Temperalure Range, C Package

16

II

Negative Reference Voltage

500 mW
-2010 +BO°C
-2010 +70°C

Storage Temperature Range, 0 Package

-5510 +150°C

Storage Temperature Range, C Package

-5510 +125°C

Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress
rating only and functional operation of the device atthese or any other
conditions above those indicated in the operational sections of this
specification is not implied. Exposure to absolute maximum rating
conditions for extended periods may affect device reliability.

6-17

t-IEC

pPC624
Equivalent Circuit

V+

VLC

MSB

2nd

3rd

4th

5th

8th

7th

LSB

,..----t-.,--+...,...---t-t--i-1r----t-.,--+...,...--t-.,.---F-OloUT
~~~~+_+_...,...~~--t_+_+~~~~~+_+-...,...4_4_--t-~F2~IOUT

VRE' (+)Q:,14:+---t---+-----.,

VRE' (-)0;;15+---1

16
COMP

V-

83-0023898

6-18

NEe

JlPC624

Electrical Characteristics

TA = +25°C, V±

= ±15 V,IREF = 2.0 rnA
Limlls

Parameler

S,mbol

Rlsolution
Monoloniclly
Nonlinearity

NL

SeHling Tlma
Full SClle Temperalurl
Coeflicient

TS

Oulpul Volta.1 Compliance

VOC
IFS

Full Scale Currlnl
Full Scale Symmetry
Zero Scale Onlll Currlnl

IZS

Oulpul Currenl Rlngl

10

Low Level Inpul Voltagl

VIL

Nigh Levellnpul Volta.1
Low Llvel Inpul Currenl

VIN

Nigh Levil Inpul Currlnl
Logic Inpul Swing
Logic Threshold Ringe

IlL
liN
VIS

Typ.

Max.

8

8

8

BII

8

8

8

811

0.19
150

%FSR

85
10

50

ppmfOC

+18
2.04
±8.0
2.0

V
mA
pA
pA

ll.IFS::5'hLSB
VREF = 10,000 V. R+REF = 5,000 kn

2.1
4.2

mA
mA

V = 5.0 V
V- = 8.0 Via -18 V

0.8

V
V

VLC = 0 V. Bil "OFF"
VLC = 0 V. Bil "ON"

-2.0

-10

pA

VLC = 0 V, VIN = -10 V10 +0.8 V

0.002

10
+18

pA
V

VLC = 0 V. VIN

+13.5
-3

V
pA

VTH = VLC + 1.3 V

-10
1.94

1.99

o
o

0.2
2.0
2.0

Power Supply Curranl

Unll

ns

2.0

-10
-10

Relerence Bill Currenl
Relerence Inpul Slew Rill
Power Supply Voltagl
Rejection Rilio

TISI

Mil.

Condiliols

±v. LSB, RL ::5 50 n All blls ON/OFF

= 2.0 V10 18 V

ll.IREF/ll.T 4.0
8.0
mAlpi RREF ::5 200 n. Cc = 0 pF
SVRR+ V
0.0003
0.01 %FSR/
...•............•........•........... ~.....V:.=: .~.~!~ .1.8. ~ •. I.R.E.F. ':'.! .~~ ..................... .
SVRR- V
0.002
0.01 %FSR/
%
V- = -4.510 -18 V.IREF = I mA
1+
2.5
3.8
mA
-6.5

-7.8

mA

.... j+.............. 2:4······ 3:8···· '~A'"
•••. j-=-••.•••••••••• ·..:.6:4···· ''':'i:i''' '~A'"

v+ ',;;5 it: it:..:
v+ it: it:..:
'~'5

~

~

:":'i5 v: 'IREF ~'z' ~A"""""""'"
:":'i5 v: iREF ~ 2' ~A"""""""'"
i .. ,...................... .

.... j+' ............. 2:3 ...... 3:8 ... "~A' .. vi:'~ '±5'v"IREi;~'
•••• j-=-••••••••.••.•

·..:.4:3···· ''':'ii:i'''

'~A'"

vi:

~A'

'~'±5'V"IREF'~'i ~A""""""""""""'"

6-19

t-IEC

pPC624
Typical Applications
Basic Negative Reference Operation

Basic Positive Reference Operation
v+

v+

d.'

d.'

r---1
~

MSB

VLC

r---1

2nd

~

______~'3~---+~--~r_----~

R+REF~

VREF

VlC

MSB

2nd

-r____~~____f7

--~____~'3~__

,.

0-W..----,"".f--....--+------,

-YREF

'5

0--""'''r--+-----1
R-REF

'5

D.'

0.'

v-

~

Notes: 1. R+REF = R-REF
2. C = 0.Q1 pF (Standard Value)
3. Minimum capacitor value for stable operation is given by
Cc = RREF (kO) X 15 (pF).
83-0023918

83-0023928

Basic Unipolar Negative Operation
5th

6th

7th

LSB

IREF = 2.000 rnA
Input

Vii IV)

101mA)

iiilmA)

Vo IV)

11 11

1.992

0.000

-9.96

0.00

11 1 0

1.984

0.008

-9.92

-0.04

0000001

1.008

0.984

-5.04

-4.92

0000000

1.000

0.992

-5.00

-4.96

1 1 1 1 1 1

0.992

1.000

-4.96

-5.00

00000001

0.008

1.984

-0.04

-9.92

00000000

0.000

1.992

0.00

-9.96

o1

83-0023938

6-20

NEe

JlPC624

Typical Applications (Cont.)
Basic Bipolar Output Operation

+10.000V

IREF = 2.000 mA

.-

10.000k

10.000k

Input

10lmAI

iOlmA)

Vo IV)

VOIV)

11111111

1.992

0.000

-9.92

+10.00

10

Vo

Yo

2_

10

1 1 1 1 I 1 1 0

1.984

0.008

-9.84

+9.92

10000001

1.008

0.984

-0.08

+0.16

10000000

1.000

0.992

0.00

+0.08

o1

1 1 1 1 1 1

0.992

1.000

+0.08

0.00

00000001

0.008

1.984

+9.92

-9.84

00000000

0.000

1.992

+10.00

-9.92

83-0023948

Positive Low Impedance Output Operation

Negative Low Impedance Output Operation
+15V

+15V
7th

0.1

LSB

200~

7th

LSB

Vo

0.1

Vo

0.1
5k

-15V

l

5.000k

-15V

l
6-21

NEe

pPC624
Typical Applications (Cont.)
Comparator Connection Method for AID Conversion
(Positive Analog Input)

Comparator Connection Method for AID Conversion
(Negative Analog Input)

V,N
V,N
7th

+15V

+5V

+5V

+15V

LSB
7th

3k

S.nOOk

L$B

1k

-15V

-15V

83-002398A

Low Impedance Output Operation (Both Outputs)
t-15V
7th

LSB

Note: For buffer amplifier, high slew rate op-amp is recommended
to obtain fast settling time.
83-002397A

6-22

83-002399A

ttt{EC
Interfacing with Various Logic Families
The logic threshold is set about 1.4 V above VLC. This
enables TTL level acceptance by simply grounding pin
1. By placing an appropriate voltage at the logic
threshold control pin (pin 1), various threshold values
are available for the other logic families.

pPC624
Anti-temperature coefficient circuits
CMOS, HNll; NMOS

CMOS, HNll (1'V)

ECl

±15V

200

9.10

130

TTL interface permission gives the interval logic threshold -4 mV/oC temperature coefficient. VTH = VLC +
VlC

1.4 V - 0.004 V X (TA - 25°C).

I

0.1
200

390

••20
•. 20

-S.2V
83-002400A

6-23

t\'EC

pPC624
Operating Characteristics
(TA = 25°C)
Fuii Scaie Current

Fuii Scaie Current
5.0

V-~

TA

=

2.5

-15V
-20 to +80°C

4.0

;c
.5.

~

3.0

i

2.0

/

0

1.0

/

/

/

a

V

I

2.0

/
/

;C

.5.

~
a
1;;

1.5

1.0

'CM
V-= -15V

0.5

<

I

~
~

1.0

2.0

3.0

4.0

-15

5.0

~

% -5

0

\

~

~

LSB Propagation Delay

400

I

ic

300

i
..e

200

i!.

1\.\\

,\

-10

o
0.2

0.3

0.5

1.0

2.0

3.0

5.0

10

"

i

1.0

10

I

i

6.0

2mA

IREF

~

1.5

ai

IREF = 1mA

1.0

~

D.

0.5

IREF

O.2mA

r

(
16

12

12
Reference Common Mode Voltage (V)

4.0

ci!

r

0

6-24

0.1

6.0

LF~l

r

0.01

Power Supply Current

Relerence Amp Common Mode Range

J-5V

o

...........

Output Full Scale Current (rnA)

Frequency (MHz)

LJ

\

100

-15
0.1

15

500

I\L~-

1'\

iii'

10

Common Mode Input Voltage Range (V)

.,/h

!

V+ = 15V

-5

-10

Reference Input Frequency Response

;c
.5.

V+ICM

~

ALL BIT "ON"

2.0

/
/
/
I

h-

0

Reference Current (rnA)

2.5

V+ICM
V-= -5V

V-ICM , /
y- =-5V

16

I

20

V+
2.0

0
10
Positive Power Supply (V)

20

I

NEe

pPC624

Operating Characteristics (Cont.)
(TA = 25°C)
Power Supply Current

Power Supply Current
6.0,---,----,----,----,-----,

6.0

I-(IREF - 2mA)

<"

.s

1-

6.0

6.0

~:-::=t===+===+===:t=:~~
IREF = 2mA

o

~

l-(IREF = 1mA)

"

>.

4.0

I.
•

&.

I

I (IREF

2.0

o

4.01----t----t-----t----1----I

O.2~A)

1+

2.0

1+

o

-10

-20

F:':":"=::j:::=::=::F=:::::::F::::::::::=F=:::::::::::j

20

20

Negative Power Supply (V)

40

60

60

Ambient Temperature (0C)

AID Conversion Program List
0000

MVI

A.89H

: CONTROL WORD FOR 8255

0002

OUT

(8255)

: PROGRAM TO 8255

0004

MVI

B.80H

: 81T POINTER INITIALIZE

0006

MOV

A. B

: BIT SET WORD

OUT

(PORT B)

: BIT SET OUTPUT TO PB OF 8255

MOV

C. A

0007

BIT TEST

0009
DOOA

NOP

OOOB

IN

0000

RRC

OOOE

JC

DEC POINTER

0011

MOV

A. C

0012

SUB

B

0013

MOV

C. A

MOV

A. B

0014

DEC POINTER

(PORT C)

: AO - CARRY FLG

0015

RRC

0016

JC

RETURN

0019

MOV

B.A

001A

ORA

001B

JMP

DOlE

RETURN

RET

: READ COMPARATOR
: COMPARATOR TEST
: BIT RESET

: DECREMENT BIT POINTER
: LSB WAS TESTED?
: NEW BIT SET WORD
BIT TEST
(MAIN PROGRAM)

: CONVERSION END & RETURN TO MAIN PROGRAM

PROGRAM MEMORY

: 31 BYTE

CONVERSION TIME

: 371 /lS (741 STATE) MAX. 323 /lS (645 STATE) MIN (@ 

2.
Vo

COMP 10

r,

:~ 0.1

7.5 k

10 •

0

2.

..-;

Parallel Mode
Address
lAW
Setup Time
Low-Leval
WR Pulse
Wldlh

Pa!'lmeter

Conditions

ns

Dala Selup
Time
Dala Hold
Time

± 2°C; V+ = +5 V

~

J

r;

Notes: 1. Use resistors of 1% accuracy.
2. Capacitive load at VREF(F) pin should be less than 15 pF.
3. Adjustment Procedure
a. Set VREF(F) = 2.7 V by VR1'
b. After latching full-scale digital input. set Vo = 2.0V
byVR2'
83-Q02474A

0111 Hold

Time

IWD

Note: I r• If $ 50 ns.

6-42

NEe

J.lPD7011

Timing Waveforms
Parallel Mode

Serial Mode

WR

DB,
DB,

10

::::+-

------------------~

83-002475A

Ir, tf· _ 50ns

pk
,r

V REF • 2. AID conversion is started with CS going high; at the final step of the first AID conversion, EOC is low. The conversion time is: 'CONV = 56/cK 3. For 'SCK<500 kHz, the load capacitor (stray capacitance included) and the pull-up resistor, which are connected to serial output, are required to be not more than 30 pF and 4 kn respectively. 4. V+ 5. V+ = 5.0 V, VREF = 2.5 ± 0.25 V. = 4.5 to 5.5 V. 6-53 II NEe pPD7001 AC Characteristics TA = +25°C Note 1 ± 2°C; fclk = Addressing the Inputs 400 kHz; V+ = 5 V, Limits Parametar Symbol Min. Typ. One of the four analog inputs is selected by toggling the chip select line at pin 6 "low" and presenting a 2-bit serial Tist Max. Unit Conditions EOC Hold Time IHECS 0 ps EOC 10 CS CS Selup Tima ISCSK 12.5 pS CS 10 SCK Nole 1 Address 0111 Sllup Tlma ISIK 150 os Address 0111 Hold Time IHKI 100 os High Level Sarlal Clock Pulsa Wldlh IWHK 400 os Low Lavel Sarlal Clock Pulse Widlh IWCK 4.00 os Oall Lalch Hold Time IHKOL 200 os Dala Lalch Pulse Wldlh 10KO 200 os Serial Oall Delay Time IDKU Oalay Time 10 FloatiDg SO IFCSO CS Hold Time IHKCS 500 250 200 os os code (from the host controller) to the Serial Input (S!) at pin 3. The "channel select" data is sent to the upper 2 bits of the 9-bit shift register on the rising edge of the Serial Clock (SCK) at pi n 4 and loaded into the Data Latch on the falling edge of the Data Latch signal at pin 2. Referring to figure 1 the analog input addressing sequence is: D Chip Select (CS pin 6) toggled "low" or 0 D 2-bit "channel select" data presented to SI and pin 3 D Data shifted in on SCK rising edge D Data Latch signal present at pin 2 (pulse is 200 ns min.) D Mux address data latched on falling edge of DL signal. SCK 10 OL SCK 10 SO. RL = 3 K (Nole 2). CL = 30 pF Ci 10 High Impedance SO Multiplexer Channel Selection Input DO 01 AD Low Low Al High Low A2 Low High A3 High High Figure 1. Analog Channel Selection ns Notes: 1. When Cs is high. the IlPD7001 performs AID conversion and does not accept any external digital signal. It remains at the previous state continuously. When Cs is low. the data is exchanged with the external digital circuits. However. 5 internal clock pulses are needed before digital data is output. The rating corresponds to the 5 clock signal pulses: tSCSK (min) = 5/fc lk 2. The serial data delay time depends on load capaCitance and pull-up resistance: tOKO = 2.3 X RL X CL + 100 ns. -I l-tHKI 91 _ _ _ _"" r"':"'-D"":,;:;;""-x::D.....-=----l:::"'''''''-k==--+----==i='''''-I 0.05 ~--+---~:::--"""-kc:--+--=::::~=--I I :@ III ! ,,- 1.0 , - - - . , - - - - , - - - , - - - , - - - - - , - - - , ~ r---.J I 011 ~ ~ I r---..J 010 0 ! I J! a. .J C 001 O.01\-----+-----jc---+----+----j---j 000 0 2LSB Analog Input Voltage 6-56 3LSB (Vi! ! ,LO--~2LO---~5LO--~,0~0~--2~0~0----5~0~0--,=0~O; NEe pPD7001 Operating Characteristics (Cont.) Total Unadjusted Error vs. VREF Clock Oscillation Frequency vs. Current Characteristics ! 500 ~ iii ~ .. 31------1------+-- il; il; "c "'"c w ~ 2 f - - - - - + - - - - - I - - - ,g f--- ,gf--- . "~ .!:c 400 .2 ......... i""" ~ il J2 = 27k ceE = 47pF 0 0 ----RCE 'g 300 L o Reference Input Voltage (V) Output Sink Current vs. Saturation Voltage Characteristics o Supply Vollage V DO (V) Supply Voltage vs. Current Characteristics 1.0 , - - - - , - - - - , - - - - , - - - - - , - - - - , Voo = 5V . _ 0.81-----+----1----+----+-----1 ;::. F ~ 0.6 i ~ 0.4 ;; ~ o 0.2i-----+:7'SO"""=:..!-"'---t----+----I O~o--~r--~------~-----7------~----~ Sink Current (mA) Supply Voltage (V) 6-57 jiPD7001 6-58 NEe IlPD7002 10-BIT CMOS INTEGRATING AID CONVERTER ~EC NEe Electronics Inc. Description Pin Configuration The tlPD7002 is a high performance, low power, 10-bit CMOS analog-to-digital converter. Using the integrating technique the 7002 offers the designer full microprocessor interface, four multiplexed analog inputs, and low power CMOS construction. Xo x, GND Features C, D 8- or 10-bit resolution (selectable) D 4 channel multiplexed analog input D Auto zero and full scale correction without external components D High input impedance - 1000 MO D Internal status register can be accessed by host controller D Operates from single +5 V supply D Interfaces to most 8-bit microprocessors D Low power operation (CMOS) D 5 ms conversion speed (10 bits with fCK = 2 MHz) D Available in two performance ranges: Conversion accuracy (maximum with TA = 0 to +50°C): tlPD7002C-1 .......................... 0.1% FSR tlPD7002C ............................. 0.2% FSR Ordering Information Part Number Package J1P07oo2C Plastic DIP w- C, cs GO Do VREF GND CH3 CH, CH, cHo v+ 83-002445A Pin Identification Function Pin Name 1,2 XO, XI External clock input GNo TTL ground 4,6 CI Integrating capacitor 5,7 GO Guard 3 Operating Temperature Range GO 8 VREF Reference voltage input GNo Analog ground Analog channel 3 Absolute Maximum Ratings 10 CH3 TA = +25°C 11 CH2 Analog channel Z 12 CHI Analog channel I 13 CHO Analog channel 0 14 V+ Voltage (+5 VI Operating Temperature Storage Temperature Power Supply Voltage -0.3 V to +7.0 V All Input Voltages -0.3 V to V+ 0.3 V Power Dissipation 300 mW Analog GNo Voltage ± 0.3 V Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device atthese or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. 15-22 07-00 23 CS Data bus Chip select 24,25 WR, RO Control bus 26,21 AO, Al Address bus 28 EOC 1.1 End of conversion interrupt 6-59 t-lEC pPD7002 Block Diagraln Data Bus Analog Input CH l I Control Word Latch CH ~ I I "< Status Latch t (12 an) AID Analog Block ,... I VAEF =:J --cAnalog GND AID ~ 10/8 y Digital Block ~ 6 6 6 Digital ItO Pin Function Pin Symbol Name 1.2 XO. XI Xtal 15-22 07-00 Data Bus 23 CS 24 25 26.27 AD. AI 28 EDC 6-60 110 Function Xtal OSC. XI can be used as the Input of external clock. Three-state (I TTlllIOl AID conversion dala (High and low Bylel and inlernal status output to 8-bit Data Bus. MPY Address.!{IO select and flag data input from bus. High Impedance when IIPD7D02 is not enabled (CS = Hlghl. Chip Select Input low level of CS makes other Input pins (WR. RD. AO. All enable and data transmission and receiving are possible through data bus pins. WR Write Input When WR RD Read Input When RD Input AO. AI deSignate the data In data bus (High. low. Status Bytel. Address End ot Conversion Output (I TTll = low. IIPD7002 rBCeim new data from data bus. = low. IIPD7002 transmits conversion data and Intenial stalus to data bus. EDC indicates the end of conversion to external chips. Read mode operation (high byte outputl resetable EOC. t-iEC JlPD7002 DC Characteristics TA = DOC to HODC; V+ = +5 V ± 0.25 v VREF = +2.50 V, felk = 1 MHz, CINT = 0.033 JlF, 10-Bit Mode Limils Min. Typ. Max. Unll Resolution.7002C-l 10 11 12 Bits Resolution. 7002C 9 11 12 Bils 0.05 0.1 %FSR Nonlinearity. 7002C 0.1 0.2 %FSR Full Scale Error. 7oo2C-l 0.05 0.1 %FSR Full Scale Error. 7002C 0.1 0.2 %FSR Zero Scale Error. 7002C-l 0.05 0.1 %FSR Zero Scale Error. 7002C 0.1 0.2 Full Scale Temperature Coefficient 10 ppm/o 10 ppm/oC Parameler Symbol Nonlinearity. 7002C-l Zero Scale Temperature Coellicient Tesl Condilions %FSR Analog Input Resistance RIH 1000 Total Unadjusted Error 1. 7002C-l TUEI 0.05 0.1 Total Unadjusted Error 1. 7002C TUEI 0.1 0.2 %FSR Total Unadjusted Error 2. 7002C-l TUE2 0.05 0.1 %FSR Total Unadjusted Error 2. 7002C TUE2 0.1 0.2 %FSR Clock Input Current Iclk 5 50 JlA High Level Output Voltage VOH V 10 = -1.6 mAo TA = -20 to +70°C Low Level Output Voltage VOL 0.45 V 10 = 1.6 mAo TA = -20 to +70°C Digital Input Leakage Current IILK 10 JlA Output Leakage Current 10LK Power Dissipation Po Mn V+-1.5 15 %FSR 10 JlA 25 mW XI pin can be used as an external CMOS level clock input. When external clock Is applied. Xo pin should be lell open. 6-61 ~EC jiPD7002 AC Characteristics T A = +25°C; V+ = +5 V ± 0.25 V, VREF = +2.5 V, fclk = 1 MHz, CINT = 0.033 JiF Limits Par!!!!ete!' Test ., .... M:}{. 8.5 10 15 2.4 4 Symbol ~~~. Conversion Speed [10 bit) tCONV Conversion Speed [8 bit) tCONV Address Set!!J!..Time CS, AO, Allto WR tAW 50 ns Address Set!!!!.. Time CS, AO, All to RO tAR 50 ns Address Hold Time WR to CS, AO, Al tWA 50 ns Address Hold Time RO to CS, AO, Al tRA 50 ns Low Level WR Pulse Width tww 400 ns Low Level RO Pulse Width tRR 400 ns Tun Ur.it ms ms Data Setup Time Input Data to WR tow 300 ns Oata Hold Time WR to Input Data two 50 ns Output Delay Time RO to Output Data tRO 300 ns Delay Time to High Z Output RO to Floating Output tOF 150 ns Nole 1 Note: 1 TTL load + 100 pF. Recommended Operating Conditions TA = +25°C Limits Parameter Supply Vollage Reference Vollage Symbol Min, Typ, Max, V+ 4.75 5.00 5,25 VREF 2.25 2.50 2.75 Analog Input Vollage Clock Frequency felk Integrating Capacitor CINT High Level tnpul VIH Low Level Input VIL High Level Clock Input VXHL Low Level Clock Input VXLL 0.5 Unit Test Conditions Notes [ContI: 2. Integrating capacitor: C1NT depends on clock frequency and can be obtained as follows C1NT(/lF) = 0.033/fclk (MHz). Note that conversion time is inversely proportional to the clock frequency. 3. TA = -20'C to +70'C, V+ = +5 V ± 0.25 V. Timing Waveforms Write Mode v V Nole I MHz Nole 2 pF 0.029 0.033 83-002600A 2.2 V Nole 3 V Nole 3 V Note 3 V Nole 3 Read Mode 0.8 V+ -1.4 1.4 Notes: 1. Negative voltage input « -0.2 V) decreases the input impedance. Furthermore, conversion error for the input through another MPX channel also increases. Input Conditions t r, II::::; 50 ns 24~ 0.4 V 83-002447A 6-62 !\fEe J1PD7002 Timing Waveforms (Coni.) AID Conver,lon Start - End Write Mode - EOC Output Do - 07 -+---'17----------'--------,\ Status EGC ~------~~------~/~=== Status BUSY Status MPX g:~ay~:~~; X L _ _ __ -lr-----------_'_---------, Previous co~verSion Data X'~----____ -+-------------------~ Conversion Data \~-- STOP ----- se~~~:~--~~~~------~~-------t~1 AID Conversion STOP End of Conversion START 83-0026018 Read Mode (Status, Low Byte) C$,AO,A, ifij----"'\ 00-0, ----++-0. Status latch ----H....,.'+------- Conversion Data Latch :===~~;t====== After AID Conversion END AID Conversion END and Low Byte Read Mode 83-0026028 Read Mode (High Byte) IX x EDC _ _ _....J After AID Conversion END '---AID Conversion END and High Byte Read Mode Read operation of High Byte resets the EOC (STATUS and EOC pin) 83-002451C 6-63 ~EC pPD7002 There is some uncertainty whether EOC is set or not, when data read operation is made simultaneously with the end of AID conversion. Furthermore, the reading error occurs at this time, so in this case a dual read operation is recornrnended. Operating Characteristics Full Scale vs .. 1111 11 .. 1110 11 .. .. 1101 i .----' I i a 11 Sequence I ~ ~ .---' I .----' 1100 One of the four analog inputs is selected by initiating a write mode from the external controller with the control signals as follows: CS (pin 23) = "!ow," RD (pin 25) = "high," WR (pin 24) = "low," A 1 (pin 27) and AO (pin 26) = "low." The analog input select data is presented to DO (pin 22) and D1 (pin 21) and the desired channel (1 to 4) is selected. The conversion resolution mode is also selected during "write" mode by presenting a "high" for 10-bit mode or "low" for 8-bit mode, to D3 at pin 19. V REF «" 11 Addressing the Inputs 00 .. 0100 00 .. 0011 D Initiate "write" mode (CS = 0, RD = 1, WR = 0, A1 IA2 = 0) . D Present data for analog channel select to DO, D1 . r-A'"..--I I .----' I 00. 0010 00 . . 0001 .---' I .----' I 00 .. 0000 1020 0 Analog Input (LSB = 1021 VREF 11024) Total Unadjusted Error 11. 1022 1023 1024 CHO= CH1 = CH2= CH3= DO L H L H D1 L L H H D Present conversion resolution data to D3. 10 BIT = H 8 BIT = L During the write mode the only available function of the tJPD7002 is data input from the controlling system. When the write function is terminated the AI D conversion process starts. The Conversion Process 00. Analog Input Transfer Characteristics with Respect to VREF During the "write" mode the internal sequence controller is initialized and ready to take control of the conversion process on the rising edge of the write pulse. All conversion functions take place with thetJPD7002 in the "not selected" mode with the control signals set at: CS = "low," RD and WR "high ... AO" and A1 "don't care." In the AID section the analog signal is input via the multiplexer and compared to VREF at pin 8 (VREF sets the maximum full-scale input signal which can be converted). At this point the internal sample and hold for auto zero function and full scale correction are accomplished. The processed analog signal is then passed to the analog section where the integrating capacitor is charged for a given time period controlled by the clock. In this case the period is 8192 clock periods. The capacitor is then terminated to ground and the falling slope is measured by the number of clock cycles to the zero crossing point. The number of clock cycles from peak to zero (falling slope) is proportional to the value of VIN. The integrator is then set up for the next conversion cycle. Analog Input 6-64 NEe The digital section converts the pulses from the analog section to 12-bit code and sends the converted code to the conversion data register where the data is latched and ready for "reading" by the controlling device. The data is then "read" in two bytes by addressing AO and A1 while in the read mode. A 1 = "low" AO = "high" reads the high data byte (DO to 07), and A1 = "high" AO = "either" reads the low data byte (07 to 04). During the low data byte read DO to 03 are low and the data on 04 and 05 (bits 11 and 12) may not be accurate data. The internal status can also be checked while in the read mode by setting AO and A1 both "low." Operation of Individual Sections Sequence Controller (See Sequence Chart) The Sequence Controller controls the internal sequence of AID conversion and the operation of the three-state 1/0 buffer. It is initialized by the write mode operation (analog MPX address and 10-/8-bit choice). After the write mode operation, the Sequence Controller starts the AID conversion, and outputs an EOC signal when the conversion is completed. There is no power-on-reset circuitry. AID Conversion Block In the AID section, an analog signal is input through the MPX and is compared to VREF, after which it is converted to a digital output signal. Full scale analog input is equal to VREF. GND as an analog input is equal to zero scale. AID conversion time depends on both analog input voltage and conversion mode (10/8 bit). Three-State 1/0 Port Section The three-state 1/0 port section is controlled by the Sequence Controller. It accepts the MPX address input and conversion mode input (10-/8-bit choice). The three-state 1/0 port section outputs the internal status and conversion data highllow bytes. JlPD7002 Conversion Data Latch After the end of conversion, the AID section outputs new data to the Data Latch. The output of the Data Latch is con nected to the three-state II 0 ports, and the data can be read at any time. When Data Read occurs simultaneously with an internal data transfer, a read error occurs. Therefore, two read operations should be made, unless Data Read occurs after the end of conversion. Status Latch The status latch stores the status data internal to the chip, and the internal operation state can be referenced by the status data. Status includes the following: BUSY, EOC: Internal sequence state of pPD7002. Write mode operation sets BUSY, and this is reset at the end of conversion. EOC is set at the end of conversion, and High Byte Read Operation resets EOC. MSB, 2nd; 10·/S·Bit Flag MPX The data stored in the conversion Data Latch when the status reading operation is made can be output. Therefore, the data is refreshed at the end of conversion. Access to the pPD7002 from the CPU can be made by both interrup~nd polling methods. In the interrupt method use EOC as an interrupt signal. In the polling method, use EOC and BUSY in Status Byte. After the AID conversion, the data in the conversion Data Latch does not change, and can be read repeatedly. Therefore, fundamental instructions like Load, Store, Move, etc. can be used to access data (by placing the address of the pPD7002 in memory area). Note that the access time (tRD) and the data setup time (tDW) of the pPD7002 are longer than that of the 8080 and 8085. The following program example shows the accessing of the pPD7002 by polling method in an 8080-based system. MPX Channel Address Functions MPX Address Bit Analog Input Channel CHO CH1 CH2 CH3 00 6-65 II • NEe JlPD7002 Control Terminal Functions Control T8rminals CS RD WR AI A7 Internal Function Mode Data 110 Terminals x x Hoi seiected ............................................................ H H H Not satected H Write mode Dlta latch AID start tnput status. 01. DO = MPX addrass 03 = 8·bitIl0·blt convarsion designation. Note 1. 07 = Flag Input. L H Not selactn ............................................................ L H L H H L H L Not selected H H High impedanca H Tast mode Tast status Input status. Note 2 L Read mode tnternal stltUS 07 02 H Reid mode High data byta 07-00 = MSB - 8th bit ~ •.••~ ...•H••.• ~••••..••~a~ .~o.d.e ••.••..••.. ~?~. ~a~~ ~~~ •...••••• L High Impedance H Raid mode Low data byte = EOe. 06 = BUSY. 05 = MS8. 04 = 2nd MSB. 03 = BII O. = Fllg Output. 01 = MPX. 00 = MPX 07-00 = 9th - 10th bit 03-00 = L Noles: 1. Designation of number of conversion bits: 8 bit = L; 10 bit = H. 2. Test Mode: used for inspecting the device. The data input-output terminals assume an input state and are connected to the AID counter. Therefore. the AID conversion data read out after this is meaningless. Bit Function Write Mode Function Read Mode Stalus Outpul High B,te Oulput Low B,te Outpul 10-Bil Nole 2 8-Bil 10-Bil Nole 2 8-Bil Eoe MSB MSB 9th Note 3 Output BusV 2nd 2nd LS8 Note 3 Output MSB Note 1 3rd 3rd 011 Note 3 04 Output 2nd Bit Note 1 4th 4th 110 10/8·BIt lo/8·BIt Note 1 5th 5th 012 Low Nota 3 03 02 110 Fllg input Flag Output Note 1 6th 6th Low Low 01 110 MPX Addrass MPX Note 1 7th 7th Low Low DO 110 MPX Addreas MPX Note 1 Bth Bth low low Bit 110 07 Output 06 05 Low Noles: 1. Previous conversion data. 2. In 10-bit mode. thepPD7002 operates as a 12-bit converter. Therefore. 11th and 12th bit data appear at 011 and 012. and the output of 011 and 012 varies with analog input; however. the data contain internal noise and are meaningless. 3. Not to be determined. 6-66 ttlEC pPD7002 Typical Applications Typical Microprocessor Interface 1. The high level input voltage of thepPD7002C is 2.2 V. In a minimum component system configuration, ~ 50 kO resistors to DBo-DB7, Ao, A1, CS, RD, and WR is recommended. The fan-out of DBo-DB7 is 1 TTL level. In larger systems, use bus drivers as shown here. s~~:mt::::~u~.18~~==========~~======:J 16 Address Bus 2. Use EOC as an interrupt signal if you have an interrupt-driven system. CD 3. Use a 100 Hz low pass filter to decrease the conversion error. Using the diode protection circuit shown here is effective protection against high voltage surges. Analog Input 4. The pPD7002 uses the integration technique for AID conversion, and it operates at a very low current level. The external integrating capacitor (CINT) is directly connected to the internal integrator. Using the guard pattern as shown below makes the operation less sensitive to leakage current. CH, ® ® CH, I Xu CH, D pPD7002C CH, x, VREF 5. Capacitors are tied to the X and Xo pins to stabilize the oscillation, use a ceramic capacitor about 50 pF. About 50 ms is required for stable oscillation after initial power-on. Therefore, the first Write Mode Operation should occur after this interval. 1 Guard @ 0.1 63-o02454A Use of Bus Drivers System Bus A I '\ DB, DB, DB, DB, DB, DB, DB, DB, DB, DB, DB, DB, DB, DB, DB, DB, ' - - OlEN CSc- pPB8216C Ole DO, Dl, DO, Ol, DO, DL., DO, LJ LJ LJ LJ DB, DB, DB, DB, Ole DO, Dl, DO, iffi CSt- pPB8216C ' - - OlEN CS Dl, DO, Dl, DO, LJ LJ LJ LJ DB, DB, DB, DB, cs RD pP07002C 83-0024538 6-67 fttIEC pPD7002 Typical Applications (Cont.) Noise Reduction The pPD7002 is an integrating AID converter; however, it operates at a relatively high speed and the normal fnode noise rejection cannot be expected. Obseivance of the following points will minimize noise induction to the input of the analog circuit. Diode Protection Circuit +5V o 1S953 ,. Analog Signal Input o Voo {} CH o tlPD7002C 1S953 Use lower impedance in GND connection Place the bypass capacitors for supply voltage and VREF and analog input close to the pPD7002 (one point GND is also effective) Isolate analog circuitry from digital circuitry: Component layout - GND wire layout - Shielding of analog circuitry (pin configuration of the pPD7002 is suitable for the layout shown in the next figure) 83-002455A Shield for Analog Circuitry Guard Pattern Guard Pattern pwe Digital Circuit Pin 4-INTO cp? 0 ~---II-CINT Shield Case 83-002456A 83-002457A 6-68 JlPD7003 8-BITCMOS HIGH-SPEED A/D CONVERTER NEe NEe Electronics Inc. Pin Configuration Description The /.IPD7003 is a high speed, high performance, low power, 8-bit analog-to-digital Converter designed to be easily interfaced to the 8080 and 8086, 8- and 16-bit microprocessors. Using the parallel conversion technique, the /.IPD7003 features a conversion speed of 4 /.IS and eliminates the need of sample and hold circuits in most applications. The /.IPD7003 is also capable of running under DMA control using a DMA controller such as the pPD8257. Available in a 24-pin ceramic/plastic DIP, the /.IPD7003 is the ideal converter for high speed 8-bit designs. DBo (LSB) DB, GNDD GNDA DBs 7 OB7 (MSB) ClK I.c. (TEST) V+ ""L=---_ _--"'-r-" MODE 83-002458A Features D High speed conversion (250 k samples/sec. max.) D Input consists of 255/1 matched autozeroed comparators D No missing codes over temperature range D Linearity ±1.25 LSB max. D Three-state outputs D Overrange output D Operates from single +5 V supply D Low power consumption (50 mW) Pin Identification Pin Name Function DO, 7th bit output 2 OB2 6th bit output 3 NC Non connection 4 DOa 5th bit output 5 004 4th bit output 6 DB5 3th bit output 7 006 2th bit output 0 DB7 MSB output 9 OVER Overrange output 10 V+ Power supply (+5 V) 11 YREF Relerence voltage input (positive) 12 V+ Power supply (+5 V) Absolute Maximum Ratings 13 MODE MODE control (note I) TA = 25°C 14 TEST Low: Device test (used lor inspecting tha devica) High: Conversion 15 CLK Low: Previous data output High: Quantizing Ordering Information Part Number Package Operating Temperature Range JlPD7003C Plastic DIP -20°C to +10°C JlPD7003D Ceramic DIP -20°C to +OO°C Operating Temperature. CPackage -20 to +10°C Operating Temperature. 0 Package -20 to +10°C Storage Temperature All Input Voltages Power Supply Power Dissipation Analog GNO Voltage -65 to +125°C -0.3 to V+ +0.3 Y -0.3 to +1 V 300 mW ±0.3 V 16 CS Chip select 17 DACK DMA Acknowledge 10 DE Low: Data output High: High impedance 19 AGND Analog ground Comment: Stress above those listed under "Absolute Maximum 20 VIN Voltage input Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. 21 YREFIGNDI AGND GND lor VREF 22 23 GND Digital ground 24 DBo (LSB) LSO II Analog ground 6-69 t\'EC pPD7003 Pin Identification (Cont.) Pin Name Function 19 GNDA Analog ground 2D Noles: 1. tnputs DE Mode VSIN Analog input 21 VREFN Reference voltage input (negative) (Nole 2) 22 GNDA Analog ground 23 GNDD Digital Ground 24 DOD LSD output 1 B·BiI Register Data refreshed with every CONV j o D No change 2. Tie to the analog ground unless external zero adjustment required. Block Diagram RI2 Over Range Latch r-----------------i;~-----oOVER R R Selector 256 - 1 Encoder (ROM) 8 Bit Register R ,,2 R/2 CMP X 256 Input Buffer TEST 83-002459C 6-70 fttIEC JlPD7003 DC Characteristics TA = +25°C, V+ = VREF = 5.0 ± 0.25 V Limits Symbol Parameter Powar Supply Currenl ICC High Laval Output Voltage VOH Min. Typ. Max. Unit 6.0 18.0 mA 2.8 Tesl Conditions V = 4.0 pI, tWLC 10 = -2.0 mA tCY = 2.0 ps Nota 1 Low Level Output Voltage VOL 0.4 V 10 = -1.0 mA Digital Input Leakage Current IILK 10 pA oV5VIN 5V+ Digital Output Leakage Current IOLK 10 pA oV5V05V+ 3.57 mA CLK = H or L Note 1 1.19 1.79 Relerence Input Current IREF Analog Input Resistance RIN 35 kO VEN pF lelk = 1 MHz; unmeasured pins relurned to Ground pF lelk = I MHz; unmeasured pins returned to Ground mW tCY CREF 100 Analog Input Capacitance CIN 100 Power Dissipation Po Relarence Input Capacitance 50 = 2.5 V, tCY = 4 ps, twLC = 2 ps Note 2 = 4.0 ps. tWLC = 2.0 ps Noles: 1. This means DC current. Tie the bypass capacitors (electrolytic capacitor~ 10IlF, ceramic capacilor=0.01IlF) to V+ and VREF pins, in order to absorb rush current (= 10 rnA). 2. DC input equivalent circuit is shown below. Tie the bypass capacitor (> 0.01IlF) to Ihe analog input pin. 3 rnA peak current flows inlo this pin. Conversion Characteristics AC Characteristics TA = 25 ± 2°C; V+ = 5.0 V TA Limits Parameter Symbol Min. Typ. tOED Output Delay Time Delay Time to Floating Max. Unit Test Conditions 100 350 ns DE! - DO '1'5'0'" 450···· ·n~···· Coily'!'':: DO" .. incn ······· ............................................ toso 100 350 ns CS ! - DO .incov " ...... '1'0'0' .. 350' ... 'n~' ... cONi! ','':: oVER .. ~~~~ ........ ?~ ... ~~~ .....n~ .... ~~ .'.-:. ~~ ... . tFSo 150 450 ns CS , - DO = 25 ± 2°C; V+ = VREF = 5.0 V; ICY = 4.0 ps; IWLC = 2.0 Jis Limits Parameter Symbol Min. Typ. Resolution RES Nonlinearity NL Full Scale Error Temperature Coefficient Zero Scale Error Temperature Coefficient Unit Test Conditions Dits 8 Full Scale Error Zero Scale Error Max. ±1.25 LSD ±1.o0 LSD +0.75 LSD 20 -0.75 20 ppmfOC Nole: IlPD7003C: TA = O'C to +70'C. 6-71 ttlEC tJ PD7 OO3 Recommended Operating Conditions Converter Operation TA = O°C to 70°C: pPD7003C, TA = -20°C to +80°C: pPD7003D Um~!! Parameter Supply Voltage Symbol Min. Typ. Max. Unit TBst Conditions Referring to the block diagram, the reference voltage is set externally to some desired level which references the individual internal components such that V REF is divided equally by 256 resistors in a ladder/divider configuration. The applied voltage to V,N is then compared to the reference level and the individual samples are sent to the selector section where the individual signals are multiplexed to form an address data word. The data word is then further encoded to form the final 8-bit data byte by the encoder ROM, and stored in the 8-bit register until the Output Enable Command. Then the data is sent to the data bus via a three-state buffer. V+ 4.75 5.0 5.25 V Reference Inpul Vollage VREF 4.0 V+ V+ V Analog Inpul Voltage Y,N -0.1 V++O.I V Higb Level Logic Inpul VIH 2.4 V+ V Mode Select V,L -0.1 0.8 V There are two modes of operation for the pPD7003. Figure 1 shows the timing diagram for mode "0" where the converter is operating in continuous output mode. The analog input is sampled when the clock is in the "low" state. When the clock is in the "high" state the conversion from analog-to-digital takes place and the resultant data is output on the next falling edge of the clock pulse and the cycle is repeated. Low Level Logic Inpul Sampling Rale 10 250k IImes!s 100 Conversion Cycle Time 'CY 4.0 CONY High Level Widlh IWHC 2.0 ps CONY Low Level Wldlh IWLC 2.0 ps CONY Selup Time ISCE 0 CS Selup Time ISSE CS Hold Time ps I - DE I ns CONY 100 ns CSI-DEI IHES 0 ns DEI-CSI DE Selup Time 'SEC 600 ns DE 1- CONY I DE Hold Time IHCE 400 ns CONY DE Low Level Wldlh IWLE 400 Digilal lopul Rise and Fall Time l r. If Note I Note 2 ns 50 ns Noles: 1. ISCE (ns):::: ICY (ns) - IWLE (ns) -100 (ns). 2. IWLE (ns) :::: tCY (ns) - tSCE (ns) -100 (ns). 6-72 I - DE I The second mode (Mode 1) is shown in figure 2. In this mode of operation, one conversion takes place while the clock is in the "low" state and the resultant data is held as long as output enable and Chip Select (CS) or DMA Acknowledge (DACK) are "low." Data refresh is inhibited until CS and DACK are recycled. MODE = "HIGH" Data is refreshed on the falling edge of ClK, loaded during the "low" clock state, and converted and output during the "high" clock state. MODE = "LOW" Data is loaded and converted when Output Enable is "low" and refreshed only when OE makes the transition from high to low again. Note that in either ca~ data will only be accepted and output when OE and CS or DACK are active ("low"). Output enable should not be changed during the intervals shown in figure 3. The timing for output enable change versus clock transition is 600 ns before and 500 ns after the rising or falling edge of ClK any attempt to change OE during these periods will be inhibited. t-IEC JlPD7003 Timing Waveforms Figure 1. (MODE;O) Figure 2. (MODE;1) tFSO ~ OVER _______ :~VR ==========:*I..______*"_ 83-OI)1677A 83-002460A Figure 3. Timing Chart II OE Level Change: OE Level Change: DE Level Change: Inhibited Inhibited Inhibited 83-0024628 6-73 pPD7003 6-74 ftt{EC pPD7004 10·BITCMOS SUCCESSIVE APPROXIMATION A/D CONVERTER ~EC NEe Electronics Inc. Description Pin Configuration The pPD7004 is a 10-bit monolithic CMOS analog-todigital converter using the Successive Approximation Register (SAR) technique. The pPD7004 incorporates an 8-channel multiplexed analog input and full microprocessor interface to achieve a high degree of versatility. The designer has a choice of either serial or parallel output and interface to 8080 type microprocessors or advanced signal processors like the pPD7720. Analog Input CH 4 Analog Input CH! Analog Input CH 2 Analog Input CHa Analog Input CH, Analog Input CHr R.f.rence Input V REF Analog Input CHo 5 GND v+ GND CS Chip Select D87/SO 08./51 DBs/SHIFT RDISCKI 9 AO OB4/SCKO Features DB3 WRISTS /SO'EN Me Mode Select CLOCK INPUT DB,/CODE D 8-channel multiplexed analog input D Serial or parallel interface D 10-bit resolution D Linearity: 1 LSB max. (TA = 25°C) D D D D Analog Input CHa 2 D8,IDEV1 EOC End of Conversion Output DBo/DEVO v+ 83-002464A Conversion time: 100 ps (fclk = 1 MHz) Input voltage range 0 to V+ Temperature range from -40 to +85°C Operates from single +5 volt supply Conversion Characteristics TA = 25°C, V+ fclk = 1 MHz = VREF = 4.5 to 5.5 V, LImits Ordering Information Part lumbar Package IlPo7004C Plastic DIP Parametar Operating Temperature Range Nonlinearity 10 10 NL lero Scale Temperalura Coenicienl TA = 25°C -0.310 +7.0 V Inpul Voltage, V, -0.3 10 V+ +0.3 V Halaranca Voltage, VREF -0.3 10 V+ +0.3 V -4010 +85°C Operallng Tamparalura, TOPT Resolution lero Scale Error Absolute Maximum Ratings Supply VoIIIDa, voo Symbol Min. Typ. Max. -0.5 Test Conditions -4010 +85°C 10 Bil ±1.0 LSB ±0.5 LSB ppmfDC 2 Full Scala Error Unit 0.5 Full Scale Temperalure Coenlclanl LSB ppmfDC -40 lo+85°C LSB -4010 +B5°C (T = TOPTI Siorage Temperalura, TOPT Comment: Stress above those listed under ''Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device atlhese or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Nonlinearity NL ±2 -40 10 +85°C 6-75 II t-t{EC JlPD7004 Pin Identification Parallel Mode Pin Symbol Direction CH4 Analog Inpul CH4 CH5 Analog input CH5 3 CH6 Analog inpul CH6 4 CH7 Analog input CH7 5 V+REF Positive reference Inpul 6 GND 0 Dala bus (MSB) DB6/SI 0 Data bus (2nd) DB5/SHIFT DB4/SCKO Function Ground DB7ISO 10 Serial Mode Direction Function 0 Serial oUlput Serial inpul LSB/MSB lst select Data bus (3rd) 0 Data bus (4th) I/O Serial clock output I/O Serial OUlpUI enable 11 DB3/S0EN 0 Dala bus (5th) 12 DB2ICODE I/O Data bus (6th) Code select 13 DBlIOEVI I/O Data bus (7th Frequency divide ratio set 14 DBO/DEVO I/O Data bus (LSB) Frequency divide ratio set 15 V+ 16 EOC 17 CLOCK Power supply 0 End of conversion (active low) Clock input = Parallel. L = Serial) 18 MC MODE select (H 19 WR/STB Write input 20 AO Address input Internal/external shill clock 21 RD/SCKI Read input Serial clock input 22 CS Chip select 23 v+ Power supply 24 GND Ground 25 CHO Analog input CHO 26 CHI Analog input CH 1 27 CH2 Analog input CH2 2B CH3 Analog input CH3 6-76 Strobe Input ttiEC pPD7004 Block Diagram CLOCK v+ ? ? CHO cr- Programmable CHI q- Divider I I I I Frequency MPX I I CKI ? ? ? ? --s:= l............-tWA ~,. ._IW_O CS'A'=?_~ _~ tARl" K = : . = I _tRR- ___ ----- AD ~ I+- -----=x ___ IRO -+ 1-. --10 ' __ __ The pPD7004 gives the designer a choice of the type of data output format, either a 2's complement or binary, and the speed of operation by providing a programmable frequency divider. These options may be selected by the controlling system at any time by the "initialize" mode. The "initialize mode" is set with CS and WR both "low." RD and AO are set "high." Code select is accomplished by presenting either a "high" for 2's complement or "low" for binary output at DB2 (pin 12). The divide ratio of 1/1 to 118 is set by presenting a 2-bit code to DBO (pin 14) and DB1 (pin 13). DBO L H L H Figure 2. Data Output Timing Diagram 08 0_1 Initializing the Converter 1/1 1/2 1/4 1/8 o Ir------- 83-002465A Ratio Chip Select (CS) "low" and AO (pin 20) "high" DRead (RD) set "low" and Write (WR) set "high" o Output high byte (MSB to 8th bit) o AO set "low" Output low byte (9th bit and LSB) (2) Read Mode (1) Write Mode CS,~~~ Referring to figure 2, the sequence is: The Conversion Sequence ThepPD7004C uses the Successive Approximation Register (SAR) technique to convert analog voltage levels to 10-bit digital code in either 2's complement or binary format. Regardless of the type of data output (either serial or parallel), the conversion process is the same. Once the clock frequency and the output data format have been set, and the analog input selected, the conversion process begins with the analog level compared to the existing level from an internal10-bit digital to analog converter. The DIA output level is proportional to the existing code output from the Successive Approximation Register which is proportional to the input level from the comparator. DB1 I L H H 6-79 6 NEe pPD7004 Data Bus 110 Operation (Parallel Mode MC Pin Symbol 22 CS is Viii 21 Ho 20 AD function ii x x Operation L H x x No Operation OB7 14 = H) Initialize MPX address selling oB2 = CODE oB2,1,o = Analog selecl H= 2's camp CH select 0,0,0-1, I, 1 L = binary OR1, ORO = divide = CHD - CH7 ratio 0,0-1,1 = 1/1-118 oBo High byte read Low byte read DB7 - oBo oB7,oB6 = MSB- 8th Inhibit =9th, LSB oB5 - oBD = lOW level Serial 110 Operation (Serial Mode 1, 2, MC = L) Sarial Mode I (External SCK, AD = Pin Symbol SO 8 Direction 0 SI Sarial Moda 2 (Signal Processor Mode, AD LI function Direction Sarial output (three s!!!!1 OIl!.!!!. outpul at the failing edge of SCKI or SCKo. Tie to V+ Sarill Inl!!!!J!.ata read at the rising edge of SCKI or SCKO. 9 SC Shift select (H/L - LSB/MSB first) 10 SCKo Tie to GND 11 SOEN Tie to GNo 12 CODE Code select (H = 2's complement, L = binary) 13 DIVI I = HI function Frequency i 4....... oivo ............... i....... Divide rilio siHlng o o Serial clock output (= Internal clock) Serial output enable (active low) DlVl. 0 = 0, 01,1 = 11111 8 19 STB Address strobe input MPX addresses are Iitched at the rising edge 01 STH Input. Tia 10 GNo 21 SCKI SCKI controls the shift operation of 110 Interlace shift register. Data are output at the failing edge, and Input at the riSing edge. Tie to V+ 22 CS Chip salect signal input. Low level 01 CS resets the internal sequence, and 110 interface is enlbled. Internal sequence reael signal Input. Selll!ence controller are raset at the low level 01 CS, and AID conversion starts at the rising edge of ca. Notes: 1. In serial mode 1. I/O pins listed below are strobed by Cs si!l.!!!!!:...Therefore, when CS = HIGH, input signals are ignored and output pins are left at high impedance state. Input terminal; SI, STB, SCKI Output terminal; SO 2. In serial mode 2 (signal processor interface mode). By initialization, analog input MPX of CH7 is automatically selected. 6-80 ftiEC pPD7004 Parallel Operation L MC A,cr-----.,..--r"""\ WR " - _ - 1 -.... cs 83-0024698 Serial Operation Successive Approximation Register - C M P SCQ--------, s.Q-----l 5cr---i~>-~ ___1 10-911 Bidirectional ShiH Register so 133-0024706 6-81 NEe pPD7004 Timing Waveforms Serial Mode 1 SI so - --------- .... ~---,~- ~ __ _Jx~ ____________ ~ 83-002467B Serial Mode 2 SO ----~_ _ __' ...._ _ _ __ _ ___'x'-___ 83-0024688 6-82 ttlEC pPD7004 Timing Waveforms (Cont.) Parallel Mode Timing Chart (MC = H) 1. Sequence Example High Byte Read , Low Byte 2. Status Write (Executive as Initialization) ~--------------~I '--____-.J! \~----------- xxxx '----------~! '--____-.J! I XXX)( Internal Sequence 4. Data Read \~ AiD Conversion Clear ________-JI \~ ____---II --_-_-_-_-_-_--_."vvvv'XlO~r-----------..,XXXX~-rr---------------_-----Byte _ _ _ _ _ _ _ _..... ........_ _ _ _ _ _ _ _ _ _ _.._ " .......... " _ _ _ _ _ _ _ _ _ _ _ _ _ H;High L;LowByte ~:x..l DB ( > 83-002471C 6-83 JlPD7004 6-84 !\fEe fttfEC II FUNCTIONAL BLOCKS 7-A FUNCTIONAL BLOCKS t-IEC Section 7 - Functional Blocks pPC398 Monolithic Sample-and-Hold Circuit ........................................ 7-1 pPC494 Switching Regulator Control Circuit ......................................... 7-3 pPC751/752 Quad Addressable Read/Write Amplifier ............................... 7-13 pPC754 Magnetic Servo Head Preamplifier ........................................ 7-19 pPC1042 Switching Regulator Control Circuit ...................................... 7-21 pPC1060 Precision 2.5 Volt Reference Regulator ................................... 7-27 pPC1555 Precision Timer Circuit .................................................. 7-29 pPC1571 Compander ............................................................ 7-35 pPC1663/1664 Ultra-Wideband Differential Amplifier ............................... 7-41 pPC3423 Overvoltage "Crowbar" Sensing Circuit .................................. 7-45 pPD5555/5556 CMOS Timers ..................................................... 7-51 7-8 jiPC398 MONOLITHIC SAMPLE·AND·HOLD CIRCUIT ~EC NEe Electronics Inc. Description Pin Configuration The tlPC398 is a monolithic sample and hold circuit which combines J-FET and bipolar circuitry on the same substrate to provide a high input impedance input buffer and a high speed output buffer. Operating as a unity gain input buffer circuit, DC accuracy is typically 0.004% and acquisition time is as low as 6 tls with a maximum gain error of 0.01 %. This device is ideal for data acquisition circuits requiring high speed and high input impedance. '-../ v- [ 1 OHset [ 2 7 pPC398C 3 5 4 6 Input C V- [ Logic to Logic Reference Differential Voltage Output ±15V -0.3 to +7.0 V Output Short Circuit Ouration Hold Capacitor Short Circuit Ouration Indefinite 10 s 350 mW Power Dissipation Operating Temperature Range Ordering Information -55 to +150°C Storage Temperature Range Package Hold Capacitor 36 V D D D D D Plastic OIP Logic Reference Absolute Maximum Ratings Input Voltage Range [Note 1) I'PC39ac Logic Input TA = 25°C Voltage Between V+ and V- Part Number P P P P 83-002547A Features Fast acquisition time Gain accuracy: 0.004% Input offset voltage: 2 mV Direct interface to TTL/CMOS LF398 direct replacement 8 Temperature Range Note: 1. For supply voltages less than ±15 V, the absolute maximum input voltage is equal to the supply voltage. Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Equivalent Circuit v+ Offset 1 --------~-----, I I 30 k I I >--+--~ 5 Output Input Logic Input 3 I I :~________ J 300 Logic Reference L ___________ _ Hold Capacitor 4 V 83-002546C 7-1 NEe jlPC398 Typical Connection Recommended Operating Conditions TA = 25°C, V± = ±15 V v+ v- Limits Parameter S¥mbol Power Supply Voltage V± Min. T!!l- MHX, ___ .. it r-I~~h J,.. .. J Test (;Q"rlit!o~s ±5 ±15 ±16.5 Output Analog Input Analog Input Voltage VIN -11.5 +11.5 Sample Mode Logic Input Voltage VSH 2.7 5.25 Hold Mode Logic Input Voltage VSH -15 Logic Input Voltage Slew Rate SR 0.2 Hold Capacitor CH 0.001 Digital Input V r VREF = 0 • V 5V ---.J 83-002548A 0.5 VREF = 0 Guarding Technique (Bottom View) Vips 0.1 Logic V· pF OUT V83-002549A Electrical Characteristics TA = 25°C, V± = ±15 V, - 11.5 V S VIN S + 11.5 V, C H = 0.01 fiF, RL = 10 kO Limits Parameter Symbol Min. Typ. Max. Unit Input Offset Voltage Vi. 7.0 mV Input Bias Current Ib 50 nA Input Impedance Gain Error 0.01 Feedthrough AHenuation Ratio Output Impedance n 10" RiN % dB 80 1. Test Conditions 4.0 n f = 1 kHz Hold Step Voltage VHS 2.5 mV Vo = 0 Leakage Current into Hold Capacitor IOLK 200 pA V±= ±5Vto ±18 V Acquisition Time taq 4 ps Ll.VO = 10 V. 0.1% Error. CH = 1000 pF ......................................................................................... 20 tSq Hold Capacitor Charging Current ICH Logic Input Current liN Logic Threshold 3iippiy VoiiilYu iiejHliiiun niliiu Supply Current 7-2 Ll.VO = 10 V. 0.1% Error. CH = 0.01 pF rnA 10 VTH 0.8 SViiil 80 Icc IlS 2.4 pA V dB ±6.5 rnA V±=±15Vto±18V ftt{EC IlPC494 SWITCHING REGULATOR CONTROL CIRCUIT NEe Electronics Inc. Description Pin Configuration The JlPC494 is a switching regulator controller designed for use in switch mode power supplies (SMPS) using Pulse Width Modulator (PWM) technique. The on-board control circuitry includes a voltage reference, dual error amplifiers, oscillator, pulse width modulator, pulse steering flip-flop, dual output drivers and dead time control circuit. The JlPC494 is available in the plastic DIP package and the G2 mini flat package. DeadTime Control Features o Complete PWM power control circuit o Adjustable dead time (0 to 100%) o No double pulsing of same output during load o o o o transient condition Dual error amplifiers have wide common mode input voltage capability (-0.3 V to V+ - 2 V) Circuit architecture provides easy synchronization Uncommitted outputs for 250 mA sink or source Equivalent to TL494 83-002491 A Equivalent Circuit v+ Ref. Out 12 o---------------~ Output Control 13 ,.0-------------1 GNDO---------------~ Dead-Time~ Control Non-Inv. Input o-------------j Inv. Input 0------------1 16 Non-Inv. Input Inv. Input ,.o--------------j o--------------j Feedback o------------------~ 83-0024908 7-3 t-{EC pPC494 Ordering Information Recommended Operating Conditions Limits Part Number Package Temperature Range pPC494C Plastic DIP -20°C to +85°C pPC494G2 Minillat -20°C to +85 °C Paramorer S:pply TA = 25°C 41 V Error Ampillier Input Voltage V+-0.3V Output Voltage 41 V Output Current 250 mA TDtal Power Dissipation. CPackage 1000 mW Total Power Dissipation. GPackage (Note I) 780 mW Operating Temperature Range -20 to +85°C Storage Temperature Range -65 to +125°C Note: 1. Mounted on 5x5 em Glass-Epoxy PC board (thickness 1.6 mm) Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. 12 V+ VDltage Absolute Maximum Ratings Supply Voltage Symbol Min. Typ. Max. Unit 40 V Output VDltage Vo Output Current 10 -0.3 200 mA ErrDr Amplifier Sink Current 10 -0.3 mA Timing CapacitDr Ct 0.47 10.000 nF Timing Resistance Rt 1.8 500 kG OsciliatiDn Frequency lose 500 kHz Operating Temperature TOPT +85 cC -0.3 Tost Conditions 40 40 -20 Electrical Characteristics V+ = 15 V, f = 10kHz, -20::; TOPT::; +85 ce, unless otherwise noted Limits Parameter Typ. Max. Test Conditions Symbot Min. Unit Output VDltage VREF 4.75 5.25 V Line RegulatiDn REGIN 25 mV 7 VoS V+ oS 40 V.IREF = 1 mAo TA = 25°C lDad RegulatiDn REGL 15 mV 1 mA::; IREF::; 10 mAo TA = 25°C 0.03 %rC Reference Section Temperature CDeHlcient ShDrt Circuit Output Current 0.01 IREF = 1 mAo TA = 25°C -20°C::; TA::; +85°C.IREF = 1 mA ISHORT 35 mA VREF = 0 lose 10 kHz Ct = 0.01 pF. Rt = 12 kn 10 % 7 VoS V+ oS 40 V. Ct. Rt cDnst.. TA = 25°C % O°C oS TA oS +85°C. Ct = 0.01 pF. Rt = 12 kn % 7 V oS V+ oS 40 V. Ct = 0.01 pF. TA = 25°C. RT = 12 kn Oscillator Section Frequency Standard DeviatiDn DI Frequency Frequency Change with Temperature .t.fILI.T Frequency Change with VDltage .t.fI.t.V 2 Dead-Time Controt Section Input Bias Current Input ThreshDld VDltage 7-4 -2 Ib Maximum DUty Cycle (Each Output) -10 45 VTH 0 3.3 /lA ooS VIN oS 5.25 V % VI = 0 V Zero duty cycle. maximum duty cycle ~EC j.lPC494 Electrical Characteristics (Cont.) vee = 12 V, TA = 25°C, unless otherwise noted Limits Parameter Symbol Min, Test Conditions Typ. Max. Unit 10 mV VOAMP = 2.5 V 25 250 nA VOAMP = 2.5 V /lA VOAMP = 2.5 V 7 V,; V+,;40V Error Amplifier Section Inpul OHsel Voltage Vio Inpul OHsel Currenl lio Inpul Bias Currenl 0.2 Common Mode Inpul Vollage, low -0.3 V Common Mode Inpul Voltage. High VCC-2 V 7 V,; V+,; 40 V dB VOAMP = 3 V Open loop Vollage Ampillicalion AVOL Unity Gain Bandwidlh 60 500 GBW CMRR Common Mode Rejeclion Ratio Output Sink Current Output Source Current 74 65 BO 0.6 10 SINK 0.3 10 SOURCE -2 10 SINK 0.3 650 kHz = 0.7 V mA VOAMP mA VOAMP = 3.5 V PWM Section 4 Input Threshold Voltage Input Sink Current 4.5 0.6 V Zero Duty Cycle mA V!PIN3j = 0.7 V 100 /lA VCE = 40 V. V+ = 40 V -100 /lA V+ Output Section Collector CuioH Current ICBO Emitter CutoH Currenl ICEO 2 = VCO = 40 V ...V.C.E~S.A!I.••.....•....1: 1.••.•.. 1:~ ...••. Y.....I~.=: .2.0.0. ~~'. ~~.=: .0: .c?~~?~ ~~!I!e~ ......•......•....• VCE!ONj 1.5 2.5 V IE = 200 mA, Vc = 15 V, emitter lollower Collector Saturalion Voltage OUlput Voltage Rise Time, Common Emitter tr 100 200 ns V+ = 15 V, RL = 150 n, TA = 25°C Oulpul Voltage Rise Time. Emitter Follower Ir 100 200 ns V+ = 15 V. RL = 150 n. TA = 25°C Output Voltage Fall Time, Common Emitter If 70 200 ns V+ OUlput Voltage Fall Tima, Emitter Follower tf 70 200 ns V+ = 15 V. RL = 150 n, TA = 25°C o 12.5 mA V+ = 15 V, all olher inputs and outputs open mA V!PIN4j = 2 V, see ligure 1 = 15 V, RL = 150 n. TA = 25°C Total Device Siandby Current ICCSB Oias Current 10 Nole: Standard deviation is a measure of the statistical distribution about the mean as derived from the formula: u = V _c=~,,:-:-(X_n--:=_X)_2 n=1 N 7-5 ~EC pPC494 Test Circuit Test Circuit 15 V (4) Test Circuit Test Input 1500 2W RL v+ Dead Time 1500 2W C, 1-+----4>-0 Output 1 (3) I-.....----<>Oulput 2 83-002492A Typical Voltage Waveforms Voltage aiel Voltage at C2 Voltage aley AIi .AA.AAA AAA Ii AAAA AAAA A.A IrrrrrrrryvyyyYVrryrYI Dead Time Control Input Function Table Output Control Input (13 pin) 7-6 Output Function At Ref-Out Normal push-pull operation Grounded Single-ended or parallel output ttiEC pPC494 Operating Characteristics TA =25 ± 2°C, = 15 VIN V Maximum Power Dissipation Mis-Operation Prevention Circuit Characteristics "-}P [: 1.2 Thermal Resistance R8JA ;= 125 °C/W ~ 1.0 ~ ~ o i° 0.8 .~ C ..;°5 0.5 ~:" ~ ......... 0.4 E .; ;;: 0.2 o o 25 50 100 75 125 Ambient TempElrature (OC) Supply voltage (V) Reference Voltage vs. Supply Voltage Reference Voltage vs. Temperature 40 V+ = 15 V IREF=lmA € ;;E- V 4 o 20 . o '" 0 ~ S o 0 J > 3 g s 0 / ~ .; 2 a: ~ 11 ~ ~ 1 / o II a: r--------r-------t--------t--------r-------- ~ ~ o 10 15 20 25 30 35 ~ -50 ~------~------~25~----~5=0------~7~5------~10; -25 40 Ambient Temperature (OC) Supply Voltage (V) Frequency vs. RT and CT 500 ~ 1Cr: 50 I;" ~ ! 20 10 """ ----- "--- ""- ~ I" ~ Frequency vs. Temperature v+ = ~ ........... 200 N J 10 4/:, 20 -.- '" ........ 50 Timing Resistance (kO) ~~ 0 ,~ """ '0K"- '" ...,> ..'" ~ -:::''''>0 0. 0 , " V+ = 15 V Rt=12kO Ct = 0.01 J.iF 15 V 0" 1 ~ &) ~ ~ 0 ~ -2 0 0 ......... 1--, ............ ........ ........... ~ ,z -4 ------ -- -6 ........ 100 200 500 --25 25 50 75 100 Ambient Temperature (ec) 7-7 D t\'EC pPC494 Operating Characteristics (cont.) T A =25±2°C. VIN= 15V Open-Loop Voltage Gain vs. Frequency Duty Cycle VS. Dead Time Control Input Voltage 120 v-vJv ~ ! ~~/l~~ A~ 10 20 ~ 0 30 40 50 100 / V '" iii ~ c ~ 80 .......... j 0 > ~ 60 0. ~li ~ 40 "" ...... ~ '" 0 v+ = 15 V Rt = 12 kO CI = 0.01 f.JF 20 o 10 1 100 10k lk ~ 1M lOOk Frequency (Hz) Dead Time Control Input Voltage (V) Collector Saturation Voltage VS. Output Current Standby and Bias Current VS. Supply Voltage 12 Ib I I II VeE (ON) (N~tel) HSB (Note 2) V VeE - (sat) ~ 1--- VOT = 2 V (4 pin) v+ terminal biased other terminal open. 40 80 120 Output Current (rnA) 7-8 Note 1. Note 2. 160 200 o o 10 20 Supply Voltage (V) 30 40 t-IEC pPC494 Typical Application Circuit (lC) Circuit ------OVOUI } (sense Output Terminal 01 S.M.P.S. n JP 2 GND Vee 12 V R12 1100 -Iosense R11 1100 C, +Iosense E, E, C, R, R10 1100 1100 R, 3.9 k VR, 2k R, 5.1 k C, R, 0.01 fJF 24 k Cs: recommend film capacitor 'ose =- 40 kHz VR, C, 10JiF + II 2k R, 7.5 k +5 V (VREF.) 83-001939C Connection Diagram Output Function Push· Pull Operation Output Control Input (13 pin) At Ref·Out IJPl Wiredl Output Mode Output Voltage Waveform Open Collector IRg. RIO 0 01 Emitter Follower IRII. R12 0 01 Single·Ended or Partial Output Grounded IJP2 Wiredl Lr1J"1..JlJ1IU_ Open Collector IRg. RIO 0 01 C1. C2 Emitter Follower IRll. R12 0 01 E1.E2~_O 0 7-9 ttiEC J.lPC494 Typical Application Circuits Forward Type +12 V (12) v+ C11-'(:::.a)_-+~ (9) E1 (13) Output To EA.II (Over Current Protection) Control (14) Ref Oul To EA. I (Vo Sense) GND GND 83-001941B Push-Pull Type (Isolated) v+ GND To EA. I To EA.II -!-12 V (12) (11) (10) (9) (a) (7) C, v+ E, E, C, (13) GND (14) Ref Out 83 0019428 7-10 I NEe pPC494 Typical Application Circuits (Cont.) Push-Pull Type (Non Isolated) V+ (40 Y max) (12) v+ C, (11) ., r(1_0.,)--JV\,..,..-t:~ •, (13) . + (9) VOUT C, (8) (14) Rei Out To EA.II To EA.I 83-0019439 Stepdown Chopper + V+ (40 V max.) + YOUT (12) v+ C, (11) ., (10) ., (9) I i c, ~ -" To EA.II To EA.I (Over Current Protecllon) 83-OO1944A II 7-11 t-IEC jJPC494 Synchronized Operation Mis-operation Prevention Method If synchronized operation is needed, master-slave circuit can be used. This circuit is shown below. Initially, Rt terminal of slave Ie is connected to Pin 14 (Ref Out) and internal oscillator is stopped. If the supply voltage drops below 2-2.5 V, the misoperation prevention circuit is disabled. However, the internal flip-flop is still active and each output will be high. Thus, if prevention from this condition is desired, the following circuit may be used. Synchronized Operation Mis-operation Prevention Method v+ v+ (12) OUT RT (6) (7) (12) 1 REF (14) OUT 1k CT (5) GND v+ ~ (8) GND CT (5) I I I I +next CT terminal 83-00194SA 7-12 J) 83-0D1946A (M): Master (S): Slave (6) 2.7V GND r, RT (7) 1(12) v+ 620 n RT (M) CT "t 1 REF (14) v+ 2SA1152 ftt{EC tJ PC751/752 QUAD ADDRESSABLE READ/WRITE AMPLIFIER NEe Electronics Inc. Pin Configuration Description ThetlPC751 and thetlPC752 are monolithic integrated circuits designed for reading and writing data in high performance magnetic disk storage systems, and are designed to mount on the head stack arm of hard disk units. Each IC contains four read preamplifiers, four write drivers, an output line driver, head select decoder circuitry, and fault monitoring circuits. These devices offer three modes of operation: Read, Write and Idle. v- ===~ The tJPC752 is similar to the tlPC751 in function, but provides a lower differential gain in the read mode for higher inductance and higher output heads. WS (Write Select) v+ H21 (Head 2-1) US (Unsafe) H22 (Head 2·2) we (Write Current) HOl (Head 0·1) Ne H02 (Head 0·2) Ne H31 (Head 3-1) Ne H32 (Head 3-2) OX (Data Xl H11 (Head 1-1) OY (Data V) - " ' - - - - , - r r . - - n - r r - - - I - H12 (Head 1-2) HS2 (Head Select 2) CE (Chip Enable) v-==:::::::J L.:::===GND All signal levels and current specifications are fully IBM 3350 head and support arm compatible. 83-002583A Electrical Characteristics Ordering Information Package Operating Temperature Range pPC751 B Ceramic Flat DoC to +70°C pPC752B Ceramic Flat DoC to +70°C Part Number r;::=== GND HS1 (Head Select 1) Absolute Maximum Ratings Test Conditions (unless otherwise specified) Parameter Range Unit VWS ± 0.01 -4.00 ± 0.01 0.00 ± 0.01 3.50 ± 0.01 000 + 0.01 . - 0.00 6.00 V+ VVWS Positive Supply Voltage -0.6 to 7.0 V VCE Negative Supply Voltage -5.5 to 0.6 V Lh Max. 0.1 0.3 to v+ +0.3 Rh Max. 0.01 v- - Input Voltage Storage Temperature Range -65 to +150°C VCT oto +70°C VCT Operating Moving-Air Temperature Range Operating Junction Temperature Range +150°C Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections 01 this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Read/Write/ldle Read Write Read/Write pH ± 0.01 3.50 ± 0.01 6.00 ± 0.01 200 ± 1 RU 101 RL2 IWC IWC 40 Ambient Temperature 25 ± 1 0 Read/Write/ldle Read/Write/ldle Read 0.00 VUS Mode Read/Write/ldle V Write Read/Write/ldle D Read/Writelldle V Read/Write/ldle 0 mA Read ±1 ±2 mA Write °C Read/Write/ldle Recommended Operating Limits Head Selection Table Limits Fatamelef Mi~. Max. ~nil Mode v+ 5.7 6.3 V Read/Write/Idle V- -4.2 -3.B V Read/Write/ldle v+ V Read/Write/ldle Unsafe Voltage Head Center Tap Voltage Write Current (lwC) 4 3.2 + 0.3 Head Setected VHSI VHS2 VLHS VHHS o VLHS VLHS 3.B V Write 45 rnA Write VLHS 7-13 t-{EC JlPC751/752 Connection Diagram r-~--------------------------------l ~ rI T,we LJ I I I I ws¢.-- RL1 ~ 1 1 Write Select ~ T I HS2J. T VH ' I I I I I I I I I I ~I <:: I f Read Pre-Amp Chip Enable ~ ~ .l ~~!=r > "t Read Pre-Amp Head 0 - Head 1 Head 2 - Head 3 ~ .J Write Driver > "r Read Pre-Amp ~ L!,Write Driver > I H01 11- "1 L__________________________________ I tvus I -t> I I I I I VHS 11 .l ~~!~r I I I veE MARS Unsafe Read Pre-Amp Read Amp N I A -I I I lOv HS11 t t I T RL2 CE t Iwe Gale I I I I ox Vws lus l I I I I I I I H02 H11 I~ I I I I I l H12 H21 I:}I I I I I I 1 H22 H31 I:}'I I I I I JI H32 -::- l~ 83-Q02584C 7-14 ttlEC /lPC751/752 Mode Select The circuit has three modes of operation: Read, Write and Idle. The state of the Chip Enable and Write Select determines the mode of operation as shown in the following tabie. Mode Select Limits Test Conditions Min. Max. Unit 5.5 6.3 V Idle 0.0 0.7 V Read/Wrile IHCE -110 -50 pA Idle, VCE = V+ - 0.5 V ILCE -1.3 -0.7 mA Read/Wrile, VCE = 0.0 V Wrile/ldle Parameter Chip Enable Write Select 3.2 3.8 V -0.1 0.1 V 0.35 2.7 mA Wrile/ldle Ilransilion unsafe currenl oH) 0.7 Wrile Ilransilion unsafe currenl on) Read/Idle ......................................................................................... IHWS 3.5 mA ILWS 0.1 mA Read/Idle Switching Delay 0.5 JJ.S All modes Supply Current Head Select Limits Parameter Min. Max. 20 mA Read/Wrile ICCID 150 pA Idle IEERW 70 mA Raad/Wrile IEEID 40 mA Idle ICCRW 12 Test Conditions Unit Head Select Sum of all head input currents with Iwe = 0 Limits Test Conditions Max. Unit IHcIW) 3.0 mA IHCIR) 0.16 mA Read, VCT = 0.0 V mA Idle, VCT = 3.5 or 0.0 V IHCIID) Min. 0.10 Limits Parameter Total Head Input Current Parameter One of four heads may be selected by controlling the state of two head select inputs. The head is selected as specified below: Wrile, VCT = 3.5 V Min. Test Conditions Max. Unit VHHS -0.97 -0.61 V Temp VlHS -2.38 -1.52 V Temp IHHS 240 pA ILHS 60 pA Swilching Oalay 50 ns = DoC = DoC - 70°C 70°C 7-15 II NEe pPC751/752 Read Mode (pPC751 B) In the Read mode the circuit functions as a low noise differential amplifier. The state of the head select inputs determines which amplifier is active. Read Mode (pPC751 B) Limits Min. Parameter Max. Unit 18.8 pF Test Conditions Input Current oillanntial Input Capacity VIN = 0 V n VIN = 0 V. 25°C ......................................................................................... 585 Dlllarential Input Resistance (Damping Resistor) 915 565 915 0 VIN = 0 V. DOC ......................................................................................... 585 Output oHset Voltage Common Mode Output Voltage oillerential Gain -0.75 984 n 100 mV -0.50 V VIN = 0 V. 70°C VIN = 0 V 28 43 V/V VIN = 1 mVp-p. oVoC.1 = 300 kHz. 25°C: ......................................................................................... 30 45 V/V VIN = 1 mVp-p. DVoC. I = 300 kHz. DOC: ......................................................................................... 27 Gain Linearity (DC) 40 0.9 Bandwidth V/V 1.1 30 MHz VIN = 1 mVp·p. OVOC. I = 300 kHz. 70°C Vo (VIN = 5 mY) - Vo (VIN = 0 mY) / 5.0 mV Vo (VIN = 0.5 mY) - Vo (VIN = 0 mY) 5.0 mV liN = On. VIN = 1mVp.p Gain@low =-3dB Gain @ 300kHz Input Noise 6.6 /lVRMS VIN = 0 V. liN = 0 n. 15 MHz power bandwidth Common Mode Input to Dillanntial Output Rejection Ratio 45 dB VIN = 5 mVp-p. DVDC. I :s 5 MHz Power Supply Rejection RatiO (referred to the avCC or a VEE = 0.1 Vp-p input) 45 dB VIN = 0 V. I:s 5 MHz Channel Separation 40 Unsafe Carrent 40 dB VIN = 1 mVp-p. OVDC. I = 300 kHz. three channels driven 0.1 mA Wrlle Current = 0 mA 45 mA Write Current = 45 mA Read Mode (pPC752B) The same as pPC751 B except for the following characteristics. Read Mode (pPC752B) Limits Parameter Min. Max. Unit TBst Conditions Output oHset Voltage ......8:~ .......... !~:~ oiHerential Gain 7.5 Gain Linearity Input Noise 7-16 (~C) .......... ~~~ ....... y!~ ~ ~ ~~p:~ •• ~~~~••f.~~~~.k.H~•. ~~~~ ...•.....•••.•••• 8.5 13.25 V/V VIN = 1 mVp-p. OVDe.f = 300 kHz. DoC ......................................................................................... 0.9 12.5 V/V 1.1 25 VIN = 1 mVp-p. oVoC.1 = 300 kHz. 70°C Vo (VIN = 5 mV) - Vo (VIN = 0 mY) /5.0 mV /lVRMS Vo (VIN = 0.5 mY) - Vo (VIN = 0 mV) 5.0 mV VIN = 0 V. liN = 0 n. 15 MHz power bandwidth NEe pPC751/752 Write Mode In the Write mode the circuit functions as a current gate. Externally supplied Write current is gated by the state of the head select and data inputs to one side of one head. Write Mode Limits Parameter Min. Max. Test Conditions Unit Differential Input Voltage 0.225 Single Ended Input Voltage -2.0 -0.45 V OX DY Input Current -2.0 +2.0 mA V Current Gain 0.95 1.0 Write Current Voltage -3.7 -3.0 V IWC = 45 mA Hud Current Transition Time 15 ns IWC = 45 ms. LH = 0, 1= 5 MHz Head Current Switching Delay Time 15 ns IWC = 45 ms, LH = 0, I = 5 MHz ns IWC = 45 ms, LH = 0, I = 5 MHz; data rise and lall time SIns Head Current Switching Hysteresis IWC = 45 mA 0.1 mA IWC = 30 mA, 1= 2 MHz. LH = 9 JlH ......................................................................................... Unsale Current Unsale Switching Delay Time . . . . . .~O......................... ~~........ I~~ 20 mA IWC ~ .3~. ~~'. ~ ~ ~. ~~~'. ~~.=:.~ ~~ = 45 mA, RH = 00 .................. . one side 01 head only 1.0 Jis IWC = 3D mA, 1= 2 MHz, LH = 9 JiH ......................................................................................... ..... .. :~ ........... ~.~ ........... ~~ ........ I~~ ~ .3~. ~~'. ~ ~ ~.~~~,. ~~ .=:.~ ~~ .................. . 4.0 JiS Unselected Head Current 1.0 1.5 mAo·p Differential Head Voltage 9.0 Vo·p IWC = 45 mA, RH = 00 IWC = 45 mA, 1= 2 MHz, LH = 9.5 JlH IWC = 45 mA, LH = 10 JlH II 7-17 IlPC7 51/7 52 7-18 NEe NEe NEe Electronics Inc. pPC754 MAGNETIC SERVO HEAD PREAMPLIFIER Pin Configuration Description The tJPC754 is a two stage wide band differential amplifier which features a very narrow gain range and 30 MHz bandwidth. This device is designed to be used primarily as the preamplifier for the servo head of the model 3348 head/arm assembly. Features D Very narrow gain range D 30 MHz bandwidth Ordering Information Part Number Package JlPC754D Ceramic DIP Operating Temperature Range ,uPC754D Note: Pin 8 cannot be connected to any circuit, Absolute Maximum Ratings Power Supply Vollage Differential Input Vollage 83-002S85A -12 V ±1 V Connection Diagram Operating Temperature Range Storage Temperature Range -65 to +15D O C Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Output 1300: Note: A O.1I1F ceramic capacitor is recommended for good power supply noise fillering. 83-002S86A 7-19 II t'tIEC pPC754 Recommended Operating Conditions Limits Parameter Symbol Min. Typ. Supply Vollage V- Inpul Signal VIN Ambienl Temperature TA Max. -7.45-8.3 -9.15 Unit Test Conditions V mVpp 0 70 °C Electrical Characteristics TA = 25°C, V- = -8.3 V ±10% Limits Parameter Symbol Min. Typ. Max. liD 77 93 Bandwidth 8W 10 30 Inpul Resistance RIN 800 1000 Input Capacitance CIN Differential Gain Output Dynamic Range (Differential) 3 tcc Output Offset Vos Equivalent Input Noise PSPR 50 65 mV RS 14 JlV RS dB % -0.2 %/oC 70 dB 7-20 = 1300 ±600 Gain Sensitivity (Temperature) 55 RL V- = -9.15 V ±1.3 eMRR = 2 mVpp rnA 35 Gain Sensitivity (Supply) CMRR, tnput Relerred = 130 0 VIN 0 mVpp 26 RL pF 350 Power Supply Current PSPR. Input Relerred MHz 1250 Test Conditions Unit = 0, RL = 130 0 = 0, RL = 1300, BW = 4 MHz RS = 0, I:S 5 MHz Rl = 1300 TA = 25°C to 70°C, RL = 130 0 I:S 5 MHz t-IEC pPC1042 SWITCHING REGULATOR CONTROL CIRCUIT NEe Electronics Inc. Description Pin Configuration The tJPC1042 is a switching regulator control circuit designed for use in Switch Mode Power Supplies (SMPS). The tJPC1042 uses the Pulse Width Modulator Technique (PWM) and features on chip voltage reference, dual error amplifiers, oscillator, pulse width modulator comparator, pulse steering flip flop, dual phase output drivers, and deadtime adjustment. The tJPC1042 is ideal for forward and push-pull converters with minimum external circuitry. + InpulA Compensation 1 -lnpulA Compensation 2 GN02 Compensation 3 Co + Input B C. - Input B VREF Dead Time AdJ, GND1 ' - -_ _..--Jr 83-002495A Features Ordering Information D Internal oscillator has symmetrical triangular waveform D Adjustable dead time (0 to 100%) D Includes a misoperation-preventing circuit at low input voltage D No double pulsing of outputs D Error amplifier II can operate with 0 V input voltage level Part Number Package JJPC1042C Plastic DIP Operating Temperature Range Equivalent Circuit I-------------------------~ I 11 15 V+ I I I I I ~ I RT 10 CT I I I LowV. Stop m rh DAdl. Compen- 3 satfon 2 .,...Input A -lnpulA Compensation 1 L I I I I Oscillator ~ 1T F/F 01- ~ J J .,-f" com p I 2 1 I I E"., Amp. 1 ( +5V I-bL B '" +5V :1 I Error Amp. 2 ~------------------- 13 Co I I I l ,. GND2 I 5 I 6 I I : II 12 I I I I Comp.2 I I I I I N\J\A-K I i I 16 I I 9HV I 7 HV Ref. Voltage I 9 I I I I + Input B -Input B 4 Compen. satlon 3 8 0 GND1 ______ I 83-002494C 7-21 ~EC tJPC1042 Recommended Operating Conditions Absolute Maximum Ratings TA = 25°C Limits Supply Vollage Output Currenl [Each Output) 30 V Parameter 40 V Supply Vollage V+ Oulpul Vollage Vo OUlput Current 100 mA 40 mA Reference Output Current Total Power Dissipation 800 mW Operating Temperature Range -20 to +85°C Storage Temperature Range -40 to +125°C Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Symbol Min. Typ. 10 5 Reference Output Current IREF 0 Oscillation Frequency fose 20 Max. Unit 12 16 V 24 32 V 20 40 mA mA 40 100 kHz Electrical Characteristics V+ = 12 V, T A = 25°C unless otherwise noted Limits Symbol Min. Typ. Max. Output Voltage Vo 4.6 5.0 5.4 V Line Regulation REGIN 13 35 mV Load Regulation REGL -2.5 -10 mV 750 pV/oC Parameter Test Conditions Unit Reference Section Ripple Rejection VREF orilt d8 10 = 0 8 V oS V+ oS 20 V, IREF =0 ooS IREF oS 20 mA f = 120 Hz RR 60 AVREF/t.T 200 V+[L to H) 7.5 V OoSV+oSI2V VHYS 0.5 V OoSV+::s12V -20°C::; TOPT::; +85°C Low Voltage Stop Section Startup Voltage Hysteresis Vollage Oscillator Section Maximum Oscillation Frequency fmax kHz 100 IniUal Accuracy ±5 ±IO % RT, CT constant Temperature Stability -6 -10 % -20°C::; TOPT::; +85°C Output Voltage [High) VOH Output Voltage [Low) VOL V 4 2 Line Frequency Stability V ±I ±2 1% 8 V::; V+::; 20 V Error Amplifier t Section Input Offset Voltage Input Offset Voltage Drift Input 81as Current Vio ±2 ±IO mV t>.Vlol t>. T ±4 ±10 pV/oC 18 +1.3 +10 pA Large Signal Voltage Gain AVOL 72 Common Mode Input Voltage Viem 1.2 Common Mode Rejection Ratio eMRR Small Signal 8andwidth GBW 7-22 d8 87 4.0 70 -20°C::; ToPT::; +85°C V dB MHz AVI = 0 d8, CI = 560 pF, C2 = 150 pF Test Conditions t-IEC JlPC1042 Electrical Characteristics (Cont.) V+ = 12 V, TA = 25°C unless otherwise noted Limits Symbol Parameter Min. Typ. Max. ±3 ±10 mV ±3 ±10 p.V/oC -1.5 -10 p.A Test Conditions Unit Error Amplifier 2 Section Inpul Ollsel Voltage Vlo t.Vlo/ t. T Input Offset Voltage Drift Inpul Bias Current Ib large Signal Voltage Gain AVDL 72 Common Mode Input Voltage Vlcm 0 100 dB 3 Common Mode Rejection Rallo CMRR 70 Small Signal Bandwidth GBW 1.2 V dB MHz Maximum Oulpul Currenl 1.0 AV2 = 0 dB, C3 = 220 pF, C4 = 470 pF rnA Dead Time Adjustment Section Inpul Bias Currenl Ib -4.5 p.A Inpul Voltage [0% Duty) VIN 1.35 V Inpul Voltage [100% Duty) VIN 3.3 V Output Section Colleclor 10 Emiller Voltage VeE Colteclor 10 Emlnar culon Current ICED Colleclor Saluration Voltage V 40 0.55 VCE[SAT) 10 p.A 0.7 V IC= 1 mA Ic=20mA os .................................................................. IC = 20 mA, V+ = 12 V, Rl Risa Time Ir 80 Fait Time If 70 ICCSB 12 Tolal Siandby Currenl ~ 560 0 ns 15 mA V+ = 20 V, IREF = 0 Operating Characteristics TA = 25°C Oscillator Frequency vs. Maximum Power Dissipation 1.2 RT and CT 1M II V+=12V /:r 1.0 ........... 0.8 ~ 0.6 0.4 ...... 100 k ....... ~w ........ 10 k ....... ...... 2200 pF 0.2 i"-... y- r- r-/_ r-- 1k 50 75 Ambient Temperature (Oe) 100 125 o ~ ---- ~- f---- r'-/-...,..-:::: .700 P. F ; ' F / 0.01 JiF 25 ~20pF /470 PF 1000pF 20 -----r--- 40 60 80 100 Timing Resistor (kO) 7-23 !\fEe JlPC1042 Operating Characteristics (Cont.) TA = 25°C =9;J Error Amplifier I~ AV1 vs. Frequency 120 1--_ _+-__ 100 ! .. '" . I +-11 III 1--~h,....~4.... c C1 C2 560 pF 150 pF 1000 pF 560 pF - - 1 4700 pF 1500 pF 0.047 JiF 4700 pF 3 + 2 J :~ iii ff V+::= 12 V i= ~ V 8 10M ~ V c "'~ 1M 100 k Output Section Rise Time and Fall Time vs. Collector Current Correct Saturation Voltage vs. Collector Current 10 i ~ 10 k Frequency (Hz) Frequency (Hz) € C, 470 pF 1000 pF 40 <' / 12 .s c ~ 11 II " --r--- v+ = 12 V I--- I ,Iii I o 10 15 20 Total Standby Current (rnA) 7-24 I 25 II 30 -25 25 50 Ambient Temperature (0C) 75 100 NEe JlPC1042 Typical Application lose ::- 40 kHz + V+ (8 to 16 V) GND 2 Loop Gain { AV1(Ll=~ AV1(L) 2.5 k =, RF2 100 RF2; RF2 Feedback Resistor for Gain Control Normally: C1-C4 Capacitors tor Phase Compensation 5k RF2 (100k) '=; - AV2(L) =. - 60 dB 40 dB R, RF2 5k AV1(L) (3.6k) (100 k) 50k 100 R1 (6.8 k) C, (10p) II c, Cs: Soft Start Capacitor Vo Sense -10 Sense R1. R2: Resistor lor Dead Time Control (-20 to -50 mY) 83-002504C 7-25 ttlEC pPC1042 Internal Waveforms (Timing Charts) Oscillator Waveform Triangular Oscillation Output 2V Dead Time Adj. Input Voltage (Pin 7 Input Voltage) Error Amplifier Output Voltage (Pin 3 Output Voltage) Comparator 1 Output T· Type Flip- Flop Input (NAND Gale Output) T-Type FlipFlop Q Output T-Type FlipFlOp 0 Output I II ~ II I -----, I Comparator II Output OuiputCA ON OutputCB LJ ON U u 83-002S05C 7-26 NEe NEe Electronics Inc. pPC1060 PRECISION 2.5 VOLT REFERENCE REGULATOR Description Pin Configuration The pPC1060 is a precision low voltage reference regulator which uses the band gap voltage reference technique. It features low temperature drift and low supply current drain. The pPC1060 is ideal for use in instrumentation and D/A converter applications. Input C Output [ GNO c: 1 7 6 :.J NC :.J NC :.J NC 5 J 8 \J 2 tlPC1060C 3 NC[ 4 NC 83-002507A Features o o o o Ordering Information High accuracy: Vo = 2.5 V ± 1% Low temperature drift: t:,yo/6T ::; 40 ppm/oC Low supply current: Icc::; 1.5 mA Equivalent to MC1403 Part Number Package IlPC1060C Plastic DIP Operating Temperature Range Equivalent Circuit Input R13 R" Q13 Q14 Q, Q, R8 R, R, Q11 II Output R, R, C, GND 83-{){125068 7-27 ,..,EC pPC1060 Recommended Operating Conditions Absolute Maximum Ratings Inpul Voltage Limits 40 V Power oissipalion Parameter 350mW Operating Temperalure Range Min. Input Voltage Range -20 to HO°C Storage Temperature Range Symbot -55 to +125°C Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Output Current 10 Power Dissipation Po Operating Temperature TOPT Typ. Max. Unit 4.5 40 V o 10 mA 350 mW +70 C' -20 Electrical Characteristics T A = 25°C, VIN = 15 V, 10 = 0 Limits Parameter Test Conditions Symbol Min. Typ. Max. Unit Vo 2.475 2.50 2.525 V t.Vo/t.T 40 ppm/oC -20'C 05 TA 05 +70'C Vo 7.0 mV -20'C 05 TA 05 +70'C Line Regulation REGIN 4.5 3.0 mV 15 V 05 VIN 0540 V 4.5Vo5VINo515V Load Regulation REGLoAO 10 mV 60510o51omA Input Current liN 1.5 mA Ripple Rejeclion Ralio RR 90 dB 5 V 05 VIN 05 15 V, 10 = 0 f= 120Hz Output Noise Voltage en 80 JlVp.p 4.5 V 05 VIN 05 40 V 005 10 05 10 mA 10SHoRT 17 mA Vo = 0 Output Voltage Temperature Drill Output Voltage Output Voltage Change Output Short Circuit Current Typical Circuit Input t 1:'" ,uPC1060 Output leo 0.111 GND ~ 83-0025086 7-28 ttiEC jiPC1555 PRECISION TIMER CIRCUIT NEe Electronics Inc. Pin Configuration Description The J.lPC1555 is a highly stable precision timer capable of producing oscillation in the astable mode and accurate time delays in the monostable mode. In the astable mode as an oscillator, the free running frequency and duty cycle are accurately controlled using two resistors and a capacitor. In the monostable or time delay mode, only one external resistor and capacitor is required. The totem pole output drivers can sink or source up to 200 rnA making these devices ideal for driving small speakers, transducers, and single ended AC/DC converters. Features D D D D Operates in both astable and monostable mode Output can drive TTL loads Adjustable duty cycle NE555 direct replacement tJ PC1555C 83-002568A Equivalent Circuit R, 5k R11 6.2 k 0" R12 3.9k R, 7.5 k Output 5 Control Vottage 213 Vee R, 10 k R, 5k R, 100 R, 83-0025678 7-29 II NEe IlPC1555 Absolute Maximum Ratings Ordering Information TA = 25°C Voltage Between V+ and GND Puwer mSilpaLlOii, C Package 600mW Power Dissipation. G2 Package 440mW oto +70°C Operating Temperature Range Storage Temperature Range Package Operating Temperature Range I'PCI555C Plastic DIP O°C to +70°C I'PCI555G2 Plastic Miniflat O°C to +70°C Part Number 18 V -55 to +125°C Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Electrical Characteristics TA = 25°C, V'= +5Vlo +15 V Limits Parameter Supply Voltage Supply Current Symbol Min. V+ 4.5 Icc Typ. 16 10 Threshold Voltage Vlh 2/3 V+ Threshold Current Ith 0.1 Trigger Voltage VTRI6 Trigger Current ITRI6 Reset Vollage VRST Reset Current IRST Control Voltage Level Max. 15 Test Conditions Unit V mA V+ = 5 V. RL = mA V+ = 15 V. RL = 00. Vo = 0 V 00. Vo = 0 V V 0.25 5 J.1A Note 1 V V+=15V 1.67 V V+ = 5 V 0.5 J.1A .............................................................................. 0.4 0.7 1.0 0.1 V mA 9.0 10 II V V+= 15V .............................................................................. 2.6 3.33 4 V V+ = 5 V V+ = 15 V. ISINK = ID mA .............................................................................. Outpul Vollage Orop (Low) 0.1 0.25 0.4 0.75 V V+ = 15 V. ISINK = 50 mA 2.0 2.5 V V+ = 15 V, ISINK = 100 mA .............................................................................. 2.5 V V+ = 15 V. ISINK = 200 mA .............................................................................. 0.1 0.35 V V+ = 5 V.ISINK = 5 rnA 12.5 V V+ = 15 V. ISOURCE = 200 rnA .............................................................................. 12.75 13.3 V V+ = 15 V.ISOURCE = 100 mA 2.75 3.3 V V+ = 5 V.tSOURCE = 100 mA Rise Time Output 100 ns Fall Time Output 100 ns Output Voltage Drop (High) Timing Error, Aslable: Initial Accuracy Drift wilh Temperature Drift with Supply 0/0 RA, RB = 1 k to 100 kO. C= 0.1 J.1F 50 ppm/oC ......................................... 0.01 O/O/V Notes: 1. This will determine the maximum value of RA + Rs for 15 V operation. The maximum total resistance is 20 MO. 7-30 !ttIEC J1PC1555 Operating Characteristics TA = 25°C Minimum Pulse Width Required lor Triggering 1.2 I Supply Current vs. Supply Voltage 12 I v+ = 15 V 10 1.0 VI ]: ~ l' ..~ ,.."g 0.8 0.6 TJ~1250CI E 0.' / 0.2 ......tt. ~ 'I -20 o e ~ VV VTJ =(5 C .& ~ ..... 0 ~ ~ ........::: I'""'" ~~ -::::::-- ~ "- 25°C ~ -:"',)OC_ 15 10 Lowest Voltage Level of Trigger Pulse (V) Supply Voltage (V) High Output Voltage Drop vs. Output Source Current Low Output Voltage vs. Output Sink Current 10 l - i-- ~ l - f- r- / -20°C/ 1 l5°C/ -- t-- JL/--;I V/ V 20CC~ 25°C, '-.. 70°C "] J/ _L ~OOC~ 0.1 ~ ~ 1-"1"'" 0.01 10 30 50 100 1.0 5.0 3.0 ISOURCE (rnA) Low Output Voltage vs. Output Sink Current 50 30 100 Low Output Voltage vs. Output Sink Current 10 10 V+-10V V+=15V 20 c e 25"C ....... - L. ~ )'JI 70°C ~ S ~ 10 ISINK (mA) .-l 20°CI 1 25°C 25°C '-.. 0.1 70"C ..& b:=== ~::::::-~ -II ~ ~V I'""'" ..::::;: i 00C ~ 20 e ~ 0.Q1 1.0 .., ....-:; ........-:::: ~c V" 70°C o. 1 r-:;...- V JQ 10 ISINK (mA) 30 50 100 0.0 1 1.0 3.0 5.0 10 30 50 100 ISINK (rnA) 7-31 II t¥EC pPC1555 Operating Characteristics (Cont.) TA = 25°C Discharge Transistor (Pin 7) Voitage vs. Sink Current Output Propagation Delays vs. Vuaage Le-vel oi Trigger Puise '.2 TA = +25°C V+=5V '.0 ! ic c ° V :::- 0.8 V+~5V / 0.6 ~ :!. e 0.4 "- VV ~V ~ '00 1--+++-+-+-70t-OCt-t-+--+--t-I-t-i-~-Il,l'-I-t-t--T--r ......- / f-- ~ / 0.2 V+ =10V, 15 V I I I 0.2 0.' 0.3 '.0 ':-o.:::o,..L..J.--'-~o:':.,-.l..'-'--'---'----'-L..L-'----,~o----'.--'-'-'---:'=00 ISINK (mA) Pin 7 Lowest Voltage Level of Trigger Pulse (V) Applications The total period for one cycle of output HIGH and output LOW is: Monostable Operation When the timer is operated as a monostable multivibrator, one external capacitor (C 1), and one external resistor (R 1), are used as shown in figure 1. When the trigger input is reduced below 1/3 V+, the timer internal flip-flop is set. This releases the short circuit across the external capacitor and the Q output goes HIGH. The voltage across the capacitor voltage reaches 2/3 V+, the internal comparator resets the flip-flop and the external capacitor (C 1), is rapidly discharged, provided the trigger voltage is returned above 1/3 V+ (figure 2). The output is now in LOW state and a new timing cycle may be initiated. The time that the output is in the HIGH state is given by 1.1 R.C., or can be taken directly from figure 3. Both the charge rate and internal threshold are directly proportional to the supply voltage. Thus, the timer output pulse width is independent of the power supply voltage. If a LOW is applied to the reset input, the output is forced LOW and the external capacitor discharged regardless of the other inputs. t f=_1_= t (R1 + R2)C1 1 0.693(R1 + R2)C 1 The astable free-running frequency can also be found from the graph shown in figure 6. The duty cycle, the timetheoutput is LOW divided by the period, is given by: t2 R2 D------- . - t1 + t2 - Figure 1. R1 + R2 Monostable Circuit 5Vto15V {JPC1555 Astable Operation Output When the timer is operated in the astable mode, two external resistors (R1 and R2), and one external capacitor (C 1), are used as shown in figure 4. With this connection scheme, the external capacitor (C1), charges and discharges between 1/3 V+ and 2/3 V+. The charge time (output HIGH) is: t = 0.693(R1 + R2)C 1 The discharge time (output LOW) is: t2 = 0.693R2C1 7-32 = t1 + t2 = 0.693 The frequency for this period, T, is: Reset '----+---+---1 0---+---<>----1 u Control ,Io.O'"F f' III 83-002S77A I t-IEC Figure 2. pPC1555 Figure 5. Monostable Waveforms Astable Waveform t - 0 1 ms/div -- Tri ger Voltage 2 VI div I J "H" "L" / Capacitor Voltage Cl 2 V/diJ "L" -1I J "H" ,,~.J Capacitor Voltage "H" l Output Voltage 5 Vldiv 5vLv "H" "l" "H" t - 0.5 ms/div Output Voltage 1.7 V/div I I I~/ / / /1 / ~/ / L Rl = 9.1 kO, Cl = O.01I1F, RL = 1 kG Figure 3. Time Delay Figure 6. Free Running Frequency 100 100 10f----_+_ ~ . ~ 1.0 0 ~ [ il 1.0 u 11 :5 ~ 0.1 0.1 U 0.Q1 0.01 1.0 Time Delay Figure 4. 10 100 1.0 k 10 k 100 k Free Running Frequency (Hz) Astable Circuit 5Vto15V RL • f-- ~' r- 7 2 JlPC1555 OUiPUt t-- 3 61---- 4 51-- I R, Control Voltage 0.01 JiF 83~OO2580A 7-33 tJ PC1555 7-34 ttlEC NEe NEe Electronics Inc. JlPC1571 COMPANDER Description Pin Configuration The tJPC1571 is a dual gain control circuit in which either channel may be used as a dynamic range compressor or expander. Each channel contains a fullwave rectifier, a temperature compensated variable gain cell, and an operational amplifier. CRECT[A] CRECT[B] INRECT[A] INRECT[B] 1Nt:..G[A] -Input B -Input A Ras RaA This circuit is well suited for use in telephone systems, limiters, voltage control amplifiers, and noise reduction circuits. Features 1Nt:..GIB] v+ Output B ' -_ _ _--',THD Trims 83-003293A Ordering Information D Single power supply operation D Temperature compensated D Complete compressor and expander in a single package D Dynamic range greater than 70 dB D Outputs fully protected against short circuits R3 pPCI571C -IN Package Operating Temperature Range 16 pin Plastic DIP Absolute Maximum Ratings TA = +25°C Power Supply Input Voltage [Note I) Power Dissipation Storage Temperature Block Diagram THO TRIM Part Number 16V 16 V 400mW -55 to +125°C Note: 1. Applies to all input terminals. Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. vo 83-Q03294A Recommended Operating Conditions Parameter Operating Temperature Power Supply Rectifier Capacitor Symbol Limits Min Typ Max 0 70 Top V+ 6 8 CRECT 2.0 2.2 13.5 Unit °C V pF 7-35 t\'EC pPC1571 Electrical Characteristics = 8 V, eRECT = 2.2J.1F TA = +25'e, v+ Limits Parameter Power Supply Current Internal Reference Voltage V"' Change with Temperature Output Current Slew Rate S,mbol Min Icc Vrel AVre,/AT 1.7 10 SR ±10 Total Harmonic Distortion Expander Output Noise Unil 2.5 4.0 rnA 1.8 1.9 15 30 V mV/oC lunity THO -1.5 1200 1800 VII's % ppm/oC 0 +1.5 dBm 0.5 2 % dBm dB dB +20 -100 Gain Variation A VN AGA -0.2 0 +0.2 Gain Variation B AGB -0.5 0 +0.5 Compressor Output Vo -20.2 -40.4 -61.0 -20 -40 -60 -80 -19.5 -39.3 -5B.3 dB dB dB dB Expander Output Vo -10.5 -20.7 -31.5 -10 -20 -30 -40 -9.8 -19.6 -29.0 dB dB dB dB Channel Separation CS 60 7-36 Cornlitim.. s VIN =0V TA = O°C to HO°C rnA 0.2 Change with Temperature Unity Gain level Max -20 Internal Resistor Tolerance Test Typ dB TA = O°C to HO°C VIN = Vo AI = 3 kHz VIN = -30 dBm TA = 0° to HO°C I = 1 kHz to 5 kHz = -20 dB = -40 dB = -60 dB = -80 dB VIN = -10 dB VIN = -20 dB VIN = -30 dB VIN = -40 dB VIN VIN VIN VIN t\'EC J1PC1571 Operating Characteristics TA = 25°C Power Supply Characteristics Expander Characteristics +20 f: 100 Hz to 10 kHz C E :: 3 ~ :s u ~ 2 I (} I J L / -60 J V V / Noise Level 10 -80 -80 20 -60 -20 -40 Power Source Voltage (V) +20 Output Level (dB) Distortion-Output Voltage Characteristics (Compander) Compressor Characteristics 10 +20 --1.0 iii ci ~ :.:,..: -- 0 ~ :iC V '/ / J ~ / 0.1 100 Hz. 1 kHz TO kHz -20 V ] / i -40 / ,~ Noise Level ,..,. 1 '/ f: 100 Hz-10 kHz 0.1 0.01 10 1.0 -80 -80 V V V -60 II II / / 1/ 60 -40 20 +20 Output Level (dB) Output Voltage (V) Frequency Characteristics (Compander) +20 Y,N = +10dB Ii0dB Ulll iii ~ ~20 ] 8'.. 'I-- lllllB -40 lU~B -60 -80 10 I-- ........... 11111 100 1k 10k TOOk Frequency (Hz) 7-37 II t-rEC IlPC1571 Gain Cell Operation Compressor Operation The gain cell is a multiplier comprised of two transistor pairs. 1, and 12 are fixed within the IC; IG is a control (;urreni suppiied by ihe reciifier. This current determines the amount of output amplification: Using the pPC1571 as a compressor involves placing an expander in the op-amp feedback circuit. For exampie, if the input increases by 6 dB, the output is limited to 3 dB. The 3 dB increase produces a 3 dB increase in the output of the gain cell, which results in a 6 dB increase in feedback current. 10 = IG· liN IG • VIN 140pA = R, .84 Gain=---V IN (avg) v+ Vo = (gain) (VIN) Notethat op-amp feedback isAC only. CDC and the two Roc provide DC feedback to set the DC bias at the op-amp output: Vapa (~C) = (1+ REF R4 The output of the compressor will be biased at 3 V DC, assuming the internal resistors are used: R2 v~ + ROC (total) ) V 20K R3 Va (~C) = (H - ) VREF R4 Note that external resistors may be placed in series with R3 to change the gain, or with R4 to change the output DC bias. Rectifier Operation 1I2pPC1571 The output current of the op-amp is averaged by CRECT R2 then doubled to become IG: VIN IG = R, R, (avg) Gain Cell 11---1 V+ I To Gain Cell I 2Dk I I 10k I t Rl Rectifier I 0-----..., R2 10K Roc t IG ±coe R3 vIN CIN O---j + vREF 83-003301A 7-38 2Dk I: CF" I~ ~ CRECT VREF Ci~ Roc UR \-+VOUT t-iEC /1PC1571 Expander Operation When connected as an expander, the input signal is applied to both the rectifier and the gain cell. When the signal drops by 6 dB, the gain current drops by a factor of 2 so the overall gain drops by 6 dB. Thus the output level will drop by 12 dB. Gain = (1.43) (VIN (avg)) Va = (gain) (VIN) R3 CIN1 R2 '{., '. Applications A. Automatic Level Control With the rectifier input tied to VIN, a very high performance ALC can be built. Gain is inversely proportional to input level, so a 20 dB drop in input produces a 20 dB increase in gain. Circuit shown will maintain a fixed output ±1 dB from -43 dBm to +14 dBm at 1 kHz. II 'pF I 33k 33k J. VIN 1 J.IF R3 20K 'OpF 30 pF o--O---1l---'1M-~---+---l 83-003304A 7-39 IJPC1571 7-40 fttIEC ~EC pPC1663/1664 UL TRA-WIDEBAND DIFFERENTIAL AMPLIFIER NEe Electronics Inc. PRELIMINARY INFORMATION Description Pin Configuration The flPC1663 and flPC1664 are video amplifiers with differential input and output stages. An ultrahighfrequency process (h = 6 GHz) improves ac performance compared with industry-standard type 733 video amplifiers. TheflPC1663 and flPC1664 are excellent as sense amplifiers for high-density CCOs, as video or pulse amplifiers in high-resolution displays, and in communications equipment. Features D Bandwidth and typical gain 120 MHz at AVOL = 300 170 MHz at AVOL = 90 700 MHz at AVOL = 8 D Very small phase delay D Gain adjustable from 8 to 300 D Frequency compensation not required D Pin compatible (flPC1664C) with type 733 D Pin compatible (flPC1663C) with type 592 tl PC1663C 53-003086A Ordering Information Part Number Package IlPC1663C 8·Pin Plastic DIP IlPC1664C 14-Pin Plastic DIP Operating Temperature Range oto +70'C oto +70'C Absolute Maximum Ratings TA = 25°C Voltage Between V+ and V- ±8V Power Dissipation IlPC1663C 500mW Power Oissipatlon IlPC1664C 570 mW Differential Input Voltage ±5V Common Mode Input Voltage ±6V Output Current Operating Temperature Range Storage Temperature Range II tlPC1664C 83-003087A 35 rnA -20 to +70'C -55 to +125'C Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating oniy and funclionai operation or the device at lhese or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. 7-41 t\'EC jlPC1663/1664 Equivalent Circuit , . , - J t-.. V r-... ::t- V ~ 1 1 2 Input Output Input G1A cr-- t---o G2A 0--- t---o '-- ~ G1B Output G2B ~ "-.i ,M"'I t V "'" V V ....... "'" L- 7-42 1/ ....... 83-003088B NEe pPC1663/1664 Electrical Characteristics Operating Characteristics TA = 25°e, V± = ±6 V TA = 25°e Limits Symbol Min. Typ. Max. Parameter Gain 1 Differential Voltage Gain Gain 2 Gain 1 Gain 2 90 Note 2 8 Note 3 MHz RS = 50 0; -3 dB point ns Rs = 50 0; VOUT = 1 Vp.p ns Rs = 50 0; VOUT= 1 Vp.p 700 2.9 2.7 Ir Gain 3 2.9 Gain 2 1.6 tpd Gain 3 1.2 lio 0.4 5.0 /lA Input Bias Current Ib 9.0 30 /lA Input Voltage Range VIN 1.0 0.6 1.5 V 0.35 1.5 \I 3.4 V Input Offset Current Output Offset Voltage Gain 1 Vo (OFFI Gain 2 Output Common Mode Voltage VO(CMI 2.4 2.9 Output Voltage Swing Vo (p,pl 3.0 4.0 Output Sink Current ISINK 2.5 3.6 Supply Current Notes: 1. 2. 3. 4. Icc 15 ~6V 83-002831 A Pulse Response Gain 1 Propagation Delay 10,OOOp ~----1-----1----11---lK 170 Gain 1 Gain 2 +6V 120 BW Gain 3 Rise Time Test Conditions Note 1 300 AVOL Gain 3 Bandwidth Unit V I I ~,'W Gain 3 ,1\ V Vp.p Oul mA 24 500 mV/div Vertical 20 ns/div Horizontal mA Gain select pins G1A and G18 are connected. Gain select pins G2A and G28 are connected. All gain select pins are open. Insert adjustment resistor (0 to 10 kO) between G1A and G18 when variable gain is necessary. Attention: Due to ultrahigh-frequency characteristics, the physical circuit layout is very critical. Supply vollage line bypass, doublesided printed-circuil board, and wide-area ground line layout are necessary for slable operation. Two signal resislors connected to bolh inputs and Iwo load resistors connected 10 both outputs should be balanced for slable operation. Pulse Response I '. ~, Gain 2 1ft U Oul 500 mV/div Vertical 20 ns/div Horizontal 7-43 NEe pPC1663/1664 Operating Characteristics (Cont.) TA = 25°C Maximum Output Voltage Swing vs Frequency [Single-Ended Video U~e] Pulse Response 2,0 In ~ J\ '. Gain 1 f"",. A < Out V 0,1 I 10 100 Frequency (MHz) 500 mV/div Vertical 20 ns/div Horizontal Measurement Circuit Single-Ended Gain vs Frequency V±= ±6 V ,------, pPC1663/1664 Input 50 ~ 750 I Output 200 0 40 "" -;; 30 ~ I o---t--+---i 60 20 I"- 10 750 Gain 1 Gain 2 200 (} Gain 3 83-002838A 0,1 10 100 Frequency (MHz) Phase Shift vs Frequency -r;r-. :'--- 111111111111111111111111f5;;; 0,1 10 Frequency (MHz) 7-44 100 t-IEC pPC3423 OVERVOLTAGE "CROWBAR" SENSING CIRCUIT NEe Electronics Inc. Description Pin Configuration The tJPC3423 is an overvoltage protection circuit (OVP) that protects sensitive electronic circuitry from overvoltage transients or regulator failures when used in conjunction with an external "crowbar" SCR. v+ [ 8 ] Output 1 "-./ Sense 1 [ 2 Sense 2 [ 3 Current Source [ 4 ~PC3423C 7 J Ground 6 ] Indicator Output 5 ] Remote Activation 83~OO3247A Features Absolute Maximum Ratings D Threshold voltage easily programmed by external resistors D Programmable trip delay D 300 mA output current D Equivalent to MC3423 TA = 25°C Parameter Ordering Information Part Number Operating Temperature Range Package pPC3423C Recommended Operating Conditions Min Typ Max 6.B V Remote Activation Input Voltage 7.0 V Output Current 300 rnA 600 mW Operating Temperature Range -20 to +70 °C Storage Temperature Range -40 to +125 °C Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Unit Supply Voltage V+ 4.5 36 V Output Current 10 0 300 rnA 10Undi 0 10 rnA Indication Output Current V Sense Voltage Comment: Stress above those listed under "Absolute Maximum Limits Symbol Unit 45 Total Power Dissipation B·pin Plastic DIP Parameter IIPC3423 Supply Voltage Equivalent Circuit 114 Circuit 1--------------- I I I I 2 II ----------------1 I I +----------------+-+-0 Current Source I I Sense11 I I I I OL_ I I I I I I _ ___________ .-l L __ 7 GND 3 Sen882 5 6 Indicator Output Remote Activation 83-0032468 7-45 !\fEe pPC3423 Electrical Characteristics Y+ = 5.0 Y, T A +25°C Limits raiiimatar Symbol .'1111 TYii Vo V+ - 2.2 V+-1.8 Output Voltage Indication Output Voltage VOLllndl Vsensel Vsense2 AV. en •e/ A T Sense Voltage (1), (2) Sense Voltage Orift Remote Activation Input Current IIH Remote Activation Input Current IlL Source Current V 0.2 0.4 2.6 2.8 V 40 pA pA 10= (OOmA 10(lndi = 8 rnA -0.04 0.1 -250 Isource tr Output Current Rise Time 2.4 Test Cunuiiions Uiiii 300 pA mA/pS Propagation Delay tpd 400 0.5 Supply Current Icc 5.0 ps 8.0 rnA VIH = 2.0 V VIL = 0.8 V See Test Circuit 10 = 100 rnA pin 5 grounded, other terminals open Test Circuit 'source Test Circuit r---------------- -----------------, I I I I I I I .. Isource Sense 1[ I I 5V or 36 V I I 3V I I I I I I I I L __ ____________ --1 0utput 7 6 VEE Indicator Output Sense 2 Remote Activation 7-46 83-0032488 NEe pPC3423 Typical Applications 1. Basic Application +Vo Line Fuse 1 1--------------R, I I I Isource V, -----------------1 I I + I I 2 .--'---- I I I Sense 1 DC Power I Supply '--- VREF =2.6V If] utfi> I [l R2 L __ - - - - - - - - - - - ---7 GND 3 Sense 2 5 4 +Isource i ~ ...--'-- V r Load Q ,. : Ra 8 _~ _ _ _ _ _ _ _ _ _ _ _.JOutput - J Crowbar SCR 6 Indicator Output Remote Activation vc( + j'C Vo Line 83-0032508 7-47 NEe pPC3423 Typical Applications (Cont.) 2. Application when programmable duration of overvoltage condition before trip is needed +Vo Line _~V+ Fuse ,--------------- -----------------1 R, I I I I Isource I + I I I 2 ,.....-- Sense I I 11 I I Supply I '---- R2 I I I I +Isource 1?1 -~-~ ~-: ,.....-- V I I DC Power 4 I VREF = 2.6 V I I L __ ----------7 Load GND 3 ~ I RG OJ _ _ _ _ _ _ _ _ _ _ _ _ .J0utpUI - --Sense 2 5 8 '--r-Crowbar SeR 6 Indicator Output Remote Activation Vo Line 83-0032498 Timing Chart line Voltage Vtrip ----.. Voltage Waveform of Capacitor C Slope of Voltage Waveform Voltage Waveform Vsense Veil = 01 Capacitor C Iso~ce Duration Tpt tpl = IC's Output [pin BJ o ~s:~;;:e Vsense = 26 V [Typ.) , - - - - I_ _- - - - - - ' - - - - - ' - - - - - - - - - ----..lime 83-0032518 7-48 t-IEC pPC3423 Operating Characteristics TA = 25°C Maximum Power Dissipation VB. 1.0 Supply Voltage Ambient Temperature 0 10 lind) =0 non repetitive ~ O. 8 40 i .l! o.6 "~o-o "-"'"m~" ......... 0 c i"'00.'60'CIW i J"... .. O. 4 10 =200 mAT= 300 " ..... ........... 0 i II O. 2 10 = 200 rnA T=100ms- r-- 0 0 25 75 50 125 100 0 50 25 100 75 Ambient Temperature (Oe) Ambient Temperature ("e) Source Current VB. Ambient Temperature Output Saturation Voltage VB. Output Current SenH1=3V V+-GND=5V Seftle2=3Y See Test Circuit -...... 400 1 - r- r--.. ....... r- 1--0. . 1 V+-GND=36V Ii --;-....J, I l""- t--,. -r-...J. V+-GND-5V I 125 J- ~ - .L I 1 1 200 J -20 20 40 60 o 80 1m 10m Output Current (A) Indication Output Voltage VS. Output Current vs. Supply Volt.ge Supply Current 10 10 V+-GND Sense 2 Pin 5 Connect to 5V 3V ~It~~(~e~ln.'. Open ~ f > -- !-- i 0 I ........ § I II 100m AmbJent Temperature (Ge) 100m / 10m 100p I .... 1m 10m Indication Output Current (A) I 100m 2 0 f- - - I II II 10 20 30 40 50 Supply Current (rnA) 7-49 NEe pPC3423 Operating Characteristics (Cont.) TA = 25°C -- YS. Supply Current Ambient Temperature Pin 5 Connect to v+ = Pin 7 (GND) 36 V ~ V+:::: 5V c ~ o i.i: 5 - - Other Terminals Open r-- I- 4 20 20 40 Ambient Temperature (0C) 7-50 60 80 t-IEC pPD5555/5556 NEe Electronics Inc. CMOS TIMERS Pin Configurations Description ThepPD5555/56 are CMOS RC timers providing significantly improved performance overthe standard bipolar 555/556 timers, while at the same time being direct replacements for those devices in most applications. I mproved parameters include low supply current, wide operating supply voltage range, THRESHOLD, TRIGGER and RESET currents as low as 2 pA, no crowbarring of the power supply during output transitions, higher frequency performance, and no requirement to decouple control voltage for stable operation. Specifically, the pPD5555/56 are stable controllers capable of producing accurate time delays or frequencies. The 5556 is a dual 5555, with the two timers operating independently of one another, sharing only V+ and GND. In the one-shot mode, the pulse width of each circuit is precisely controlled by one external resistor and capacitor. For astable operation as an oscillator, the free running frequency and the duty cycle are controlled by two external resistors and one capacitor. The circuits can source or sink current large enough to drive TTL loads or provide minimal offsets to drive CMOS loads. G N D D 8 V+ Trigger 2 7 Discharge Output 3 6 Threshold Reset 4 5 Control tJPD5555C/G2 83-001892A Discharge A V+ Threshold A 2 Discharge B Control Voltage A 3 Threshold B Reset A 4 Control Voltage B Output A 5 Reset B Trigger A 6 Output B GND ....7_ _ _---'8,TrlggerB Il PD 5556C/G2 83-002768A Ordering Information Part Number Package Type IlPD5555C Plastic DIP Single IlPD5555G2 Plastic Miniflat Single Features IlPD5556C Plastic DIP Dual o IlPC5556G2 Plastic Miniflat Dual o o o Exact equivalent in most cases for industry standard 555/556 timers Low supply current 3 to 16 V operating voltage range Timing from microseconds through hours II Equivalent Circuit r---~---~-----~------~--4r----r---------4r--~V+ Threshold o--------t Output Triggero--------t-----t--r-----+_~ L-_ _ _~_~_ _ _ _~t_~__--+--~--+_~---+---oGND Discharge 83-002769B 7-51 NEe pPD5555/5556 Appl ications Figure 1. V+ = 3 Monostable Operation to 16 v - I I Trigger 2 Vldlv Ir lJ lJ H H Output 5 V/dlv L Capacitor C1 Voltage, 2 V/dlv I I L V1I / 1 r / / 1 L t - 0.1 ms/dly (R1 = 9.1 kO, C1 = O.01I1F, RL = 1 kO) 100r-----r-----r-----~----~----~----~ 1.0 f----1----I~- 0.1 f-----V----V----·";/'---_--bo''----t7''---t 0.01 i.o"'---Y--V'----/7''--- Time Delay 83-0016938 Figure 1 shows thepPD5555 operating as a monostable (one-shot) multivibrator. The sequence of operation is described below. 1. When the trigger input is reduced below 1/3 V+, the timer internal flip-flop is set. 2. This releases the short-circuit across C1 and the output goes high. 3. When the voltage across C1 reaches 2/3 V+, an internal comparator resets the flip-flop. 4. If the trigger voltage has returned above 1/3 V+, C1 discharges rapidly. 5. The output ls ~C\N !O\''/ and a nc'vv t:m:ng cycle may be initiated. 7-52 The time that the output is high can be taken from the graph in figure 1 or calculated by this formula: t(seconds) = 1.1 x R1 (MO) x C1 (pF) If a low is applied to the reset input, the output is forced low and C1 is discharged regardless of the other inputs. ~EC pPD5555/5556 Applications (Cont.) Figure 2. Astable Operation V+=3Io16V AL Al H H Output Voltage. 5 Vldlv R2 L J L ,V~V Capacitor C1 Voltage 1.7V/dlv J ~V t- 0.5 msJdlv (Al = A2 = 4.8 kCl, Cl = O.lpF, AL =1 kn) l00~~--~~--~---.-----'-----r----, 10~~--~~--~~-+~---+----~----~ 1.0 ""----~----f300.,------+~=--+~--_+----~ 0.1 f-----"",------~----+~,-----+~--_+~--~ 0.01 f--='-=F----~----+~---+~--_+~--~ 0.01 0.1 Free~Runnlng 1.0 100 Frequency (kHz) 83·0028308 Figure 2 shows the pPD5555 operating as a freerunning multivibrator. Capacitor C1 charges and discharges between 1/3 V+ and 2/3 V+. The free-running frequency can be obtained from the graph in figure 2 or calculated by the formula below. In the formulas, the corresponding units in which time, frequency, resistance, and capacitance can be expressed are: Time Charge time (output high): t1 = 0.693 (R1 + R2) C1 Discharge time (output low): t2 = 0.693 R2 C1 Period: t = t1 + t2 = 0.693 (R1 + 2R2) C1 1 ms Frequency Resistance Hz MI} kHz kl} MHz I} Capacitance pF 1 Frequency = - =0.693 -::(R:-:1-+'-2=-=R::-:2:7)-::C:-:'1 Duty cycle (output low): D = f R1 :~R2 7-53 II ttlEC pPD5555/5556 Electrical Characteristics Absolute Maximum Ratings TA = 25°C; V+ = 3 to 15 V unless otherwise specified. TA = 25°C limits Symbui min. iyp. max. Supply Current ICC 115 250 140 350 213 Threshold Voltage iinii IlA 50 Threshold Current Trigger Voltage pA 1/3 VTRIG Power Dissipation. IlPD5555 Plastic Mlniflat Plastic DIP 350mW 440mW V+=5V Power Oisslpation.IlPD5556 Plastic Mlniflat Plastic DIP 550 mW 570mW V+=3 V Operating Temperature pA V+=5V V+=3V Reset Voltage (VOUT becomes low.) 0.4 1.1 2.0 0.4 1.1 2.0 v 100 Reset Current pA 20 V+ = 15 V V+=3V Vresel = V-. V+ = 15 V V+ =5V V+=3V 0.06 Output low level 0.14 14.25 14.85 Output High level VOH 4.0 Output Rise Time Output Fall Time 0.4 VOL tf v 0.4 v V+=15V. Islnk = 3.2 rnA V+ = 5 V. Isink = 3.2 rnA V+=15V. Isource = 1 rnA V+ = 4.7 5 V. Isource = 1 rnA 40 ns 40 ns V+ ±0.3 V 100 rnA -20 to HO°C Storage Temperature V+ = 15 V 10 ITRIG Output Current V+ = 15 V V V+ 50 Trigger Current V+=5 V V+ = 15 V 10 18 V Input Voltage V V+ Supply Voltage Test iionliiiions V+ = 5 V. RL =10 MO. CL = 7 pF V+ = 5 V. RL = 10 MO. -55 to +125°C Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device al these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Recommended Operating Conditions Paramater Symbot Mfn. Typ. Max. Unit 500 kHz V+ 16 V V ISINK 3.2 rnA Oscillation Frequency Supply Voltage (Note 1) Input Voltage Output Sink Current Output Source Current ISOURCE Operating Temperature TOPT rnA -20 70 'C Note: 1. To reduce transient switching noise on the supply voltage line. install a bypass capacitor from V+ to ground. Connect the capacitor. with value listed below. close to V+. V+ C <10V 2: 10 V 0.047 1lF 0.11lF Timing Waveform CL = 7 pF Max Osc Freq fOSC 500 kHz Astable Operation Propagation Delay (V+ =5V) tpd 350 ns Monostable operation; trigger level =0.1 V+ Min Trigger Pulse Width (V+ = 5 V) tlr 160 ns Trigger level =0.1 V+ 213 V+ V 2 % Control Voltage Timing Error iniiiai Accuracy Temperature Drift Supply Voltage Drift Waveform 2V Y+=sv Rl.R2=1 to 10 kO. --5-0---p-pm-l-oC Cl = O.IIlF. V+ =5to %/V 15 V I I I I III I I,," I I • No Overshoot • YOH can reach V+ without pull-up resistor 7-54 t-IEC pPD5555/5556 Operating Characteristics TA = 25°C Supply Current (Static) VB. V+ Output Sink Current VB VOL 500 100 ./ 50 V+=15V!~ I - - 400 iC 1/ V'3V / /: V ./~V 300 ~ il ~ - 200 ~ In 100 o o J / . / ......:.. V I,....5 i ~ ::l 10 12 16 14 18 . / .h" "/ ~ 1 20 .01 .05 10 .5 .1 Supply Voltage (V) Output Low Voltage (V) Dynamic Current vs Frequency Output Source Current VB VOH 50 Y+Jsv./ 1 - ~ il / 10 ./ 5 / ~ ! i o ./ 10 100 0.1 1000 0.01 0.05 0.1 50 l V /' ~ i ~~ u ! Trlgger~ I 1000 Output c I. e ~ 10' I ~ f 10' i l..F\... 50% 500 I -::;;7 V v+ o 0.1 0.01 0.05 0.1 II 10 1500 ./""I-""y:j' = 5 V 1 ~ I-- y+ =3V . / V.,.. 0.5 1 Propagation Delay (Monostable) 1/ 10 C I v .... V V V O.S V+-VOH (V) Discharge Current vs. Discharge Voltage V+=15V ~ ./'". / Frequency (kHz) 100 i!!-- / / ' '/ )" ./ /'" i ~~!!!!!!!!!!!!!!!~!!!!!!!!!!!!~~~~ V /' "/ ./ 0.5 ./ /' ....- 0.5 Discharge Voltage (V) 10 o V ./ ISV 20 30 Minimum Trigger Voltage (%v+) 7-55 J.lPD5555/5556 7-56 NEe t-IEC CHARGE COUPLED DEVICES 8-A III CHARGE COUPLED DEVICES ttlEC Section 8 - Charge Coupled Devices pP0791 4096-Bit eeo Image Sensor ....•...................................•....•.. 8-1 pP0795 1024-Bit eeo Image Sensor .............................................•.. 8-9 pP0799 2048-Bit eeo Image Sensor .......•....•.••.............................. 8-17 8-B ftt{EC pPD791 4096·BIT CCD IMAGE SENSOR NEe Electronics Inc. PRELIMINARY INFORMATION Description Pin Configuration The .uP0791 is a CCO (charge-coupled device) linear image sensor that changes optical images to electrical signals. It has 4096 photo-elements, two lines of 2061bit CCO charge transfer registers, two output amplifiers, and two compensation signal amplifiers. The photo-elements have excellent response characteristics because of their PN junction construction. They are 7 by S .um separated by 2-.um channel stoppers. The CCO charge transfer registers have very high transfer efficiency, above 99.996 percent. 83-003149A Features Pin Identification D Excellent photo-electrical characteristics D Single 12-volt power supply D Compensation amplifier signal can reduce output signal noise D High resolution of 16 dots per mm across 2S.6-cm page D Transfer efficiency above 99.996 percent D 24-pin ceramic OIP Pin Applications Facsimile OCR (optical character reader) Instrumentation Ordering Information Part Number Package Operating Ambient Temperature IlPD7910 24-pin ceramic DIP -25 to +55°C *Function Name NC No connection ID Test input IR Test input Transler gate clock input 5 TG NC 6.7 2· 1 Register clock input 8 R1 Reset gate clock 1 input 9 VRD Reset part power supply input 10 CS1 Compensation signal 1 output 11 12 VDUTl GND Ground 13 VDD Output amplifier power supply input 14 VDUT2 Output 2 (bit 2. 4. 6...) 15 CS2 Compensation signal 2 output 16 VOG Output gate bias input 17 R2 Reset gate clock 2 input 18.19 Register clock input 20.21 1. 2 NC 22 G2 Test input 23 GI GND Ground 4 24 No connection Output 1 (bit 1. 3. 5, ...) II No connection Test input 'All NC pins should be connected to ground. 8-1 t-IEC pPD791 Block Diagram VRD "R2 <;>17 <;>9 VOD <;)13 Transfer Gate L-l----o CS2 15 10 tfiTG • 2 tfi2 ,. '-+-+--0 Vout2 '-+-+---0 Vout1 11 Test Photo-Elements [4096 bits + 8 invalid bits] '--t--ocs, fl2. GND 10 16 VOG 8 tfiR1 12 GND 83-003148C Photo-Element Construction Aluminum Electrode Channel Stopper I\~ 8-2 ~EC pPD791 Electrical Characteristics TA = +25"0; source of light, 2856 K tungsten lamp; exposure period =5.0 ms; f1/>1' f1/>2' and fl/>R = 1 MHz; external load resistance = 2 kn; Voo and VRO = 12.0 V; VOG = 3.2 V; VGl and VG2 = 0 V. LImits Symbol Min VSAT SE 300 SaturatiDn Exposure Parameter SaturatiDn Output Voltage Typ Max Test Conditions Unit 400 mV 0.22 Ixes Photo-RespDnse NonunlfDrmlty PRNU ±5 ±10 % VOUT = 200 mY; Infrared cui filler, CDrnlng 1·75 Average Dark Signal ADS 2 10 mV ND exposure Dark Signal Nonunilormily DSNU 10 20 mV ND exposure 150 230 mW Current of pins 9 and 13 x supply vDltage 1.1 1900 3000 11m mVllxes Working PDwer CDnsumplion Po Spectral RespDnse Range Limits SR 0.3 Sensitivity S Ollset Voltage Vlo 1300 4 Oulpul Delay Time 10 Dillerence belween VOUT1 and VOUT2 70 6 8 V 0% level Df VOUT in timing waveforms 50 120 ns See timing wavefDrms. ±10 % VOUTl = 200 mV dVOUT Reference Characteristics Recommended Operating Conditions TA = -25 to +55"0 Limits Parameter Input Capacitance aiI/>I Dr "'2 (pins 6, 7,18,19) Input Capacitance at "'H (pins 8, 17) Inpul Capacitance at "'TG (pin 4) Oulpullmpedance al VOUT Dr CS (pins 10, 11, 14, 15) with 2·kn exlernallDad reslslDr 400 5 50 800 1200 pF 10 100 1.0 15 150 2.0 Symbol Min Typ Max Unit Oulpul Amplifier Supply VDltage VOU 11.4 12.0 12.6 V pF Reset Part Supply VDltage VRU 11.4 12.0 12.6 V Oulpul Gale Bias VDltage VOG 2.7 Tesl Terminal GI VDllage VGI Tesl Terminal G2 VDllage VG2 Test TermlnallD VDltage VIO kn TA = +25"0 Tesl Terminal "'IR VDltage -0.3ID +IB V Reset Part Supply Voltage, VRU -0.3tD +18 V Output Gate Vollage, VOG -0.3tD +IB V Regisler CIDCk Signal VDltage, VI/>I1/>2 -0.3ID +18 V Transler Gale CIDCk Signal VDltage, VR -0.3 to +18 V Operallng Temperature, TOPT -25 to +55"C StDrage Temperature, TSTG Parameter pF Absolute Maximum Ratings Outpul Amplifier Supply VDllage, VOU limits Min Typ Max Unit -40 tD +100"C Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. High Level DI Reglsler Clock Signal 3.7 0 12.0 V 15 0 VI/>IR 9.0 Low Level 01 Reglsler Clock Signal VI/>I1/>2L -0.3 High Level Df Transler Gale CIDCk Signal VRH 9.0 LDW Level of Resat Gate CIDCk Signal VI/>RL -0.3 Register Clock Signal Frequency (see Note) V V 0 10 VI/>I1/>2H Resel Gale Clock Signal Frequency (see Note) 3.2 V V 12.0 12.5 V 0.5 V 12.0 12.5 V 0 0 0.5 V 12.0 12.5 V 0.5 V fl/>I1/>2 3.5 MHz f100 ns. (See Timing Waveforms.) 8-3 II 0> ~:! .J,.. 3 ~ III :e ... II .r ""l < 'l::: " a .... CD ... CD 0 3lit Voun VOUT2 4>1 4>2 4>., tR_ (>10 n8)• 1/)1 and t/J2 are symmetrical. 4>.2 • The crossing voltage of t/J1 and above VOG + 1 V. fl should be kept • The register clock pulse should be not more than 2061 cycles. VOUT1 • Width of the transfer gate pulse should be less than 20 pa. VOUT2 tp 83-0031478 ~ n t-IEC pPD791 Definitions of Electrical Parameters Saturation Output Voltage [VSAT]. An output signal level above which the PRNU (photo-response nonuniformity) is ::::10% or the response is nonlinear. Saturation Exposure [SE]. Product of illuminance (Ix) and exposure period (s) in which the output is saturated. Photo-Response Nonuniformity [PRNU]. Percentage of peak output level and bottom output level against average output level of all valid photo-elements in static and uniform light. PRNU (%) =(VMAX or VMIN 1 Working Power Consumption [Pw]. Product of supply voltage and current when supply voltage is 12.0 V. Spectral Response Range Limits [SR]. Short side and long side limits of response spectral range having sensitivity above 5 percent of sensitivity of most sensitive wavelength. .....·--------100% 1) x 100 n n~Vj j=1 where n = number of valid photo-elements Vj = output voltage of each photo element --jll------------*"--S% ---,----Wavelength - - _ 83-003154A Sensitivity [S]. Quotient of the output level divided by exposure (Ixes). Offset Voltage [Vas]. Output terminal potential with no exposure. 83-003152A Average Dark Signal [ADS]. Average output level of valid photo-elements with no exposure. 1 n ADS (mV) =n~ Vj j=1 Dark Signal Nonuniformity [DSNU]. Peak output level with no exposure. ----,t:::::::::::::::EC=+' ~====:::::::::=.rr- I DSNU 83-003153A 8-5 ~EC pPD791 Example of Driving Circuit (Sheet 1 of 2) +5V TG Reg 1 pF r- 28 MHz ~~gll 1 I I I I I I I I I I I I I I I I I I I I I I I I "PD".l1 --I R1 I I I R2 L _____ J ,uPB74LS10 IL _ _ B3-003159C 8-6 ~EC pPD791 Example of Driving Circuit (Cont.) (Sheet 2 of 2) i - I "0026" TG +12Y 2700 2700 Reg 1000 pF Rl R2 1000 pF I 1000 pF I "0026" type MOS memory Interface Output 2 Note: 1. Supply voltage forelock generating is +5 V. 2. If ringing is present on the ¢'R waveforms, try connecting a resi,tor and capacitor In series between pin 8 (¢,R1) and grounnd and between pin 17 <¢'R2) and ground as damping circuits. Approximate values are 68 0 and 330 pF. 63-003160C 8-7 ~EC J.lPD791 Operating Characteristics TA = 25°C Dark Signal Signal Output 10r--------r-------,--------~------_,------_, 500 400 s; ~ 300 ! .5 ~ /' 200 iii 100 o /' / L V .° a: ..o 1l, > , .5 Co ~ o 0.1 0.2 _ _ _ __ L_ _ _ _ _ _ 0.8 0.7 ~ ~ ~ / 0.6 a: 0.5 0.4 / / ----- '\.\ \ \ ~ 0.8 Wavelength (Jim) 8-8 60 u. \ I- " " ~ 0.1 0.6 50 1.0 1.2 '" '" "'- White fluorescent lamp Lens: f = 38 mm F4.5 ~ ~ \ 0.3 0.4 ............ 80 0.2 o 40 MTF 100 • ./ a: 30 ~i Ambient Temperature T A (OC) Relative Spectrum Response 0.9 ~ _ __ L_ _ _ _ _ _L __ _ _ _ 20 0.3 Exposure (Ix.s) 1.0 L_~ 40 .......... r--...... .............. 20 o o 10 Spatial Frequency (dots/mm) 12 14 16 NEe NEe Electronics Inc. JlPD795 1 024·BIT CCD IMAGE SENSOR PRELIMINARY INFORMATION Description Pin Configuration The I1P0795 is a CCO (charge-coupled device) linear image sensor that changes optical images to electrical signals. It has 1024 photo-elements, two lines of 525bit CCO charge transfer registers, a drive unit, a sample-and-hold circuit, and an output amplifier. The drive unit simplifies the external circuit and reduces total drive power. The sample-and-hold circuit substantially reduces output signal noise. The photo-elements have excellent response characteristics because of their PN junction construction. They are 14 by 9 11m separated by 5-l1m channel stoppers. The CCO charge transfer registers have very high transfer efficiency, above 99.996 percent. Features o o o o o o GHD VRD VOG Applications Facsimile OCR (optical character reader) Instrumentation Photo-Element Construction ¢TGO ¢IR Pin Identification Pin Name 'Function GND Ground 4>10 Register clock input 4>RO Reset gate clock input 4>SHO NC Sample-and-hold clock input Transfer gate clock input 9 4>TGO G2 10 V+ Drive unit power supply input 11 ID Test input 12 G1 Test input 13 4>IR NC Test input 14,15 16 VOG Output gate bias Input 4 5,6,7 8 No connection Test Input No connection 17 VRD Reset part power supply input 18 VOD Output amplifier power supply input 19 VOUT GND Ground 20 Aluminum Electrode He He 83-00330BA 3 Excellent photo-electrical characteristics Single 12-volt power supply On-chip drive unit and sample-and-hold circuit High resolution of 8 dots per mm across 12.8-cm page Transfer efficiency above 99.996 percent 20-pin ceramic DIP He He Output • Ail NC pins should be connected to ground. II Ordering Information Channel Stopper Pari Number Package JlPD795D 20·pin ceramic OIP Operating Ambient Temperature 83-003150A 8-9 1::: ex> ~ "..... a CI CD 01 1---1 10 v' 0 > - - - - - - --- ~~ Pulse Width 4 O¢s", 17 VRD VOD r 1 Photo-elements (1024 bits t 8 invalid bits) Transfer Gale GND Leakage Current Drain Channel / ceD Charge Transfer Register (525 bits) 83-003307C ~ o !\fEe pPD795 Electrical Characteristics TA = +25°C; source of light. 2856 K tungsten lamp; exposure period = 5.0 ms; VGG. VOD. and VRD = 12.0 V; fljil0 = 250 kHz; fljiRO = 500 kHz. Limits Parameter Typ Symbol Min VSAl SE 400 650 mV Saluralion Exposure 0.15 0.20 Ixes Saluralion Oulpul Vollage Max Test Conditions Unit Photo-Response Nonunlformlly PRNU ±5 ±10 % Average Dark Signal ADS 3 10 mV No exposure Dark Signal Nonunllormlly DSNU 5 15 mV No exposure mW Currenl of pins 10. 17. and 18 x supply vollage Working Power Consumpllon Spectral Response Range Limits 200 Po SR 0.3 S 2000 Sensllivily 3250 VOUT = 200 mY; infrared culliller. Corning 1·75 pm 1.\ 4500 mV/lxes Ollset Voitage Vlo 4.0 V 0% level of VOUT in liming waveforms Feed·Through Delay Time 10 50 100 ns See liming waveforms. Feed·Through Level VFT 70 120 mV Feed·Through Pulse Wldlh Ipw 70 120 ns Reference Characteristics Recommended Operating Conditions TA = -25 to +55°C Limits Parameter Min Typ Limits Max Unit Parameter Symbol Inpul Capacitance al4>10. 4>RO. 4>SHO. or 4>TGO (pins 2. 3. 4. 8) 5 10 pF Rise Time and Fall Time 01 Feed·Through Pulse 50 100 ns Resel Pari Supply Voitage 1.0 2.0 kO Drive Unit Supply Voitage Oulpul Gale Bias Vollage Tesl Terminal Gl Vollage VGl Tesl TerminarG2 Vollage Tesl TermlnallD Voitage Oulpullmpedance al VOUT (pin 19) 0.5 Absolute Maximum Ratings TA=+25°C OUlpUI Amplilier Supply Vollage. VOO -0.310 +15 V Resel Part Supply Vollage. VRO -0.310 +15 V Drive Unll Supply Voltage. V+ -0.310+15 V Oulpul Amplilier Supply Voitage Min Typ Max Unit VOO 11.4 12.0 12.6 V VRO 11.4 12.0 12.6 V V+ 11.4 12.0 12.6 V VOG 1.0 1.25 \.50 V 0 V VG2 0 V VIO 12.0 V Tesl Terminal 4>IR Vollage VljilR 0 High Lavel of Reglsler Clock Signal VljilH 2.4 4.5 V 5.5 V Oulpul Gale Vollage. VOG -0.310 +15 V Reglsler Clock Signal Voitage. VIji 10 -0.310 +15 V Low Level 01 Reglsler Clock Signal VljilL -0.3 0 0.5 V Transfer Gale Clock Signal Voltage. VljiTGO -0.310 +15 V VljiTGH 2.4 4.5 5.5 V Resel Gale Clock Signal Voltage. VljiRO -0.310 +15 V High Level of Transfer Gale Clock Signal Sample·and·Hold Clock Signal Vollage. VljiSHO -0.310 +15 V Low Level 01 Transfer Gale Clock Signal VljiTGL -0.3 0 0.5 V Operaling Temperalure. TOPT -2510 +55°C High Level 01 Resel Gala Clock Signal VljiRH 2.4 4.5 5.5 V Low Level of ResBl Gale Clock Signal VljiRL -0.3 0 0.5 V High Level 01 Sample·and·Hold Clock Signal V.pSHH 2.4 4.5 5.5 V Low Level 01 Sample·and·Hold Clock Signal VljiSHL -0.3 0 0.5 V Iljil0 250 500 kHz fljiRO 500 1000 kHz Slorage Temperalure. TSTG -40 10 +100°C Comment: Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Register Clock Signal Frequency Reset Gate Clock Signal Frequency 8-11 D I is' 00 .!.. I\) CD .. ~ c ,.a 'l::: ... co 01 !. I~ ~ 10n5 ¢SHO VFT Vour -----J-- 5 P.---1 ¢TGO 1~onS-+l1 Min. 4110 t.- Min·~""-r---'-00-n-.--I Min. • The register clock signal 1/110 should be not more than 526 cycles. • Width of thea transfer gate pulse ¢TGO should be less than 20 /is. 83-003310C ~ n t\'EC JlPD795 Definitions of Electrical Parameters Saturation Output Voltage [VSATj. An output signal level above which the PRNU (photo-response nonuniformity) is :::::10% or the response is nonlinear. Saturation Exposure [SEj. Product of illuminance (Ix) and exposure period (s) in which the output is saturated. Working Power Consumption [Pwj. Product of supply voltage and current when supply voltage is 12.0 V. Spectral Response Range Limits [SRj. Short side and long side limits of response spectral range having sensitivity above 5 percent of sensitivity of most sensitive wavelength. ,,·--------100% Photo-Response Nonuniformity [PRNUj. Percentage of peak output level and bottom output level against average output level of all valid photo-elements in static and uniform light. PRNU (%) =(VMAX or VMIN 1) x 100 1n n~Vj 11, g <; > , , j=1 0. where n = number of valid photo-elements Vj = output voltage of each photo element o --,f-------------'l.---S% ----,----Wavelength - - _ 83-003154A ..!...~v· nj=1 J Sensitivity [Sj. Quotient of the output level divided by exposure (Ixos). Offset Voltage [Vosj. Outputterminal potential with no exposure. 83-003152A Average Dark Signal [ADSj. Average output level of valid photo-elements with no exposure. ADS (mV) 1n =n~ Vj j=1 Dark Signal Nonuniformity [DSNUj. Peak output level with no exposure. -'C~~:b£~====~r- I DSNU 83-003153A 8-13 III ~ >C III .j>. 3 22 pF V 3.3 kQ CD 9- .!:o Supply voltage for clock generating circuit: 5 V I I I I I I '\0 I licK QA I: I ttPD ~ -----.----, Qs QC - . i I , (RCO I D CO (II ::I n QD ::;' n c ::;: IJPB74LSOO IU Q I I I ".... ca , I L _________ _ 'l:::: +12V Q: C QD L ___ I 0.22 pF ~ 12 .n 0.047 pF 1.S .n L -, I L "P04011 I ~ 2.2 .0 2.2 .0 2200 I I I I I I I I ________ J ~ (l ~EC pPD795 Operating Characteristics TA = 25°C Signal Output Dark Signal 10r-------,--------,--------,--------r-------, 1000 800 ;;- /' .§.. 600 ! c5 ~ 400 .,.!1' 200 V / V /' / 0.1 0.2 0.3 Ambient Temperature T A (0C) Illuminance (Ix.s) MTF Relative Spectrum Response 1.0 1\ D•• . ° !. c i ;l! ,-/ 0.8 0.7 0.6 I 0.5 0.4 0.3 0.2 / / \ ........... \ / / 80 \ \ 0.4 0.8 ............. ............. ... ~ '" \ 1.0 "" ............. 40 20 \. Wavelength (ttm) While Fluorescent Lamp Lens: t = 38 mm, F4.5 ~ \ 0.6 r--..... r-..... i'-. 60 V 0.1 o -....... 100 o 1.2 o Spatial Frequency (dots/mm) 8-15 IJPD795 8-16 NEe t-1EC tJ PD79 9 2048-BIT CCD IMAGE SENSOR NEe Electronics Inc. PRELIMINARY INFORMATION Description Pin Configuration The jlP0799 is a CCO (charge-coupled device) linear image sensor that changes optical images to electrical signals. It has 2048 photo-elements, two lines of 1037bit CCO charge transfer registers, an output amplifier, and a compensation signal amplifier. The photo-elements have excellent response characteristics because of their PN junction construction. They are 14 by 9 jlm separated by 5-jlm channel stoppers. The CCO charge transfer registers have very high transfer efficiency, above 99.996 percent. 83-003275A Features Pin Identification D Excellent photo-electrical characteristics D Single 12-volt power supply D Compensation amplifier signal can reduce output signal noise D High resolution of 16 dots per mm across 25.6-cm page D Transfer efficiency above 99.996 percent D 24-pin ceramic DIP Pin Applications Facsimile OCR (optical character reader) Instrumentation Ordering Information Name *Function NC No connection 2 Vno Reset part power supply input 3 4 100 ns, (See Timing Waveforms,) 8-19 II ~ ~ 3 0 :::s ca :e :~ ¢2 - - , . . 1 2 3 4 5 6 7 " ~~ _. 00 o .... CD CD t3 ~ 8 ¢R11-J ~ n n n n n n n n n n n n n n n n VOUT 1 20 ns < t¢l < 100 ns = : t t ' . F 120'0100 n,) t- 90% - 90% ¢1 -10% ¢2 <(11 --l--l--10% and ¢2 are symmetrical. Min Min 0% ~;:;::""-------' 90% ¢R 'OO'-L~ • The crossing voltage of <1>1 and 1/)2 should be kept above VOG t 1 LT . {\ v. • The register clock signal should be not more than 1038 cycles. • Width of the transfer gate pulse should be less than 20 ps. 8:!-003276C ~ n !\fEe pPD799 Working Power Consumption [Pwl. Product of supply voltage and current when supply voltage is 12.0 V. Definitions of Electrical Parameters Saturation Output Voltage [VsAT1. An output signal level above which the PRNU (photo-response nonuniformity) is 2':10% or the response is nonlinear. Spectral Response Range Limits [SR1. Short side and long side limits of response spectral range having sensitivity above 5 percent of sensitivity of most sensitive wavelength. Saturation Exposure [SE1. Product of illuminance (Ix) and exposure period (s) in which the output is saturated. --------100% Photo-Response Nonuniformity [PRNU1. Percentage of peak output level and bottom output level against average output level of all valid photo-elements in static and uniform light. PRNU (%) =( VMAX or VMIN 1n n2Vj 1) x 100 j=1 where n = number of valid photo-elements Vj = output voltage of each photo element --,It-------------'\---S% --...,----Wavelength - - _ 83-003154A Sensitivity [Sl. Quotient of the output level divided by exposure (Ixos). Offset Voltage [Vosl. Output terminal potential with no exposure. 83-0031S2A Average Dark Signal [ADS1. Average output level of valid photo-elements with no exposure. 1 =n2 Vj n ADS (mV) j=1 Dark Signal Nonuniformity [DSNU1. Peak output level with no exposure. -'~~~35£~====~r- I OSNU 83-0031S3A 8-21 t-IEC pPD799 Example of Driving Circuit (Sheet 1 of 2) 3 pF ~ 3.3 kO I I-:-c-rr,s-~a-~~-e~-o~-:)t'or 0 ----- 3.3 kO -- I I ~-------I 2MCl -----;;pB74LSOO----i I I I I I I I I I I I IL ___ ..J I J I PPB74LS163, CK aA as ac I I aD Reg 10 Cl ...J 1100PF TG 83-003277C 8-22 t\'EC pPD799 Example of Driving Circuil (Coni.) (Sheet 2 of 2) +12V R Reg L TG _ _ ....l "0026" type MOS memory Interface Note: (1) Supply voltage tor clock generating circuits Is +5 (2) If ringing's present on the tPR waveform, Iry connecting a resistor and capacilor In series between pin 3 and ground .s a damping circuit. Approximate values are 68 0 and 330 pF. v. 83-003278C 8-23 t-IEC pPD799 Operating Characteristics TA = 25°C DaiK Signa: 1000 800 V ;- g ./ 600 !o ~ 400 ~ 200 '/ / V / 0.1 0.2 0.3 Ambient Temperature T A (DC) Illuminance (Ixos) Relative Spectrum Response 1.0 1\ 0 .• I~ 0 .• 0.7 ~ ~ ~ 0: ;l! 0.6 0.5 0.4 0.3 0.2 MTF 100 / / / / \ ./""'00. \ / If 0.1 \ \ 0 .• Wavelength (fJm) 8-24 I'-......, ~ ~ \ ::::; 40 \ 20 '\. 0.6 White Fluorescent Lamp Lens: f = 38 mm, F4.5 r--... -........... 60 o 0.4 r--. I'---.. 80 1.0 " o 1.2 o Spatial Frequency (dots/mm) ~ t\'EC PACKAGING INFORMATION 9-A II PACKAGING INFORMATION fttIEC Section 9 - Packaging Information Packaging Information ......•••..............................•.....•...•........... 9-1 Thermallnformation ............................................................. 9-13 Taping Specifications .................•............•.......•.•••................. 9-15 Surface Mounting Specifications .................................................. 9-23 9-8 NEe PACKAGING INFORMATION B-Pln Plastic DIP (300 mil) Item A MIllimeters Inches 10.5 max .413 max .1001TP) B 2.541TP) c .5 ,002 0 2.7 min .106 5.80 max .228 .5 .002 G 6.401TP) .2521TP) H 7.62 .300 .25 .010 Notes: I.. A 1. Each lead centerline Is located within .25 mm [.01 Inch] of Its true position [TP] at maximum malerial condition. 2. Item "G" to center 01 lead' when formed parallel. 0 -If.I 63-0033928 B-Pln Plastic DIP (300 mil) (I-/PC3423 only) Item Millimeters Inches A 10.5 max .413 B 2.541TP) .1001TP) - - - - - - - ---_. ---_._C.5 .002 o .138 3.5 4.7 3.8 .185 .150 -,._,,--,-"- G 6.401TP) .2521TP) H 7.6 .299 .3 .012 1.2 .047 Notes: I. ' A 1. Each lead centerline is located within .25 mm [.01 Inch] of its true position rTP] at maximum material condition. 2. Item "0" to center of leads when formed parallel. -III 83-0033959 9-1 NEe PACKAGING INFORMATION 14-Pln Plastic DIP (300 mil) Item Millimeters A 20.32 max Inches .BOD max a 2.54 max .100 max C 2.'4 [TP[ .100[TP} 0 .50 ± .10 .020 .047 min ~:~g: F 1.2ml" 3.6 ± 0.3 G .51 min .020 min H 4.31 max .170 max 5.08 max .200 max 6.' .252 ------------ -----7.62 [TP} -----K .25 Notes: !:~~ .142 ±.O12 I. . 7 1 1 A .300 [TP} .O10~::~ 1, Each lead centerline is located within .25 mm [.01 inch] of its true position [TP) at maximum material condition. 2. Item" J" to center of leads when formed parallel. c a 83-0033916 16-Pln Plastic DIP (300 mil) 16 Item Millimeters Inches A 20.32 max 0.8 max a 1.27 max .05 max C 2.'4 [TP} .10 [TP} 0 + .004 .5 ± .10 .02 17.78 .70 1.2 min .047 min - .005 G 3.5 ±.3 .138 ± .012 H .51 min .02mi" 4.31 max .17max 5.08 max .2 max K ... .3 [TP} M .2' N 1.0mi" 7.62 [TP} . 81 A N .252 +.10 - .0' .01 + .004 - .003 K Fhl .039 min Noles: 1. Each lead centerline is located within .25 rnm [.01 inch] of Its true position !TP] a1 maximum mate· ~!~! eo!'!:d!t!o:':. 2. Item "K" to center of leads when formed parallel. u u u \l \-83-001489B 9-2 ~EC PACKAGING INFORMATION 18-Pln Plastic DIP (300 mil) 18 Item Millimeters Inche. A 22.86 max .9max B 1.27 max .05 max C 2.S' [TP[ .10 [TP[ D .S±.10 .02 20.32 .8 F 1.2 min .047 min G 3.5 ±.3 .138 ± .012 H .51 min .02 min 4.31 max .17mBx S.OB max .2 max K .3 [TPJ 6.' .252 +.10 -.OS .25 N 1.0 min Notes: +.004 - .OOS 7.62 [TPJ M .01 10 ·1, +.004 -.003 .039 min 1. Each lead centerline is located within .25 mm ,.01 Inch] of its true position (TP] at maximum material condition. 2. Item "K" to center 01 leads when formed parallel. 20-Pln Plastic DIP (300 mil) 11 20 Item MIllimeters Inches A 25.40 max 1.0max B 1.27 max .05mBX C 2.54 [TPJ .10 [TPJ D .5±.10 .02 22.86 .9 +.004 -.005 1.1 min .043 min G 3.5± .3 .138 ± .012 H .51 min .02 min 4.31 max .17 max J 5.08 max .2 max K 7.62 [TPJ .3 [TPJ 6.' .252 +.10 -.05 M .25 N .8 min .01 10,1 A N + .004 - .003 .035 min Notes: 1. Each I.ad cent.rllne Is located wlthln.25 mm [.01 Inch] of Its true position [TP] at maximum materia_ condition. 2. Item "K" to cenler of leads when formed parallel. ~149'8 9-3 ~EC PACKAGING INFORMATION 22-Pln Plastic DIP (400 mil) 12 22 Item Millimelers Inches A 27.94 max 1.100 max B 1.27 max .osa max C 2.54ITPI .100ITPI 0 .50±.10 020 +.004 . -.005 1.2m.n .D47mln 3.5 ± 0.3 .138 ± .012 G .51 max .020 max H 4.31 max .170 max I 5.72ma. .226 max 10.161TPI .400ITPI 8.6 .339 K M .25 !:~: .O10~::: a.8mln .031m'n Nole.: 1. Each lead centerline I. located within .25 mm (.01 Inch) of Iwlrue position [TPJ at maximum material condition. 2. Item" J" 10 centar of leads when formed parallel. 83-00339GB 24-Pln Plastic DIP (600 mil) 24 Item MIllimeters Inches A 33.02 max 1.3 max .10 max B 2.54 max C 2.54ITPI .101TPI 0 .5±.10 .02 27.94 1.1 +.004 -.005 1.2m.n .047 min G 3.8±.3 .138 ± .012 H .51 min .02 4.31 max .17 max 5.72 max .226 max K 15.24ITP] .60 ITP] M .25 13.2 .01 +.004 -.003 Notes: 1. Each lead centerline Is located wlthln.25 mm [.01 inchl of its true position [TP] at maximum material condition. 2. Item "K" to center of leads when formed parallel. A K ~~ .. .. I 9-4 . 121 min .52 +.10 -.05 13 --t~D . 11- .n t-IEC PACKAGING INFORMATION 28-Pln Plastic DIP (600 mil) 28 Millimeters Inches A 3B.1 max 1.5 max 8 2.54 max .10 max C 2.54 [TPJ .10 [TP] 0 .5 ± .10 .02 33.02 1.3 Item --- .. _----_.1.2min .... _-----_. .G_ - -3.6_±.3 ... .51 min H + .004 - .005 .047 min .142 ± .012 .02 min ----4.31 max ------- .17 max 5.72 max - - - - - - ----- M .226 max - ----'----- 15.24 [TPI .60 [TPI 13.2 .52 .25 15 + .10 .01 - .05 + .004 - .003 Notes: 1. Each lead centerline is located L \.{ ,H within .25 mm [.01 inch] 01 Its true position [TP] at maximum mat8~ rial condition. 2. Item "K" to center of leads when formed parallel. H!1!H H H H H H H H H ,H, . db: ~ J H . c G 4- 8 M 0-15" 83-0014078 28-Pln Plastic Shrink DIP (400 mil) 15 28 lIem MIllimeters Inches A 28.46 max 1.121 max B 2.67 max .106 c 2.54 [TPI .100 [TPI o .50 ± .10 24.89 .98 .9 min .035 min G 3.2 ± 0.3 .126 ± 012 H .51 min .020 min 4.31 max .170 max 5.08 max .200 max 10.16 [TPI .400 [TPI 8.6 .339 M Notes; .25 ~:~~ .01 ~:~~~ 1. Each lead centerline is located within .25 mm [.01 Inch] of its true position [TP] al maximum material condition. 2. Item uK" to center of leads when formed parallel. E 83-0015198 9-5 t\'EC PACKAGING INFORMATION 14-Pin Ceramic Package (300 mil) Millimeters Inche. A 19.9max .78 max .09 Item B 2.35 C 2.501TPI .1ITPI 0 .06 .018 15.2 .6 F 1.5 .059 G 3.0 min .118 min H .Smln .02 min 4.58 max .181 max M 5.08 max .2 max 7.621TPI .3ITP) S.O .25 .25 .01 Not••: 1. Each lead centerline Is located within .25 mm [.01 Inch) of ''''rue position [TP] a. maximum mate~ rial condition. 2. Item "K" to center 01 leads when formed parallel. 83-0015238 16-Pin Cerdlp Package (300 mil) 16 Item MIllimeters Inches A 19.9 max .784 max B 1.0S .042 c o 2.501TP) .101TP) .46 ± .10 .016 ± .000 17.78 .70 1.5 .059 G 2.54 min .10 min H .Smln .D19 min M .181 S.OB max .20m_x 7.621TP) .301TP) 6.0 .25 +.10 -.05 . .I rna. 4.58 max .25 6 A q 11-1 H HRR Hlr-I! 0098+ .0039 -.0019 Notes: 1. Each lead centertine is located within .25 mm [.01 Inch] of Its true position [TP] at maximum mala rial condition. 2. Item "K" to center of leads when formed parallel. M dg: . +; . M 83-0015168 9-6 t-IEC PACKAGING INFORMATION 18-Pln Cerdlp Package (300 mil) 18 Item MIllimeters Inches A 23.2 max .91 max B 1.44 .055 C 2.54ITP] .1DITP] D .45 .02 20.32 .8 1.2 .Dfi G 2.5 min .1 min H .5 min .02 min 4.6 max .18 max K M 5.1 max .2 max 7.62ITP] .3ITP] 6.7 .26 .25 .01 10 [i ~ ~ ~:~ ~ ~ 1.1 A Noles: 1. Each lead centerline is located within .25 mm [.01 inch] of its true position [TP] at maximum material condition. 2. Item uK" to eenter of leads when formed parallel. 63-0015178 20-Pln Ceramic DIP (pPD795D) 28.0 (1.10) max. Unit: in millimeters (inches) 25.4 (1.00) Cover Glass 22.4 (0.88) Thickness: 0.5 millimeters Refraction ratio: 1.76 (in air) 20.0 (0.79) 0.5 ~~~?~~i~=~~:~k:~1(D.D2D) -- 8.3 10.3 (0.41) max. (0.33) 7.2 (0.28) 11.5 (0.45) 2.0 From surface of chip to outside of glass 1.27 (O.OSO) bJ~~~Yr~~~~~~~~('DiF9)* 0.25 (0.0098) --+ + - 0.5 (0.020) -110.46 (0.018) 1. 10.45 (0.41) ±O.35 2.54 .1 (0.10) 83-0033866 9-7 ~EC PACKAGING INFORMATION 24-Pin DIP (pPD791D) Unit: in millimeters (inches) __-----------''-C3::.O:-:(1.69) max. i" Cover Glass "" "" Thickness: 0.5 millimeters Retraction ratio: 1.76 (in air) From surface of chip to outside of glass 1.40 (0.055) 2.54 (0.10) I· 15.5 (0.61) -::0.3 ·1 83-0033898 24-Pln DIP (pPD799D) Unit: In millimeters (Inches) Cover Glass Thickness: 0.5 millimeters Refraction ratio: 1.76 (in air) From surface of chip to outside 01 glass 1.40 (0.055) 0.25 (0.0098)-+lf_ 15.5 (0.61) ±O.3 83-0033908 9-8 I t-IEC PACKAGING INFORMATION 8-Pln Plastic Mlnillat (225 mil) Item MIllimeters Inch.. A 5.70 max .22 max a .94mB. .037 max C 1.27 [TP[ .05 [TP) 0 .40 ~:~: .O16~:= .1 ±.1 .004 1.49ma. .059 max G 1.80 min .071 max H 6.5 ± .3[TP) .258 ± .Ol1[TP) 4.4 max .15~:~ K 1.1 max .6 ±.2 I. .173 max .OO6~::: 1 4 A .1 H .004 max .024 ±.008 Each lead centerline Illac.ted within 0.12 mm (0.005) of It, true poIltlon (TP) at maximum material condition. Note: 0 ± .004 'Ib~ E 0 C --.1 t J a 14-Pln Miniflat Ie (225 mil) 14 Item MIllimeters Inches A 10.46 max .412 max a 1.42 max .056 max C 1.27[TP) .050[TP) 0 .40 ~:~~ .O16~::= .1 ±.1 .004 ± .004 1.8max .071 max G 1.49 .059 H 6.5 ±.3 .256 ± .012 4.4 .173 1.1 K .15 .043 ~:~: .6 ±.2 Nole: .006 ~:::: .024 ~:::: Each lead centerline is located within 0.12 mm (0.005) of Its true position (TP) at maximum material condlllon. o A ~u --n== ~L~ D C a E 83-0033948 9-9 ttiEC PACKAGING INFORMATION 24-Pln Ceramic Flatpack B L'~======~Ir======~ r~~LilllJ~~ Item A - Mllllmelers Inches .43 ± .05 .017 ± .002 G a 1.27 Iyp .050lyp C 6.35 min .250 min D 6.60 ± .15 .260 ± .006 19.30 ± .15 .780 ± .006 -----F 13.97 Iyp .550lyp G 10.11 ± .18 .398 ± .007 H 7.49 ref .295 ret I 3.05 .120max K .305 .012 min .13 ± .03 .005 ± .001 tl· -I c I -I D H II 83-0033968 3-Pln SIP TO-220 G Item Inches .420 max A 10.86 max a 2.54 [TPJ C . -.29 .031 D 1.3 .051 8 +.34 .100[TPJ ~::~~ 6.35 max .250 max F 12.7 min .500 min G 5.85 min .230 min H 3.0 Note: 9-10 Millimeters :::~ M .118 :::~: 4.82 max .190 max 1.3±.2 .051 ± .OOB K 2.8 ::;: .110::~~ .5± .2 .020 ± .008 M 5.33 max .210 max N 15.87 max .625 max Each lead centerline is located within .25 mm [.01 Inch) of Its true position [TP] at maximum malerial condition. N a ~ L K ~I t\'EC PACKAGING INFORMATION 3-Pin SIP TO-92 Millimeters Inches A 5.2 max .205 max .067 max Item a 1.27 max C .S .002 D 2.54 .100 14mln .551 min 5.5 max .217 max G 4.2 max .165 max H 1.77 max .070 max 83-0033998 9-Pin Plastic SIP Item Millimeters Inch,s A 22.86 max .900 max a 1.27 max .os C 2.S'[TP[ .100[TP[ D 1.1 min .004 min 2.9 min .114 min F 5.08 max .200 max G 5.72 max .225 max H 3.0 max .118max 1.5max .059 ~:~:~ ~:~~ .006 ~:~~: .25 K M Note: 1.1 i--------i]. J I' A 'I L f I _a .00' .S .2 .51 min .2 min Each lead centerline Is located within .25 mm [.01 inch] of its true position [TP] at maximum material condition. 83-0033878 9-11 PACKAGING INFORMATION 9-12 t\fEC t\'EC PACKAGING INFORMATION 2. Thermal Information 14 Pin Through 20 Pin Cavity DIP Dissipation Derating Curve The power dissipation capability of semiconductor devices is limited by the maximum allowable junction temperature, the ambient temperature, and the thermal resistance between the junction and the ambient environment. The temperature difference between the junction and the ambient environment is determined by the following equation. 1000 OP Amps and Comparators j" ",,1~W/OC 600 ~ c ~ I!. 600 ':0 ; D/A AID Converters 400 ° 0. TJ-TA=P D 8JA where T J = junction temperature, °C TA = ambient temperature, °C PD = power dissipation, W 8JA = thermal resistance, junction to ambient, °CJW J! The maximum allowable junction temperature is 150°C, however, the maximum junction temperature of plastic package I C's shou Id be 125°C because of the storage temperature range limitation. 8JA = 90°CJW typo TJ max = 150°C The dissipation derating curves that follow assume the ambient environment is still air, and that no heatsink is used. 1. ~ 200 20 40 100 60 60 Ambient Temperature (0C) The maximum power dissipation value has been fixed considering the practical applications. 900mW 500mW Operational Amplifiers and Comparators OJA, AID Converters 3. 8 Pin Plastic Molded DIP Dissipation Derating Curve 8 Pin Metal Can Package and Cavity DIP 600 Dissipation Derating Curve 600 500 j" E i 500 ........... ~W/OC ~ g 400 ..is "" [ 300 ! 400 i ........ .~ i5 300 ! 200 Q, 5mW/OC ........ J! ~ c.. 200 100 ~ >- 100 20 40 60 60 100 Ambient Temperature (0C) 20 40 60 60 100 Ambient Temperature ("C) 8JA = 200°CJW typo TJ max = 150°C The maximum power dissipation value of 500 mW has been fixed considering the practical applications of operational amplifiers and comparators. (except for tJPC4556C, tJPC4557C, tJPC4560C, tJPC1555C) 8JA = 200°C/W typo TJ max = 125°C The maximum power dissipation value of 250 mW has been fixed considering the practical applications of operational amplifiers and comparators. 9-13 t-IEC PACKAGING INFORMATION 4. 8 Pin Plastic Molded DIP 1000 i .sc l° I ............ 600 'ii ..° When the miniflat IC's are mounted on a hybrid IC, the heat radiation throuQh the leads is increased. When resin coated, the heat radiation through the environment is further increased. As a result, the thermal resistance in the mounted state is much smallerthan in element form alone. 800 Q ; 6. Miniflat Package Dissipation Derating Curve 400 7mW/oC ~ It is suggested that the heat dissipation in actually mounted condition be fully investigated. ~ ~ I- 6A. 200 8 Pin Mini flat Package Dissipation Derating Curve 600 20 40 60 80 --- - 100 500 AmbientTemperature (0C) i E ~ (For pPC4556C, pPC4557C, pPC4560C, pPC1555C) pPC4556, pPC4557, pPC4560C pPC1555C 14 Pin Plastic Molded DIP 800 100 25 100 8 Pin Mini flat Package DisSipation Derating Curve 600 " " ' " 7mW/oC ........... 500 I'-... i .s 200 .2 I i 20 40 60 80 100 Ambient Temperature (0C) = 140°C/W typo T J max = 125°C ..is~ ---+ 550mW i'.. 400 8JA 75 50 Ambient Temperature (OC) 68. I, 600 :;c ~ I I- The maximum power dissipation value of 440 mW has been fixed considering the maximum junction temperature and the practical applications of miniflat IC's. .sc ..;° ........ 8JA = 220°C/W typo TJ max = 125°C Dissipation Derating Curve ° ~ "'i'.. 200 700mW 600mW 1000 ~ ~ Q. I ........ is 300 The maximum power dissipation value has been fixed considering the maximum junction temperature and the practical applications of those IC's. i ~ 5mW/OC ':g 8JA = 140°C/W typo TJ max = 125°C 5. ........... 400 ~ 400 ......... ~ r--- ---f---- 5.5 mW/oC .""- 300 a. 200 jj One Element Only ""'- ~---- (!. 100 The maximum power dissipation value of 570 mW has been fixed considering the practical applications of operational amplifiers and comparators. 25 50 75 100 Ambient Temperature (OC) 8JA = 180°C/W typo TJ max = 125°C The maximum power dissipation value of 550 mW has been fixed considering the maximum junction temperature and the practical applications of miniflat IC's. 9-14 t-IEC PACKAGING INFORMATION Taping Specifications Tape and reel shipping has been used for many years in Japan for shipping surface mount transistors and capacitors. Currently, 75% of surface mount transistors are shipped via this method. Tape and reel specifications, formally established by Japanese Standard RC-1009A for 12 mm tape, has now been expanded to include surface mount ICs. Surface mount technology in the United States has recently come of age, and in May of 1985 the EIA developed Standard EIA481 for Embossed Tape and Reel Packaging. NEC has adjusted the current Japanese standard to comply with EIA481, and is now shipping surface mount devices to this specification. Because of the need for electrostatic packaging, NEC chose to manufacture the tape using carbon/PVC material. This type of "filler mixed" plastic is diffiCult to emboss, thus the actual tape manufacturing is done by the Sumitomo Bakelite Corp in Japan. Figure 1. The actual manufacturing process is shown in Figure 1. First, rolled sheet material is slittized and embossed. Next, the sprocket holes are punched, and aligned with the embossed pockets to a tolerance of ±50 microns. Finally, the pocket holes are punched, and the tape is cut to length and put on the reel. Specifications: NEC's embossed tape is manufactured to EIA481 specifications with special attention paid to dimensional accuracy. See Table 1 and Figure 2. Table 2 and Figure 3 show Reel Dimensions. Figure 4 illustrates the Tape End Configurations. Figure 5 shows component placement in the tape pockets. Table 3 gives the device package-to-tape width specifications. Figures 6,7 and 8 show the tape and reel specifications for the specialized case of 8, 14 and 16-pin miniflats. Manufacturing Processes of Embossed Carrier Tape Pocket Emboallng SliWa 0 Rolled Sheel W=8m,L=800to 1000m -- SprockalHoIe Opening Opening Gt 0 Longlll Cut and Pecking UI.Pocket uQulde 83-0031228 9-15 t-IEC PACKAGING INFORMATION Table 1. 8, 12, 16,24 mm Embossed Tape Tape Size n ,,.. tl! 0, IL, IU, 24mm 0 Po 1.5 +~.!O -u.U (.059 ~g.~~) i.75 ± a.in 4.0 ± .iii (.069 ± .004) (.157 ± .004) I (Max.) Ao. Bo. Ko 0.400 (.016) See Noie i Table 2 Bl 01 K Max. Min. Max. 8 mm 4.2 (.165) 1.0 (.039) 12mm 8.2 (.323) 15mm 12.1 (.476) 24 mm 20.1 (.791) Tape Size 1.5 (.059) 3.5 ± 0.05 (.138 ± .002) 2.4 (.094) 5.5 ± 0.05 (.217 ± .002) 4.5 (.177) 7.5 ± 0.10 (.295 ± .004) 11.5 ± 0.10 (.453 ± .004) Constant Dimensions R P2 Min. 2.0 ± 0.05 (.079 ± .002) 2.0 ± 0.10) (.079 ± .004) 6.5 (.256) W 25 (.984) 8.0 ± .30 (.315 ± .012 30 (1.181) 12.0 ± .30 (.472± .012) 40 (1.575) 18 ± .30 (.630 ± .012) 50 (1.969) 24 ± .30 (.945 ± .012) Variable Dimensions P Tape Size 4.0±0.10 (.157 ± .004) 12.0±0.10 (.472 ± .004) 8.0 ±0.10 (.315 ± .004) 16±0.10 (.630 ± .004) 20±0.10 (.787 ± .004) 24± 0.10 (.945 ± .004) 8 mm 12 mm 16 mm 24 mm Notes: 1. Ao Bo Ko are determined by component size. The clearance between the component and the cavity must be within 0.05 (.002) min. to 0.50 (.020) max. for 8 mm tape. 0.05 (.002) min. to 0.65 (.026) max. for 12 mm tape, 0.05 (.002) min. to 0.90 (.035) max for 16 mm tape and 0.05 (.002) min. to 1.00 (.039) max. for 24 mm tape and larger. The component cannot rotate more than 20° within the determined cavity, see below. 2. Tape and components shall pass around radius "R" without damage. Typical component cavlly center line 82 9-16 003~23A ! t-IEC PACKAGING INFORMATION Figure 2. Embossed Carrier Dimensions i rt ::anceon 10pl'chn cumulative po-----+ 1--_ I ±O.2 [±O.OO8) For Machine Reference Only Including Dr.ft and Radii Concentrtc Around Bo u .., Direction of Feed °Top cover tape thlckn..1 (111 ~.;::.) Max Thick Bending radius See Note Z Table Emboa..d camber Embossment I. [3·r~ mmM.. 100mm • I I ~-~!~-~ ~ r---= . f ~ I ~=t---r llmm [.038) Ma. ~:~8:37---------- . 83-003124C 9-17 NEe PACKAGING INFORMATION Figure 3. Reel Dimension. 40 (1.575) Min. Accellhole at slot locatton ,IF·· J.t=41\' A ~,:\I ~,,~,..\ T.... llot In core fo,t.pe ...rt. Full Redlu,- 2.5 (.081) IIln Width lG (o3M) IIln Depth G( .....Urodothul»-.l1.-Drive Spok.. optIon.11f uHCI uterllked dlmen,loRl appty. 83-0031258 Table 2. Reel Dimensions rap. A B Size MIx. Min. 8mm 330 112.9921 1.5 1.0591 12mm 330 (12.9921 16mm 380 (14.173) C 13.0± 0.20 1.512 ± .0081 D N Min. Min. 20.2 i.7951 50 1.19691 (.331 ~~81 (.488 ~:'~8) 164 +2.0 . ---tI.08 (.646 ~:'~8) 24 +2.0 -0.08 (.961~:) 32.4~:: (1.276~~:1 32mm 444 +2.0 . -0.0 44 min (1.748 ~:.~ 609 (23.9761 Metric dimensions will govern. English measurements rounded and for reference only. 9-18 84+1.5 . ---tI.O 12.4 ~~~ 24mm 55mm G 100 13.937) 58.4 ~~:~ (2.220 ~:'~81 r Max. 14.4 1.5671 18.4 (.7241 22.4 1.882) 30.4 (1.1971 t-IEC Figure 4. PACKAGING INFORMATION Tape End Configurations End User Direction of Feed 83-0031268 Figure 5. SO-/C Devices Typical User Direction 01 Feed 83-OO3127B 9-19 ftt{EC PACKAGING INFORMATION Table 3. SO·/C Devices Component Tape Size mm (WI Part Pitch (PI 8 14 16 12 16 16 8 8 8 14L 16L 20L 24L 28L 16 16 24 24 24 12 12 12 12 12 pee 18 20 28 44 24 16 24 32 12 12 16 24 pee 52 68 84 100 124 32 44 24 32 36 80·!(; 225 mil MF SO·IC 375 mil MF Figure 6. 44 40 44 56 48 Embossed Carrier Dimensions 1.5~~·1 Direction 01 Feed 8.0±O.1 ~6'9±O'1 l4J=-+ 9-20 83-0031308 NEe PACKAGING INFORMATION 80 W 5.4± 0.1 12.0 ± 0.3 5.5 ±0.1 10.45 ± 0.1 16.0 ± 0.3 7.5 ± 0.1 Package 8p SMF 14, 16p SMF SMF: 225 mil Miniflat BpSMF 14,16SMF 18.4 Max 22.4 Max w T SMF: 225 mil Miniflat Figure 7. Reel Size 1+-------330Max-------.j Figure 8. -u: 83-0031316 Cover Tape Peel Strength: 40 ± 25 g 9-21 fttfEC PACKAGING INFORMATION Taping Mounting Placement and Fixing with Position Adjustment Release and Pick up o Vacuum Check Vacuum Check Carrier Tape o Q Adhesive Tape to Roll Up Wheel 2 to 3 sec/pes 1 to 2 sec/pes 63-0031288 Taping Placement Sealing by Thermal Compression from Feeder Roll Stamping Base Embossed Carrier Tape 0.2 to 1 sec/pes to Peeling Wheel C)~coyerTape I 0 Vacuum Check CArr1tj{r-l--:---i.....,h,ffL Emboss.. Carrier Tape] 9-22 .J ftIEC Surface Mount Information PACKAGING INFORMATION Figure 2. Cross Section of a Mlnlflat IC Figure 3. Compatible Footprint Pattern for NEC Mlnlflat IC and SOIC Structure The designation for industrial linear IC (ILlC) in the miniflat package is "G2." Figure 1 shows a cutaway view of the miniflat G2 package. The die (chip) is mounted to the center lead frame island, with bonding pads to the external leads. The lead frame is made from 42 Alloy with silver (Ag) paste used for die attachment. The body is high-purity molded epoxy for high reliability. Figure 2 shows the package cross section. Package Outline In 1981, the EIAJ (Electronic Industry Association of Japan) set the standards for Surface Mount ICs. They required that devices manufactured in Japan attain higher resistance to environmental factors (humidity, shock, and vibration) than existing Small Outline Integrated Circuit (SOIC) devices. The resulting package is known as the 225-Mil S.O. Specification. Figure 3 illustrates the difference between the NEC miniflat (G2) and the S.O. type package. The body or molded portion of the NEC miniflat is 4.4 mm wide compared to 4.0 mm for the S.O. package. The lead bend of the NEC miniflat adds an additional 0.1 mm, for a net difference of approximately 0.5 mm in overall footprint width (miniflat vs. SOIC). All other dimensions (such as lead pitch, length, and spacing) are the same. The larger package size of the NEC miniflat allows a larger die to be mounted in 8- and 14-pin packages, (e.g. BIFET op amp), which increases the variety of circuits available in the G2 package. See Package Information Section for the outline dimensions of 8-pin and 14-pin G2 packages. Figure 1. Internal Structure (8-Pin Type) Resin [Epoxy] Note: Foot-print dimensions are in mil/mm. 83-003383A Handling Techniques To work with the NEC miniflat IC without jeopardizing the quality and reliabilty, it is necessary to exercise more care than when handling standard DIP ICs. Environmental conditions and handling precautions for the NEC miniflat IC family are described below. Circuit Design The electrical characteristics of the N EC miniflat IC are guaranteed the same as those of standard DIP ICs. Since heat radiation is improved when the IC is mounted on the substrate, power dissipation PT can be changed in actual use. However, the degree of change 9-23 tvEe PACKAGING INFORMATION largely depends on the method of mounting (size of substrate, coating method, etc). Therefore, full evaluation of the mounted board should be made in advance. Total Power Dissipation and Thermal Resistance Soldering and Flux Temperature Exposure to high temperatures over time should be carefully monitored to insure prolonged reliability. As An Absolute Maximum Rating, exposure to the following must not exceed 260°C for 10 seconds. Figures 4 and 5 show the total power dissipation characteristics of the NEC miniflat IC family. • Solder dipping • Soldering iron • High-temperature atmosphere As shown in the figures, thermal resistance for a single element is approximately 180°C/W for the 14-pin IC, and approximately 220°C/W for the 8-pin IC. Rosin flux (pine resin) is recommended as soldering flux. When mounted on a hybrid IC or PW-board, the heat radiation through the leads is increased. With resin coating, the heat radiation through the resin to the environment is further increased. As a result, the thermal resistance in the mounted state is much lower. It is suggested that the heat dissipation in actual finished mountings be fully analyzed prior to production. Figure 4. 600 500 E .5 300 ~ ~ 200 0. .... f' 100 25 Being super-miniaturized and employing a thinner plastic than standard DIP ICs, the miniflat IC has shorter leakage paths and requires much more protection against humidity. ~ 4.4mW/CC 1'-. " 1"-.. 75 50 Generally, anti-humidity protection is provided by resin coating after mounting on board. Examples of the process are described below. ...... 100 125 150 Junction Temperature (Oe) Figure 5. P.,-Tj Characteristic (14-Pin Type) 600 One element only 550mW 500 I"- ~ " "- E -; ~ 400 il. "1: is 300 ! 200 D,. " " ~ '" I"\.. i'- 50 75 100 Junction Temperature (Oe) 9-24 ~ " ~~I~ ~~~~~~~~~I"~I 25 • When sealed in an airtight package, no precoating is necessary. • When sealed with resin, a buffer coating may be required as the resin contraction may exert stress on ICs when sealing. Sufficient evaluation should be made on the actual board. For buffer coating, the use of resin with a certain degree of viscosity is suggested. Please consult the resin manufacturers for appropriate encapsulation resin and coating materials. 5.5mW/OC >- ~ Flux should be thoroughly removed after soldering. Alcohol, Chlorocene, and Freon are all acceptable solvents; however, prolonged immersion in these solvents may remove printed markings. Protection Against Humidity " r-..... g 400 ..t One element only ~440mW ~ Cleaning Ultrasonic cleaning can also be applied if other components mounted on the same board can withstand it. P.,-Tj Characteristic (8-Pin Type) I f- NOTE: Avoid flux containing chlorine. Residual chlorine after cleaning may affect reliability. 125 150 ,- .... , NEe NEG Electronics Inc. CORPORATE HEA~QUARTERS 401 Ellis Street P.O. Box 7241 Mountain View, CA 94039 TEL 415-960-6000 TWX 910 -379-6985 86 LINEAR CAT-02-86-USA-50K STOCK NO . 200100 "' 1986 NEC Electronics Inc.lPrinled in U.S.A.


Source Exif Data:
File Type                       : PDF
File Type Extension             : pdf
MIME Type                       : application/pdf
PDF Version                     : 1.3
Linearized                      : No
XMP Toolkit                     : Adobe XMP Core 4.2.1-c043 52.372728, 2009/01/18-15:56:37
Create Date                     : 2013:08:09 17:00:04-08:00
Modify Date                     : 2013:08:10 15:58:31-07:00
Metadata Date                   : 2013:08:10 15:58:31-07:00
Producer                        : Adobe Acrobat 9.55 Paper Capture Plug-in
Format                          : application/pdf
Document ID                     : uuid:7cea2bcf-de70-3e4f-b099-290fd0ae9ddb
Instance ID                     : uuid:c9a7a97e-c2b0-2045-97ec-21a48f58c9b3
Page Layout                     : SinglePage
Page Mode                       : UseNone
Page Count                      : 442
EXIF Metadata provided by EXIF.tools

Navigation menu