1984_M10_Hitachi_IC_Memories_Data_Book 1984 M10 Hitachi IC Memories Data Book

User Manual: 1984_M10_Hitachi_IC_Memories_Data_Book

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~M':2:-~~~~~~~~
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3

.HITACHI
A World Leader in Technology

HITACHI IC MEMORIES
DATA BOOK

•

HITACHI

INDEX
•

•
•
•
•
•
•
•

•
•

2

QUICK REFERENCE GUIDE TO HITACHI IC MEMORIES ......... 8
• MOS RAM ....................... :.................. 8
• MOS ROM .......................•.................. 10
.• MOS Memories of Wide Operating Temperature Range ............. 10
• Bipolar RAM ......................................... 11
• Bipolar PROM ........................................ 12
PACKAGE INFORMATION ..............•.................. 13
RELIABILITY OF HITACHI IC MEMORIES .•.................. 18
PRECAUTIONS FOR HANDLING IC MEMORIES ................ 26
QUALITY ASSURANCE OF IC MEMORIES .•.................. 29
OUTLINE OF TESTING METHOD ........•.................. 35
APPLICATION OF DYNAMIC RAMS ......................... 38
PROGRAMMING & ERASING OF PROMS ...................... 40
• Programming & Erasing of EPROM ....... , .................. 40
• Programming of Bipolar PROM ............................. 44
MASK ROM PROGRAMMING INSTRUCTION ................... 47
DATA SHEETS ......................................... 51
• MOS STATIC RAM .................................... 51
HM4334-3
1024-word x 4-bit RAM (CMOS) ............. 52
HM4334-4
1024-word x 4-bit RAM (CMOS) ............. 52
HM4334P-3
1024-word x 4-bit RAM (CMOS) ............. 52
HM4334P-4
1024-word x 4-bit RAM (CMOS) ............. 52
HM6148
1024-word x 4-bit RAM (CMOS) ............. 58
HM6148-6
1024-word x 4-bit RAM (CMOS) ............. 58
HM6148P
1024-word x 4-bit RAM (CMOS) ............. 58
HM6148P-6
1024-word x 4-bit RAM (CMOS) ............. 58
HM6148LP
1024-word x 4-bit RAM (CMOS) ............. 64
1024-word x 4-bit RAM (CMOS) ............. 64
HM6148LP-6
1024-word x 4-bit RAM (CMOS) ............. 70
HM6148H-35
HM6148H-45
1024-word x 4-bit RAM (CMOS) ............. 70
HM6148H-55
1024-word x 4-bit RAM (CMOS) ............. 70
HM6148HP-35
1024-word x 4-bit RAM (CMOS) ............. 70
HM6148HP-45
1024-word x 4-bit RAM (CMOS) ............. 70
HM6148HP-55
1024-word x 4-bit RAM (CMOS) ............. 70
HM6148HLP-35 1024-word x 4-bit RAM (CMOS) ............. 74
HM6148HLP-45 1024-word x 4-bit RAM (CMOS) ............. 74
HM6148HLP-55 1024-word x 4-bit RAM (CMOS) ............. 74
4096-word x 1-bit RAM (CMOS) ............. 79
HM6147
HM6147-3
4096-word x 1-bit RAM (CMOS) ............. 79
4096-word x 1-bit RAM (CMOS) ............. 79
HM6147P
HM6147P-3
4096-word x 1-bit RAM (CMOS) ............. 79
HM6147LP
4096-word x 1-bit RAM (CMOS) ............. 83
HM6147LP-3
4096-word x 1-bit RAM (CMOS) ............. 83
HM6147H-35
4096-word x 1-bit RAM (CMOS) ............. 87
4096-word x 1-bit RAM (CMOS) ............. 87
HM6147H-45
HM6147H-55
4096-word x 1-bit RAM (CMOS) .......... '... 87
4096-word x 1-bit RAM (CMOS) ............. 87
HM6147HP-35
HM6147HP-45
4096-word x 1-bit RAM (CMOS) ............. 87
4096-word x 1-bit RAM (CMOS) ............. 87
HM6147HP-55

•

HITACHI

HM6147HLP-35
HM6147HLP-45
HM6147HLP-55
HM6116-2
HM6116-3
HM6116-4
HM61161-2
HM61161-3
HM61161-4
HM6116P-2
HM6116P-3
HM6116P-4
HM6116PI-2
HM6116PI-3
HM6116PI-4
HM6116FP-2
HM6116FP-3
HM6116FP-4
HM6116CG-2
HM6116CG-3
HM6116CG-4
HM6116L-2
HM6116L-3
HM6116L-4
HM6116L1-2
HM6116L1-3
HM6116L1-4
HM6116LP-2
HM6116LP-3
HM6116LP-4
HM6116LPI-2
HM6116LPI-3
HM6116LPI-4
HM6116LFP-2
HM6116LFP-3
HM6116LFP-4
HM6116K-3
HM6116K-4
HM6116AP-10
HM6116AP-12
HM6116AP-15
HM6116AP-20
HM6116ASP-10
HM6116ASP-12
HM6116ASP-15
HM6116ASP-20
HM6116ALP-10
HM6116ALP-12
HM6116ALP-15
HM6116ALP-20
HM6116ALSP-10
HM6116ALSP-12
HM6116ALSP-15
HM6116ALSP-20

4096-word
4096-word
4096-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word
2048-word

•

x 1-bit RAM
x 1-bit RAM
x 1-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8·bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM
x 8-bit RAM

(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)
(CMOS)

HITACHI

............. 93
............. 93
... _ ...... _ .. 93
. . . . . . . . . . . .. 97
. . . . . . . . . . . .. 97
. . . . . . . . . . . .. 97
. . . . . . . . . . . .. 97
. . . . . . . . . . . .. 97
. . . . . . . . . . . .. 97
............. 103
............. 103
............. 103
............. 107
............. 107
_ ... _ ........ 107
............. 111
..... _ ....... 111
............. 111
............. 116
............. 116
............. 116
............. 120
............. 120
............. 120
............. 127
............. 127
............. 127
............. 131
............. 131
......... _ .. -131
............. 138
............. 138
............. 138
...... _ ...... 142
............. 142
............. 142
............. 146
............. 146
............. 150
- ............ 150
- ............ 150
....... _ ....• 150
............. 150
............. 150
............. 150
......•...... 150
............. 154
............. 154
............. 154
............. 154
............. 154
............. 154
............. 154
............. 154

3

•

4

HM6117P-3
2048-word x 8-bit RAM (CMOS) ............. 158
HM6117P-4
2048-word x 8-bit RAM (CMOS) ............. 158
HM6l17FP-3
2048-word x 8-bit RAM (CMOS) ............. 163
HM6117FP-4
2048-word x 8-bit RAM (CMOS) ............. 163
HM6117LP-3
2048-word x 8-bit RAM (CMOS) ............. 168
2048-word x 8-bit RAM (CMOS) ............. 168
HM6117LP-4
HM6117LFP-3
2048-word x 8-bit RAM (CMOS) ............. 174
2048-word x 8-bit RAM (CMOS) ............. 174
HM6117LFP-4
HM6168H-45
4096-word x 4-bit RAM (CMOS) ............. 180
HM6168H-55
4096·word x 4-bit RAM (CMOS) ............. 180
HM6168H-70
4096·word x 4-bit RAM (CMOS) ............. 180
HM6l68Hp·45
4096·word x 4-bit RAM (CMOS) ............. 180
HM6168HP-55
4096-word x 4-bit RAM (CMOS) ............. 180
HM6168HP-70
4096-word x 4-bit RAM (CMOS) ............. 180
HM6l68HLP-45 4096-word x 4-bit RAM (CMOS) ............. 181
HM6168HLP-55 4096-word x 4-bit RAM (CMOS) ............. 181
HM6168HLP-70 4096-word x 4-bit RAM (CMOS) ............. 181
HM6167
16384-word x l-bit RAM (CMOS) ............ 182
HM6167-6
16384-word x l-bit RAM (CMOS) ............ 182
HM6167-8
l6384-word x l-bit RAM (CMOS) ............ 182
HM6167P
16384-word x l-bit RAM (CMOS) ............ 182
H M6167P-6
16384-word x l-bit RAM (CMOS) ............ 182
HM6167P-8
16384-word x l-bit RAM (CMOS) ............ 182
HM6167LP
16384-word x l-bit RAM (CMOS) ............ 188
HM6167LP-6
16384-word x l-bit RAM (CMOS) ............ 188
HM6l67LP-8
l6384-word x l-bit RAM (CMOS) ............ 188
HM6l67H-45
16384-word x l-bit RAM (CMOS) ............ 192
HM6167H-55
16384-word x l-bit RAM (CMOS) ............ 192
HM6167HP-45
l6384-word x l-bit RAM (CMOS) ............ 192
HM6167HP-55
l6384-word x l-bit RAM (CMOS) ............ 192
HM6167HCG-45 16384-word x l-bit RAM (CMOS) ............ 199
HM6167HCG-55 16384-word x 1-bit RAM (CMOS) ............ 199
HM6l67HLP-45 16384-word x l-bit RAM (CMOS) ............ 203
HM6167HLP-55 16384-word x l-bit RAM (CMOS) ............ 203
HM6264P-l0
8192-word x 8-bit RAM (CMOS) ............. 207
HM6264P-12
8192-word x 8-bit RAM (CMOS) ............. 207
HM6264P-15
8192-word x 8-bit RAM (CMOS) ............. 207
HM6264LP-l0
8192-word x 8-bit RAM (CMOS) ............. 211
HM6264LP-12
8192-word x 8-bit RAM (CMOS) ............. 211
HM6264LP-15
81 92-word x 8-bit RAM (CMOS) ............. 211
MOS DYNAMIC RAM ............... _ .................. 217
I:lM4716A-l
16384-word x l-bit RAM (NMOS) ............ 218
HM4716A-2
16384-word x l-bit RAM (NMOS) ......... ,' .. 218
HM47l6A-3
16384-word x l·bit RAM (NMOS) ............ 218
HM4716A-4
16384-word x l-bit RAM (NMOS) ............ 218
HM4716AP-l
16384-word x l-bit RAM (NMOS) ............ 218
HM4716AP-2
16384-word x l-bit RAM (NMOS) ............ 218
HM4716AP-3
l6384-word x l-bit RAM (NMOS) ............ 218
HM4716AP-4
16384-word x l-bit RAM (NMOS) ............ 218
HM4816A-3
16384-word x l-bit RAM (NMOS) ............ 229
HM4816A-3E
16384-word x l-bit RAM (NMOS) ............ 229
HM48l6A-4
16384-word x l-bit RAM (NMOS) ............ 229
HM4816A-7
16384-word x l-bit RAM (NMOS) ............ 229
HM4816AP-3
16384-word x l-bit RAM (NMOS) ............ 229

•

HITACHI

HM4816AP·3E
16384·word x Hit RAM (NMOS) •••••••..•.. 229
HM4816AP·4
16384·word x 1·bit RAM (NMOS) .•.•........ 229
HM4816AP·7
16384·word x 1·bit RAM (NMOS) •........... 229
HM4864-2
65536-word x 1·bit RAM (NMOS) ......••.••. 237
HM4B64·3
65536-word x 1·bit RAM (NMOS) ....•....•.. 237
HM4864p·2
65536·word x 1·bit RAM (NMOS) ....••..••.• 237
HM4B64p·3
65536·word x 1·bit RAM (NMOS) .........•.. 237
HM4864CC·2
65536·word x 1-bit RAM (NMOS) .....•...•.. 247
HM4B64CC·3
65536·word x 1·bit RAM (NMOS) .....••..•.. 247
HM48641·2
65536-word x 1-bit RAM (NMOS) .....•...•.. 252
HM4B641·3
66536·word x 1·bit RAM (NMOS) •.•...••.•.• 252
HM4864K·2
65536·word x 1·bit RAM (NMOS) •........•.• 262
HM4864K·3
65536-word x 1·bit RAM (NMOS) .........•.. 262
HM4864A·12
65536·word x Hit RAM (NMOS) ............ 256
HM4864A·15
65536·word x 1·bit RAM (NMOS) ..•....•.... 256
HM4864A·20
65536-word x 1·bit RAM (NMOS) .....••..... 256
HM4864AP-12
66536·word x 1-bit RAM (NMOS) •.•.....•... 256
HM4864AP-15
65536·word x 1·bit RAM (NMOS) .....•...•.. 256
HM4864AP-20
65536·word x 1·bit RAM (NMOS) ............ 256
HM4864ACG·12 65536·word x 1·bit RAM (NMOS) •........•.. 261
HM4864ACG·15 65536·word x 1·bit RAM (NMOS) •........... 261
HM4864ACG·20 66536·word x 1·bit RAM (NMOS) ............ 261
HM4865Ap·12
65536·word x 1·bit RAM (NMOS) ...•.•.•••.. 266
HM4865AP·15
65536·word x 1·bit RAM (NMOS) •....•.•.•.. 266
HM4865AP·20
65536·word x 1·bit RAM (NMOS) .........•.. 266
HM50256·12
262144·word x 1·bit RAM (NMOS) ........... 273
HM50256·15
262144·word x 1·bit RAM (NMOS) .•...••••.. 273
HM50256·20
262144·word x 1·bit RAM (NMOS) ....•...•.. 273
HM50257·12
262144·word x 1·bit RAM (NMOS) ..••..•.... 280
HM50257·15
262144·word x 1·bit RAM (NMOS) ....•...... 280
HM50257·20
262144·word x 1·bit RAM (NMOS) .•......... 280
• MOS Mask ROM ..........•.............•.••.....•..... 287
HN61364P
8192·word x 8·bit ROM (CMOS) •..•..••.••.. 288
HN61364FP
8192·word x 8·bit ROM (CMOS) ............. 288
HN61365P
8192·word x 8·bit ROM (CMOS) •.........•.. 290
HN61366P
8192-word x 8·bit ROM (CMOS) .•........•.. 292
HN43128P
16384·word x B-bit or
32768·word x 4·bit ROM (CMOS) ..•..•...... 294
HN613128P
16384-word x 8·bit ROM (CMOS) ............ 296
HN613128FP
16384·word x B-bit ROM (CMOS) ..•......... 296
HN61256P
3276B-word x B-bit or
65536·word x 4·bit ROM (CMOS) ..•......••. 298
HN61256FP
32768·word x B-bit or
65536·word x 4·bit ROM (CMOS) .........•.. 298
HN613256P
32768·word x B-bit ROM (CMOS) •.....•..••. 300
HN613256FP
3276B-word x B-bit ROM (CMOS) .••....•.••. 300
HN62301P
131072·word x 8·bit ROM (CMOS) ........... 302
• MOS PROM .....................••.........•.....•.• 305
HN462716
2048·word x 8·bit U.V. Erasable &
Electrically PROM (NMOS) •............... 306
HN462716G
204B-word x 8·bit U.V. Erasable &
Electrically PROM (NMOS) ........•....... 306
HN462532
4096·word x 8·bit U.V. Erasable &
Electrically PROM (NMOS) .........••..... 310

eHITACHI

5

HN462532G
HN462532P
HN462732
HN462732G
HN462732P
HN462732GI
HN482732AG-20
HN482732AG-25
HN482732AG-30
HN482764
HN482764-3
HN482764-4
HN482764G
HN482764G-3
HN482764G-4
HN27C64G-20
HN27C64G-25
HN27C64G-30
HN4827128G-25
HN4827128G-30
HN4827128G-45
HN48016P

4096-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) .••..••.•••••.••••.•••. 310
4096-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) ••......•.•.•.•..•••.•. 310
4096-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) ..•••••••••.••••..•..•• 314
4096-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) •••••••••.•••.••••..••• 314
4096-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) •••.••.••••••••••••.••. 314
4096-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) •••••••.•••...••••.•••• 318
4096-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) ••••..•.••••.••..•..••. 321
4096-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) ....................... 321
4096-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) .•.•..•.••••..•..•...•. 321
8192-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) •••.•••.•••••••.••••••. 324
8192-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) •••.••.•••••.•••••..•.. 324
8192-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) ••••••...•.••...••.•••• 324
8192-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) •••••••••••••••••.••..• 324
8192-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) ••.••••.•.•••.••••••••• 324
8192-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) ••••••••••.••••.•••...• 324
8192-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) ..••.. : ••••.•••.•.•••.• 329
8192-word x 8-bit u.v. Erasable &
Electrically PROM (NMOS) •••••••••••••••.•.••.•. 329
8192-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) •••••.•.••••.•.••..•••• 329
816384-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) •••••.•••••••••.••••••• 332
816384-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) •••••.•..••••••..•..••. 332
816384-word x 8-bit U.V. Erasable &
Electrically PROM (NMOS) ••••••••••..•••...••••. 332
2048-word x 8-bit Electrically Erasable &
PROM (NMOS) •..•.•.••... ; •.•••••...•..••.•••. 336

• Bipolar RAM .••..•••••••••.••••••.•...•.•••••••.••... 341
HM10414
256-word x 1-bit RAM (ECl 10K) ••••••....•. 342
HM10414-1
256-word'x 1-bit RAM (Eel 10K) ••..••.••... 342
HM2110
1024-word x 1·bit RAM (Eel 10K) .••..•••..• 346
HM2110·1
1024·word x Hit RAM (Eel 10K) ••.•.••.... 346
HM2112
1024-word x 1·bit RAM (Eel 10K) •.••.•••..• 350
HM2112·1
1024·word x 1·bit RAM (Eel 10K) •••••..•••. 350
HM10422
256-word x 4·bit RAM (Eel 10K) • . . . • . . • • .. 355
HM10422·7
256·word x 4·bit RAM (Eel 10K) .•.•••.•••.• 360

6

eHITACHI

HM10470
4096-word x 1-bit RAM (ECl 10K) _ - ......... 363
HM10470-1
4096-word x 1-bit RAM (ECl 10K) .....•..... 363
HM10470F
4096-word x 1-bit RAM (ECl 10K) ........... 363
HM10470-15
4096-Wordx 1-bit RAM (ECl 10K) _ .......... 368
4096-word x 1-bit RAM (ECl 10K) _ .......... 371
HM2142
HM10474
1024-word x 4-bit RAM (ECl 10K) _ .......... 374
HM10474-15
1024-word x4-bit RAM (ECl 10K) ........ , .. 374
HM10480
16384-word x 1-bit RAM (ECl 10K) .......... 379
HM10480F
16384-word x 1-bit RAM (ECl 10K) .......... 379
HM100415
1024-word x 1-bit RAM (ECl 1ooK) .......... 382
HM100415CC
1024-word x 1-bit RAM (ECl 1OOK) .........• 382
HM1OO422
256-word x 4-bit RAM (ECl 100K) ........... 385
HM100422F
256-word x 4-bit RAM (ECl 100K) _ .......... 385
HM1oo422CC
256-word x 4-bit RAM (ECl 100K) ........... 385
HM100470
4096-word x 1-bit RAM (ECl 100K) .......... 388
HM1oo470-15
4096-word x 1-bit RAM (ECl 100K) .......... 388
HM 100474
1024-word x 4-bit RAM (ECl 100K) .......... 391
HM100474-15
1024-word x 4-bit RAM (ECl 1ooK) .......... 391
HM100474F
1024-word x 4-bit RAM (ECl 1OOK) .......... 391
HM100474F-15
1024-word x 4-bit RAM (ECl 1OOK) .......... 391
HM 100480
16384-word x 1-bit RAM (ECl 1ooK) ......... 396
HM100480F
16384-word x 1-bit RAM (ECl 100K) ......... 396
HM2504
256-word x 1-bit RAM (TTL) ............... 399
HM2504-1
256-word x 1-bit RAM (TTL) ............... 399
HM2510
1024-word x 1-bit RAM (TTL) .............. 403
HM2510-1
1024-word x 1-bit RAM (TTL) .............. 403
HM2510-2
1024-wrod x 1-bit RAM (TTL) .............. 403
HM2511
1024-word x 1-bit RAM (TTL) .............. 407
HM2511-1
1024-word x 1-bit RAM (TTL) .............. 407
• Bipolar PROM ........................................ 411
HN25044
1024-word x 4-bit PROM (TTL) ............. 414
1024-word x 4-bit PROM (TTL) ............. 414
HN25045
HN25084
2048-word x 4-bit PROM (TTL) ............. 419
HN25085
2048-word x 4-bit PROM (TTL) ............. 419
HN25084S
2048-word x 4-bit PROM (TTL) ............. 422
2048-word x 4-bit PROM (TTL) ............. 422
HN25085S
HN25088
1024·word x 8-bit PROM (TTL) ............. 425
1024-word x 8-bit PROM (TTL) ............. 425
HN25089
HN25088S
1024-word x 8-bit PROM (TTL) ............. 428
HN25089S
1024-word x 8-bit PROM (TTL) ............. 428
HN25088l
1024·word x 8-bit PROM (TTL) ............. 431
HN25089l
1024-word x 8-bit PROM (TTL) ............. 431
HN25168S
2048-word x 8-bit PROM (TTL) ............. 434
2048-word x 8-bit PROM (TTL) ............. 434
HN25169S
• Memory Support Circuits ........................... : ..... 437
HD2912
Quadruple TTl-to-MOS Clock Drivers ......... 438
HD2916
Quadruple TTl·to-MOS Clock Drivers ......... 441
HD2923
Quadruple ECl-to-TTl Drivers .............. 444
NOTICE
The example of an applied circuit or combination with other equipment shown
herein indicates characteristics and performance of a semiconductor-applied
products. The company shall assume no responsibility for any problem involving
a patent caused when applying the descriptions in the example.

eHITACHI

7

.QUICK REFERENCE GUIDE TO HITACHI IC MEMORIES
.MOS RAM
Mode

Total
Bit

Type No.

ProcesS'

Organization

(word)
Xbit

HM4334-3
HM4334-4
HM6148
HM6148-6
HM6148L
1024X4
HM6148L-6
HM6148H-35"
HM6148H-45"
HM6148H-55"
HM6148HL-35"
4k-bit
HM6148HL-45"
HM6148HL-55··
HM6147
HM6147-3
HM6147L
HM6147L-3
HM6147H-35
4096 X1
HM6147H-45
HM6147H-55
Static
CMOS
HM6147HL-35
HM6147HL-45
HM6147HL-55
HM6116-2
HM6116-3
HM6116-4
HM6116L-2
HM6116L-3
HM6116L-4
HM6116A-I0
HM6116A-12
HM6116A-15
16k-bit
2048x8
HM6116A-20
HM6116AL-I0
HM6116AL-12
HM6116AL-15
HM6116AL-20
HM6117-3
HM6117-4
HM6117L-3
HM6117L-4

Access

Time
(ns)

max
300
450
70
85
70
85
35
45
55
35
45
55
70
55
70
55
35
45
55
35
45
55
120
150
200
120
150
200
100
120
150
200
100
120
150
200
150
200
150
200

Cycle Supply
Time Voltage
(ns)
min

pation

~OO

150
200

(W)

(V)

460
640
70
85
70
85
35
45
55
35
45
55
70
55
70
55
35
45
55
35
45
55
120
150
200
120
150
200
100
120
150
200
100
120
150
200
150

Power
Dissi-

Package·
Pin

No. CC CG G

•
•
•
•

101'/20m
0.1m10.2
51'/0.2

•
•

•

0.1m10.2

51'/0.3

18

•
•

0.1m175m
51'/75m

•

+5

r---

0

-

51'/0.15

0.1m10.18

20~/0.16

0.1m115m
24

51'/10m

0.lm/0.2
101'/0.18

•

ment

HM-6514-9

•
•
•
•
•
•
•
•
•
•
•
•
•
•
•
•

••
••
•
•
•
•••
•••
•••
••
••

0.lm/0.15

Replace-

P FP SP

Page
52
52

2148
2148-6

2148-45
2148-55

2147

2147H-l
2147H-2

•
•
•
•
•••
•
•
•
•
•
•
•
•
••
••
••
••

•

•
•
•
•
•
•
•
•

58

58
64
64
70
70
70
74
74
74
79
79
83
83
87
87
87
93
93
93
97
97
97
120
120
120
150
150
150
150
154
154
154
154
158
158
168
168

(to be continued)

8

eHITACHI

Mode

Total
Bit

16k-bit

SRAM

Type No.

Organization

Process

(word)
Xbit

HM6168H-45'
HM6168H-55'
HM6168H-70'
4096 X4
HM6168HL-45'
HM6168HL-55'
HM6168HL-70'
HM6167
HM6167-6
HM6167-8
HM6167L
HM6167L-6
(;MOS 16384 X 1
HM6167L-8
HM6167H-45
HM6167H-55
HM6167HL-45
HM6167HL-55
HM6264-10
HM6264-12
HM6264-15
8182x8
HM6264L-I0
HM6264L-12
HM6264L-15
HM4716A-l
HM4716A-2
HM4716A-3
HM4716A-4
16384 X1
HM4816A-3 (
HM4816A-3E
HM4816A-4
HM4816A-7
HM4864-2
HM4864-3
NMOS
HM4864A-12
HM4864A-15
65536 X1
HM4864A-20
HM4865A-12"
HM4865A-15"
HM4865A-20"
HM50256-12 ••
HM50256-15 ••
HM50256-20 ••
262144 X I
HM50257-12 ••
HM50257-15 ••
HM50257-20"

I

64k-bit

16k-bit

DRAM
64k-bit

256k-bit

Access Cycle Supply
Time Time Voltage

(ns)
max
45 .
55
70
45
55
70
70
85
100
70
85
100
45
55
45
55
100
120
150
100
120
150
120
150
200
250
100
105
120
150
150
200
120
150
200
l20
150
200
120
150
200
120
ISO
200

Power
Dissipation
Pin
(W)
No.

(ns)
min

45
55
70
45
55
70
70
85
100
70
85
100
45
55
45
55
100
l20
150
100
120
150
320
320
375
410
235
200
270
320
270
335
230
260
330
230
260
330
220
260
330
220
260
330

(V)

Package·"

ce CG

••

•
•
•
••
••

51'/0.25

20

••
•

•
•
•••
•••
•
•
•
•
•
•
•

51'/0.15

+5

0.1m/0.2
51'/0.2

0.lm/0.2
28
101'/0.2

+12,
+5,
-5,

20m/0.46

llm/0.15

•

20m/0.33

20m/0.275

+5
20m/0.275

20m/0.35

20m/0.35

Replacement

2168

••
••

0.1m/0.25

25m/0.15

G P FP SP

•
16

•
•
•
•
•
•
•
•
•

•
••
••
••
•
•
•
•
•
•
•
•
•

2167
2167-6
2167-8

IMS1400

•

•
•
•
•
•
•
•
•
•
•
•
•
•
•
•
•

MK4116-2
MK4116-3
MK4116-4
2l18-3
2118-4
2118-7

Page
ISO
ISO
ISO
181
181
181
182
182
182
188
188
188
192
192
203
203
207
207
207
211
211
211
218
218
218
218
229
229
229
229
237
237
256
256
256
266
266
266
273
273
273
280
2SO
2SO

• Under development
Preliminary
AHM6116LP Series: lOpW
The package codes of CC. CG, p, FP and SP are applied to the package materials as follows.
CC : Side~brazed Ceramic Leadless Chip Carrier. CG : Glass-sealed Ceramic Leadless Chip Carrier, G: Cerdip, P: Plastic DIP,
FP : Small Sized Plastic Flat Package(SOP), SP: Sktnny Type Plastic DIP

.*.*.

•

HITACHI

9

.MOS ROM
Total
Bit

Program

Type No.

Process

Organization

(word)
xbit

(ns)
max

8192X8

250
f--250

HN61364
64k-bit HN61365
HN61366

Mask

128k-bit

HN43128
CMOS

HN61256

(V)

Package"·
Pin
C
No.

r-6500

16384X8

250

32168X8
65536X4

3500

1.5m

28

+S

3m

28

5p/0.05

28

32768x8

250

1M-bit HN62301··

131072x8

350

5m/60m

28

16k-bit HN462716

2048X8

450

0.555

24

4096X8

HN482732A-25
HN482732A-30
HN482764

-

250

+5
0.555

-

~

HN27C64G-25

28

300

HN4827128-25··

250

NMOS

16384x8

HN4821128-45··

r-300
r--

0.554

28

•

450

NMOS

16384 X8

350

+S

0.16

24

*** The package codes of C, G, P and FP are apphed to the package materials as follows.

* Under development
*. Preliminary

C:

Side~brazed

•
•
• •
• •
• •
•

Page

meRt

288
290
292

294
296
--

298
300

302
2716

306

TMS2532

310

2732
2732A-2

314
321

2732A

321

2732A-3

321

2764

324

2764-3

324

2764

329

2764

329

324

•
•
•
•

40mW

250

r--

HN27C64G-30

24

0.788

8192x8 r - -

HN27C64G-20

16k-bit HN48016

250

- 300
450

HN482764-4

128k-bit HN4827128-30"

200

----aoo

NMOS

HN482164-3
64k-bit

-

0.788

--

~

32k-bit HN482732A-20
U. V. Erasable
& Electrically

-

450

HN462732

•
• •
• •
• •
•
•
•
• •
••
• •
•

0.858

Replace-

P FP

• •
•

24

16384x8
32168x4

HN462532

G

28
5p/0.05

- 5p/75m

HN613256

Electrically Erasable

Power
Dissipation
(W)

250

HN613128
256k-bit

Access Supply
Time Voltage

2764

329

382

332
332

•

386

Ceramic DIP. G : Cerdip, P: Plastie DIP, FP: Plastic Flat Package

.MOS MEMORIES OF WIDE OPERATING TEMPERATURE RANGE
Mode

Total
Bit

Type No.

Operating
Temperature

Access

Organization

Time

Power
Dissipation

(wordXbit)

Range

(ns)
max

(W)

ee)
HM61161-2

120

HM61161-3

150

HM61161-4
Static RAM

16k-bit

HM6116Ll-2
HM6116Ll-3

-40 to +85
2048 X8

-55 to +125

HM6116K-4
HM48641-2
64k-bit

HM48641-3
HM4864K-2

65536 X1

32k-bit

HN4627321

4096X8

-40 to +85

A HM6116LPI Series: lOp\\'

10

•

150
200

150
-40 to +85 f - - - 200
-55 to +85

HM4864K-3
EPROM

120
20p6/0.16

HITACHI

150

24

0.lm/0.18

Page
G

•
•
•
•
•

103

•
•
•
•
•
•
•

103
103
127
127
127

16

0.1/0.788

24

146

·

252

•

252

:

15m/0.3

200
450

P

• •

0.1m/0.18

200

HM6116K-3

Dynamic RAM

Pin No.

200
150

HM6116Ll-4

Package···

146

• I 252
.! 252

•

318

• BIPOLAR RAM

Level

Total
Bit

256-bit

lk-bit

Type No.

HMI0414
HMI0414-1

25

25

HMI0470-1

15

4k-bit

256-bit

Open
Emitter

15
10

24

18

0.2

24

16384 x 1

25

0.03

20

1024 X I

10

0.6

16

HMI00422

256X4

10

0.8

24

HMI00470-15
HMI00474

HMI00480'
HM2504
HM2504-1

4096 X I

15

HM2510-2

HM2511-1

-4.5

25

1024X4

15

16384 X 1

25
55

256Xl

0.2

24

0.05

20

70
45

1024X 1

+5

0.5

35
3-state

18

1.8

45
Open
Collector

0.2

70
45

0.5

16

•
•
•

• •
• •
• •
•
•
•
• •
• •
• •
• •
• • •
•
•
• •
• •
• •
•
•
•
•
•
•

•

Page

CC
FI0414

FlO415
FI0415A

•

0.3

25

G

•

HMI00415

HM2511

*
**

1.0

0.2

15

HM2510-1
Ik-bit

16

25

1024X4

HM2510
TTL

0.8
-5.2

Replacement

F

•

HMI0480

HMI00474-15
16k-bit

4096 x 1

HM2142

HMI00470
ECL
lOOk

7

Pin
No.

0.8

10

HMI0470

HMI0474-15

0.5

8
256x4

(mW/bit)

Package··

2.8

10

HM2112-1

HMI0474

lk-bit

1024 x 1

Power
Dissipation

(V)

8
35

HM2112

Supply
Voltage

10

256Xl

HM2110-1

HMI0470-15

16k-bit

Time
(ns)
max

HM2110

HMI0422-7

4k-bit

Access

Output

(word)
xbit

HMI0422
ECL
10k

Organization

FI0422

FI0470

342
342
346
346
350
350
355
360

363
363
368

371

FlO0415

374
374
379
382

FlO0422

385

FlO0470

388

FlO0474

388
391
391

Fl0474

Fl0480

FlO0480
93411
93411A

396
399
399
403

93415
93415A

93425

403
403
407
407

Preliminary
The package codes of F. G and CC are applied to the package material as follows.
F : Flat Package, C: Cerdip, CC: Side-brazed Ceramic Leadless Chip Carrier

•

HITACHI

11

• BIPOLAR PROM
Total
Bit

Level

4k-bit

Type No.

8k-bit

HN25044
HN25045

Time
(ns)
max

1024X4

ole
ole

HN25085

3-8

2048 X 4

3-8

HN25088

ole

HN25089

3-s

HN250898

1024X8

ole
3-s

HN251688
HN251698

2048 X 8

60

18

18

+5
600

50

Ole
3-0

350

60

600

G: Cerdip

•

24

100

• The p.ekage code of G is applied to the material as follows.

12

500

550

3-s

HN25089L

(mW)

Pin
No.

pation

(V)

Package'

50

ole

HN25088L

Power
Dissi-

60

ole

HN2S0858

8upply
Voltage

50

3-s

HN25084

HN250888

16k-bit

Access

Output

(word)
Xbit

HN250848

TTL

Organization

HITACHI

24

Replacement

F

G

•
•
•
•
•
•
•
•
•
•
•
•
•
•

Page

P

828190

414
414
419
419
422
422
425
425
428
428
431
431
434

828191

434

828136
828137
828184
828185

828180
828181

• PACKAGE INFORMATION (Dimensions in mm)
.Dual-in-line Plastic
.--------------------------------------------------------------~

eDP-16

r---------------------------------------------------------------------------~

eOP-20

eOP-24

, !·~m;'i·~
-=8
;;

I

~'I

13
12

II

5O&na12S4mln

W

o.-,s'.Jl\~~OZ(H3tI
eOP-24A

eOP-28

,,
10

o.o".Rooo"
20

Applicable les
DP-16

HM4716AP-l, HM4716AP-2, HM4716AP-3, HM4716AP-4, HM4816AP-3, HM4816AP-3E, HM4816AP-4,
HM4816AP-7, HM4864P-2, HM4864P-3, HM4864AP-12, HM4864AP-15, HM4864AP-20, HM4865AP-12,
HM4865AP-15, HM4865AP-20

DP-18

HM4334P-3, HM4334P-4, HM4334P-3L, HM4334P-4L, HM6148P. HM6148P-6, HM6148LP, HM6148LP-6,
HM6148HP-35, HM6148HP-45,' HM6148HP-55, HM6148HLP-35, HM6148HLP-45, HM6148HLP-55, HM6147P,
HM6147P-3, HM6147LP, HM6147LP-3, HM6147HP-35, HM6147HP-45, HM6147HP-55, HM6147HLP-35,
HM6147HLP-45, HM6147HLP-55

DP-20

HM6168HP-45, HM6168HP-55, HM6168HP-70, HM6168HLP-45, HM6168HLP-55, HM6168HLP-70, HM6167P,
HM6167P-6, HM6167P-8, HM6167LP, HM6167LP-6, HM6167LP-8, HM6167HP-45, HM6167HP-55,
HM6167HLP-45, HM6167HLP-55

DP-24

HM6116P-2, HM6116P-3, HM6116P-4, HM6116LP-2, HM6116LP-3, HM6116LP-4, HM6116AP-I0,
HM6116AP-12, HM6116AP-15, HM6116AP-20, HM6116ALP-I0, HM6116ALP-12, HM6116ALP-15,
HM6116ALP-20, HM6117P-3, HM6117P-4, HM6117LP-3, HM6117LP-4, HN61365P, HN61366P, HN48016P,
HM6116PI-2, HM6116PI-3, HM6116PI-4, HM6116LPI-2, HM6116LPI-3, HM6116LPI-4

~

HM6116ASP-I0, HM6116ASP-12, HM6116ASP-15, HM6116ASP-20, HM6116ALSP-I0, HM6116ALSP-12,
DP-24A HM6116ALSP-15, H~11"'6-'-'A-"L"'S'-P_'-2"'O_________________________________________________

DP-28_~H_M_6_2_64_P~-~10_,_H_M~6_2~64_P~-_12_,
__
HM~6~2~64_P_-_1_5,~H~M~62_6_4L~P_-~1~O,__H_M_62_6_4L_P_-_1_2,__H_M_62_6_4L_P_-_1_5,__H_N_61_3_64_,_________
HN43128P, HN613128P, HN61256P, HN613256P, HN62301P

•

HITACHI

13

Package Information - - - - - - - - - - - - - - - - - - - - - - - - - - - - .CEROIP
eOG·16A

eOG·16

l;i

~f\
0" - 15"

~'

12

11
10
9

OJO-O.36~
~~l~-\~

•

0.20 -0.38

eOG·16B

eOG·18
1,1..,
1.1;
.

~

•

~ 5

::::

1.
l:i

12

I"

t-

11

1"

eOG·20

eOG·24A

~

10
11
12,-_+-_..f.

15.24
I ~~i""
~
5.•9",,2.5Im;,
(}''''IJ~-------r-1o-II.36

14

•

HITACHI

- - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - P a c k a g e Information
eOG-28

~

59..,

0'-15·r-l0.20-U6

Applicable ICs
DG-16
DG-16A
DG-16B

DG-18
DG-20
DG-24
DG-24A

HMI0414, HMI0414-I, HM2504, HM2504-I, HD2912
HM4716A-I, HM4716A-2, HM4716A-3, HM4716A-4, HM2110, HM2110-I, HM2112, HM2112-I, HMIOO415. HM2510,
HM2510-1, HM2510-2. HM2511, HM2511-I, HD2916, HD2923
HM4816A-3, HM4816A-3E, HM4816A-4, HM4816A-7, HM4864-2, HM4864-3, HM4864A-12. HM4864A-15,
HM4864A-20, HMS0256-12, HMS0256-15, HM50256-20, HMS0257-12, HMS0257-15, HMS0257-20, HM46641-2,
HM48641-3, HM4864K-2, HM4864K-3
HM4334-3, HM4334-4, HM6148, HM6148-6, HM6148H-35, HM6148H-45, HM6148H-55, HM6147, HM6147-3,
HM6147H-35, HM6147H-45, HM6147H-55, HMI0470, HMI0470-1, HMI0470-15, HM2142, HMIOO470,
HMI00470-15, HN25044, HN25045, HN25084, HN25085, HN25084S, HN25085S
HM6168H-45, HM6168H"55, HM6168H-70, HM6167, HM6167-6, HM6167-8, HM6167H-45, HM6167H-55,
HMl0480, HMIOO480
HM6116-2, HM6116-3, HM6116-4, HM6116L-2, HM6116L-3, HM6116L-4, HM61161-2, HM61161-3, HM61161-4,
HM6116LI-2, HM6116LI-3, HM6116LI-4, HM6116K-3, HM6116K-4, HN25088, HN25089, HN25088S, HN25089S,
HN25088L, HN25089L, HN25168S, HN25169S
HMI0422, HMI0422-7, HMI0474, HMI0474-15, HMlOO422, HMlOO474, HMIOO474-15

DG-24B

HN462716G, HN462532G, HN462732G, HN482732AG-20, HN482732AG-25, HN482732AG-OO, HN462732GI

DG-28

HN482764G, HN482764G-3, HN482764G-4, HN4827128G-25, HN4827128G-30, HN4827128G-45

• Side- brazed CeramIc DIP
eOC-24C

1493

1<1>
2
3

4
5
6
7

•
9

"I
2

I

I

I

2

I

2
2
20
I
I
1
I
I
I
I

--tI

!

I

1493
I ••
2

28

3
4
5
6

7
8

c-- _.

9
0
I

i

I2

I3
I4

15.24!

508m.. 2.54.1,

,~
O'''I~
I

..

eOC-28B
2

8

O'-ldJ

10,20"'0.36

I

27
26
25
2
2
2
2
I
I
I
I
I5

5J8..,

I

2.541l1n

10.26-0.36

Applicable IC.

DC-24C HN462716, HN462532, HN462732'
DC-28B HN482764, HN482764 -3, HN482764-4

_HITACHI

15

Package Information - - - - - - - - - - - - - - - - - - - - - - - - - - - - e Flat Package.
eFp·54

eFP·24

2.50max

eFG·20

eFG·18

~r~-----~

;;t;a

~

.FG·24

.Appllcable les
HM6116FP-2, HM6116FP-3, HM6116FP-4,
HM6116LFP-2, HM6116LFP-3, HM6116LFP-4,
HM6117FP-3, HM6117FP-4, HM6117LFP-3,
HM6117LFP-4
HN61364FP, HN613128FP, HN61256FP,
FP-54
HN613256FP
FG-18 HMI0470F
FP-24

HMI04~qF, HMI00480F
HMI0422F, HMI0422F-7, HMI0474F,
FG-24 HMI0474F-15, HMI00422F, HMI00474F,
HMI00474F-15

FO-20

16

•

HITACHI

--------------------------------------------------------------Package Information
• Leadless Chip Carrier
.CC-18

.CC-24

~ I ,,~,=

1

~1

'-;

•

3·I{o.3

~,i

... i,t!/! _).Hft

3~::~'.
~I~
':W

HIl.'

.94

.

~I

I HHHHHHH I

~~

I-CO.5

.CG-18

.CG-20
_

lQ.M()±U.•ltll

_

~!D\II'",1±1I'3"

f13

!.i:
,':

lJj

:< i{1l.:<

~
~
:i.Ur! _).Mb"1

jO-'-IW"
';;J _

;5,:

I

:.1'
',10

-.

1~C(J.5

... !!.l,lij..l '.2

.Applicable ICs

.CG-32
1."

CC-18

I

CC-24 .HMI00415CC, HMI00422CC
HM4864ACG-12, HM4864ACG-15
CG-18 HM4864ACG-20

t---~-

~::l

__ v

-·-f--Iv
y

HM4864CC-2, HM4864CC-3

CG-20

HM6167HCG-45, HM6167HCG-55

CG-32

HM6116CG-2, HM6116CG-3,
HM6116CG-4

1

•

HITACHI

17

• RELIABILITY OF HITACHI IC MEMORIES
1. STRUCTURE
IC memories are classified into Bipolar and MOS
structural types. with unique. respective characteristics. Bipolar characteristics are high speed and small
cepacity. while MOS features large capacity.

and degree of integration. stable product reliability is
achieved in the manufacturing process by incorporating past achievements in single cell deSign. and the
proven reliability of each respective technology. Unified production standards are applied in design. manufacture. and inspection stages. and reliability is
guaranteed by using TEG (Test Element Group) evaluation. Examples of Bipolar and MOS memory cell
circuits are shown in Table 1.

Produced with the most advanced semiconductor
manufacturing technologies. the LSI memory is integrated in high density by unit patterns celled "cells."
Despite differences in circuit deSign. pattern layout.

• Table 1 Example. of Ba.ic Cen Circuit of IC Memories
Bipolar memory

Classification

(RAM)

Main memory of computer.
microcomputer memory

Microcomputer
control use

Application

NMOS memory
(PROM)

NMOS memory
(Dynamic RAM)

Bipolar memory
(PROM)

For
microcomputer
control

Example of
basic cell
circuit

IC memory chips are produced in Ceramic. Cerdip. and
Plastic packages. Leadless Chip Carriers (LCC's) for
high package density. and Small Outline (SO) packages are currently being developed.
Hermetically sealed Ceramic and Cerdip packaging is
suitable for high reliability equipment. Plastic. the

leading semiconductor package. is used in a wide
variety of applications. Hitachi's improved Plastic
package provides a reliability level nearly that of the
hermeticelly sealed Ceramic and Cerdip packages.
Table 2 shows examples of IC memory package
outlines.

• Table 2 Examples of Ie Memory Package Outlines
• Ceramic DIP
Pin

.,6

.24 Pin

. ";.-......

~
......"

18

.,'

•

HITACHI

.28 Pin

___________________________ Reliability of Hitachi

Ie Memories

• Cerdip
.24 Pin

.20 Pin

.18 Pin

.16 Pin

• 28 Pin with Lid

• 24 Pin with Lid

• Plastic DIP
.16Pin

.18Pin

.20Pin

~"
2. RELIABILITY DATA
assured in all device types. Results have further indicated that the greater the device capacity, the higher
the reliability per bit.

2.1 Reliability test data on Bipolar memories
Reliability test data is shown in Tables 3 and 4. Since
unified design and quality control standards are applied in the manufacturing process, reliability is

• Table 3 Results on Bipolar Memory Reliability Tests (1)
HMl00422(Chip Carrier)

HMI0470 (Cerdip)
Test item

Total
Test condition

sam-

pIes

component

Fan·

Failure

Sam·

ures

rate'

pies

hours

Ta-12S'C

V" - -S.2V(HMI0470)
HiPtemperature

(Operating)

~.-S.SV(HN2S089)

C.H.

l/hr

Total
component

hours

-

-

3,4XIO·'

40

4XIO'

125

4.0 X10'

0

2.3xlO'·

80

2.7xI0·

0

HN25089(Cerdip)
Total

Fail·

Failure

Sam-

ures

rate'

pies

-

-

0

2.3XIO'·

Fail·

Failure

ures

rate •

component

hours

C.H.

l/hr

36

3.6XIO·

0

2.6XIO-·

10

1.0XIO·

0

9.2xIO"

Ta-ISO'C

V" - -S.2V(HMI0470)
V,,- -5 .OV(HMlOO422)
Vcc-S,SVf

(HN2S089)

' m -IPs

Hightemperature
storage

T.-200·C

27

2.7XIO'

0

3.4XIO'·

40

4XIO'

0

2.3xIO"

IS

1.5XIO·

0

6.lxIO'·

T.-29S'C

20

2.0xlO'

0

UXIO"

40

4xIO'

0

2.3xIO'·

IS

1.5xIO·

0

6.lxI0'·

•

HITACHI

* Estimated failare ratE" with confidence level 60 %
19

Reliability of Hitachi

Ie M e m o r i e s - - - - - - - - - - - - - - - - - - - - - - - -

• Table 4 Results on Bipolar Memory Reliability Tests (2)
HMI0470(Cerdip)
Test condition

Test item

HMl00422 (Chip c.. rier)

Samples

Failures

Samples

Failures

HN25089 (Cerdip)
Samples

Failures

Temperature cycling

-65'C-+150'C, 10 cycles

120

0

40

0

45

0

Soldering heat

260 'c, 10 seconds

22

0

-

-

22

0

Thermal shock

0'C-+I00'C, 10 cycles

36

0

20

0

22

0

30

0

60

0

22

0

40

0

60

0

22

0

40

0

60

0

22

0

1500G, 0.5 ms,
Mechanical shock

Three times each for X, Y and Z
l00-2000Hz, 20G

Variable frequency

Three times each for X, Y and Z
Constant -acceleration

20000G, 1 minute, each for X, Y and Z

~

HM6116P 16K SRAM, HM6147P 4K SRAM,
HN462732 and HN462532 32K EPROMs, and
HN462716 16K EPROM.

2.2 Reliability test date on MOS memories
Tables 5, 6, and 7 depict reliability test data on a
representative group of MOS memory typesHM4864 64K DRAM, HM4716AP 16K DRAM,
• Tllble 5 Results on MOS Memory Reliability Tests (1)
Test item

Test
condition

HM4864 Ceramic)
com·
Failure
Sam- Total
ponent Fail·
pies
ures
rate*
hours

High·
C.H.
temperature Ta=12S·C
1872 3.33xI0' 3'"
VCC=S.SV
dynamic
tcyc=3l's
operation
High·
temperature Ta=20ifC
20
4.0xI0'
0
storage
High·
temperature Ta=2S9"C
storage
High.
temperature Ta=29S"C
storage
EstImated failure rate WIth confidence level 60%

-

..

Test item

C.H.
1.0xI0'

0

9.2xl0'6

2.3xI0"

140

1.4xI0'

0

6.6xl0'6

-

-

-

100

S.OxlO'

0

1.8x10"

-

-

-

100

4.2xI0'

1*'

4.8x10· 5

HM4716AP (Plastic)
comFailure
Sam- Total
ponent Failpies
ures
rate"
hours

Remarks
*' Oxide
failure x 2
Unknown x I

*, Data
disappearance

.

HM6116P/HM6147P (plastic)
com·
Failure
Sam· Total
ponent Failpies
ures
rate*
hours

Ta=12f.C
High·
Vpp=13.2V
C.H.
C.H.
l/hr
(NMOS)
temperature
dynamic . VCC=S.SV 2330 3.46x10' 6*' 2.12x10" 1216 1.90xl0'6 3'"
operation
(CMOS)
tcYc=3l's
High·
temperature Ta=ISifC
4S 4.SxlO' 0
2.0xlO"
20 2.0xlO' 0
storage
Ta=8S·C
High·
temperature RH=8S%'
VDP=12V
and high.
3081 6.2xlO' 19*' 3.bl0-' 630 1.3x10' 4'"
(NMOS)
humidity
bias
V~c=S'i~
CMOS
.. Estimated failure rate with confidence level 60%.

20

I/hr

l/hl"
1.2SxI0·' 100

• Table 6 Results on MOS Memory Reliability Tests (2)
Test
condition

HN462S32/HN462732 (Cerdip)
com Fail·
Failure
Sam· Total
ponent
pies
ures
rate*
hours

_HITACHI

l/hr
2.19xlO·'

Remarks
*, Oxide
failure x 6
*' Oxide
failure xl
Electrostatic

ti~:xxll

4.6x 10"

••

4.0xlO'"

Aluminium
corrosion x 17
Unknown x 2
*, Aluminium
corrosion x 3
Unknown x 1

- - - - - - - - - - - - - - - - - - - - - - - - - - R e l i a b l l i t y of Hitachi IC Memories

• Table 7 Results on MOS Memory Reliability Tests (3)
Test item
Tem'perature
cyclfitg
Tem'perature
cyclmg
Tem'perature
cycbng

(~::~~~

Test condition
-~S"'C- RT-1SO"C

10 cycles

0

260

0

SO

0

-

-

-

-

-

310

0

7892

0

2080

0

0

100

0

SO

0

600

0

-

164

1000 cycles

!!~61l6t'
HM6147P
FailSampies
ures

HM4716AP
FailSampies
ures

1208

1 !!ycles

l~U-C

EPR9,M
(Cerdiii"l
FailSampies
ures

Failures

-~SoC-RT-1SO"C

-55:(.;_ -

~M4~~t
Cerdi
FailSampies
ures

Sampies

-

-

72

0

190

0

-

0

197
22

0
0

138
128

0
0

60
60

0
0

38

0

38

0

-

-

-

0

38

0

38

0

-

-

-

0

38

0

38

0

-

-

-

-

Thermal shock

i~S;~i;s ISO"C

22

0

60

Thermal shoC;k
Soldering heat
J\1.echanical
shock
Variable
frequency

g:C - 10lrC
15 cycles
261r C 10 seconds

.-

-

-

-

22

0

22

1,5000,0.Sms

22

0

20- 2,000Hz, 200

22

~gc~~~~:ion

20,0000

22

0

-

tics. Bipolar access time test data is given in Fig. 1.
Dynamic operation test data on 64K DRAM is shown
in Fig. 2 and 3.

2.3 Reliability of IC memory electrical characteristics
Internal elements of Ie memory device types are
designed to assure stability of electrical characteris-

Fig. 1 ElC8mple of Change in Blpol.r Memory Char•••rlltl..

Example

Example of time change in access time for Bipoliu: memory

Device name

HM10410

Test condition

Ta=12SoC, VEE=-S.2V

Failure criteria

tAA =2Sns

Failure mechanism

Surface degradation

Measuring Condition
35

-

Results:
Access time (tAA> is stabilized and is within the failure
criteria.

~

Maximum

Average
Minimum

Marching Pattern

30

I I I I

25

.:l

20
15

1,000
500
Time (hr)

0

6

I

2,000

HM4864-3 N=50pc'

_ _ _ _ _ _ _ _ _ _ _ _".,.:SpeeifiCilioo

-!+---I---- .....-. Y

Axis of Oscilloscope

From Comparator Circuit
X Axis of Oscilloscope

(bl VBB= -O.IV X Address

Fig. 5 Example of Dependency of Fail Bit Map on VBB

Fig. 3 Fail Bit Map Displav Circuit

The output of the H074161 is input to the 01 A converter, and the output of 01 A converter is connected
to the oscilloscope to display A X-V matrix. The output
ofthe comparator circuit is connected to the Z axis and
performs luminous intensity modulation. In this way,
the bit map can be displayed on the CRT.
Fig. 5 shows an example ot a voltage margin check. By
changing Vee, the increase and decrease of failed bits
can be seen. The complicated operation of the
memory can be seen dynamically by CRT display,
rather than by pulse waveform observed with an ordi-

36

eHITACHI

X Address

Fig. 6 Example of 1 bit solid fail

- - - - - - - - - - - - - - - - - - - - - - - - - - - - - O u t l i n e of Testing Method
nary oscilloscope. The bit map as shown in Fig. 5 is
extremely useful in observing Ie memory operation.

4. Failure Mode
70-90% of failure at user end is called a solid
failure-a mode which has no relation to access time,
voltage margin and timing. In this failure mode, the
memory is not capable of reading from or writing to
certain specified bits, which are fixed at "0" or "1 ". An
example of single bit solid failure is shown in Fig. 6.
The convenient tester previously described can detect
such failures. Except for special cases, it is rarely
necessary to perform high-precision measurements
such as those made by Ie memory manufacturers.
Full inspection of Ie memories under adverse conditions, performed by Hitachi, guarantees voltage and
timing conditions listed in the data sheet.
An extremely accurate memory tester is required for
performing high-precision inspection with 1ns accuracy. Hitachi is developing testers to supply newer
high-efficiency memories with excellent characteristics and quality.

_HITACHI

37

• APPLICATION OF DYNAMIC RAMS

1. Power On

OReadeye!e
Write cycle __ _

When power is applied to a semiconductor memory.
power-on current varies with Vee and clock conditions. as shown in Fig. 1.lfthe rise time of Vee is in the
10ps range. the RAM does not operate dynamically.
causing a surge of Icc current. This Icc current surge
may be avoided by insuring that Vee rise time is longer
than 1oo1lS.

I

~ 10

I

I

I
I

"R~~.c~s_lv~s

I
I
I

f'....
V
o
10

I

20

30

40

Vee Rise Time=lOJ.ls
Time (tis)

Fig. 1

50

----,

Din
00111

====~
-<====

o 1fAS only

~l o

I

I

--t-- ~. ~2v"

5

refresh eyel"

WE

I

DOli!

-'\

r "\,'

\

t

---0--0--

Add""

::x&X=====

0",,1

10. =~V"

I

~

o

Addres5~

100 200 300

400 500

Vee Rise Time=100tls
Time (tis)

(1) Read-Cycle:
First decide the X address of the memory cell
chosen. and start with trailing of RAS. When theX
address is held by the internal circuitry. change to
Y address. Then trail CAS to take in the Y address.
If the WE pin is at high. the output will appear on
the Dout pin.
(2) Write Cycle:
The input at Din is written in the memory cell
when WE turns to low before CAS.
(3) Read/Modify/Write Cycle:
During this cycle. CAS and WE are trailed down to
low. so that data is read out from. and written in.
the same address in the same memory cycle.
(4) Page Mode Cycle:
In this cycle. CAS is cyclically moved after taking in
the X address through RAS. to scan only the Y
address. This permits reading out and writing in
only one column of data at high speed.

$

Fig.2

Operating modes of Dynamic RAMs

2. Data Output

Relationship between standard value
of Icc and V cc during power- up

2. Operation Modes (See Fig. 2)

38

'1..._____

m

m~

I

5

I

AS. :;xs~ Vee

RAS

m ,'--_ _ _ __

0

15

OHead modify write cycle

Dout is a TIL-compatible. three-state output with two
TIL-load fan out. The output is controlled by the CAS
signals. In the early write cycle. the output reaches
high impedance to permit use as a common I/O
terminal.

3. Refresh Cycle
Refresh is a process of periodical rewriting to offset
the leakage of charge in the cell. and is implemented
in the RAS only refresh cycle. and ordinary read cycle.
Whether 16K- or 64K-bit. all bits can be refreshed by
giving a 128-cycle scanning to only the X addresses
between AO and A6. Each cycle refreshes 128 bits for
the 16K-bit DRAM. and 512 bits for the 64K-bit RAM.
The RAS only refresh cycle permits a power-efficient
refresh that calls for approximately 75% of current
consumed by the read cycle. With CAS fixed at high.
the output reaches high impedance.
The HM4816A has a special function called hidden
refresh which allows holding the output by turning
CAS to low during RAS only refresh.
There are two methods of refreshing:
(1) Concentrated-giving a 128-cycle refresh after

HITACHI

- - - - - - - - - - - - - - - - - - - - - - - - - - - - Application of Dynamic RAMs

operating the memory for a period of 2ms
maximum.
(2) Deconcentrated-which repeats a refresh cycle
every 16ps, following the initial16p memory operation (=2ms/128).

4. Operating Current in Dynamic RAMs
Fig. 3 shows the waveforms of current applied in
various operating modes for HM4864. The mean
operating current in each mode equals the value
obtained by dividing the integrated result of each
waveform by the cycle time. The first peak in each
mode appears during memory access. On the other
hand, the peak during standby appears due to the
precharging operation in each circuit.
mICAS Cycle

Lon. RAS/CAS Cycle

'R'AS

Only Cycle

Page Mode Cycle

'WI~~~~~~~~~~~~~~~~~~~

] I:
~

5. Noise
Noise can be classified into power source noise, and
input signal noise. The power source noise can be
further classified as low- or high-frequency noise as
shown in Fig. 5. To assure stable memory operation,
peak-to-peak power supply voltage, in the presence of
low- or high-frequency noise, should be held below
10% of standard level. To prevent power source noise,
we recommend a condenser of 0.1 pF for each one or
two devices.
Input signal noise can be classified overshoot or
undershoot. Overshoot should be held below the
highest input level specified. To prevent inputundershoot-induced parasitic transistor effects, a -5V
Vee is used (three supply designs) or a built-in VBB bias
circuit is included on chip.
DeSign should provide that the input undershoot does
not exceed the minimum specified for VIL. Overshoot
and undershoot in DRAMS can be reduced by
inserting a damping resistance of several tens of
ohm_s_._______________________

60
40
20

o Note:

High-frequency noise:
Not more than 10% of standard
power supply voltage.

Vcr=5.0V. To=20'C

--t

1--50no$

Fig.3

Power supply Yoltage (HM4864)

DRAMs show different current peaks, depending
upon RAS and CAS timing. The largest peak appears
when both X and Y operate simultaneously. The maximum current peak for HM4864 is approximately
100mA. Current consumed during standby IS expressed as a function of cycle time dependency in Fig.
4. During standby, with a once-in-every16psrefresh,
HM4864 consumes approximately 3mA current.

"'

E

20
0

o

I~

supply voltage.

Total of low-and high-frequency'
Not more than +10% of standard power
supply voltage.

Fig.5 Power source noise

40
30

G

~i~1

Low-frequency noise:
Not more than 10% of standard power

0

1\

\
'\

I....... r-

200n 500n l.u 2#

5# lOp

20p

Cycle Time (tHel

Fig.4 Cycle time dependence of RAS only
refresh current (HM4864)

_HITACHI

39

• PROGRAMMING & ERASING OF PROMS

1. PROGRAMMING AND
ERASING EPROMs

Logic ~l ~

Logic "O~

IDS

1.1 Programming
Information is programmed into the memory cell of an
EPROM by applying a high voltage to its drain and gate
(Fig. 1 and 2). High voltage at the drain increases the
energy of the electrons in the channel area. which
become "hot electrons" capable of jumping across the
oxide film. Pulled by high voltage at the gate. the hot
electrons are admitted into the floating gate. The
charge entering the floating gate changes the threshold voltage in the memory element. thereby storing
new information.

VDS
V.S

Readout Vos

Flg.3 Re,dlnll out stored Information

K

L

,,, .'"
~

i

When reading out. voltage is applied as in Fig. 3. and
"1" and "0" are identified by checking whether or not
current flows. Since the drain voltage for read-out is
set at 3V. no erroneous writing takes place.

1/

.,

I

~

,,~

[>-'

Write :

JV

Read:

-'"

~'c:c=5\".
~"1'=5\'

rl'I'=2S\"

I
5

When shipped. all EPROM bits are held at logic "1"
with all charge released (no programmed data). In
changing "1" to "0" by applying the specified waveform and voltage. data is programmed. The higher the
Vpp voltage. and the longer the program pulse width
tpW. the greater the quantity of electrons programmed
in. as shown in Fig. 4.

'I

,to

3

.m
2"
1"
Program Pulse Width tp., (ms)

/1
If Vpp exceeds the rated value. as in overshoot. the
memory's p-njunction may yield to permanent breakdown. To avoid this. checkVpp overshoot of the PROM
programmer. Also check negative-voltage-induced
noise at other terminals. which can create a parasitia
transistor effect and reduce apparent yield.

K

1n

Write: Vcc=5V

I. Iv

'"

I ,'j

t;.-~.

V

Read:

r,.,,=S\'

Drain

Fig. 1 Memory transistor
circuit symbols

20

22

24

26

28

Program V pp (V)

Fig. 2 Cross section of
memory transistor

40

'j

./

I

'\ II

Gate

Source

./

I

Flg.4 Typical Programming Characteristics
of EPROMs.

_HITACHI

- - - - - - - - - - - - - - - - - - - - - - - - - - - Programming & Erasing of PROMs

1.2 Erasing
Hitachi's EPROMs are usually capable of being
written and erased more than 100 times. Data stored
in the EPROM is erased by exposing the chip to ultraviolet light. which releases the electric charge from
the floating gate. Electrons in the floating gate receive
ultraviolet energy. become hot electrons again and
jump into the control gate or substrate. This process
erases the stored data.
Wavelength and minimum exposure of ultraviolet
light are specified as 2.537A. and 15W sec/cm2
respectively. Erasure occurs by exposing a device to
an ultraviolet lamp of 12.ooopW/cm2 at a distance of
1.2 - 3cm for approximately 20 minutes. The ultraviolet light transmission rate of the transparent lid is
about 70%. Contamination or foreign material on the
surface-which lowers transmission and prolongs
erase time-should be eliminated by the use of
alcohol or other solvent that will not damage the
package. Fig. 5 shows typical EPROM erasure
characteristics.

1.3 Data Retention
A.s a result of writing in. <,poroximately 0.5 to 2.0 x
10"3 coulomb of electrons are accumulated at the
floating gate. With the elapse of time. these electrons
decrease. which can result in inversion of stored data.
The mechanisms of electron dissipation are explained
as follows:
(1) Data Dissipation by Heat
The accumulation of electrons at the floating gate
is an unbalanced state. so the dissipation of thermally excited electrons is unavoidable. Data
holding time is closely related to temperature. Fig.
6 shows typical data retention characteristics.
(2) Data Dissipation by Ultraviolet Light
Ultraviolet rays at a wavelength of not greater
than 3.000- 4.oooAwili release the charge stored
in EPROMs. Prolonged exposure to fluorescent
light and sunlight. which contain some ultraviolet
rays. can cause data corruption. Fig. 7 shows
examples of data retention time using ultraviolet.
sunlight. and fluorescent light sources.

10

·
·

9
I,...,

10

L....

J§ ~

~

I~ ~
7t:: E8

5

AJO'

..

f--

-

- ALL(- f-I

\ §§§

~ §§
\§ ~ V

~

4

,/

10

300

~ ~ ~~

200

150

100

Storage Temperature (t)

Flg.6

Typical Data Retention Characteristics
106

- -

UV-Irr&hation

Flg.5

/

·,

10

/M1st Hard-to-Erase Bit

1'Ai:i:'~'\ §§ ~ ~
~~

V

10

I./Most Ersy-tr,Erase Bit

§§ ~ ,./

6

J
V

,

~~

(W'sec/cm2 )

40W Fluorescent Lamp

I~~
10'

Typical Erasing Characteristics

Ultraviolet Eraser
at 2,357A,6mW/cm 2

Fig.7

•

HITACHI

EPROM's data retention time

41

Programming" Erasing of P R O M s - - - - - - - - - - - - - - - - - - - - - - - - - -

9,

(3) Data dissipation by voltage'
This type of dissipation occurs while information is
being written in. High voltage at other memory
cells lying on the same word or data line as the cell
being programmed, can cause dissipation of
stored electric charge. Such defects are eliminated by inspection atthe factory. The programing
voltage and pulse width should always be kept
within specified limits.
1.4 EPROM Programmer
An EPROM Programmer stores program data from a
source in its internal RAM. and writes the program
data into an EPROM. A minimum of 3 functions are
necessary to accomplish this: the Blank check function prior to programming. the Programming function,
and the Verify function. As shown in the drawing.
programmers also are provided with a reverse insertion checking function. or pin contact checking function, prior to the Blank Check. The diagram is outlined
as follows:
(a) Pin contact check
Checking is performed by detecting the forward
current of each EPROM pin. This forward biased
resistance differs between product manufacturers.
(b) Reverse insertion check
This check detects reverse insertion of the device,
places the equipment in reset mode, and protects
the device and equipment.
(c) Blank Check
This function is performed prior to programming
to determine whether the EPROM is erased, or to
prevent EPROM reprogramming. With output data
in the erased condition at "1" (high). check
whether or not data inthe EPROM isalsoat"1." It
will failstop, if any "0" is detected. Normally, a
lamp or buzzer provides warning.
(d) Programming
Normal programming flow is shown below. An
EPROM data word will be read out prior to programming, and compared with programming
data. If they coincide, programming will be
skipped; and if they differ, programming will be
performed. Read out will be again compared with
programming data. and if they coincide, it will
progress to the next address.

42

,/

,/

""

....

....

....

.... ....

( ' Check Pi n Contact "

....

.... ....

,/

.... .... ,

,/

,/
,/
,/

(e) Verify
This function after programming completion,
checks that the programming is correct when
compared with data in the internal RAM of the
programmer. It performs fail-stop when data does
not coincide. lighting the fail lamp, and displaying
the address and data.

eHITACHI

- - - - - - - - - - - - - - - - - - - - - - - - - - - - P r o g r a m m l n g & Erasing of PROMs

(f) How to input the program
The following methods are given to input program
data to the internal RAM of the programmer.
Paper tape input and teletypewriter input are usually options.
Method
Copy input
Manual input

Content
Input by copying the master ROM.
Input by the keyswitch of the fron t
panel Used for correction or
revision of program

Paper tape input

Read the paper tape furnished
from the host system with the
tape reader

Teletypewriter
input

Input with the teletypewriter.
Preparation, correction and list
preparation of the program can be
made.

1.5 Handling EPROMs
Contact with a charged human body. plastics. or dry
cloth causes the glass window of an EPROM to generate static electricity which could cause device malfunction. Typical malfunctions are faulty blanking and
write margin setting. which give the impression that
information has been correctly written in. This malfunction is due to prolonged retention of electric
charge on the glass window. resulting from the static
electricity. It can be eliminated by neutralizing the
charges through short exposure to ultraviolet rays-a
procedure recommended before reprogramming. as it
also reduces charges in the floating gate. To prevent
charging of the window. use the following methods:

1.6 Shielding Labels
When using EPROMs in environments where ultraviolet exposure can occur. put a shield label over the
glass window to absorb ultraviolet light. Specially prepared labels are marketed. and metal-loaded types are
particularly effective. Few shielding labels meet all
environmental requirements established for EPROMs.
A suitable label must be chosen for each application
by considering the following label characteristics:
(1) Adhesive Strength
Avoid repeated attaching and dusting which may
reduce adhesive strength. Ultraviolet erasure and
reprogramming are recommended after stripping
off an attached label. If labels must be changed.
attach the new label over the old. since peeling
may develop a static charge.
(2) Temperature Range
Use a shielding label in an environment where
temperature falls within the specified allowable
range. Beyond this range. label paste may harden.
or remain on the window glass even after the label
is removed.
(3) Humidity Range
Use a shielding label where humidity does not
exceed the specified allowable range.

(1) Use a grounding system for the operator handling
EPROMs. and avoid use of gloves that may
develop a static charge.
(2) Refrain from rubbing the glass window with plastics and other substances that may develop a
charge.
(3) Avoid use of coolant sprays which contain ions.
(4) Use shielding labels with conductive substances
that can evenly distribute the established charge .

•

HITACHI

43

Programming

a

Erasing of P R O M s - - - - - - - - - - - - - - - - -_ _ _ _ _ _ __

2. PROGRAMMING BIPOLAR PROMS
2.1 Programming System
Bipolar PROM storage systems are classified as blown
diode type. and fuse type. In the blown diode system.
the Emitter-Base junction is short-circuited by A1.
which has penetrated into the Base because of a
current pulse applied to the E-B junction (Fig. 6).
Hitachi devices use the blown diode system. which is
considered to be more reliable.

Bit Line

Word Line

Fig.' Blown diodesyst_

In the fuse system (Fig. 5). the metal fuse is burned off
by current. and a grow back phenomenon. or migration and recombination of the metal. can occur.

C
. . . __S_T..,..AR_T_ _ _)
Open in
Programming

Bit Line

'.-

"...

I

Word Line

2.2 Programming Method
Programming is executed with conventional equipment (PROM writer). using a personality board suited
to the product.

"...1,

.....

"..."'" System Check ..... .....
check pin contact etc.) .......

<. . .(

" ,

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

Apply Program Pulse

A Blank check is first performed. Next write the
pattern you want to program. bit by bit. At every application of current pulse. confirm program by sensing
the output level. This process should be performed for
all bits into which you want to write. When programming is completed. Verify is performed.
At Blank Check. Sense and Verify. high OutpUt pin
level (non-programmed). or low level (programmed) is
checked by the sense current (Is). Vs -Is characteristics for normal series and S series is shown in Fig. 8
and 9. respectively. Specified value of Is for both series
is 20mA. and voltage reference level is 7.5V.
Fig. 10 and 11 show the relationship between program current and program pulse number for 1 bit to be
written. Program current is specified at 130mA in
normal series. and at 90mA in S series.

FIg.7 Progremming FI_ of PROM

- - - - - - - - - - - - - - - - - - - - - - - - - - P r o g r a m m i n g & Erasing of PROMs

12

>
~10
~

!

'0

>.,

---~===l

Decocler

_GND

Memory Matrix
64X64

o---~===l
A.o----t:;~=t_.J

A.

(OP-III

.PlN ARRANGEMENT

.ABSOLUTE MAXIMUM RATINGS
Symbol

Itein
Terminal Voltage-

VT

Power Dissipation

PT

Operating Temperature
Storage Temperature (Plastic)
Storage Temperature (Cerdip)
Storage Temperature··

T...
T.t •

• with respect to GND.
•• Under Bias •

.6.

T."
T.,.<6,u)

Value
-O.s.>to +7.0
1.0
o to +70
-55 to +125
-65 to +150

Unit
V
W
·C
·C

(Top View)

'c
'c

-10 to +85

-1. OV (Pulse Width S SOn8)

• TRUTH TABLE
CS
H
L
L

58

WE
X

H
L

Vee Current

Mode
Not Selected
Read
Write

Iss,
lee
Icc

$

lUI

HITACHI

I/O Pin
High Z
Dout
Din

Reference Cycle
Read Cycle
Write Cycle

---------------------------------------HM6148,HM6148-6,HM6148P,HM6148P-6
.RECOMt.t:NDED DC OPERATING CONDITIONS (Ta-O to +70'C)
Symbol

Item
Supply Voltage

GND
\.'I.

Input Voltage

typ

max

Unit

4.5

5.0

5.5

V

0

0

0

V

2.4
-0.3·

3.5

6.0

V

-

0.8

V

min

Vee

V'L
• V,L mln--1.0V(Plilse wldth$SOna)

.DC AND OPERATING CHARACTERISTICS (Vcc -5V±lO%, GND-OV, Ta=O to +10'C)
Item

Symbol

Test Condition
Vee-5.5V, V;.-GND to Vee

Input Leakage Current

IILlI

Output Leakage Current

Ihol
lee

CS-\.'IL, I,/O-OmA

Operating Power Supply Current
Average Operating Current

Standby Power Supply Current
Output Voltage
Notes)

leci

CS- \.'IL, Minimum Cycle, Duty-l00%, I"o=OmA
Cycle-150ns, Duty =50%, I"o-OmA

Is.

CS-\.'IH
CS;;: Vee-0.2V, V..;;;0.2V or

VOL
VOH

* Typical hmlts are at
** 'Reference only.

typO

max

-

-

2.0

-

-

2.0

JAA

35

80

mA

-

40

80

mA

35

-

mA

-

5

12

mA

-

20

800

JAA

-

0.4

V

-

V

CS-\.'I., V"o-GND to Vee

leez··
Issl

min

V..~ Vee-0.2V

I OL-8mA

1o.--3.2mA

2.4

Unit
JAA •

Vcc-S.OV. To-2S"C and specified loaclina.

• CAPACITANCE (Ta-25'C, f-lMHz)
min

max

Unit

Input Capacitance

Symbol

C..

V.. -OV

-

5

pF

Input/Output Capacitance

C,/O

\.'I,o-OV

-

12

pF

Item

Test Condition

Note) ThiS parameter is sampled and not 100% tested•

• AC CHARACTERISTICS (Vcc=5V±lO%, Ta=O to +10'C, unless otherwise noted)
eAC TEST CONDITIONS
Input Pulse Levels . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . ..
'nput Rise and Fall Times. . . . . . . . . • . . . . . . . . . . . . . . ..
Input and Output Timing Reference Levels······· .. .. ..
Output Load .•. '. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . ..
Load Circuit (A)

GND to 3.0V
IOns
1.5V
See Figure 1

~cc

SIOII

SlOQ

0...

• ineludes probe and
jil capacitance

U~to-----~----~

33011

:q

Load Circuit (8)

v«

,330Q

3OpF*

S.F

Fig. 1

.READ CYCLE
Parameter

Read Cycle Time

Symbol

Address Access Time

IBe
t ..

Chip Select Access Time

tACS

HM6148/P-6

HM6148/P
min

max

Unit

max

min

70

-

85

-

n.

-

70
70

-

85
85

ns

ns

Output Hold from Address Change

to.

5

ILz

10

-

10

-

ns

Chip Selection to Output in Low Z·
Chip Deselection to Output in High Z·

1Hz

0

40

0

40

ns

Chip Selection to Power Up Time

tpv

0

-

0

-

ns

Chip Deseleelion to Power Down Time

I'D

40

ns

-

40

5

-

ns

• Translhon IS measured ±50lhnV from hl,h uJlpedanc:e volt. With Load B. This parameter IS sampled and not 100% tested.

_HITACHI

59

HM6148, HM6148-6, HM6148P, H M 6 1 4 8 P - 6 - - - - - - - - - - - - - - - - - - _TIMING WAVEFORM OF READ CYCLE NO.1

Addre8S

Data out

(1)(2)

=*t-----~_.
_,oc-=~_
previous

Data valid

data valkl.

-TIMING WAVEFORM OF READ CYCLE NO.2")(')

Data valid

Data out

Vee supply
current

NOTES) 1. "WE" is high for Read Cycle.
2. Device is continuously selected,~= Va
3. Address Valid prior to or coincident with t:S' transition low .

• WRITE CYCLE
Parameter

HM6148/P

Symbol

min

HM6148/P-6

max

min

Write Cycle Time

Iwe

70

Chip Selection to End of Write

lew

50

-

60

Address Valid to End of Write

I.w

65

-

80

Addres. Setup Time

I. .

15

tWPl

50

Iwl'l

'65

Write Pulse Width·
Write Recovery Time

60

-

-

35

0

45

low

0

-

0

-

* When the CS low transition occurs simultaneou.ly with the WE low transition or after the WE transition. 110 pina remain in a hip

*.

slate. In this case '''1'1. in the other case lwp. (-'.,.+IDW).
Transition is measured ±6QOm:V from hiBh impedance voltqe with Load B. This plrameter is .ampled and not 100% tested.

•

HITACHI

ns

DS

0

Output Active from End of Write··

ns
ns

Iwz

Write Enabled to Output iD High Z..

ns.

DS

5

30

I ••

ns

5
35

I.w

Data Hold Time

ns

-

5

Data Valid to End of Write

Unit

80

-

5

60

-

15

-

-

Iwo

Notes)

-

85

max

DS
DS
DS
impedance

---------------------------------------HM6148,HM6148·6,HM6148P,HM6148P.6
-TIMING WAVEFORM OF WRITE CYClE NO.1(WE CONTROLLED)

-

(I)

/Wc

Addrels_

IT

I~

~----------~w'----------1,~~~-r~~~~

~N

/ /// ///
J.--'-,·-..",----'Ii2'I---I!-----....!!!."""L......-...!!.

___..:..I-.....".;.:..--!-.d.......

.-. r:~_tDw- ID~ I ~
)lex

..2Y'f-twz

««««

J

~IOW~
171

HlshImpedanee

~

-TIMING WAVEFORM OF WRITE CYClE NO.2(CS CONTROLLED)'!)

-

-

Iwc

Address - - /
I,w

!---tAS

Icw

-

..,·1'1-

tll'l'l·[~l_

/7// ///

"""""""
XXXX

~DW

XX
1'1

XXxx

10.

YX

X

)()(

High Impedance

Dout

Notes)
1. CS and WIT are paced in the WRITE state during low level period
(tw)·

2. A write occurs during the overlap of a low CS and a low "WE: (twp)

3. t WR is measured from the earlier of CS or WE" going high to the end

of write cycle.
4. During this period, I/O pins are in the output state so that the input
signals of opposite phase to the outputs must not be applied.
5. If the CS" low transition occurs simultaneously with the "WE low
transition or after the WE transition, the output buffers remain in a
high impedance state.
6. IfCS"is low during this period,'1/O pins are in the output state.
Then the data input signals of opposite phase to the outputs must
not be applied to them.
7. Dout is the same phase of write data of this write cycle .

•

HITACHI

61

HM6148, HM6148-6, HM6148P, HM6148P-6--~:----------------ACCESS TIME

VB.

ACCESS TIME VI. Ta

Vee

1.2

1.2

Vcc-sv

TIl=2S-c

~
I
;::

L

1

1

1.0

~
-..............

9

4.75

5.25

5.0

V

V

~

9

0.8

0.8
4.5

/"

(}

5.5

o

.0

20

60

.,o\mbiPhl Temper.lurt'

Supply Voltage Vce tV)

Ta

80
,'C,

SUPPLY CURRENT VB. Vee

SUPPLY CURRENT VI. Vee

8

0

TII-25"(

r.=25"e

6

0

~

V-

~

~

...,...,.~

2

0

10

'.5

~

•

5.0

'.75

5.25

5.5

'.5

'.75

~

5.0

5.25

Supply \'oltagp ft"{,

Supply Voltagt' Vee (V,

SUPPLY CURRENT

SUPPLY CURRENT VI. Ta

VB.

5.5

~\,\

Ta

(}

~'cc=5V

Vcc=5V

-~ .'

.

j

0

6

.::

o

t:-------..

t-

-t---

t--- t----

t-

t---I -

O

0

20

'0

0

60

80

Ambient Temperature To ("e)

62

20

.u

Ambient Tpmperalure

_HITACHI

60
Til

!l:)

00

---------------------------------------HM6148.HM6148-6.HM6148P.HM6148P-6
SUPPLY CURRENT vs. Vee
(STANDBY)

SUPPLY CURRENT vs. Ta
(STANDBY)

0

0

To=25'C

/

Vcc=5V
5

5

V"
./

0

/

o. 5

/

0

/"

/

~ o. 5

,I

o

>.

/

J
o. I

o. I
3.0

5.0
Supply Voltage

6.0

20

.0

60

80

Ambient Temperature Ta (OC)

V('C (V)

eHITACHI

63

HM6148LP, HM6148LP-6
1024·wordX4-blt High Speed Static CMOS RAM
.FEATURES
• Single 5V Supply
• Fast Access Time •.•.•.....•.• HM6148LP 70 ns (max.)
HM6148LP-6 85 ns (max.)
• Low Power Standby and Low Power Operation;
Standby: 5J,IW(typ)
Operation: 200mW (typ)
• Completely Static RAM; No Clock or Timing Strobe Required
• No Peak Power-On Current
• No Change of t ACS with Short Deselected Time
• Equal Access and Cycle Times
• Directly TTL Compatible; All Inputs and Outputs
• Three State Output
• Common Data Input and Output
• Capability of Battery Back Up Operation
• Pin-Out Compatible with Intel 2148

(DP-18)

.PlN ARRANGEMENT

.BLOCK DIAGRAM
A.~.---t:~==1
A.~---C~=~
A,~-:..--C~==I

- - 0 Vee

Row
l)ecucier

---0

Memor" Matrix

GNiJ

64)(.04

A.o---~==t

.A.o---~==t_-.J
(Top View)

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Value

Unit

Terminal Voltalle'

VT

-0.5.to +1.0

V

Power Di.sipation

PT

1.0

W

Operating Temperature

T."

o to

+10

Storage Temperature

T.,.

-55 to +125

·c
·c

-10 to +85

·C

Storage Temperature··
• with , ...... to GND.
•• Under Bias

64

T. .. t ••• .,
'" -1.OV (Pulse Width" 50 .. )

•

HITACHI

---------------------------------------------------HM6148LP,HM6148LP·6
.TRUTH TABLE
CS

WE

Mode

H

X

Not Selected

L

H

Read

L

L

Write

Vee Current

Iss,

Reference Cycle

I/O Pin
High Z

ISBJ

Icc
Icc

Dout

Read Cycle

Din

Write Cycle

.RECOMMENDED DC OPERATING CONDITIONS (Ta=O to +70·C)
Item

max

Unit

5.0

5.5

V

0

0

0

V

V,H

2.4

3.5

6.0

V

V,L

-0.3"

-

0.8

V

min

Vee

Supply Voltage

GND

Input Voltage
• v" min--1.0V(Pulse

typ

4.5

Symbol

widch~50ns)

.DC AND OPERATING CHARACTERISTICS (Vcc =5V±lO%. GND=OV, Ta=O to +70·C)
Symbol

Item
Input Leakage Current
Output Leakage Current
Operating Power Supply Current
Average Operating Current

Standby Power Supply Current

Output Voltage
Notes)

* Typical limits are at
** Ref(lrence only,

Test Condition

liL.1
I lLU I

CS- V,H. V, o-GND to Vee

Vce -5.5V.

\r.~=GND

min

typ·

max

-

-

2.0

pA

-

2.0

pA

35

80

rnA

40

80

rnA

to Vee

Unit

Icc

CS- V,L, ho-OmA

IcCi

CS- V,L. Minimum Cycle. Duty-l00%>. I,,,,-OmA

-

Ic:C2 ••

Cycle -150ns. Duty-50%. I"o-OmA

-

35

-

rnA

Is.

CS- V,H

5

12

rnA

Iss I

CS;;: Vee-0.2V, V..:i>0.2V or

1

100

pA

VOL

I",.-8mA

-

-

0.4

V

VOH

Inu- -3.2mA

2.4

-

-

V

v..;;: Vce-0.2V

Vec-5.0\', Ta-2S'C and specifiHl loading.

.CAPACITANCE (Ta=25·C. /=lMHz)
Symbol

min

max

Unit

Input Capacitance

Item

C..

v..=OV

-

5

pF

Input/Output Capacitance

C,~

v"o-OV

-

12

pF

~otf')

This parameter is sampled and

nt)t

100%

Test Condition

tpsted •

• AC CHARACTERISTICS (Vcc -5V±lO%. Ta=O to +70·C. unless otherwise noted)
eAC TEST CONDITIONS
Input Pulse l.evels ................................. GND to 3.0V
Input Rise and Fall Times ........................... 10ns
Input and Output Timing Reference Levels .....•. , ...... 1.SV
Output Load .•...•..•..•.............•........... See Figure

:q

Load Circuit (8)

Load Circuit (A)
II<,

Vee

SlUll
[),

0 .... o---~--4

..

Sloa

330a

330Q

S.F

• includes probe and
jil capacitance.

eH1TACHI

65

HM6148LP,HM6148LP·6--------------------------------------------------READ CYCLE

Read Cycle Time
Address Aceess Time
Chip Select Access Time
Output Hold from Address Change
Chip Selection to Output in Low Zo
Chip Deselection to Output in High zo
Chip Selection to Power Up Time
Chip Deselection to Power Down Time

HM6148LP-6
max

HM6148LP

Symbol

Parameter

min

max

min

I ftC

70

-

85

-

I"

-

70
70

-

85
85

tACS

Ipu

5
10
0
0

IPD

-

10.

ILz
I.z

-

-

-

5
10
0
0

-

40

-

40

-

-

40

40

Unit
ns
ns
ns
ns
ns
ns
ns
ns

• Transition is measured ±500mV from hiBh impedance voltage with Load B. This parameter is sampled and not 100% tested.

-TIMING WAVEFORM OF READ CYCLE NO.1

(1)(2)

v=

I-----------..c--------~'"i

Address

=t-toH--'-AA:::::'~'-1

-----

previous
Data out

---

Oata valid

data vafid

_TIMING WAVEFORM OF READ CYCLE NO.2'"<3l

Data valid

Data out

Vee supply
current

NOTES) 1. "WI! is high for Read Cycle••
2. Device is continuously selected,<::s" = VIL
3. Address Valid prior to or coincident with ~ transition low.

-WRITE CYCLE
Parameter
Write Cycle Time
Chip Selection to End of Write
Address Valid to End of Write
Address Setup Time
Write Pulse Width

Symbol.
Iwe
lew
lAW
lAS
tWl"

O

Write Recovery Time
Data Valid to End of Write
Data Hold Time
Write Enabled to Output in High Z..
Output Active from End of Write"

IwPl
Iw.
IDW
ID'
Iwz
low

min

HM6148LP
. max

70
50
65
15
50
65
5
30
5
0
0

-

-

-

35

-

HM6148LP-6
max

min

85
60
80
15

60
80
5
35

-

-

5

-

0
0

45

-

Unit
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns

Notes} • When the CS low transit.ion occurs simultaneously with the WE low transition or after the WE transition. 1/0 pins remain in a high impedance
atate. In this ease '''PI. in the other ca.e t",.1 (-tlfz+IDIf) .
Transition is measured ±SOOmV from high impedance voltage with Load 8. This parameoter i. iampled and not 100% tested.

•*

66

_HITACHI

---------------------------------------------------HM6148LP,HM6148LP·6
eTIMING WAVEFORM OF WRITE CYCLE NO.1(WE CONTROLLED)'l)

I.,
'1'-________________-"li'-_ _

Addreu _ _

1------tc·'-----t~~"7'"7'"...._r'7""7
I ••

0 ..
twz(t]

00 ..

eTIMING WAVEFORM OF WRITE CYCLE NO.2(CS CONTROLLED)")

--

/w,

A,ddreu

-

I ••

,.

~tAS

cs
_tw"l!l....'''P\-(Z}_

'\.'\.'\.'\.'\.'\.'\.

////
•

~DIV

XXXXXXXXXXXJI\.

)l(XXX

I

(s)

///

I ..

xxx

Hllh Impedance

Notes)
1. "CS and WE" are paced in the WRITE state during low level period
(tW)·

2. A write occurs during the overlap of a low (;S" and a low WE: (twp)
3. tWR is measured from the earlier of ~ or
going high to the end
of write cycle.
4. During this period, I/O pins are in the output state so that the input
signals of opposite phase to the outputs must not be applied.
S. If the 3 low transition occurs simultaneously with the -wE low
transition, the output buffers remain in a
transition or after the
high impedance state.
6. If 3 is low during this period, 1/0 pins are in the output state.
Then the data input signals of opposite phase to the outputs must
not be applied to them.
7. Dout is the same phase of write data of this write cycle .

wr

wr

• LOW Vee DATA RETENTION CHARACTERISTICS (Ta-O to +70'C)
Symbol

Parameter
Vee for Data Retention

YD.

Data Retention Current

IccDR.

Chip Deselect to Data Retention Time

tCDR

Operation Recovery Time

I.

*

Test Condition
v..;;: Vcc-0.2V or V..:>0.2V
Vcc=2.0V, cs;;: 1. 8V. V..=1.8V or V..:>0.2V

CS;;: Vcc-O.2V.

See Retention Waveform·

min

typ

2.0

-

Unit
V

40

fAA

0

-

-

ns

he·

-

-

ns

-

max·

hr - Read Cycle Time

e LOW Vee DATA RETENTION WAVEFORM
Data Retention Mode

~,--------~I~----~~==~=-----~,-------4.SY - - - - - - ---

CS;;; Vcc-O.2V

cs----J
OY--- - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -

•

HITACHI

67

HM6148LP,HM6148LP·6-------------------------------------------------ACCESS TIME VI. Ta

ACCESS TIME VI. V«
1.2

Vcc=5V

r.-25"C

]

I

.1

~

1.0

j
o.9

~

JI'

I .1

V

!

'"'"

I
;:

~

~

j

./

1.

°V

:: o.9

~
0.8

0.8

4.5

4.75

5.0

5.25

5.5

o

40
60
Ambient Temperature Ta rC)

20

Supply Volt. .e Vee (V)

SUPPLY CURRENT VI. V"

SUPPLY CURRENT VI. Vee
0

8

r.=25"e

r.=25"e

0

e

6

30

~

8

1V

~

V

10
4.5

~

4

V-

~

2

0

4.75

5.0

4.7f

5.5

5.0

5.25

5.5

Supply Voltale Vee (V)

SUPPLY CURRENT VI. Ta

SUPPLY CURRENT VI. Ta

8

0

Vcc=5V

Vcc=5V

6

0

r---

-r--

r-- t----

I--

0

68

~

0

5.25

Supply Volta,e Vee (V)

10

80

2

o

--

0
40
60
Ambient Temperature To COC)

20

80

20

40

r-

60

Ambient Temperature Ta (t)

eHITACHI

80

---------------------------------------------------HM6148LP,HM6148LP-6
SUPPLY CURRENT vs. Ta
(STANDBY)

SUPPLY CURRENT vs. Vee
(STANDBY)
0

0

T4=25'C

0

o. 5

o. 1

/

VC'c=5V
5

5

~

V

V
./

/

;: o. 5

~
v

.I

o. I
3.0

/

0

5.0

6.0

V

20

,0

60

80

Ambient Tt>mper&lurt' Ttl ('e,

Supply Voltage V('c (Vl

eHITACHI

69

HM6148H-35, HM6148H-45,
HM6148H-55, HM6148HP-35,
HM6148HP-45, HM6148HP-55
Prelimina ry
1024-word x 4-bit High Speed Static CMOS RAM
• FEATURES
• Fast Access Time ........•.••...... 35/45/55n5 (max)
• Low Power Standby and Low Power Operation;
Standby: 100 IlW (typ.), Operation: 200mW (typ.)
• Single 5V Supply
• Completaly Static RAM: No Clock or Timing Strobe Required
• No Peak Power-On Current
• No Change of tACS with Short Deselected Time
• Equal Access and Cycle Times
• Directly TTL Compatible; All Inputs and Outputs
• Common Data Input and Output; Three-State Outputs
• Pin-Out Compatible with Intel 2148H

HM6148H Series

(DG-lS)

HM6148HP Series

• BLOCK DIAGRAM
Ao 0----1::(=:]"1
A.o----1t::c=:::I
Ao o----1OC=:J Row

- - 0 Vee

Memory Matrix
64x64·

o----{::L=:::t Docodo,
Ao o----{::L=:::t

A.

--.oCND

1/0.0--.......1">---1
110. o--rt+i>--~

(DP-lS)

110.0--.+++11">---1

• PIN ARRANGEMENT

110. o-tltffil>---L_~

.

.ABSOLUTE MAXIMUM RATINGS
Symbol

Item
Terminal Voltage-

VT

Power Dissipation

PT

Operating Temperature

T.,.

Ratings

Unit

-0.5 to +7.0

V

1.0

W

o to

+70

Storage Temperature (Plastic)

T.,.

-55 to +125

Storage Temperature (Ceramic)

T"6

-65 to +150

Storage Temperature··

T" ..

-10 to +85

·C

·c
·c
·c

V" ... --3.5V (Pulse wuth-20ns)

• with respect to GND.
e. under bi••

(Top View)

• TRUTH TABLE
Mode

Vee Current

Reference Cycle

WE

H

X

Not selected

ISSt

L

H

Read

Icc

Dout

Read Cycle 1. 2

L

L

Write

Icc

Din

Write Cycle I, 2

Issl

Note) The specificationa of this device are subject to change !Nithout notice.
Please contact your nearest Hitachi's Sales Dept. regardiD8' specific.tiona.

70

I/O Pin

CS

_HITACHI

High Z

- - - - - - - - - - - - - - - - - - - - H M 6 1 4 8 H - 3 5 , HM6148H-45, HM6148H-55,
HM6148HP-35, HM6148HP-45, HM6148HP-55

• RECOMMENDED DC OPERATING CONDITIONS (Ta=O to +70'C)
Symbol

Item

min

typ

max

4.5

5.0

5.5

V

0

0

0

V

V,.

2.2

-

6.0

V

VIL

-0.5·

-

O.S

V

Vee

Supply Voltage

GND
Input Vol tage

Unit

• -3.0V (Pol.. width 2On.)

.DC AND OPERATING CHARACTERISTICS[1] (Ta=O-70·C. Vcc-5V±IO%.GND=OV)
Symbol

min

typ

max

Unit

Vee-max, V..-GND to Vee

-

}fA

~- VI., VI/~-GND to Vee

2.0

}fA

Operating Power Supply Current

Icc

<::S -

-

-

2.0

Output Leakage Current

IlL. I
IlLol

35

80

mA

Operating Power Supply Current: AC

IccI

min. cycle, ~-V,L,Il/o-OmA

-

50

100

mA

Standby Power Supply Current: DC

Iss

<::S- VI.

-

5

20

mA

Standby Power Supply Current(l): DC

Issl

<::S~Vee-0.2V, VI.;:OO.2V or

-

20

800

}fA

-

0.4

V

-

V

Parameter'

Input Leakage Current

Test Conditions

VI L, 11/ 0 - OmA

VI.s: Vee-0.2V

Output Low Voltage

VOL

IOL-SmA

Output High Voltage

Vo.

Io.--4.0mA

2.4

Notes

(2)

Notes} 1. Typical limits are at Vcc-5.0V. Ta-+2S"C and specified loadina:.
2. l20mA ..... for HM6148HP-35

.CAPACITANCE (Ta=2S·C. j=lMHz)
typ

max

Unit

Input Capacitance

C"

V,,-OV

3

5

pF

Input/Output Capacitance

el/o

VI/O-OV

5

7

pF

Symbol

Item

Test Conditions

Note) This parameter is sampled and not 100 % tested.

• AC CHARACTERISTICS (Vcc-SV±10%, Ta-O to +70'C)
.RISE FALL TIME
min

typ

max

Input Rise Time

I,

-

5

100

ns

Input Fan Time

1/

-

5

100

ns

Symbol

Item

Unit

.AC TEST CONDITIONS
Input pulse levels: GND to 3.0V
Input rise and fall times: 5ns
Input and Output timing reference levels: I. 5V
Output load: See Figure
5\'

lJout-...,..--i

5\'

3L ______

~--"""\,

Dout

255Q

ov
t.
Output Load (A)

Output Load (B)

(for hz. tu. 'wz, toW')
• Including scope &: j

t~-tl-5ns

Input Pulse Waveform

i,.

•

HITACHI

71

H~6148H-35, HM6148H-45, HM6148H-55, - - - - - - - - - - - - - - - - - - - HM6148HP-35, HM6148HP-45, HM6148HP-55

.AC CHARACTERISTICS (Ta=O to 70'C, Vcc =5V±10%, unless otherwise noted.)
eREAD CYCLE
Item

HM6148HP-35

HM6148HP-45

min

max

min

max

HM6148HP-55

Symbol
min

max

Unit

Read Cycle Time

he

35

-

45

-

55

-

ns

Address Access Time

I.A

35

-

55

ns

lACS

-

45

Chip Select Access Time

-

45

-

55

ns

Output Hold from Address Change

ION

5

Chip Selection to Output iii Low Z

lLz·

10

Chip Deselection to Output in High Z

tHZ·

Chip Selection to Power Up Time

Ipu

Chip Deselection to Power Down Time

35

-

10

0

20

0

-

-

IPD

-

5

-

ns

10

-

ns

0

20

0

20

ns

0

-

0

-

ns

30

ns

5

-

30

-

30

* At

Transition is measured ±500mV from high impedance voltage with Load(B). This parameter is sampled and not 100% tested.
any temperature and voltage condition 1HZ max is less than fa min.

eTIMING WAVEFORM ~F READ CYCLE NO.1

."

~
Address

(1)(2)

~

."

'0'

'ON

:tXX

DOllt

Data

r--'--

Valid

eTIMING WAVEFORM OF READ CYCLE NO.2(1)(3)

."
.,.

."

INz

Dala \"Illid

High Impedance

Oout

Vee supply

---- -

Impedance

------Ir-------------------,.+
50%

current

In

Notes) 1. WE is High for Read Cycle.
2. Device is continuously selected. CS- V"..
3. Address Valid prior to or coincident with

72

•

CS transition Low.

HITACHI

- - - - - - - - - - - - - - - - - - - - H M 6 1 4 8 H - 3 5 , HM6148H-45, HM6148H-55,
HM6148HP-35, HM6148HP-45, I1M6148HP-55
• WRITE CYCLE
Item

HM6148H/P-35

HM6148H /P-45

min

max

min

max

HM6148H /P-55
min

max

45

-

55

-

••

40

-

50

-

n.
ns

Unit

Symbol

Write Cycle Time

Iwe

35

Chip Selection to End of Write

lew

30

Address Valid to End of Write

t.w

30

-

40

-

50

-

Address Setup Time

t ..

0

-

0

-

0

-

Write Pulse Width

twP

30

-

35

-

40

-

ns

--ns

Write Recovery Time

tWR

5

-

5

-

5

t.w

20

-

20

-

20

-

ns

Data Valid to End of Write
Data Hold Time

IOH

0

-

0

-

0

-

n.

0

15

0

20

n.

0

-

0

-

n.

Write Enabled to Output in High Z·

Iwz

Output Active from End of Write *

* Transition is measured ± SOOmV from
This parameter

is sampled and not

tow

0

10

0

-

ns

high impedance voltage with Load B.

100 % tested.

• TIMING WAVEFORM OF WRITE CYCLE NO.1 (WE Controlled)

Address

..,

--..

"""

1<.

N.

I••

-'''--l

"'''
D,.
(')

Do ..

«««

- ..z~

( (

• TIMING WAVEFORM OF WRITE CYCLE NO.2

Addre ••

v---

1-

-

t",.·~

/j// ///
_
...!!L.-

. . . . ..1-:=1s._Is.~~
--1f..
xx
-...~
Hilh Impedance

(CS

Controlled)

..c

I••

f--t"

1<.

r--....

~)-

,.,.(1)_

."-,, "
Din

" " ""

////

.I::::::!'"

XXXXXXXXXXXX

///

Is.

XXXX

xXX

Hilb. Impedance(4)

Do..
NOTES of
1.
2.
3.

Timina Waveform of Write
A write occurs during the overlap of a low CS and a low WE. (h,.)
t IVII is measured from the earlier of CS or WE' goiDg hiBb to tbe end of write cycle.
During this period.
pins are in the output state so that the input signals of opposite phase to the outputs must not be applied.
4. If the 'CS' low transition oceurs simultaneously with the 'WE low transition or after the WE transition. the output buffers remain
in a high impedanee state.
5. If C! is low during this period. VO pins are in the output state. Then the data input signals of opposite phase to the outputs
must not be applied to them.
6. Dout is the same phase of write data of this
•
wr;', cycle.
0

va

HITACHI

73

HM6148HLP-35, HM6148HLP-45;
HM6148HLP-55
Preliminary
1024-word x 4-bit High Speed Static CMOS RAM
• FEATURES
• Low Power Standby and Low Power Operation;
Standby: 5p.W (typ.). Operation: 300mW (typ.)
• Fast Access Time: 35/45/55ns (max)
• Capability of Battery Back Up Operation
• Single 5V Supply
• Completely Static RAM: No Clock or Timing Strobe
Required
• No Peak Power-On Current
• No Change of tACS with Short Deselected Time
• Equal Access and Cycle Time
• Directly TTL Compatible: All Inputs and Outputs
• Three State Output
• Pin-Out Compatible with Intel 2148H

(OP-IS)

• PIN ARRANGEMENT

• BLOCK DIAGRAM

A.o---OC==li
A. ---l:::C=:::::l
A. ---l:::C=:::::l Row
A. __-l:::C=:::::llleeod"

Memory Matrix

--OGND

64X64

A.o---l:::C=:::::l
A. o---~===L.-.J
1/0. --~r>---I

110. o-~tHl>---I
I/O. o--rl++-1I>---I
1/0• ......t+ttHl>---L_-.J

(Top View)

• ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Ratings

pnit

Terminal Voltage·

VT

-0.5 to +7.0

V

Power Dissipation

PT

1.0

W

Operating Temperature

T"PF

o to

+70

·C

Storage Temperature

Tit.

-55 to +125

·C

Storage Temperature··

T6/u

-10 to +85

·C

V" ... --3.5V (Pulse width-20ns)

• with respect to GND•
•• under bias.

• TRUTH TABLE
CS

WE

H

X

Not selected

IsB.

L

H

Read

Icc

Dout

Read Cycle 1. 2

L

L

Write

Icc

Din

Write Cycle I. 2

Mode

Nqte) The specifications of this device are subject to challP, ,vithout notice.
Please contact your nearest Hitachi's Sales Dept. regarding specifications .

74

I/O Pin

Vee Current
ISBI

•

HITACHI

Reference Cycle

High Z

- - - - - - - - - - - - - - - - - H M 6 1 4 8 H L P · 3 5 , HM6148HLP·45, HM6148HLP·55

.REC·OMMENDED DC OPERATING CONDITIONS (Ta-O to +70'C)
Item

Symbol

Supply Voltage

typ

max

Unit

4.5

5.0

5.5

V

0

0

0

V

min

Vee
GND

Input Voltage

*

V,.

2.2

VIL

-0.5

*

-

6.0

V

-

O.B

V

-3.0V (Pulse width 20ns)

.DC AND OPERATING CHARACTERISTICS[1] (Ta-O-70'C, Vcc -5V±lO%,GND-OV)
Symbol

Parameter

Input Leakage Current

Test Conditions

I

Vee-max, V..-GND to Vee

Ihol

IILl

Operating Power Supply Current: DC

Icc

C"S- Vi., Vi,o-GND to Vee
C"S- ViL, Il/o-OmA

Operating Power Supply Current: AC

1eci

min. cycle, ~ -

Standby Power Supply Current: DC

Is.

~-ViH

Standby Power Supply Current(l): DC

lsal

Output Leakage Current

v,-;., I//o-OmA

Vi.;;: Vee-O. 2V

VOL

IOL-BmA

Output High Voltage

VO H

IOH--4.0mA

typ

max

Unit

-

-

2.0

/lA

2.0

/lA

35

80

rnA

50

100

rnA

5

20

rnA

-

C"S;0.2V or

Output Low Voltage

min

2.4

1

50

/lA

-

0.4

V

-

-

V

Notes

(2)

Notes) 1. Typical limits are at Vcc -5.0V, Ts- +ZS"C and specified loading'.

2. l20mA max. lor HM6148HLP-35

• CAPACITANCE (Ta=25'C, f=IMHz)
typ

max

Unit

Input Capacitance

C..

V .. -OV

3

5

pF

Input /Output Capacitance

el/o

VI/O-OV

5

7

pF

Symbol

Item

Test Conditions

Note} This parameter is sampled and not 100% tested.

• AC CHARACTERISTICS (Vcc=5V±1O%, Ta-O to +70'C)
eRISE FALL TIME
Symbol

Item
Input Rise Time

I.

Input Fan Time

I,

Unit

min

typ

max

-

5

100

ns

5

100

ns

.AC TEST CONDITIONS
Input pulse levels: GND to 3.0V
Input rise and fall times: 5ns
Input and Output timing reference levels: 1.5V
Output load: See Figure
5\"

Dou,-..,..--1

5\"

31.:.. ______.r-_ _ _... ,
Dout

2552

ov

Output Load (A)

Output Load

(8)

(for tHz,tu,hrz.low)

*

..
t.-f,-Sns
Input Pulse Waveform

Including scope & jig.

•

HITACHI

75

HM6148HLP·35, HM6148HLP·45, H M 6 1 4 8 H L P . 5 5 - - - - - - - - - - - - - - - - .AC CHARACTERISTICS (Ta=O to 70'C, Vcc =5V±10%, unless otherwise noted.)
_READ CYCLE
HM6148HLP-35

HM6148HLP-55
Unit

max

min

Read Cycle Time

!Re

Address Access Time

!AA

~hip

HM6148HLP-45

Symbol

Item

Select Access Time

tACS

min

max

min

max

35

-

45

-

55

-

ns

-

35

-

45

-

55

ns

45

-

55

ns

35

Chip Selection to Output in Low Z

fLz*

10

-

10

--

10

-

Chip Deselection to Output in High Z

tHZ·

-0

20

0

20

0

20

ns

Chip Selection to Power Up Time

!PU

0

-

0

-

0

-

ns

30

ns

Output Hold from Address Change

5

!OR

Chip Deselection to Power Down Time
!PD
* Transition is measured ±500mV from bigh impedance voltage with Load(B).
At any temperature and voltage condition

1HZ

5

-

30

5

-

ns
ns

-

30

This parameter is sampled and not 100% tested.

max is less than I£z min.

eTlMING WAVEFORM OF READ CYCLE NO.1

(1)(2)

,,,
~
Address

,,,

~

'ON

ioN

~ XX

Oout

-TIMING WAVEFORM OF READ CYCLE

V--

Data Valid

~

NO.2(t)(S)

,,,

".

IN.

tACS

High Impedance

1"
Vee supply

-----

current

Dala Valid

''"

-----ir----------------.:.--"""\+
50%

1..

Note.) 1. WE is High for Read Cycle.

2. Device is continuously selected. CS- VIt..
3. Address Valid prior to or coincident with

76

High

Impedance

•

CS

transition Low .

HITACHI

--------------------------------~HM8148HLP-35.HM8148HLP-45.HM8148HLP-55

• WRITE CYCLE
HM6148HLP-35
Item

HM6148HLP-45

HM6148HLP-55

Symbol

Unit

min

max

min

max

min

max

45

-

55

-

ns

40

-

50

-

ns
ns

Write Cycle Time

Iwe

35

Chip Selection to End of Write

10K

30

-

Address Valil to End of Write

I",

30

-

40

-

50

Address Setup Time

I...

0

-

0

-

0

-

Write Pulse Width

Iwp

30

-

35

-

40

-

ns

Write Recovery Time

I...

5

-

5

-

5

-

ns

Data Valid to End of Write

low

20

20

-

ns

I..

0

0

-

20

Data Hold Time

-

0

-

ns

Write Enabled to Output in High Z'

Iw.

0

10

0

15

0

20

ns

Output Active from End of Write'

low

0

-

0

-

0

-

ns

ns

• Transition i. mea.ured :I: SOOmV from high impedance voltage with Load B.
This parameter is sampled and not 100 % tested.
AU inputs ,~. 1/ (rise and faU time) are less than lOOns.

• TIMING WAVEFORM OF WRITE CYCLE NO.1 (WE Controlled)

Addreal

-

,

In
//// ///
... ....-2l....- I---""l!l...-

~~

--1

- 1..

~

..:c

.1:=....-

XX

Din
.1

00.1

( ( ( (

( ( (

(

(3)

wz~

'j()(

~I:-~

Hiib Impedance

.TIMING WAVEFORM OF WRITE CYCLE NO.2 (CS Chntrolled)

Adclrest

-

I -

I,.
~,

Ie.

,.,.(1)_

-

.... (2)-

////

" " " " " ""
Din

-

we

xxxxxxxx

XX~

///

to.

YXXX

XXX

High Impedance (tl

Notes of Tming Waveform of Write :

1. A write occurs during the over"pf~ .. low "C"S" and a low W. (tn)
2. hR is measured from the earlier of ~ or WE'" ping high to the end of write cycle.
3. During this period. I/O pins are in the output state so that the input sip." of opposite phase to the outputs must not be applied.
,. If the 'C'S DW transition occurs simultaneously with the WE low transition or after the 'WE' transition, the output buffers remain in a high impedance state.
s. 1t"C"S'" is low during this period. I/O pins are in the output state. Then the data input signals of opposite' phase to the outputs must not be applied to them.
6. Dout is the same phase of write data'of this write cycle.

•

HITACHI

77

HM6148HLP-35,HM6148HLP-45,HM6148HLP-55----------------------------------.LOW Vee DATA RETENTION CHARACTERISTICS (O'C:;;Ta:;;70'C)
Symbol

Parameter

Test Conditions

VD.

Vee for Data Retention

~;;;Vee-0.2V

Data Retention Current

IccDR

Chip Deselect to Data Retention Time

tCDR.

Operation Recovery Time

h

Note) 1. he-Read Cycle Time.

•

.*

v..;;; Vee-O. 2V

or

min

typ

2.0

-

-

0

0";:;; Vi.;;;;0.2V

hC(I)

max

-

-

-

ns

-

-

n8

-LOW Vee DATA RETENTION WAVEFORM

~-------

4.SV---------

ir---"'--\ ______ J~ __

_____ _

;;:: VDa -O.2V

cs ___--'

ov-----------~-------------------------------

78

•

HITACHI

V

30·
20"

Vcc-3.0V
Vcc-2.0V

vcc-------""\ 1-_ _ _ _-"D"'A....TA""R"'E...T""Ell.NT!..iIO"'N'-'M""O"'D"'E~_ _ ___I

Unit

JlA

HM8147, HM8147-3
HM8147P, HM8147P-3
4096-word x 1-bit High Speed Static CMOS RAM
.FEATURES
• Single 5V Supply and High Density 18 Pin Package
• High Speed: Fast Access Time 55ns/70ns Max.
• Low Power Standby and Low Power Operation,
Standby:100IlW typ., Operation: 75mW typo
• Completely Static Memory - No Clock nor Timing Strobe
Required
• No Peak Power-On Current
• No Change of t ACS with Short Chip Deselect Time
• Equal Access and Cycle Time
• Directly TTL Compatible - All Input and Output
• Separate Data Input and Output: Three State Output
• Pin·out Compatible with Intel 2147 NMOS STATIC RAM

HM6147. HM6147-3

( ))(;-18)

HM6147P. HM6147P-3

.BLOCK DIAGRAM
A.

- - - - 0 Vcr

Memory Matrix

Row
Decoder

64X64

- - - - 0 GND

Ao

A.

A,

HI >---0

Din

00"

.PIN ARRANGEMENT

cs

WE

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Voltage on Any Pin relative to GND·

Vr

-0.5 to +7.0

V

Power Dissipation

PT

1.0

W

Operating Temperature

7;".

+70

·c

o to

Unit

Storage Temperature(Ceramic)

T. ..

-65 to +150

·C

Storage Temperature(Plastic)

T. ,•

-55 to +125

·c

•

V/.''I

min - -1.0V (Pulse Width

~

(Top View)

20n.)

.RECOMMENDED DC OPERATING CONDITIONS (O'C::;;Ta::;;70'C)
Parameter
Supply Voltage
Input High (logic 1) Voltage
Input Low (logic 0) Voltage

*

Symbol
Vee

GND
Vi.
Vi.

typ

max

4.5

5.0

5.5

V

0

0

0

V

2.2

3.5

6.0

V

-

0.8

V

min

-0.3·

Unit

V'L min--l.OV(Puise width£2Onsl

_HITACHI

79

HM6147, HM6147·3, HM6147P, HM6147p·3 - - - - - - - - - - - - - - - - - -

.DC AND OPERATING CHARACTERISTICS (O·C:iOTa:i070·C. Vcc -5V±lO%, GND-OV)
Parameter

Symbol

Input Leakage Current

I ILl I

Output Leakage Current

11.01

Operating Power Supply Current (1) DC

Icc

Operating Power Supply Current (2) DC

IccI

Average Operating Current (3)

/CC2

Standby Power Supply Current(l) DC

Is.

Standby Power Supply Current (2) DC

Issl

Output Low Voltage

Vo£
VON

Output High Voltage

min

typ

max

Unit

-

-

2.0

p.A

-

-

2.0

15

35

p.A
mA

12

-

mA

(2)

Cycle 150ns, duty 50%

-

14

-

-

5

12

mA
mA

(2)

CS-ViN

20

800

pA

-

0.40

Test Conditions
Vee-5.5V, GND to Vee
CS-ViN, Vn,-O-Vee
CS-Vi£, Output open
CS- Vi£, VIN~0.2V or
Vi.;o; Vee-0.2V

CS~

Vee-0.2V,
or Vi.;o; Vee-0.2V

Vi.~0.2V

-

I o£-12mA
I ON--8.0mA

2.4

-

Notes

V
V

Note) I. Typical limits are at Vcc-S.OV. To-25"C and specified loadinl.
2. Reference only

.AC TEST CONDITIONS
•
•
•
•

S"'"

Input pulse levels: GND to 3.5V
Input rise and fall times: 10 ns
Input and output timing reference levels: 1.5V
Output load: See Figure 1

UUUlo---..,...---+

• Including scope &: iii capacitance

FillUre 1 Output Load

.CAPACITANCE (Ta-25'C, f-l.OMHz)
Item
Input Capacitance
Note) This Plrameter

IS

Unit

5

pF

v... -OV

7

pF

Conditions

Coo
Cn,

Output Capacitance

max

v..-OV

Symbol

.ampled and not 100% tested.

• AC CHARACTERISTICS (Ta-O'C to 70'C, Vcc =5V±lO%, unless otherwise noted.)
-READ CVa..E
Parameter

HM6147/P-3

Symbol

Read Cycle Time

he

Addr••s Access Time

I ..

HM6147/P

min

max

55

-

Unit

max

-

min
70

-

n.

55

-

70

ns

55

-

Chip Select Acc••s Time

lACS

70

ns

Output Hold from Addres. Change

to.

5

-

5

-

ns

Chip Selection to Output in Low Z

t£z

10

-

10

-

ns

Chip Deselection to Output in High Z

1HZ

0

40

0

40

ns

Chip Selection to Power Up Time

tp.

0

-

0

-

ns

Chip Deselection to Power Down Time

tPD

30

ns

-

30

-

- WRITE CVa..E
Parameter

HM6147/P-3
min
max

Symbol

HM6147/P
min

max

Unit

W rite Cycle Time

twe

55

-

70

-

ns

Chip Selection to End of Write

tel'

45

-

55

-

n.

Address Valid to End of Write

t."

45

55

t.s

0

Write Pulse Width

t"p

35

40

-

ns

Address Setup Time

W rite Recovery Time

tWI

10

-

15

-

ns

Data Valid to End of Write

25

-

30

-

n.

Data Hold Time

to"
to.

10

-

10

-

ns

Write Enabled to Output in High Z

twz

0

0

35

ns

Output Active from End of Write

to"

0

0

-

ns

80

•

HITACHI

~

-

0

ns
ns

---------------------------------------HM6147,HM6147-3,HM6147P,HM6147P-3

-------- ("---------1*
r
~~-W-H------I.-.::::::,~I--------~ ------

eTIMING WAVEFORM OF READ CYCLE

NO.1")("

tH

f.-

Address

preVIl)US

Uat.l)ut

Data val id

data valid

enMING WAVEFORM OF READ CYCLE

NO. 2

(1)(3)

cs

DU.oul

Vee supply

Notes: 1. WE is high for READ Cycle.
2. ~is low for READ Cycle.
3. Addresses valid prior to or coincident with CS
transition low.
e nMING WAVEFORM OF WRITE CYCLE

1 - - - - - - - - .,----------1
1

Address

Data .n

Data oul

Oat •• n valid

/W'l'"---------t""=C

Cu. undef.ned
_ _ _ _ _ _ _ _ _ _ _ _ _- '

•

~-

HITACHI

H'R'h Impedance

81

HM6147,HM6147-3,HM6147P,HM6147-3 - - - - - - - - - - - - - - - - - - - - SUPPLY CURRENT
VB. SUPPLY VOLTAGE

SUPPLY CURRENT
VB. AMBIENT TEMPERATURE
0

0

r.=25'C
5

Vcc=S.oV

5

0

0

leS--::: :::;:::::-

5

o~

5~

I

/eer

~

-

I(C2

0

5

5

0

0

4.75

5.0

40

20

5.25

Supply Voltage Vee (V)

60

ACCESS TIME
SUPPLY VOLTAGE

80

("C I

Ambient Temperature To

ACCESS TIME
VB. AMBIENT TEMPERATURE

VB.
I.3

1.3

Vee = S.oV

r.=25'c
I.2

.2

.Ir--1.0

--

t---

tAA, lACS

o.9
0.8

O.7

I. I

1.0

r---

~

~

~

I--

P

0.9

0.8

4.75

4.5

5.25

5.0
Supply Voltage

o.7

5.5

o

Vee (V)

Ambient Temperature

ACCESS TIME
LOAD CAPACITANCE

80

60

40

20

Ta ("C 1

SUPPLY CURRENT
VB. FREQUENCY

VB.

I~

IS0nl

70nl

55ns

0

L_

Tca=25"'C

.,/"V

Vcc=MIN

0

/

V
100

..--

V

~

Ta=2S"C

~
O~

200

300

A

400

Load Capacitance CL (pF)

82

1.0

10
Frequency / (MHz)

•

HITACHI

15

20

HM6147LP, HM614 7LP-3
4096-word x 1-bit High Speed Static CMOS RAM
.FEATURES
• Single 5V Supply and High Density 18 Pin Package
• High Speed: Fast Access Time 55ns/70ns Max.
• Low Power Standby and Low Power Operation,
Standby: 5jJ.W typo Operation: 75mW typo
• Completely Static Memory - No Clock nor Timing Strobe
Required
• No Peak Power-On Current
• No Change of tACS with Short Chip Deselect Time
• Equal Access and Cycle Time
• Directly TTL Compatible - All Input and Output
• Separate Data Input and Outpu,t: Three State Output
• Capability of Battery Back up Operation
• Pin·out Compatible with Intel 2147 NMOS STATIC RAM
.BLOCK DIAGRAM

(OP-IS)

h_-D:=::1
AJ
A,

---0

Row

o-----iIL:::J

De('.xler

i'rt'

.PIN ARRANGEMENT

Memury Malrlx
64x64

""o----1l:::E=:J
hO----1I:::E=:J

D"UI

Din

AJ At As At Au All

(Top View)

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Voltage on Any Pin relative to GND"

Vr

-0.5 to +7.0

V

Power Dissipation

PT

1.0

W

Operating Temperature

T.",

o to

+70

·C

Storage Temperature

T. r•

-55 to +125

·C

*

Unit

VI/.. Mm--l.OV (Pulse Wldth:li ZOns)

.RECOMMENDED DC OPERATING CONDITIONS (O·C ~ Ta~70·C)
Parameter

Supply Voltage

Symbol
Vee

typ

max

Unit

4.5

5.0

5.5

V

0

0

0

V

3.5

6.0

V

-

0.8

V

min

GND

•

Input High (logic 1) Voltage

ViN

2.2

Input Low (logic 0) Voltage

Vi.

-0.3"

Vll. min- -1.0V (Pulse width:iii2Ons.)

•

HITACHI

83

HM6147LP,HM6147LP-3 - - - - - - - - - - - - - - - - - - - - - - - - - - -

.DC AND OPERATING CHARACTERISTICS (O'C:;aTIJ:;a10'C, Vcc -5V±10%, GND-OV)
Parameter
Input Leakage Current
Output Leakase Current
Operating Power Supply Current II) DC
Operating Power Supply Current 12) DC

min

typ

max

Unit

Vcc -5.5V, GND to Vee

-

2.0

pA

Symbol

IILlI

11£01
• Icc
Icci

Test Condition

Notes

CS-VIH, y'.,-O-Vcc

-

-

2.0

pA

CS-VIL, Output open

-

15

35

mA

CS-VJL, V1N::iOO.2Vor
VJN;o; Vee-0.2V

-

12

-

mA

(2)
(2)

Average Operating Current 13)

lccz

Cycle lOOns, duty 50%

-

14

-

mA

Standby Power Supply Current Il) DC

I ..

CS-ViH

-

5

12

mA

-

1

100

pA

-

-

0.40

V

2.4

-

-

V

CSo: Vee-0.2V,

Standby Power Supply Current 12) DC

1ss1

Output Low Voltage

VOL

IOL-12mA

Output High Voltage

VOH

IOH--8.0mA

ViN:iOO.2V or

ViN;o; Vee-0.2V

Note) 1. Typical Ii.it. are at Vcc-S.OV, To-25°C and apeeified loading_

2. Reference only.
~

r,·

.AC TEST CONDITIONS

• Input pulse levels: GND to 3.5V
• Input rise and fall times: 10 ns
• Input and output timing reference levels: 1.5V
• Output load: See Figure 1

I)IIUlo---t--~

:toou

* Including scope

&;

jig capacitance

Fipre 1 Output Load

.CAPACITANCE (TIJ-25'C, f-1.aMHz)
Item

Symbol

max

Unit

Input Capacitance

C..

V1N-OV

Condition

5

pF

Output Capacitance

Cn ,

Vn,-OV

7

pF

Note) This parameter is sampled and not 100% tested.

• AC CHARACTERISTICS (TIJ-O'C to 70'C, Vcc=5V±10%, unless otherwise noted.)
eREAD CYCLE
HM6147LP-3

Parameter

HM6147LP

Symbol

Unit

min

max

min

max

Read Cycle Time

he

55

-

70

-

ns

Address Access Time

IAA

-

55

-

70

ns

Chip Select Access Time

fACS

-

55

-

10

ns

Output Hold from Address Change

10H

5

-

5

ns

Chip Selection to Output in Low Z

fLz

10

-

10

-

Chip Deselection to Output in High Z

1HZ

0

40

0

40

ns

Chip Selection to Power Up Time

Ipu

0

-

0

-

ns

Chip Deselection to Power Down Time

IPD

30

ns

84

-

•

HITACHI

30

-

ns

--------------------------HM6147LP,HM6147LP-3
-WRITE CYCLE
HM6147LP-3

HM6147LP

Symbol

Parameter

Unit
min

max

min

max

Write Cycle Time

Iwe

55

-

70

-

ns

Chip Selection to End of Write

lew

45

-

55

-

ns

Address Valid to End of Write

lAw

45

-

55

-

ns

Addres. Setup Time

I ..

0

-

0

-

ns

Write Pulse Width

Iwp

35

-

40

-

ns

W rite Recovery Time

Iwo

10

-

15

n.

Data Valid to End of Write

low

25

-

30

Data Hold Time

ION

10

-

10

-

Write Enabled to Output in High Z

twz

0

35

ns

0

-

ns

Output Active from End of Write

low

0

30

0

-

.

n.
ns

-TIMING WAVEFORM OF READ CYCLE NO.1'''(2)

'""v:--------,.,,--------*-i

=t.

.wdreslO

-'o-._--w-:.-:.-=--=--=---i----- ---

preVlnu!lo

Oata out

Uala valid

data valid

-TIMING WAVEFORM OF READ CYCLE NO.2(1)(3)

Dala valld

Oala out

Vee supply

--''C

NOTES: 1. WE is high for READ Cycle.
2. CS is low for READ Cycle.
3. Addresses valid prior to or coincident with ~ transition low.

eHITACHI

85

HM6147LP,HM6147LP-3 - - - - - - - - - - - - - - - - - - - - - - - - - • TIMING WAVEFORM OF WRITE CYCLE

Add.....

Data in

0.,.

out

.LOW Vee RETENTION CHARACTERISTICS (Ta=O'C to 70'C)
Parameter

Symbol

Test Condition

Vee for Data Retention

VD•

CS~ Vee-O.2V.

Data Retention Current

IceDI

Vee-2.0V. CS~1.8V.

Chip Deselect to Data Retention Time

I CDR.

Operation Recovery Time

t.

v..~

Vee-0.2V or :;;0.2V

v. ••a.8V or

:;;0.2V

min

typ

max

2.0

-

40

pA

-

-

ns

0
lac·

• '.tc-RNCI Cycle Time

• LOW Vee RETENTION CHARACTERISTICS

Vcr _ _ _ _ _ _ _......

. Data Retention. Mode
I-------------------1,...
_______

v..
r-----\ _________
______ _
~

~:it

VDR-O.2V

C"S _ _ _..J

a---- ______________________________________ _

86

•

HITACHI

Unit

V

ns

HM6147H-36, HM6147H-45,
HM6147H-55, HM6147HP-35,
HM6147HP-45, HM6147HP-55
4096-wordX1-bit High Speed Static CMOS RAM
• FEATURES
• Single 5V Supply and High Density 18 Pin Package
• High Speed: Fast Access Time 35ns/45ns/55ns Max.
• Low Power Standby and Low Power Operation,
Standby: 100pW typ., Operation: 150mW typo
• Completely Static Memory - No Clock nor Timing·Strobe
Required
• No Peak Power-On Current
• No Change of tA cs with Short Chip Deselect Time
• Equal Access and Cycle Time
• Directly TTL Compatible - All Input and Output
• Separate Data Input and Output: Three State Output
• Plug-In Replacement with Intel 2147H NMOS STATIC RAM

HM6147H -35. HM6147H -45,
HM6147H-55

IDG-18)

HM6147HP-35, HM6147HP-45,
HM6147HP-55

.BLOCK DIAGRAM
---0

-I._-tt=-1
.... - - { I : : = j

l'ft"

Memory Matrix
64 " 64

GNU

,\-_-tt""J
,,,&--~---1

Aoc>--t£:::::l
(DP-18)

O,n

U"ul

.PIN ARRANGEMENT

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Unit

V
rnA

Voltage on Any Pin relative to GND

VT

DC Output Current

I.

Power Dissipation

PT

Operating Temperature
Storage Temperature (Ceramic)

4,.
1:,.\6,.,1
T.r6

-65 to +150

·c
·c

Storage Temperature (Plastic)

T.,•

--55 to +125

··C

Storage Temperature (under bias)

* Pulse Width 20ns,

- 3.5· to +7.0
20
1.0

o to

+70
-10 to +85

W
·C

(Top View}

DC: -O.5V

•

HITACHI

87

HM6147H-35,HM6147H-45,HM6147H-55,HM6147HP-35,HM6147HP-45,HM6147HP-55 - - - - - - -

.RECOMMENDED DC OPERATING CONDITIONS (O'C:O;Ta:O;70'C)
Parameter

min

Symbol

Vee

Supply Voltage

4.5

GND

Input High (Iogi, 1) Voltage

\.IN

Input Low (logic 0) Voltage

\.IL

* Pul.. Width 20....

0
2.0
-3.0·

typ

max

Unit

5.0
0

S.5

V

0

V

3.0

6.0
O.S

V
V

-

llC: -O.SV

.DC AND OPERATING CHARACTERISTICS (O·C;:;;Ta:O;70'C. Vcc-5V±lO%. GND=OV)
Parameter

Symhol

Test Condition

Input Leakage Current

IILlI

Vec-S.SV. GND to Vee

Output Leakage Current

lito I

CS-V'N.

Operating Power Supply Current(J) DC

Icc

CS-\.IL. Output open

Operating Power Supply Current (2) DC

/CCl

CS-\.IL. Minimum Cycle

Standby Power Supply Current (J) DC

I ..

CS-\.I•• Vee-Min to Max

v... -OV-Vee

CSo: Vee-0.2V.

Standby Power Supply Current (2) DC

ISiI

Output Low Voltage

VOL

10L-SmA

Output High Voltage

VON

ION--4mA

\.IN:OO.2Vor V'N<:Vee-0.2V

min

typ

max

Unit

-

-

10

pA

-

10

pA

30

80

mA

40

80

mA

8

20

mA

20

800

pA

-

-

0.40

V

2.4

-

-

V

-

Note) 1. The operating ambient temperature rall8'e is para.teed with transverse air flow exceeding 400 linear feet minute.
2. Typical limits are at Vcc-5.0V. Ta-2S"C and specified loadina:.

• AC TEST CONDITIONS
•
•
•
•
•

51011

Input p!Jlse lewis: GNO to 3.0V
I nput rise and fall times: 5 ns
I nput timing reference levels: 1.5V
Output load: See Figure
Output timing reference levels:
1.5V (HM6147H/P·35)
O.S to 2.0V (HM6147H/P-45/55)

Output Load A U~ut
3OpF'

3300

:g

• Including scope &. jil capacitance'

rrr

"IIII!

0....

Output Load B

3311s.!

5pF

.CAPACITANCE (Ta-25'C. f-l.OMHz)
item
Input Capacitance
Output Capaeilanee

max

Unit

V,,-OV

5

pF

V.,-OV

6

pF

Symbol

C"
Cn ,

Conditions

Note) This parameter is s.ampled and not 100% tested.

88

.HITAOHI

- - - - - - - HM6147H-35.HM6147H-45.HM6147H-55.HM6147HP-35.HM6147HP-45.HM6147HP-55
.AC CHARACTERISTICS (Ta-O·C to 70·C, Vcc-5V±10%, unless otherwise noted.)
eREAD CYCLE
HM6147H/P-35

HM6147H /P -45

HM6147H/P-55

min

max

min

min

Symbol

Parameter

Unit
max

Notes

max

Read Cycle Time

IRe

35

-

45

-

55

-

ns

Address Access Time

lAA

-

35

-

45

-

55

ns

Chip Select Access Time

t.~cs

-

35

-

45

-

55

ns

Output Hold from Address Change

10.

5

-

5

-

5

-

ns

Chip Selection to Output in Low Z

hz

5

-

5

-

5

-

ns

(2). (3), (1)

Chip Deselection to Output in High Z

1Hz

0

30

0

30

0

30

ns

(2), (3), (1)

Chip Selection to Power Up Time

Ipu

0

-

0

-

0

-

ns

Chip Deselection to Power Down Time

IPD

20

ns

-

20

-

20

-

(I)

eTiMING WAVEFORM OF READ CYCLE NO.1 ")(5)

Address

Data Valid

Data Out

eTiMING WAVEFORM OF READ CYCLE NO.2"'(6)

Data Valid

Data Out

l'et Supply

Current

-------h------------,
I"

50~Q

Iss

Notes: 1. All Read Cycle timings are referenced from last valid address to the
first transitioning address.
2. At any given temperature and voltage condition, 'HZ max. is less than
, LZ min. both for a given device and from device to device.
3. Transition is measured ±SOOmV from steady state voltage with
~cified loading in Load B.
4. WE is high for READ Cycle.
5. Device is continuously selected, CS'=VIL'
6. Addresses valid prior to or coincident with CS transition low.
7. Thi~ parameter is sampled and not 100% tested •

•

HITACHI

89

HM6147H-35, HM6147H-45, HM6147H-55, HM6147HP-35, HM6147HP-45, HM6147HP-55----

e WRITE CYCLE
Symbol

Parameter

HM6147H/P-35

HM6147H/P-45

min

max

min

max

min

max

45

55

ns

45

-

45

-

45

0

0

25

-

30

0

-

0

HM6147H/P-55

Unit

Notes

Write Cycle Time

twe

35

Chip Selection to End of Write

tew

35

Address Valid to End of Write

tRW

35

Address Setup Time

t ..

0

Write Pulse Width

twp

20

Write Recovery Time

tWR

0

-

Data Valid to End of Write

tDW

20

-

25

-

25

Data Hold Time

tD.

10

-

10

-

10

-

Write Enabled to Output in High Z

twz

0

20

0

25

0

30

ns

(3), (4)

Output Active from End of Write

tow

0

-

0

-

0

-

ns

(3), (4)

45

(2)

ns
ns
ns
ns
ns
ns
ns

eTIMING WAVEFORM OF WRITE CYCLE (WE CONTROLLED)

'"'
Addre ..

'ow

...

,,,

Dat. I"

Oata (Nt

DUI Undefined

eTiMING WAVEFORM OF WRITE CYCLE (CS CONTROLLED)
Addrul

'"

---'\
--I

t::::::.-1

,,,

'(
t ..

\ \ \ \ \
I

,,,

,.,

...

...

/ / /

Oataln
Dati In Valid

to,

.1

Dt.tt.()qt

HIJllh Impedance

Oat. Undefined

Note J Cs or

Notes: 1.
2.
3.
4.

90

*

WE are

Hilh for Address Transition

If CS" goes high simultaneously with WE high, the output remains In a high impedance states.
AU Write Cycle timings are referenced from the last valid address to the first transitioning address.
Transition is measured tSOOmV from steady state voltage with specified loading In Load B.
This parameter is sampled and not 100% tested.

•

HITACHI

----HM6147H·35, HM6147H·45, HM6147H·55, HM6147HP·35, HM6147HP·45, HM6147HP·55

ACCESS TIME VS. SUPPLY VOLTAGE

ACCESS TIME VS. AMBIENT TEMPERATURE

1.3

1. 3

Ta=2S"C

Vcc=S.OV

1. 2

1.

1. 2

1____.

1.0
~
f:;

O.9

.l!

0.8

0.7 4.5

1. 1

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

V

J,/

o.

o.8
4.75

5.0

o. 7

5.5

5.25

1.3

1.6

1.2

O~

I-'"

./

~

~•

------

1.1

~

1.0

0

~

Ta=2S'C
Vcc=MIN

0.9

<3
~

"i
~

o.8
0.6 100

300

200

80

SUPPLY CURRENT VS. FREQUENCY

1.8

/

60

40

20

Ambient Temperature Ta COC)

ACCESS TIME VS. LOAD CAPACITANCE

1.

./

1.0

Supply Voltage Vee (V)

1. 2

.....V

500

400

0.8

0.7 0

10

15

25

20

INPUT LOW VOLTAGE VS. SUPPLY VOLTAGE

INPUT HIGH VOLTAGE VS. SUPPLY VOLTAGE

I.3

.3
Ta=25t

Ta=25"C

1. 2

.2

--

1.1

o. 9

..

oS

30

Frequency / (MHz)

Load Capacitance Ct. (pFl

I.0

f-

l--- ~

I

l--0

~
9

.!

o.8
O. 7 4.5

4.75

5.0

5.25

----

j..--

5.5

J.---

o.8
O. 7
4.5

4.75

5.0

5.25

5.5

Supply Voltage Vce (V)

Supply Voltage Vee (V)

eHITACHI

91

HM6147H-35,HM6147H-45,HM6147H-55,HM6147HP-35,HM6147HP-45,HM6147HP-55 - - - - - - -

OUTPUT CURRENT VS. OUTPUT VOLTAGE

OUTPUT CURRENT VS. OUTPUT VOLTAGE
1.6

1. 6

\

I.4

E

1

2

\
\
\

0

0.8

0.6

I

I.4

\

1. 2

d

r.=2;"C
Vcc""5V

~

e

~

u

1.0

o.8

/

j
o.6

\

o.4 0

.

1.4

.

j

10-

~

,

10~ I

V
o

z

L

"'"

/V

~

0.8

~

0.2V
Vee -3.0V, CS;;:2.8V
VIN0iI;2.8V or VIN:ii0.2V

min

typ

msx

2.0

-

-

-

-

50

pA

0

-

-

ns

he·

-

-

ns

See Retention Waveform
Operation Recovery Time

fA

• h, - Read Cycle Time.

e LOW Vtc DATA RETENTION WAVEFORM
Vee -

nata Retention" Mode

_ _ _ _ _ _-,.

~--_.J

w----------------- _________________________ _

96

•

HITACHI

Unit
V

HM6116-2, HM6116-3, HM6116-4
HM6116P-2, HM6116P-3, HM6116P-4
2048-word x 8-blt High Speed Static CMOS RAM
.FEATURES
• Single 5V Supply and High Density 24 Pin Package
• High speed: Fast Access Time
120ns/150ns/200ns (max.)
• Low Power Standby and
Standby:
100pW (typ.)
Low Power Operation
Operation: 180mW (typ.)
• Completely Static RAM:
No clock or Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Pin Out Compatible with Standard 16K EPROM/MASK ROM
• Equal Access and Cycle Time

HM6ll6-2, HM6ll6-3.
HM6ll6-.

.FUNCTIONAL BLOCK DIAGRAM
(OG'24)

- - 0 Vee

HM6ll6P-2, HM6ll6P-3.
HM6ll6P-.

---OCND

1/0,0--......-1

1/0. 0--"-+-4
IvJ

'"

(OP-24)

AI,

'"

.PIN ARRANGEMENT
YiEo-----.

.ABSOLUTE MAXIMUM RATINGS
Item
Voltage on Any Pin Relative to GND

Symbol
Vr

Operating Temperature

T.,r

Storage Temperature (Plastic)

T.,•

Storage Temperature (Ceramic)
Temperature Under Bias
Power Dissipation

T.t.
T...
Pr

* Pulse Width SOns: -1.5 V

Rating

Unit

-0.5· to +7.0
o to +70
-55 to +125
-65 to +150
-10 to +85
1.0

V
·C
·C
·C
·C
W

.TRUTH TABLE
OE

WE
X

Mode
Not Selected

Vee Current

X

L
H

H
L

Read
Write

Icc

Dout

L

Icc

Din

L

L

L

Write

Icc

Din

CS
H
L

•

Iss,

IS81

HITACHI

[/0 Pin

Ref. Cycle

High Z
Read Cycle (1)-(3)
Write Cycle (I)
W rite Cycle (2)

97

HM6116-2,HM6116-3,HM6116-4,HM6116P-2,HM6116P-3,HM6116P-4 - - - - - - - - - - - -

.RECOMMENDED DC OPERATING CONDITIONS (Ta=O to +70'C)
typ

max

Unit

4.5

5.0

5.5

V

0

0

0

V

ViH

2.2

3.5

6.0

V

VIL

-1.0·

-

0.8

V

Symbol

Item

min

Vee

Supply Voltage

GND

Input Voltage
• Pulse Width: SOns. DC: V/L min- -O.3V

.DC AND OPERATING CHARACTERiSTICS (Vcc=5V±10%, GNO-OV, Ta=O to +70'C)
Symbol

Item
Input Leakage Current
Output Leakage Current

Operating Power Supply
Current

Average Operating Current
Standby Power Supply
Current

Unit

typO

max

min

typO

max

10

-

-

10

JlA

-

10

JlA

-

-

-

-

10

-

Icc

CS-!-iL, lr",-OmA

-

40

80

-

35

70

mA

IccI"'''

ViH-3.5V, !-iL-0.6V,
lr.",-OmA

-

35

-

-

30

-

mA

Ihol

Vec-5.5V, V..-GND to Vee

cs- V/H

lecI

Min. cycle, duty-l00%

-

40

80

70

mA

CS-VIH

-

5

15

-

35

Iss

5

15

rnA

lssl

CS<:Vec-0.2V. !-i.;o;Vee
-0.2V or V..:O>O.2V

-

0.02

2

-

0.02

2

rnA

10L-4mA

-

0.4

-

-

-

0.4

V

-

2.4

-

-

V

VOH

*
**

HM6116/P-3/-4

min

or OE= VIH,
!-i",-GND to Vee

Ihll

VOL

Output Voltage

HM6116/P-2
Test Conditions

10L-2.1mA
10H--1.0rnA

-

2.4

-

V

V,·c-5V. To-2S·C
Reference Only

.AC CHARACTERISTICS (Vcc =5V±10%. Ta=O to +70'C)
.AC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: lTTL Gate and CL = 100pF Oncluding scope and jig)

.READ CYCLE
Item

HM6116/P-2

Symbol

min

HM6116/P-3

max

min

HM6116/P-4

max

min

max

Unit

Read Cycle Time

he

120

-

150

-

200

-

ns

Address Access Time

t ..

120

-

200

ns

tACS

120

-

150

Chip Select Access Time

-

150

-

200

ns

Chip Seleciion to Output in Low Z

tcLZ

10

-

15

-

15

-

ns

Output Enable to Output Valid

10E

-

80

-

100

-

120

ns

10

Output Enable to Output in Low Z

tOLZ

Chip Ueselecti"n to Output in High Z

teHZ

Chip Disable to Output in High Z

tOHZ

Output Hold from Address Change

tOH

98

•

-

15

-

15

-

ns

1)-

40

0

50

0-

60

os

0

40

0

50

0

60

ns

10

-

15

-

15

-

ns

HITACHI

------------HM6116-2,HM6116-3,HM6116-4,HM6116P-2,HM6116P-3,HM6116P-4

eWRITE CVQ.E
Item

HM6116/P-2

Symbol

min

!M6ll6/P-3
max

max

min

Write Cycle Time
Chip Selection to End of Write
Address Valid to End of Write

Iwc

120

-

150

lew

70
105

-

90
120

Address Set Up Time

lAS

20

-

20

Write Pulse Width
Write Recovery Time
Output Disable to Output in High Z

Iwp

70

90

IWR

5
0
0

-

lAW

10HZ

Write to Output in High Z
Data to Write Time Overlap

tWHZ

10.

35
5

low

5

low

Data Hold from Write Time
Output Active from End of Write

40
50

-

-

-

10
0

50

60

0
40

-

10
10

HM6116/P-4
min

max

200

-

Unit

20
120

-

ns
ns
ns
ns

-

ns

10
0

-

ns
ns
ns
ns

120
140

0
60
10
10

60
60

-

-

ns
ns

.CAPACITANCE (J-IMHz, Ta-2S"C)
Symbol

Item
Input Capacitance
Input/Output Capacitance

C ••
CI;O

Test Conditions

v..-OV
v,,.,-OV

typ

max

3

5
7

5

Unit
pF
pF

Note) This pe.rameter is sampled and not 100% te8ted.

• TIMING WAVEFORM
eREAD CVQ.E (1)(1)

Addrelll

()nul

eREAD CVQ.E (2) (1)(2) (4)

Address

DOUI

eREAD CVQ.E(3)(I)(3)(')

1=
~'A of a low CS and a lowWE.
2. tWR is measured from the earlier of CS-or W glting high to the end
of write cycle.
3. During this period, 1/0 pins are in the output state so that the input
signals of opposite phase to the outputs must not be applied.
4. If the cs- low transition occurs simultaneously with the 'WE low
transitions or after the WJ:: transition, output remain in a high impedance state.
S. 'Ulris continuously low. (UE = V/L)
6. Dout is tlte same phase of write data of this write cycle.
7. DO.ll.Lis the read data of next address.
8. If CS is Low during this period, 1/0 pins are in the output state.
Then the data input signals of opposite phase to the outputs must
not be applied to them .

100

•

HITACHI

- - - - - - - - - - - - - HM6116-2,HM6116-3,HM6116-4,HM6116P-2,HM6116P-3,HM6116P-4
SUPPLY CURRENT
VB. SUPPLY VOLTAGE

SUPPLY CURRENT
VB. AMBIENT TEMPERATURE
1.6

1.6

Vcc=5.0V

T.-25"C
1.4

]
i

!C

1.2

~

1.0

./

~

.!i

i!

d

..,..,.V-'

0.8

/"

i"'"

~

J

6

0.6

0.4

0,4

4.15

U

5.0

5.5

5.25

--- ----o

20

40

ACCESS TIME
SUPPLY VOLTAGE

80

60

Ambient Tl'mparature Ta

Supply Voltage Vcc (V)

r--

(oe'

ACCESS TIME
AMBIENT TEMPERATURE

VB.

VB.

1.3

1.3

Vcc=S.ov

r.=25'C
1.2

I~

~

0.9

i

0.8

"./
............

~

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

1.0

r'--...

~

0.7
4.15

5.0
Supply Voltage

i

!
~

j

=
j

.l1

0.8

5.5

5.25
VC('

/

~

o

(V)

20

40

SUPPLY CURRENT
VB. FREQUENCY

1.8

1.3

/

1A

1.0

200a.

150n.

120ns

".

1.6

1.2

80

60

i\mbient Temperature Til (OCl

ACCESS TIME
VB. LOAD CAPACITANCE

I

;:;

0.9

0.7
U

]

;:;

/'"

V

L

V

----

'"
r.=25'C

Vcc-MIN

0.8

0.8

0.6

0.7
100

200

300

400

500

o

10
Frequency

Load Capacitance Q. (pFJ

•

HITACHI

J

(MHz)

101

HM6116-2,HM6116-3,HM6116-4,HM6116P·2,HM6116P·3,HM6116P-4 - - - - - - - - - - - - LOW INPUT VOLTAGE
va. SUPPLY VOLTAGE

HIGH INPUT VOLTAGE
va. SUPPLY VOLTAGE
1.3

.3

r.=25'C

Ta=25"C

.2

1.2

]

-

1

t

1.0

~

i o.9

-

•

~
•

J.

~

O.1

4.5

1.0

~

O.8

~

~

9

O.1

5.0

4.15

5.25

4.5

5.5

8

O.6

I.6
TII=2S-c

,

Vcc=5V
1.4

/

]

\

~

1.2

~

\

~

1.0

E
d o.8

\

it

.§

0.6

/

\
O. 4

0.4
Output Volt.le

102

5.5

OUTPUT CURRENT
vs. OUTPUT VOLTAGE

1.6

1.0

5.25

5.0

4.15

Supply Voltage Vee (V)

OUTPUT CURRENT
va. OUTPUT VOLTAGE

1.2

~

0.8

Supply Volt_Ie, Vee (V)

1.4

--

1.1

1 o.

..s
.!l

~

:!

VOH

(V)

o

0.2

/

/

V

T.=25'C
Vcc=5V

•

HITACHI

0.6

0.4
Output Voltage

VOl.

(V)

0.8

HM61161-2, HM61161-3,
HM61161-4
--Wide Operating Temperature Range2048-word x 8-blt High Speed Static CMOS RAM
.FEATURES
• Wide Operating Temperature Range. . • . . . . . . .. -40-+85°C
• Single 5V Supply and High Density 24 Pin Package
• High speed: Fast Access Time
120ns/150ns/200ns (max.)
• Low Power Standby and
Standby:
100llW (typ.)
Low Power Operation
Operation: 180mW (typ.)
• Completely Static RAM:
No clock or Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Pin Out Compatible with Standard 16K EPROM/MASK ROM
• Equal Access and Cycle Time

.FUNCTIONAL BLOCK DIAGRAM

IOG·24)

----OVe(.·

\

Memor, Matrix

Row
Decoder

.PIN ARRANGEMENT

--oGND

•
128X128

•

110.0--......-1

Colu" 1/0

Data
Control

1/0. o----H--I

iYEo--___

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Voltage on Any Pin Relative to GND

VT

-0.5* to +7.0

V

Operating Temperature

T..pr

Storage Temperature

T.,•
PT

- 40 to +85
-65 to +150

·c
·c

1.0

W

Power Dissipation

Unit

• Pulse Width 50ns : -1.5 V

eHITACHI

103

HM61161-2, HM61161-3, HM61161-4 - - - - - - - - - - - - - - - - - - - - - - - -

.TRUTH TABLE
CS

Ref. Cycle

Mode

Vee Current

I/O Pin

Not Selected

IS8, Is81

High Z

H

Read

Icc

Dout

L

Write

Din

W rite Cycle 111

L

Write

Icc
Icc

Din

Write Cycle 121

DE
x

WE
x

L

L

L

H

L

L

H

Read Cycle (1)-131

.RECOMMENDED DC OPERATING CONDITIONS (Ta=-40 to +a5'C)
Item

Symbol

typ

max

4.5

5.0

5.5

V

0

0

0

V

lOH

2.2

3.5

6.0

V

lOL

-l.0·

-

0.8

V

min

Vee

Supply Voltage

GND
Input Voltage

* Pulse

Width: SOns, DC: V/L min- -O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc=5V±lO%, GND=OV, Ta=-40
Symbol

Item

Test Conditions

Output Leakage Current

I ILl I
I lUI I

CS~

Operating Power Supply

Icc

CS~lOL,

Current

fecI··

V,H~3.5V,

Average Operating Current

/cel

Standby Power Supply

Input Leakage Current

Current

Output Voltage

*

*.

Unit

min

to

+85'C)

typ·

max

Unit

-

-

10

p.A

-

-

10

p.A

-

35

90

-

30

-

~
I rnA

Min. cycle. duty= 100%

-

35

90

rnA

ISB

CS~

-

4

20

rnA

I S81

CS~ Vee-O. 2V, v..~ Vee -0.2V or

-

0.02

2

rnA

-

0.4

V

2.4

-

-

V

Vec~5.5V,

V.. ~GND to Vee

Vm or OE- VIH,

V/~~GND

to Vee

II",~OmA

lOL~0.6V.

1//o=OmA

VIH '

VOL

IOL-2.lmA

VOH

IOH~

v.. ";0.2V

-l.OmA

Vr:r=5V. Ta-25C
Reference Only

.AC CHARACTERISTICS (Vcc =5V±10%, Ta=-40 to +85'C)
-AC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: 1TTL Gate and CL = 100pF (including scope and jig)

-READ CYCLE
Item

Symbol

HM6116I-2
min

HM61161-3

max

min

HM6116I-4

max

min

max

Unit

IRe

120

-

150

-

200

-

ns

Address Access Time

I"

-

120

-

150

-

200

ns

Chip Select Access Time

tACS

-

120

-

150

-

200

ns

Chip Selection to Output in Low Z

tCI.Z

10

-

10

-

10

-

ns

Output Enable to Output Valid

log

-

80

-

100

-

120

ns

Output Enable to Output in Low Z

tOI.Z

10

-

10

-

10

-

ns

Chip Deselection to Output in High Z

tCHZ

0

40

0

50

0

60

ns

Chip Disable to Output in High Z

tOHZ

0

40

0

50

0

.60

ns

Output Hold from Address Change

IOH

10

-

10

-

10

-

ns

Read Cycle Time

104

eHITACHI

HM61161-2, HM61161-3, HM61161-4

eWRITE CYCLE
Item

Symbol

HM6116 1-2

HM6116 1-3

HM6116 1-4

Unit

min

max

min

max

min

max

ns

Write Cycle Time

Iwe

120

-

ISO

-

200

Chip Selection to End of Write

lew

70

-

90

-

120

Address Valid to End of Write

'AW

105

-

120

140

Address Set Up Time

lAS

20

20

Write Pulse Width

Iwp

70

90

-

120

Write Recovery Time

IWR

5

-

-

-

10

-

10

-

ns

Output Disable to Output in High Z

10HZ

0

40

0

50

0

60

ns

Write to Output in High Z

twHZ

0

50

0

60

0

60

ns

Data to Write Time Overlap

low

35

-

40

-

60

-

ns

Data Hold from Write Time

10.

5

-

10

10

-

ns

Output Active from End of Write

low

5

-

-

10

-

10

-

ns

20

ns
ns
ns
ns

.CAPACITANCE (J-IMHz, Ta-25'C)
Item

Symbol

Input Capacitance
Input/Output Capacitanc.

e,.
e,,,,

typ

max

Unit

V,.-OV

3

5

pF

v,,,,-OV

5

7

pF

Test Conditions

Note) Thll parameter is sampled and not 100% tested.

• TIMING WAVEFORM
eREAD CYCLE(1)(I>,<5l

:\ddrplC!C

'"//

f-----tAl ~---+--_i

"'.t

UnUI

eREAD CYCLE (2)(1)(2)(4)

eREAD CYCLE (3)(1)(3)(4)

Doul

l.u~__l_'.1-

NOTES: l."Wlris High for Read Cycle.
2. Device is continuously selected, N = VIL.
3. Address Valid prior to or coincident with 'CS""transition Low.

4. '0£"= !JJ..

eHITACHI

105

HM6116'!-2, HM61161-3, H M 6 1 1 6 1 - 4 , - - - - - - - - - - - - - - - - - WRITE CYClE(1)
t--------,.c--------~

Address

fAil'

1-----,,;'-'11"-)_ _~
OOUI

Uin

eWRITE CYCLE(2)(5)

--------~~~-'·'---'"l~x~x~x
t--------,,·c-------oi

Address

Do.,

tONi

(8)

VOOO<

Din

NOTES: 1. A' write occurs during the overlap (tJ!P) of a low CS and a low WE
2. tWR is measured from the earlier of cs-or "WE goinghigh to the end
of write cycle.
3. During this period, I/O pins are in the output state so that the input
signals of opposite phase to the outputs must not be applied.
4. If the CS" low transition occurs simultaneously with the WE low
transitions or after the WE transition, output remain in a high impedance state.
S. "OE"is continuously low. (UP: = V/L)
6. Dout is tlte salJ1e phase of write data of this write cycle.
7. DO.lll..is the read data of next address.
8. If CS is Low during this period, I/O pins are in the output state.
Then the data input signals of opposite phase to the outputs must
. not \)eapplied to them.

106

eHITACHI

HM6116PI-2, HM6116PI-3,
HM6116PI-4 -Wide Operating Temperature Range2048-word x 8-bit High Speed Static CMOS RAM
.FEATURES
• Wide Operating Temperature Range. . . . . . . . . .. -40-+BSoC
• Single SV Supply and High Density 24 Pin Package
• High speed: Fast Access Time
120ns/150ns/200ns (max.)
• Low Power Standby and
Standby:
100llW (typ.)
Low Power Operation
Operation: 1BOmW (typ.)
• Completely Static RAM:
No clock or Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Pin Out Compatible with Standard 16K EPROM/MASK ROM
• Equal Access and Cycle Time
.FUNCTIONAL BLOCK DIAGRAM
(Dp·241

A, o----t~_ _I

\

A.

---<)Vcr
Memory Matrix

Row

Decoder

~GND

_
128X128

.PIN ARRANGEMENT

o---C:~=I

I/O,o--_~

lIOt O--ori--i

.ABSOLUTE MAXIMUM RATINGS
Item

Voltage on Any Pin Relative to GND

Symbol
Vr

Operating Temperature

'fo,r

Storage Temperature

Td •
Pr

Power Dissipation

* Pulse Width SOns. -1. 5V

Rating

Unit

-0.5° to +7.0
-40 to +85
-55 to +125

V
·C
·C

1.0

W

•

HITACHI

107

HM6116PI-2, HM6116PI·3, H M 6 1 1 6 P I - 4 - - - - - - - - - - - - - - - - - - - - - -

.TRUTH TABLE
CS

OE

WE

Mode

H
L
L

X

X

L
H
L

H
L
L

Not Selected
Read
Write

L

Vee Current
ISB9

lUI

I/O Pin
High Z

Ref. Cycle

Dout
Din

Read Cycle (IH3)
Write Cycle (1)

Din

Write Cycle (2)

Icc
Icc
Icc

Write

.RECOMMENDED DC OPERATING CONDITIONS (Ta=-40 to +8S'C)
typ

max

Unit

4.5

5.0

5.5

V

0

0

0

V

V,H

2.2

3.5

6.0

V

V/L

-1.9·

-

0.8

V

Symbol

Item

min

Vee

Supply Voltage

GND

"'put Voltage
• Pulse Width: SOns. DC:

v,,,

min- -O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc -SV±10%. GNO-OV. Ta- -- 40 to +8S'C)
Symbol

Item

Test Conditions

Unit

min

typO

max

-

10

pA

10

pA

35

90

mA

30

-

mA
mA

Operating Power Supply

Icc

CS-V,L, I,,,,-OmA

Current

Ic cl "

V,H-3.5V, V,L-0.6V, I,,,,-OmA

-

Average Operating Current

IccI

Min. cycle, duty-l00%

-

35

90

Standby Power Supply

Is.

CS-V,H

-

4

20

mA

Current

Iss 1

CS;;: Vce-0.2V,

0.02

2

mA

-

0.4

V

-

V

Input Leakage Current

11.,1

Vee-5.5V, V.. -GND to Vee

Output Leakage Current

IlLol

CS- V,H or OE- V,H, V,,,,-GND to Vee

Output Voltage
•

VOL

IOL-2.1mA

VOH

IOH--1.0mA

v..;;: Vee

-0.2V or

-

v.. :.i0.2V

2.4

V(-c-5V, Ta-2S'C

•• Reference- Only

.AC CHARACTERISTICS (Vcc=SV±10%. Ta=-40 to +as'C)
eAC TEST CONDITIONS
Input Pulse Levels: O.S to 2.4V
Input Rise and Fall Times: 10 ns
I nput and Output Timing Reference Levels: 1.5V
Output Load: 1TTL Gate and CL = 100pF (including scope and jig)

eREAD CYCLE
Item

Symbol

HM6116PI-2

HM6116PI-3

min

max

min

he

120

-

t ..

-

120

tACS

-

120

Chip Selection to Output in Low Z

leLi

10

-

Output Enable to Output Valid

to.

-

80

Output Enable to Output in Low Z

tOLz

10

-

Read Cycle Time
Address
Access Time
.. .. ..

...

Chip Select Acces. Time

HM6116PI-4
Unit

max

min

150

-

200

-

-

150

-

200

ns

200

ns

150

max

ns

-

10

-

ns

100

-

120

10

-

10

-

n'
ns

10

-

Chip Deselection to Output in High Z

tCHZ

0

40

0

50

0

60

ns

Chip Disable to Output in High Z

tOHZ

0

40

0

50

0

60

ns

Output Hold from Address Chang.

tOH

10

-

10

-

10

-

ns

108

_HITACHI

- - - - - - - - - - - - - - - - - - - - - - HM6116PI-2, HM6116PI-3, HM6116PI-4

-WRITE CYCLE
Item

HM6116P[-2

Symbol

Write Cycle Time
Chip Selection to End of Write

Iwe
lew

H'd6116P[-3

HM6116P[-4

Unit

min

max

min

max

min

max

120
70

-

150
90
120
20

-

200
120
140

-

20

-

ns

90

-

-

120
10

-

0
0
60

60
60

ns
ns
ns
ns

-

ns

10

-

10

-

ns
ns

Address Valid to End of Write
Address Set Up Time

lAW

lAS

105
20

Write Pulse Width

Iwp

70

Write Recovery Time

Iwo

Output Disable to Output in High Z
Write to Output in High Z

tOHZ

5
0
0

50

Data to Write Time Overlap
Data Hold from Write Time

IDW

-

IDN

35
5

10
0
0
40

--

10

Output Active from End of Write

low

5

-

10

tWHZ

40

50
60

-

-

ns
ns
ns

.CAPACITANCE (J-IMHz, Ta-2S'C)
Symbol

Item
Input Capacitance

Input/Output Capacitance
Note) This parameter

IS

Test Ccnditions
v..-OV
v,,,,-OV

C••
CI/O

typ

max

3
5

5
7

Unit
pF
pF

sampled and not 100% tested.

• TIMNG WAVEFORM
-READ CYCLE (1)(1)

1--------'''-------01
Address

tM.

1-----to4o----+--o1

OOUI

41 READ

____t:::::::~"~"::::::::~~

,--~--~~~~~I

CYCLE (2) (1)(2) ( ' )

Address

Do.I

-READ CYCLE (3) (t)(3)(')

Dout

NOTES: 1.
2.
3_
4.

WE is High for Read Cycle.
Device is continuously selected, CS"= VILAddress Valid prior to or coincident with Ntransition Low.

UE"=!:'ll,-

•

HITACHI

109

HM6116PI-2. HM6116PI-3. HM6116PI-4 - - - - - - - - - - - - - - - -

WRITE CYCLE(1)

1--------•.< - - - - - - - - 1
Address

t----.co----i

1--_ _ _ ",."'0:.<..)- - - - I
OOUI

Oin

eWRITE CYCLE (2) (5)
Addre..

Dout

Din

NOTES: 1. A write occurs during the overlap (t~ of a low 'Nand a low~
2. tWR is measured from the earlier of cs-or 'WE" going high to the end
of write cycle.
3. During this period, 1/0 pins are in the output state so that the input
signals of opposite phase to the outputs must not be applied.
4. If the rn-low transition occurs simultaneously with the 'WE" low
transitions or after the WE transition, output remain in a high impedance state.
S. 'Ulris continuously low. (lm =VIL)
6. Dout is tlte same phase of write data of this write cycle.
7. DQJl1..is the read data of next address.
8. If CS is Low during this period, 1/0 pins are in the output state.
Then the data input signals of opposite phase to the outputs must
" - -- .
-- ..
not be 'applied to 'them.

110

•

HITACHI

HM6116FP-2, HM6116FP-3,
HM6116FP-4
2048-word x 8-bit High Speed Static CMOS RAM
.FEATURES
• High Density Small-Sized Package
• Projection Area Redueced to One-Thirds of Conventional DIP
• Thickness Reduced to a Half of Conventional DIP
• Single 5V Supply
• High Speed: Fast Access Time
120ns/150ns/200ns (max.)
• Low Power Standby
Standby:
10~W (typ.)
• Low Power Operation;
Operation: 180mW (typ.)
• Completely Static RAM:
No clock nor Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Equal Access and Cycle Time
.FUNCTIONAL BLOCK DIAGRAM

A,o----c:~=1

\

----OVec
Memory Matrix

Row
Decoder

( FP-24)

.PIN ARRANGEMENT

--<)CND

•
128X128

A,o----D~=I
Column 110

110,0---.,-1
Input
Data

Control

1/0.0--"-+-1

iVEo-----,

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Voltage on Any Pin Relative to GND

Vr

-0.5· to +7.0

Operating Temperature

T..,

Storage Temperature

T.~

Temperature Under Bias

'nu.

Power Dissipation

Pr

o to

Unit
V

-10 to +85

·c
·c
·c

1.0

W

+70

-55 to +125

III V,\ min - -1.5V (Pulse Wldth:i! 50ns)

.TRUTH TABLE
CS

OE

WE

Mode

Vee Current

I/O Pin

H

X

X

Not Selected

I SB, Issl

High Z

Ref. Cycle

L

L

H

Read

lee

Dout

Read Cyclell)-13)

L

H

L

Write

lee

Din

Write Cyclell)

L

L

L

Write

lee

Din

Write Cycle (2)

•

HITACHI

111

HM6116FP·2,HM6116FP-3,HM6116FP-4 - - : - - - - - - - - - - - - - - - - - - - - -

.RECOMMENDED DC OPERATING CONDITIONS (Ta-O to +70'C)
typ

max

Unit

4.5

5.0

5;5

V

0

0

0

V

V,.

2.2

3.5

6.0

V

V,L

-1.0'

-

O.S

V

Symbol

Item

min

Vee

Supply Voltqe

GND
Input Voltqe
., Pulse Width: 5Ons. DC: l'tL min--O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc-5V±10%, GND-OV, Ta-O to +70'C)
Symbol

Item
Input Leakage Current
Output Leakage Current

Operating Power Supply
Current
Average Operatin, Current
Standby Power Supply

Current

IILlI
11.01

Vee-5.5V. V..-GND to Vee

CS- V,.

or OE-~.

~A>-GND

to Vee

HM6116FP-3/-4

Unit

min

typO

max

min

typO

max

-

-

10

-

-

10

pA

-

-

10

-

-

10

pA

Icc

CS- ViL. 1,,0-OmA

-

40

80

-

35

70

mA

lecl"

Vi.-3.5V, V'L-0.6V.
I",,-OmA

-

35

-

-

30

-

mA

40

SO

-

35

70

5

15

-

5

15

mA
-mA

0.02

2

-

0.02

2

mA

1ec2

Min. eyele. duty-100%

1..

CS-~N

I'll

CS;;:Vee-0.2V. ~.;;:Vec
-0.2V or V,.=>0.2V

VOL

Output Voltage

HM6116FP-2

Test Conditions

VON

-

IoL -4mA
IoL -2:1mA
IoN --1.0mA

-

-

0.4

-

-

-

V

-

0.4

V

2.4

-

-

2.4

-

-

V

., Vcc"SV. Ta-25-C

*.

Reference Onl,

.AC CHARACTERISTICS (Vcc-5V±10%, Ta-O to +70'C)
.AC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: 1TTL Gate and CL ,. 100pF (including scope and jig)

.READ CYCLE
Item

Symbol

HM6116F;P-2

HM6116FP-3

min

max

min

HM6116FP-4

max

min

max

Unit

Read Cyele Time

he

120

-

150

-

200

-

I"

-

"s

Address Aeees. Time

120

150

ns

lACS

-

120

150

-

200

Chip Seleet Aee••s Time

-

200

ns

tCLZ

10

15

-

15

-

ns

Output Enable to Output Valid

10E

-

80

100

-

120

ns

Output Enable to Output in Low Z
... _-"
.. Chip Deseleetion to Output in High Z

tOLZ

10

-

15

-

15

-

ns

'CHZ

0

40

0

50

0

60

ns

Chip Disable to Output in High Z

10HZ

0

40

0

50

0

60

ns

Output Hold from Addres. Change

ION

10

-

15

-

15

-

ns

Chip

112

S.le~tion

to Output in Low Z

•

HITACHI

- - - - - - - - - - - - - - - - - - - - - - - HM6116FP-2,HM6116FP-3,HM6116FP-4
-WRITE CYCLE
Item

HM6116FP-2

Symbol

HM6116FP-3

HM6116FP-4
Unit

min

max

min

max

min

max

200

ns

20

-

ns

W rite Cycle Time

Iwe

120

-

150

Chip Selection to End of Write

lew

70

90

Address Valid to End of Write

I,w

105

120

Address Set Up Time

I"

20

-

20

-

Write Pulse Width

Iwp

70

-

90

-

120

-

W rite Recovery Time

IWR

5

-

10

-

10

-

ns

Output Disable to Output in High Z

tOHZ

0

40

0

50

0

60

ns

W rite to Output in High Z

tWHZ

0

50

0

60

0

60

ns

Data to Write Time Overlap

low

35

-

40

60

IDH

5

-

10

10

-

ns

Data Hold from Write Time
Output Active from End of Write

low

5

-

10

-

10

-

ns

120
140

ns
ns
ns

ns

.CAPACITANCE (J~lMHz, Ta~25'C)
typ

max

Unit

Input Capacitance

Symbol
C..

v..-OV

3

5

pF

Input/Output Capacitance

C,Xl

v,,,,-OV

5

7

pF

Item

Test Conditions

Note} This parameter is sampled and not 100% tested .

• TIMING WAVEFORM
-READ CYCLE (1)(1)
~-------"'--------1
,\ddrl'u

/fIIl

f-----I((,---+---1

!>(IUI

______t:::::::~"~"::::::::~

r--~------~~~~

-READ CYCLE(2)"'(2)(4)

A.ddrt'ss

I)oul

-READ CYCLE (3)(1)(3)(4)

Dout

NOTES: 1."WIris High for Read Cycle.
2. Device is continuously selected, <::s- = V/L.
3. Address Valid prior to or coincident with "C'S"trarisition Low.
4. or= V/L.

•

HITACHI

113

HM6116FP·2,HM6116FP-3,HM6116FP-4 - - - - - - - - - - - - - - - - - - - - - -

.TIMING WAVEFORM
eWRlTE CYa.E(1)(I)

t--------- •.c - - - - - - - . . . . . . j
Acldrtss

t----.,'.'----l

1-_ _ _ .",;.:(1"-)_ _01
UnUI

Usn

eWRITE CYa.E(2)'5)

!--------lu"'-------l
Address

Dout

Din

NOTES: 1. A write occurs during the overlap (tM) of a low CS' and a 10w"WE
2. tWR is measured from the earlier of CS or WE" going high to the end
of write cycle.
3. During this period, I/O pins are in the output state so that the input
signals of opposite phase to the outputs must not be applied.
4. If the 'CS'" low transition occurs simultaneously with the WE low
transitions or after the WE transition, output remain in a high
impedance state.
S. 'OE"is continuously low. (OE"= VIL)
6. Dout is the same phase of write data of this write cycle.
7. Do.ll1..is the read data of next address.
B. If CS -is. Low during this period, 1/0 pins.are in.the output state.
Then the data input signals of opposite phase to the outputs must
not be applied to them •

114

•

HITACHI

---------------------HM6116FP-2,HM6116FP-3,HM6116FP-4
SUPPLY CURRENT
VB. SUPPLY VOLTAGE

SUPPLY CURRENT
VB. AMBIENT TEMPERATURE
1~

1.6

T.=25'C

Vcc=5.0V

1A

]
~

./

1.2

1.0

~
,/"""

0.8

~

/

I.4

~

1.2

~

1.0

z

'"

o.6

--- --r---

6

o.4
4.5

4.75

5.0

o.4

5.5

5.25

20

40

60

ACCESS TIME

ACCESS TIME
VB. AMBIENT TEMPERATURE

vs. SUPPLY VOLTAGE

1.3

1.3

Vcc=S.ov

T«=25'C

1.2

2

..... /

1

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

1.0
~

~

0.9

-<

0.8

,,/"

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

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

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

I----

~

.

;:

0.9

<

0.8

0.7

0.7
4.5

4.75

5.0

5.5

5.25

Supply Voltage Vee (V)

V
o

20

60

40

Ambient Temperature

ACCESS TIME
VB. LOAD CAPACITANCE

SUPPLY CURRENT
VB. FREQUENCY

1.8

1.3

200nl

]
~

:l!

1A

~

;:

L

1~

1.2

1.0

80

Ambient Temperature T. ("Cl

Supply Voltage Vee (V)

/

/

V

./

80

Ta ('C)

ISOn,

120nl

1.2

/

1

T.=25'C
Vcc=MIN
9

-'!
0.8

----

0.8

o.7

O~

100

200

300

10

500

400

Frequency

Load CapacItance Q (pFl

•

HITACHI

f

(MHz)

115

HM6116CG-2, HM6116CG-3,
HM6116CG-4
2048-word x 8-bit High Speed Static CMOS RAM
• FEATURES
• Single 5V Supply and High Density 32 pin-Leadles5-Chip Carrier
• High speed. Fast Access Time
120n5/150ns/200ns (max.)
• Low Power Standby and
Standby: 100J.lW (typ.)
Operation: 180mW (tyP.)
Low Power Operation
• Completely Static RAM:
No Clock or Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Equal Access and Cycle Time

• FUNCTIONAL BLOCK DIAGRAM

(CG-32)

--oVec

\

\

Row
Decoder

•

MaInOr, Matrix

• PIN ARRANGEMENT
Ai

---OGND

•

128Xl28

•

110,0--......-1

Collum I/O

~(' ~c

t4J L~

t2j

XC

V('(

NC NC

:q 2~

~~ p~

<\II

:~:

,,"

~~

:il1

:::il!.

...

....

:n

~~!

sc

.'" :€:

[~6

WE
1m

:~~

'" 111]

~:!~

~~1

AIO

JI:

ri~

CS

Input

A,

Da..

;"

NC I~J

Control

t~i .\11

~~I I'(\.

1/0. o--t+--I
I 'ill li(hGND NC I/(l! I/f15I'(\.
(Top View)

• ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Unit

Voltege on Any Pin Relative to GND

VT

-0.5° to +7.0

Operating Temperature

Topr

o to +70

V
·C

Storage Temperature

T.,.

-65 to +150

·C

Power Dissipation

PT

1.0

W

.TRUTH TABLE
CS
H

L
L
L

116

OE

WE

X

X

L
H

L

1/0 Pin
High Z

Ref. Cycle

Dout
Din

Read Cycle (1)-(3)

Icc
Icc

Din

Mode
Not Selected

Vee Current

H

Read

Icc

L
L

Write
Write

1$8 lssl
9

_HITACHI

Write Cycle (1)
Write Cycle (2)

---------------------HM6116CG-2,HM6116CG-3,HM6116CG-4

.RECOMMENDED DC OPERATING CONDITIONS (Ta=O to +70'C)
Item

typ

max

Unit

4.5

5.0

5.5

V

0

0

0

V

Vi.

2.2

3.5

6.0

V

V/L

,-1.0'

-

0.8

V

Symbol

min

Vee

Supply Voltage

GND
Input Voltage

* Pulse Width: SOns.

DC: Vn min- -O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc =5V±10%, GND-OV, Ta-O to +70'C)
Item
Input Leakage Current
Output Leakage Current

I ILl I
Ihol
Icc

HM61I6CG-2

Test Conditions

Symbol

Iccl"·

Average Operating Current

max

min

typO

max

-

-

10

-

-

10

JlA

-

-

10

-

-

10

JlA

Ve e -5.5V, V..-GND to Vee
CS- Vi. or OE- V,.,

V, ..,-GND to Vi,e

-

CS- ViL, /"'o-OmA

40

80

-

35

10

mA

-

35

-

-

30

-

I"o-OmA

mA

Min. cy.le, duty-l00%

-

40

80

-

35

10

mA

Is.

CS-V'H

-

5

15

-

5

15

mA

-

0.02

2

-

0.02

2

mA

CS<::Vcc-0.2V,
ISBI

VOL

Output Voltage

Vi.-3.5V. ViL-0.6V,

Icc!

Standby Power Supply
Current

VOH

-0.2V or

V.II~ Vee

v.. ;;OO.2V

-

-

0.4

-

V

-

-

-

-

0.4

V

2.4

-

-

2.4

-

-

V

I U I.-4mA
IOI.-2.1mA

10 , - -1.0mA

* V(,f·-SV.

.*

Unit

typO

Operating Power Supply
Current

HM61I6CG-3/-4

min

Ta-2S·C
Refennte Only

.AC CHARACTERISTICS (Vcc-5V±lO%, Ta-O to +70'C)
eAC TEST CONDITIONS
Input Pulse Levels: O.S to 2.4V
Input Rise and Fall Times: 10 ns
I "put and Output Timing Reference Levels: 1.5V
Output Load: lTTL Gate and CL = l00pF (including scope and jig)

eREAD CYCLE
Item

HM61I6CG-2

Symbol

HM61I6CG-3

max

min

120

120

min

HM61I6CG-4
max

Unit

max

min

150

-

200

-

ns

-

150

-

200

ns

120

-

15(1

-

200

ns

Read Cycle Time

hc'

Address Ac('ess Time

/AA

Chip Select Access Time

lACS

-

Chip Selection to Output in Low Z

tCLZ

10

-

15

-

15

-

ns

Output Enable to Output Valid

tOE

-

80

-

100

120

ns

Output Enable to Output in Low Z

tOLZ

10

-

15

-

15

-

ns

Chip Deselection to Output' in High Z

leHZ

0

40

0

50

0

60

ns

Chip Disable to Output in High Z

tOHZ

0

40

0

50

0

60

ns

Output Hold f rom Address Change

/0'

10

-

15

-

15

-

ns

•

HITACHI

117

HM6116CG-2,HM6116CG-3,HM6116CG-4 - - - - - - - - - - - - - - - - - - - - WRITE CYClE
Symbol

Item
Write Cycle Time
Chip Selection to End of Write
Addre.s Valid to End of Write
Address Set Up Time
Write Pulse Width
Write Recovery Time
Output Disable to Output in High Z
Write to Output in High Z
Data to Write Time Overlap
Data Hold from Write Time
Output Active from End of Write

twe
tew
t.w
t.s
t ...
I ...
10HZ
tWHZ

!DIN
10.

low

HM6116CG-2

HM6116CG-3
max

min

max

min

120
70
105
20
70
5
0
0
35
5
5

-

ISO

40
50

-

-

90
120
20

90
10
0
0
40
10
10

50

60

-

HM6116CG-4
min
max
200
120
140
20
120
10
60
0
60
0
60
10
10

-

-

Unit
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns

.CAPACITANCE (J-IMHz, Ta-2S'C)
Symbol

Item
Input Capacitance
Input/Output Capacitance

C..
C""

Test Conditions
VI.-OV
VI,.-OV

typ

3
5

Note) This parameter .s sampled and not 100% tested.

• TIMNG WAVEFORM
-READ CYClE (1)(1)

t--------'''-------i
Addrus

Do"

-READ CYClE (2)(1)(2) (A)

Address

Do,.
-READ CYClE (3)(I)(3)W

Oout

NOTES: 1. W1! is High for Read Cycle.
2. Device is continuously selected, 'CS'"=VIL'
3. Address Valid prior to or coincident with Ntransition Low.
4.~" VIL'

118

_HITACHI

max
5
7

Unit
pF
pF

----------------------HM6116L-2,HM6116L-3,HM6116L-4
WRITE CVQ..E(1)'1)

1--------1.'<---------1
Addu ..

1----1<0'----1

(2)

I - - - -.. P-'--~-I
UOUI

Uin

_ ________ ~l-···---··H~~~~
~

Ql

eWRITE CVQ..E(2)(5)
I--------I.'<---------t
Address

lAS

Do••

tD"~

(8)

VOOO<

Din

NOTES: 1. A write occurs during the overlap (tM> of a low 'CS and a low'WE
2. tWR is measured from the earlier ofCS-or "'WE" going high to the end

of write cycle.
3. During this period, I/O pins are in the output state 80 that the input
signals of opposite phase to the outputs must not be applied.
4. If the CS' low transition occurs simultaneously with the WE" low
transitions or after the WE transition, output remain in a high impedance state.
S. UJris continuously low. (UE =VIL)
6. Dout is t"e same phase of write data of this write cycle.
7. Dl.• ~
PT

-!O to +85

·C_

1.0

W

Item
Voltage on Any. Pin Relative to GND

Power Dissipation

*

Unit
+70

Pulse Width 50ns. -1.5V

.TRUTH TABLE
CS

OE

WE

H

X

X

L
L

L
H

L

L

L

120

I/O Pin
High Z

Ref. Cycle

Dout
Din

Read Cycle (1)-(31

Icc
Icc

Din

Write Cycle (21

Mode
Not Selected

Vee Current

H

Read

Icc

L

Write
Write

$

ISB,lssl

HITACHI

Write Cycle (11

---------------------HM6116CG-2,HM6116CG-3,HM6116CG-4

• RECOMMENDED DC OPERATING CONDITIONS (Ta-O to +70'C)
Symbol

Item

typ

max

4.5

5.0

5.5

V

0

0

0

V

V,.

2.2

3.5

6.0

V

V"

-1.0'

-

O.S

V

min

Vee

Supply Voltage

GND

Input Voltage

Unit

.. Pulse Widtb:50na, DC: V'L min--O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc-5V ±10%, GND-OV, Ta-O to +70'C)
Symbol

Item

HM6116L/P-2

Test Conditions

typo

min

HM6116L1P-3/-4

max

Unit

min

typO

-

2

pA

-

2

pA

30

60

mA

25

-

mA

max

Input Leakage Current

I ILl I

Vee-5.5V, V.. -GND to Vee

-

-

2

Output Leakage Current

I fLo I

CS - V,. or OE - V,.,
V"o-GND to Vee

-

-

2

lee

~-VIL, I"o-OmA

-

35

70

lecl"

V,.-3.5V, V,,-0.6V,
ho-OmA

-

30

-

min. cycle, duty -100%

-

35

70

-

30

60

mA

4

12

-

4

12

mA

4

100

-

4

100

pA

Io,-4mA

-

-

0.4

Io,-2.1mA

-

-

-

-

Operating Power Supply
Current

Average Operating Current

Standby Power Supply
Current

Icc

2

I.B
lssl

Vo,

Output Voltage

Vo.

CS-VI.
~;;;;Vee -0.2V,

V.. Ol:Vee0.2Vor V•• :iOO.2V

Io.--1.0mA

2.4

-

-

2.4

V

0.4

-

V·

• : Vcc-5V. TII-25"C
• • : Reference Only

.AC CHARACTERISTICS (Vcc=5V ±10%, Ta=O to +70'C)
.AC TEST CONDITIONS
Input Pulse Levels: O.S to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: 1TTL Gate and CL = 100pF (including scope and jig)

.READ CYCLE
Item

HM6116L-2

Symbol

min

HM61i'6L-3

HM6116L-4
Unit

max

min

max

min

200

-

ns

-

200

ns

-

200

ns

max

Read Cycle Time

he

120

-

Address Access Time

t ..

-

120

ISO
-

Chip Select Access Time

tACS

-

120

-

ISO
ISO

Chip Selection to Output in Low Z

teLZ

10

-

15

-

15

-

ns

Output Enable to Output Valid

to.

-

SO

-

100

-

120

ns

Output Enable to Output in' Low Z

tOLZ

10

-

15

-

15

-

ns

Chip deselection to Output in High Z

tCHZ

0

40

0

50

0

60

ns

Chip Disable to Output in' High Z

10HZ

0

40

0

0

60

n.

Output Hold from Address Change

to.

10

-

15

SO
-

15

-

ns

•

HITACHI

121

HM6116L-2,HM6116L-3,HM6116L-4 - - - - - - - - - - - - - - - - - - - - - - eWRITE CYCLE
HM6116L-2

Symbol

Item
Write Cycle Time
Chip Selection to End of Write
Address Valid to End of Write'

lwe
lew
',w

Addre.s Set Up Time
Write Pulse Width
Write Recovery Time

max
-

70
105

-

20

I"
Iwp

70
5

lwo

Output Disable to Output in High Z
Write to Output in High Z

min
120

HM6116L-3

HM6116L-4

Unit

min

max

min

max

150
90
120

-

200

ns

-

120
10

-"
-

20
90
10

-

120
140
20

ns
ris
ns
ns
n.

10HZ

0

40

0

50

0

60

ns

tWHZ

50

0
40

60

0
60

60

ns
ns

Data to Write Time Overlap

low

0
35

Data Hold from Write Time

lOR

5

Output Active from End of Write

low

5

-

-

10
10

-

-

10
10

ns
ns

.CAPACITANCE (j=lMHz, Ta-2S"C)
typ

max

Unit

Input Capacitance

Symbol
C ••

V•• -OV

3

5

pF

Input/Output Capacitance

C,,,O

Vl/o=OV

5

7

pF

Item

Test Conditions

Note} This parameter is sampled and not 100% tested.

• TIMING WAVEFORM
e Read Cycle (1)

(1)

Adelrt'slt

1101"

(1), (2), (of)

eRead Cycle (2)

Address

DOUI

eRead Cycle (3)

(I ), (3), (4)

Dout

f=."~-"_l_~".~
NOTES: 1. WE is High for Read Cycle.
2. Device is continuously selected, CS V lL.
3. Address Valid prior to or coincident with CS transition Low.
4. OE= V/L.

=

122

•

HITACHI

-----------------------HM6116L-2,HM6116L-3,HM6116L-4

eWrite Cycle (1)

~-------~.~------~

(I)

Addr •••
,.. (2)

-1

.... ,.;0"-)_ _

Do..

Din

(5)

eWrite Cycle (2)

Addresl

Do..

·=='.~I~(8)
~
2K>000<

_ _ _-----ir==I.
K::

Din

NOTES: 1. A write occurs during the overlap (twp) of a
low CS and a low WE.
2. tWR is measured from the earlier of CS or WE
going high to the end of write cycle.
3. During this period, I/O pins are in the output
state so that the input signals of opposite
phase ~ the outputs must not be applied.
4. If the CS low transition occurs simultaneously
with the WE low transitions. or after the WE

transition, output remain in a high impedance
state.
s. OE is continuously low. (OE =VIL)
6. Dout is the same phase of write data of this
wri te cycle.
7. D0.2V

Vee for Data Retention

VOl

Data Retention Current

IceD"·- Vcc-3.0V, CS"'2.8V, V•• ~2.8Vor V.. ::OO.2V

Chip Deselect to Data Retention Time

,.

Operation Recovery Time
•

tCDR

See Retention Waveform

min

typ

2.0

-

-

-

-

50

pA

-

ns

0
tRC··

-

max

Unit
V

ns

VIL--O.3V min.

• • IRe -

Read Cycle Time.

e Low Vee Data Retention Waveform
~,

__--__--------~~------~~~h~~~..~"'~ion~~~d.~---~r-----------___

w------------------------------------------eHITACHI

123

·HM6116L-2,HM6116L-3,HM6116L-4
SUPPLY CURRENT
SUPPLY VOLTAGE

--------------------------t"
SUPPLY CURRENT VB.
AMBIENT TEMPERATURE

VB.

1.6

1.6

Vcc=S.OV

r.=25"C
4

.--'

0.8

~

~

V

-""

--

r---d

0.8

~

"i:
~

0.6

0.6

0.4

OA

4.5

5.0

'.75

525

:---t--

5.5

o

20

.0

60

Ambient Temperature Ta

Supply Voltage Vee (V)

ACCESS TIME VB.
AMBIENT TEMPERATURE

ACCESS TIME VS.
SUPPLY VOLTAGE

3,..--

1.3

1.

Vcc=S.ov

r.=25·C

]
"ic;
z

1.2

1.1 .....

c

5

--.....

1.0

.

~

~

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

0.9

./

r--

I
f:;

o.7

0.7
• .5

•. 75

5.0

5.5

5.25

~

20

60

40

SUPPLY CURRENT
FREQUENCY

ACCESS TIME VB.
LOAD- CAPACITANCE
1.8

VB.

200nl
.-""

/

V

V

ISOnl

120nl

\.21--~---t--+--_I_-_l

V

1A

80

Ambient Temperature Ta ("e)

Supply Voltage Vee (V)

1.0

o.9

V

0.8

0.8

1.2

V

1

~

E::

80

eel

./

I.ll--~---t--+--_I_-_l

c

~
<3

r.=25"C
Vcc=MIN

.!>

l,o'r--~--_+--~-~d.-~

L_I---ir---ij...--"
0.9'r--~--_+--~--+-~

It

Jl

0.8r--~--_+--~--+-~

0.8

o.6

0.7';;0--+---7----l-----!:--...,JI0
100

200

300

.00

500
Frequency

Load Capacitance Q. (pF)

124

•

HITACHI

I

(MHz)

-----------------------HM6116L-2,HM6116L-3,HM6116L-4
LOW INPUT VOLTAGE
SUPPLY VOLTAGE

HIGH INPUT VOLTAGE
SUPPLY VOLTAGE

VS.

1.3

VS.

1. 3

TII=25"C

T.=25"e

]

t

1.0

i

O. 9

~

~

"I

-

1

-

~

1.2

1. 1

~
t

II

1.0

~

j

o.9

~

.!i

•
.3

--

o. 7

0.7

'.5

4.75

'.5

5.5

5.25

5.0

OUTPUT CURRENT
OUTPUT VOLTAGE

Supply Voltage Vt"

OUTPUT CURRENT
OUTPUT VOLTAGE

VS.

1.2

\

~

1.0

~
d

0.1

T4=25"C
Vcc=SV

,

•

1.

··

(V I

VB.

.6

1. 6

..=:

d
o.6

..

J

/

2

\

0

\

•

o.

/

o.6

~

Output Voltage

•o

VOH

I

~

T4=25"C
Vcc=5V

V

o.

1
(V)

0.'

0.2

0.6

·

..

10·

STANDBY CURRENT
SUPPLY VOLTAGE

VB.

Vcc=3V

Cs=2.8V
.2

]

·
·
V

~

V

L

V

1.0

/

:z

V

•

.::: u.

V

/

//

b

,/'

1'a =25'("
f=~'n -n.tV

'V"
,

,
o

0.8

Output Voltage VOl. (V)

STANDBY CURRENT VS.
AMBIENT TEMPERATURE

10·

5.5

5.25

5.0

4.15

Supply Voltage Vcr (V)

~

~

o.8

0.8

]

~

II.

20

.0

60

80

.,

Supply Voltage Vee (V)

Ambient Temperaturt> Ta ('C i

•

HITACHI

125

HM6116L-2,HM6116L-3,HM6116L-4 - - - - - - - - - - - - - - - - - - - - - - STANDBY CURRENT vs.
INPUT VOLTAGE
0
Ta=2S"C

Vcc=5.0V
~=4.8V

8

6

4

2

0

0

.' -\1\

....

"-

Input Voltage V,. (V)

126

•

HITACHI

HM6116LI-2, HM6116LI-3,
HM6116LI-4
-Wide Operating Temperature Range2048-word x 8-bit High Speed Static CMOS RAM
• FEATURES
• Wide Operating Temperature Range. . . . • . . . . .. -40-+8SoC
• Single SV Supply and High Density 24 Pin Package
• High Speed: Fast Access Time
120ns/1S0ns/20Ons (max.)
• Low Power Standby and
Standby:
2Oj.tW (typ.)
Low Power Operation;
Operation: 160m W (typ.)
• Completely Static RAM:
No clock nor Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Pin Out Compatible with Standard 16K EPROM/MASK ROM
• Equal Access and Cycle Time
• Capability of Battery Back up Operation
(DG-241

• FUNCTIONAL BLOCK DIAGRAM
----<> Vcr

\
lIo,

MemDr)'

Row
~('uder

---OG~D

MatriX

•

lZ8X1211

• PIN ARRANGEMENT

o--t+--I

YiEo----,----.!±::1

.ABSOLUTE MAXIMUM RATINGS
Item
Voltage on Any Pin Relative to GND

Vr

Operating Temperature

T...

Storage Temperature

Td.
Pr

Power Dissipation
•

Symbol

Rating
-0.5· to +7.0
-40 to +85
-65 to +150
1.0

Unit
V

·c
·C
W

Pulse Width SOns. - 1.5 V

•

HITACHI

127

HM6116L1-2, HM6116LI-3,

HM6116LI-4---~----------------

• TRUTH TABLE
CS
H

OE

WE

Mode

Vee Current

X

Not Selected

ISB t /SSI

I/O Pin
High Z

Ref. Cycle

X

L
L
L

L
H

H
L
L

Read

Icc

Dout

Write

Icc

Din

Write

Icc

Din

Read Cycle 111-131
Write Cycle 111
Write Cycle (2)

L

• RECOMMENDED DC OPERATING CONDITIONS (Ta- -40 to +8S'C)
Item

Symbol

typ

max

4.5

5.0

5.5

V

0

0

0

V

V'N

2.2

3.5

6.0

V

VIL

-1.0·

-

0.8

V

min

Vee

Supply Voltage

GND
Input Voltage
•

Unit

Pulse Width:50na, DC: Va min--O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc-SV ±1O%. GND-OV. Ta=-40 to +8S'C)
Symbol

Item

Test Conditions

min

typO

max

Unit

Input Leakage Current

I lu I

Vee-5.5V. V •• -GND to Vee

-

-

2

fAA

Output Leakage Current

I fLo I

CS-V'N or OE-V'N.
V,~o-GND to Vee

-

-

2

fAA

Icc

CS-VIL.

-

35

90

mA

-

30

-

rnA

-

35

90

mA

4

20

mA

4

200

fAA

Operating Power Supply
Current

[cc,··

Average Operating Current

Icc

Standby Power Supply
Current

Output Voltage

* : Vcc-5V.

Ta-25'"C

2

1,~o-OmA

V,. -3.5V. VIL-0.6V.
l,~o-OmA

min. cycle. duty -100%

Iss

CS- V'N

IS81

CS;;;'Vec -0.2V.
V •• ;;;, Vee - 0.2V or V .. :i>0.2V

-

VOL

IOL-2.lmA

-

VON

ION--1.0mA

-

2.4

0.4

V

-

V

• • : Reference Only!

.AC CHARACTERISTICS (Vcc=SV ±10%. Ta= -40 to +8S'C)
eAC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: lTTL Gate and CL = 100pF (including scope and jig)

eREAD CYCLE
HM6116Li-2
Item

Symbol

HM61f6Li-3

150

-

200

-

ns

ISO

-

200

ns

120

-

200

ns

120

120

Read Cycle Time

he
I"

Chip Select Access Time

lACS

-

leLZ

10

-

10

10E

-

80

-

Output Enable to Output in Low Z

tou

10

-

Chip deselection to Output in High Z

tCHZ

0

40

Chip Disable to Output in High Z

toHZ

0

Output Hold from Address Change

10.

10

Selection~

to {)utput ~in "Low Z

Output Enable to Output Valid

128

•

150
~

~

""

-

W~

max

Unit

min

min

Address Access Time

Ckip

HM6116Ll-4

max

max

min

-

ns

120

ns

100

-

10

-

10

-

ns

0

50

0

60

ns

40

0

50

0

80

ns

-

10

-

10

-

ns

HITACHI

- - - - - - - - - - - - - - - - - - - - H M 6 1 1 6 L I - 2 . HM6116LI-3. HM6116L1-4
e WRITE CYCLE
Item

HM6116L1-2

Symbol

min

max

HM6116Ll-3

HM6116L1··4

min

max

min

max

-

200

-

Write Cycle Time

twe

120

-

150

Chip Selection to End of Write

leo

70

90

-

120

Address Valid to End of Write

I,.

-

105

120

-

140

Address Set Up Time

t,u

20

-

-

20

-

20

-

Write Pulse Width

lop

70

-

90

-

120

Write Recovery Time

lOR

5

-

10

-

Output Disable to Output in High Z

tOH~

0

40

0

Write to Output in High Z

tWH~

0

50

Data to Write Time Overlap

IDW

35

Data Hold from Write Time

I.H

5

-

Output Active from End of Write

tow

5

-

Unit
ns
ns
ns
ns
ns

10.

-

50

0

60

ns

0

60

0

60

ns

40

60
10

-

ns

10

-

10

-

10

-

ns

ns
ns

.CAPACITANCE (j=lMHz. Ta=2S'C)
Sy';bol

typ

max

Unit

Input Capacitance

Item

Co.

V.. -OV

3

5

pF

Input / Output Capacitance

C,/O

V, o-OV

5

7

pF

Note) This parameter

18

Test Conditions

sampled and not 100% tested.

• TIMING WAVEFORM
eRead Cycle (1)

0),

(5)

U<>1I1

eRead Cycle (2)

(1 h

Adduu

DaY1

(2), (4)

=F
".~ _-_-_-_-_%=~3
t::=".~,-"",
-_-_-_-_---=4=~~=

eRead Cycle (3)

Uout

~~__l_:"3NOTES: 1. WE is High for Read Cycle.
2. Device is continuously selected, CS = V/L.
3. Address Valid prior to or coincident with CS transition Low.
4. OE= VIL .

•

HITACHI

129

HM6116L1-2, HM6116L1-3, H M 6 1 1 6 U - 4 - - - - - - - - - - - - - - - - - - - -

1'-------1.'-------1

• Write Cycle (1)
Address

,•• ( l)
DOUI

Din

.Write Cycle (2)

---_--«~f=='··:;--,··]~XXX<...lL..>.
I'-------Iw'

(5)

Address

_~I'

___________-J!

--+""""'""""''"'",r--.• ( 1 ) - - - j / - t - - - - - - p

(3)
I••

Dout

Dm

_________~~~··=·=='=··~1(~8)~~
C
]OOOO(

NOTES: 1. A write occurs during the overlap (twp) of a
low CS and a low WE.
2. tWR is measured from the earlier of CS or WE
going high to the end of write cycle.
3. During this period, 1/0 pins are in the output
state so that the input signals of opposite
phase to the outputs must not be applied.
4. If the CS low transition occurs simultaneously
'With the WE low transitions or after the WE

transition, output remain in a high impedance
state.
S. OE is continuously low. (OE = VlL)
6. Dout is the same phase of write data of this
write cycle.
7. DO..\!1.is the read data of next address.
8. If CS is Low during this period, 1/0 pins are
in the output state. Then the data input
signals of opposite phase to the outputs must
not be applied to them .

• LOW Vee DATA RETENTION CHARACTERISTICS (Ta=-40 to +85·C)
Symbol

Item
Vee for Data Retention

VD.

Data Retention Current

1CCDR·

Chip Deselect to Data Retention Time

tCDR

Operation Recovery Time

I.

• VIL--O.3V min.

•

*

Test Conditions
CS<:Vcc -O.2V, V.. <: Vcc -0.2V or V.. :>O.2V

Vee-3.0V, CS<:2.8V,
V.. <:2.8Vor -0.3V:;;;V.. :iOO.2V

IRe-Read Cycle Tune.

.

See Retention Waveform

min
2.0

typ

max

-

-

-

100

0

-

IRe ••

-

-

-

• Low Vee Data Retention Waveform
Data Retention Mode

Vee

--------'""ll--------="-"====-------I , - - - - - - - -

Vo,

CS-----'

w------------------------------------------130

eHITACHI

Unit
V
JlA

n'
ns

HM6116LP-2, HM6116LP-3,
HM6116LP-4
2048-word x 8-bit High Speed Static CMOS RAM
• FEATURES
• Single 5V Supply and High Density 24 Pin Package
• High Speed: Fast Access Time
120ns/150ns/200ns (max.)
• Low Power Standby and
Standby:
10~W (typ.)
Low Power Operation;
Operation: 160mW (typ.)
• Completely Static RAM:
No clock nor Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Pin Out Compatible with Standard 16K EPROM/MASK ROM
• Equal Access and Cycle Time
• Capability of Battery Back up Operation
(Dp.24)

• FUNCTIONAL BLOCK DIAGRAM
A,

o----D~:::)

\

----0 Vee
Memory Matrix

Row

Decoder

.PIN ARRANGEMENT

---OGND

•
128X128

1/0,0---...-1

Co I UIIUII/O
Input

Data
Control

I/o.o--rl-l

WEV---"'-----=::I

.ABSOLUTE MAXIMUM RATINGS
Item
Voltage on Any Pin Relative to GND
Operating Temperature
Storage Temperature

Symbol

Rating

Unit

VT
T.,.

-0.5· to +7.0

V
·C

o to

+70
-55 to +125

T.1 6
T....
PT

Temperature Under Bias
Power Dissipation

-10 to +85
1.0

·C
·C
W

* Pulse Width 50ns: -1.5V
.TRUTH TABLE
Ref. Cycle

CS
H

OE

WE

Mode

Vee Current

X

X

Not Selected

/s8.1ssl

I/O Pin
High Z

L
L

L
H

H
L

Read
Write

lee

Do"t

Read Cycle (1)-13)

lee

Din

L

L

L

Write

lee

Din

Write Cycle 11)
Write Cycle (2)

•

HITACHI

131

HM6116LP·2,HM6116LP-3,HM6116LP-4 - - - - - - - - - - - - - - - - - - - - - -

• RECOMMENDED DC OPERATING CONDITIONS (Ta-O to +70'C)
typ

max

4.5

5.0

5.5

V

0

0

0

V

VIH

2.2

3.5

6.0

V

VIL

-1.0'

-

0.8

V

Symbol

Item

min

Vee

Supply Voltage

GND

Input Voltage

Unit

• Pulse Width: 50ns. DC: VI/. min - -O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc-5V ±lO%. GND-OV. Ta-O to +70'C)
Item

Symbol

Input Leakage Current
Output Leakage Current

Vec-5.5V. V•• -GND to Vee

I fLo I

CS - VIH or OE - VIH.
VI,o-GND to Vee

Icc

CS-VIL. II'Q-OmA

Current

Icc)··

Average Operating Current

Standby Power Supply
Current

Icc

2

IUL-4mA

-

IOL-2.1mA

VI~-3.5V. VIL-0.6V.

Ilo-OmA
min. cyde. duty -100%

CS-VIH

/S81

CS;S:Vee -0.2V. V.. ~Vee0.2Vor V.. =OO.2V

VOH
: V(t

-

I SB

VOL

Output Voltage

typO

min

I ILl I

Operating Power Supply

•

HM6116LP-2

Test Conditions

IOH--1.0mA

HM6116LP-3/-4
max

min

typO

Unit

max

-

2

-

-

2

/lA

-

2

-

-

2

/lA

-

30

60

mA

25

-

mA

30

60

mA

4

12

mA

50

/lA

35

70

30

-

35

70

4

12

-

-

0.4

-

-

-

-

-

-

-

-

0.4

2.4

-

-

2.4

-

2

50

2

V

-

V

-5V. T.-25"(:

• • : Reference On.ly

• AC CHARACTERISTICS (Vcc-5V ±lO%. Ta-O to +70'C)
• AC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: 1TTL Gate and CL = 100pF (including scope and jig)

.READ CYCLE
HM6116LP-2
Item

Symbol

min

HM6116LP-3

HM6116LP-4
Unit

max

min

150

-

200

-

ns

150

200

na

150

-

200

na

max

min

max

Read Cycle Time

IRe

120

-

Address Acceaa Time

fAA

-

120

Chip Select Access Time

lACS

-

120

-

Chip Selection to Output in Low Z

tCLZ

10

-

15

-

15

-

ns

Output Enable to Output Valid

tOE

-

80

-

100

-

120

ns

Output Enable to Output in Low Z

tOLZ

10

-

15

-

15

-

ns

Chip Deselection to Output in High Z

tCHZ

0

40

0

50

0

60

Chip Disable ~o Output. in II igh Z

-10HZ

0

40

{).

-50

Output Hold f rom Address Change

to.

III

-

132

•

HITACHI

15

-

0--' 15

-

60

-

ns
-

--

ris·-

ns

----------------------HM6116LP-2,HM6116LP-3,HM6116LP-4

eWRITE CYCLE
HM6116LP-2

Symbol

Item

max

min

-

150

Write Cycle Time
Chip Selection to End of Write

Iwe

120

lew

Addre •• Valid to End of Write
Addre.s Set Up Time

I"

70
105
20

I,w

Write Pulse Width

Iwp

Write Recovery Time
Output Disable to Output in High Z

IWR
tOHZ

Write to Output in High Z

tWHZ

Data to Write Time Overlap
Data Hold from Write Time
Output Active from End of Write

HM6116LP-3

min

70
5

"

0
0

40
50

IDW

35

ID.

5

low

5

-

max

-

90
120
20
90
10

HM6116LP-4
max

200

-

ns
ns

60
60

ns

-

ns

120
140
20
120
10

0

50

0

0

60

40

-

0
60

10
10

Unit

min

10
10

ns
ns
ns
ns
ns
ns
ns

.CAPACITANCE {j-lMHz. Ta-2S"C)
Symbol

Item

C..
C, 0

Input Capacitance
Input/Output Capacitance

typ

max

Unit

V .. ~OV

3

5

pF

V,

5

7

pF

Test Conditions
0 ~OV

Note) This parameter is sampled and not 100% tested.

• TIMING WAVEFORM
eRead Cycle (1)

(I)

l)oUI

eRead Cycle (2)

(1), (21, (4)

Address

DOUI

eRead Cycle (3)

Uout

t",~__l_-3NOTES: 1.
2.
3.
4.

WE is High for Read Cycle.
Device is continuously selected, CS = VfL.
Address Valid prior to or coincident with CS transition Low.
OE= VfL.

eHITACHI

133

HM6116LP-2,HM6116LP-3,HM6116LP-4 - - - - - - - - - - - - - - - - - - - - - ~-------------,.,~--------------

e Write Cycle (1)
AcWr...

Do..

VI,

,S)

e Write Cycle (2)

Din

_______

NOTES: 1. A write occurs during the overlap (twp) of a
low CS and a low WE.
2. tWR is measured from the earlier ofCS or WE
going high to the end of write cycle.
3. During this period, I/O pins are in the output
state so that the input signals of opposite
phase!Q.. the outputs must not be applied.
4. if the CS low transition occurs simultane0!!!!x.
with the WE low transitions or after the WE

~~=~=.==~·I~(8~)~

C

S.
6.
7.
8.

%>000<

transition, output remain in a high impedance
state.
OE is continuously low. (OJ:: = VlL)
D out is the same phase of write data of this
write cycle.
D oJU. is the read data of nex t address.
If CS is Low during this period, I/O pins are
in the output state. Then the data input
signals of opposite phase to the outputs must
not be applied to them •

• LOW Vee DATA RETENTION CHARACTERISTICS (Ta-O to +70'C)
Test Conditions

min

typ

max

Vee for Data Retention

YD.

~Oi:Vee -O.ZV, V.. Oi:Vee -O.ZV or V.. liOO.2V

2.0

-

Data Retention Current

lccu*

Vee-3.0V, CS0i:2.8V, V.. 0i:2.8V or V.. liOO.2V

-

30

pA

0

-

-

ns

tile··

-

-

ns

Symbol

Item

Chip Deaele.t to Dati Retention Time

teDlt

Operation Recovery Time

II

•

See Retention Waveform

10pA max at Td-O~ to +40'C. VI/. min --O.3V

* * lit! -Read Cycle Time.

eLow Vee Data RetentIon Waveform
v" _________--. 1-________--""""'' ' 'Ro'' .' '.' ' .I'' '.,'-'Mod='________-1 ,..-_ _ _ _ __

~-------------------------------------------

134

eHITACHI

Unit

V

----------------------HM6116LP-2,HM6116LP-3,HM6116LP-4
SUPPLY CURRENT va.
AMBIENT TEMPERATURE

SUPPlY CURRENT va.
SUPPLY VOLTAGE
1.6

Vee

r.=25'C

=S.ov

1A
~

1.2

1.0

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

0.8

~

V

--

r--aE 0.8

r-- r--

~

J

0.6

0.6

0.4

4.75

5.25

5.0

5.5

o

20

40

ACCESS TIME vs.
AMBIENT TEMPERATURE

ACCESS TIME vs.
SUPPLY VOLTAGE
1.3

1.3

Vcc=S.ov

r.=25'C
-

]
'iC;

1.2

2

1.1

1

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

~

;:

3

1.0

I"........

I

.

;:

0.9

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

1.0

I

.

f::

~

~
0.8

I

0.7
4.5

5.0

4.75

O.9

V
./

0.8

o.7

20

5.5

5.2\

-I

1.2

~

/

;:

V
.

;:

~

80

.3

1.6

~

60

SUPPLY CURRENT va.
FREQUENCY

1.8

1A

40

Ambient Temperature Til (OC)

ACCESS TIME vs.
LOAD CAPACITANCE

~

V

~

Supply Voltage Vee (V)

]

80

60

Ambient Temperature Ta (Oe)

Supply Volt_Be Vee (V)

I-""

./

200ns

IS0n.

-

I----

120n.

L2

./
.1

r.=25'C

Vcc=MIN

1.0

9

0.8

0.8

r-

o.7

0.6
100

200

300

400

10

500
Frequency

Load Capacitance CL (pF)

•

HITACHI

J

(MH~)

135

HM6116LP-2,HM6116LP-3,HM6116LP-4 - - - - - - - - - - - - - - - - - - - - - LOW INPUT VOLTAGE va.
SUPPLY VOLTAGE

HIGH INPUT VOLTAGE va.
SUPPLY VOLTAGE

1.3

1.3

T.-25"C

T,1=25"C

1.2

2

-

1

1.0

i

~

~
;

~

j

~

j

O. 9

O.9

~

O.8

O.7
4.S

us

S.o

--Supply Voha,e

va.

,

]

TII-2S"C
Vcc-Sv

]

~

1.2

\

1.0

0.8

I o.

I

1.4

E
d

i

1.2

.:

1.0

!

\

6

~

d 0.8

\

I o.

~

O.4

Output Volta.1

6

I

o.4
o

1
VOB

(V)

/

/

0.2

/
V
T.*2S-c

Vcc=5V

0.4

0.6

STANDBY CURRENT
SUPPLY VOLTAGE

.

va.

1.4

Vc:c-3V
CS=2.8V
1.2

]
----

--~

(l
~

]

~

I

~

.

10-

,
10-

/

o

_.

-

----

/'

V

~

"7

]
60

11.4

0.2

80

V"

'/

2

Supply Volt.,. Vee (V)

•

HITACHI

/

/

/V

d 0.6
~

40

/

-

0.8

i

V
20

1.0

!

Ambient Temperature To ("C)

136

0.8

Output Volta,e VaL (V)

STANDBY CURRENT va.
AMBIENT TEMPERATURE

~ W

S.S

(V)

1.6

1.4

!
.s

Vl"C

OUTPUT CURRENT v••
OUTPUT VOLTAGE

1.6

i

us

S.O

4.7S

Supply Volta,. Vee (V)

OUTPUT CURRENT
OUTPUT VOLTAGE

~

0.8

0.7
4.S

S.S

S.2S

--

1

la=25"C
S-Vcc-U.2V

-----------------------HM6116LP.2,HM6116LP.3,HM6116LP-4
STANDBY CURRENT vs.
INPUT VOLTAGE
10
Ta=2S'C

Vcc=S.OV
N=4.8V

6

2

o
o

\

"'"
......

Input Voltage V,. (V)

eHITACHI

137

HM6116LPI-2, HM6116LPI-3,
HM6116LPI-4 -Wide Operating Temperature Range2048·word x 8·bit High Speed Static CMOS RAM
.FEATURES
• Wide Operating Temperature Range ...'. . . . . . .. -40-+85°C
• Single 5V Supply and High Density 24 Pin Package
• High Speed: Fast Access Time
120ns/150ns/20Ons (max.)
• Low Power Standby and
Standby:
10~W (typ.)
Low Power Operation;
Operation: 160mW (typ.)
• Completely Static RAM: No clock nor Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Pin Out Compatible with Standard 16K EPROM/MASK ROM
• Equal Access and Cycle Time
• Capability of Battery Back up Operation
(Op·24j

• FUNCTIONAL BLOCK DIAGRAM
----0 Vee

\

Row
Decoder

Memorv Matrix

•

110,0--....-;

• PIN ARRANGEMENT

--<)GND

IZ8XIZ8

Column I/O
Input
0. ..
Control

I/o.o--H-;

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Voltage on Any Pin Relative to GND

VT
T...

Operating Temperature

Storage Temperature
Power Dissipation

T."
PT

Rating
-0.5* to +7.0
-40 to +85
-55 to +125
1.0

Unit
V

·c
·C
W

* Pul.~ Width 50ns : -1.5 V

138

•

HITACHI

----------------------HM6116LPI-2.HM6116LPI-3.HM6116LP1-4

• TRUTH TABLE
CS

OE

WE

H

X

X

L
L
L

L
H

H
L
L

L

Mode
Not Selected

Vee Current

Read

Icc
Icc
Icc

Isa.1sBI

Write
Write

I/O Pin
High Z

Ref. Cycle

Dout

Read Cycle (I)-13)

Din

Write Cycle 11)
Write Cycle (2)

Din

• RECOMMENDED DC OPERATING CONDITIONS (Ta- -40 to +8S'C)
Symbol

typ

max

4.5

5.0

5.5

V

0

0

0

V

V'H

2.2

3.5

6.0

V

V"

-1.0·

-

0.8

V

Item
Supply Voltage

GND

Input Voltage
•

min

Vee

Unit

Pulse Width: SOns, DC: V/L min - -O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc-SV ±1O%. GNO-OV. Ta=-40 to +8S'C)
Symbol

Item
Input Leakage Current
Output Leakage Current

Test Conditions

min

typO

Vee-5.5V. V .. -GND to Vee

-

-

I ILl I
I fLo I

CS-V'H or OE-V,H. V"o-GND to Vee

Icc

CS- V". I"o-OmA

Operating Power Supply
Current

[CCI"

V'H -3.5V. V,,-0.6V. I"o-OmA

Average Operating Current

Icc

min. cycle. duty -100%

Standby Power Supply

Is.

Current

Output Voltage

* : Vc(-5V.

2

Issl

CS-V'H
CS;'; Vee -0.2V. V.. ", Vee -0.2V or V .. :S;0.2V

VOL

IOL-2.lmA

VOH

IOH--1.0mA

max

Unit

2

pA

2

pA

90

rnA
rnA

-

35

-

30

-

35

90

mA

4

20

mA

2

100

pA

0.4

V

-

V

2.4

-

Ta-2S·C

• * : Reference Only

.AC CHARACTERISTICS (Vcc=5V ±10%. Ta--40 to +85'C)
eAC TEST CONDITIONS
Input Pulse Levels: O.B to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.SV
Output Load: 1TTL Gate and CL = 100pF !including scope and jig)

eREAD CYCLE
HM6II6LPI -2
Item

Symbol
min

HM6II6LPI -3

max

min

HM6II6LPI-4

max

min

max

Unit

Read Cycle Time

he

120

-

150

-

200

-

ns

Address Access Time

/AA

-

120

150

ns

tACS

-

120

150

-

200

Chip Select Access T i';'e

-

200

ns

Chip Selection to Output in Low Z

feLZ

10

-

10

-

10

-

n.

Output En'able to Output Valid

tOE

-

80

-

100

-

120

ns

Output Enable to Output in Low Z

tOLZ

10

-

10

-

10

-

n.

Chip Deselection to Output in High Z

tCHZ

0

40

0

50

0

80

ns

Chip Disable to Output in High Z

10HZ

0

40

0

50

0

60

ns

Output Hold from Address Change

/OH

10

-

10

-

10

-

ns

•

HITACHI

139

HM6116LPI-2,HM6116LPI-3,HM6116LPI-4 - - - - - - - - - - - - - - - - - - - - eWRITE CYCLE
HM6116LPI-2
max

Symbol

Item
Write Cycle Time

Iwe

min
120

Chip Selection to End of Write

lew

70

Address Valid to End of Write
Address Set Up Time

IA.

105

lAS

20

Write Pulle Width
Write Recovery Time

Iwp

70
5

Output Disable to Output in High Z

tOHZ

Iwo

0

Write to Output in High Z

tWHZ

Dota to Write Time Overlap

IDw

35

Dota Hold from Write Time

IDN

Output Actiye from End of Write

low

5
5

0

-

-

40
50

-

HM6116LPI-3

min

max

-

ISO
90
120

-

20

90

HM6116LPI-4

min
200

20

-

SO

0

0

60

0
60
10
10

10

-

10

-

120
10

0

-

-

-

120
140

10

40

max

60
60

-

Unit
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns

.CAPACITANCE (J-IMHz. Ta-2S·C)
typ

max

Unit

Input Capacitance

C..

V•• -OV

3

5

pF

Input/Output Capacitance

C'"O

V/,o-OV

5

7

pF

Symbol

Item

Test Conditions

Note} This parameter i, eampled and not 100% tested•

• TIMING WAVEFORM
eRead Cycle (1)

(I)

Addrf'1III

Unul

(I>t (2), (4)

eRead Cycle (2)

Dou.

eRead Cycle (3)

=E;. ~_t~I.'~

(I), (3), (4'

OOUI

L".~__l_"1NOTES: 1. WE is High for Read Cycle.
2. Device is continuously selected, CS = V/L.
3. Address Valid prior to or coincident with CS transition Low.
4. OE= V/L.

140

•

HITACHI

- - - - - - - - - - - - - - - - - - - - H M 6 1 1 6 L P I - 2 , HM6116LPI-3, HM6116LPI-4
t-------I.C'-------i

• Write Cycle (1)

Address

liE

cs
WE

Do.,
Din

_______________ ~J:~'"-.----'••-~~~~

0.2V

-

4

12

-

4

12

rnA
rnA

-

2

SO

-

2

50

J'A

0.4

-

-

-

-

0.4

2.4

-

-

CS-VII., It II-OmA
V'H-3.5V, V/L-0.6V,
[, o-OmA

VOL

IOL-2.1mA

VON

-

3S

70

-

30

-

-

1cn=4mA

*' : Vrr-5V.

min

/('('2

Issl

Output Voltage

HM6116LFP-3/-4

max

[S8

Icc,··

Current

min

-

lee

Current
Average Operating Current

HM6116LFP-2

Test Conditions

IOIl--l.OmA

2.4

-

-

V
V

Ta-2S"C

• • : Reference Onl)'

.AC CHARACTERISTICS (Vcc=5V±10%. Ta=O to +70'C)
.AC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: 1TTL Gate and CL = 100pF !including scope and jig)

.READ CYCLE
HM6116LFP-2

Symbol

Item

min

max

HM6116LFp..3

HM61\6LFP-4

max

min

max

-

200

-

ns

Unit

Read Cycle Time

he

120

-

min
150

Address Access Time

lAA

-

120

-

150

200

ns

Chip Select Access Time

lACS

-

120

-

-

150

-

200

ns

tCLZ

10

-

15

-

15

-

n.

Output Enable to Output Valid

10£

-

80

-

100

120

ns

Output Enable to Output in Low Z

tOLZ

10

-

15

-

15

-

ns

Chip deselection to Output in High Z

ICHZ

0

40

0

50

0

60

ns

Chip Disable to Output in High Z

10HZ

0

40

0

50

0

60

ns

Output Hold from Address Change

ION

10

-

15

-

15

-

ns

Chip Selection to Output in

Lo~'

Z

•

HITACHI

-

143

HM6116LFP·2,HM6116LFP-3,HM6116LFP-4 - - - - - - - - - - - - - - - - - - - eWRITE CYCLE
HM6116LFP-2

Symbol

Item
Write Cycle Time

Iwe

Chip Selection to End of Write
Address Valid to End of Write

lew

Address Set Up Time
Write Pulse Width

lAS
Iwp

20
70

Write Recovery Time
Output Disable to Output in High Z

Iwo

5
0
0
35

10HZ

Write to Output in High Z
Data to Write Time Overlap

tWHZ

low
10.

Data Hold from Write Time
Output Active from End of Write

-

70
105

lAW

5
5

low

HM6116LFP-3
min
max

max

min
120

-

150
90

HM6116LFP-4

Unit

min

max

200
120

-

ns
ns
ns

ns
ns
ns

-

120
20

-

-

90
10

-

40
50

0
0

50
60

0
0

60
60

-

40
10

-

60
10

10

-

10

-

140
20
120
10

ns
ns
ns

ns
ns

.CAPACITANCE (J-IMHz, Ta-2S"C)
Input Capacitance

Symbol

Cin

Test Conditions
Vin-OV

Input/Output Capacitance

e,

V, o-OV

Item

0

typ

max

3
5

5
7

Note) This parameter is sampled and not 100% tested.

.TIMING WAVEFORM
e READ CYCLE (1)(\)
Addr, ..

1M.

till I

t - - - - - t u ,---+---1
I.r---~----~~~~~I

______t:::::::~"~"::::::::~

UuUI

e READ CYCLE (3)(1)(3"4)

Address

DoU!

eREAD CYCLE (2}(I)(2)W

~-~.tA(.'
.,-------------------_
(t( . ~.
. .t:=tl'l.Z
DOllt

----

NOTES: 1. W£ is High for Read Cycle
2. Device is continuously selected,
~ VIL
3. Address Valid prior to or coincident with CS
transition Low.

cs

4.00=

144

VIL'

•

HITACHI

Unit
pF
pF

-------------------------------------HM6116LFP-2.HM6116LFP-3.HM6116LFP-4
eWRITE CYCLE (1)

....
D.

'"

eWRITE CYCLE (2)

Iw<

Addr...

I ..
I,•

....

_(_(________________~r_-.W-----'-..-~~('l~~~~
K...
¥>()(

Om

NOTES: 1. A write occurs during the overlap (twp)' of a

low CS and a low WE.
2. tWR is measured from the earlier of CS or WE
going high to the end of write cycle.
3. During this period, I/O pins are in the output
state so that the input signals of opposite
phase to the outputs must not be applied.
4. If the CS low transition occurs simultaneously
with the WE low transitions or after the WE
transition, ou tpu t remain in a high impedance

state.
S. OE is continuously low. (OE = VIL)
6. Dout is the same phase of write data of this
write cycle.
7. DOJli is the read data of next address.
8. If CS is Low during this period, 1/0 pins are·
in the output state. Then the data input
signals of opposite phase to the outputs must
not be applied to them.

.LOW Vee DATA RETENTION CHARACTERISTICS (Ta-O to +70'C)
Item
Vee for Data Retention

Symbol
V.R

Data Retention Current

IccDR

Chip Deselect to Data Retention Time

tCDR

Operation Recovery Time

h

Test Conditions
CS;;:Vee-0.2V
V,N;;: Vee-0.2V or VIN:iOO.2V

.

Vce-3.0V. C'S;;:2.8V
VIN:i<2.8V or V'N:<:0.2V
See Retention Waveform

typ

max

2.0

-

-

-

-

30

pA

-

ns

min

0
··lRc

-

-

Unit
V

n8

• V,I. min--O.3V, 10pA max (at Ta-O to +40'"C)
IRe-Read Cycle Time.

**

eLow Vee DATA RETENTION WAVEFORM
v" _ _ _ _ _ _ _...., f-~____~O'e!.."'Re"'."''"''',;'''''"'''M~,''''d.'___ _ _---I

~tt

r--------

VD.-O.2V

cs ___...J
w- _________________________________________ _

•

HITACHI

145

HM6116K-3, HM6116K-4
2048-word x 8-bit High Speed Static CMOS RAM
• FEATURES
• Industrial Temperature Range . . . . . . . . . . . . . . 55 to +125°C
• Single 5V Supply and High Density 24 Pin Package
• High speed: Fast Access Time 150ns/200ns (max.)
• Low Power Standby and
Standby: 100/lW (type.)
Low Power Operation
Operation: 180mW (typ.)
• Completely Static RAM: No clock or Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Pin Out Compatible with Standard 16K EPROM/MASK ROM
• Equal Access and Cycle Time
(DG-24)

• FUNCTIONAL BLOCK DIAGRAM
• PIN ARRANGEMENT

- - 0 Vee

\

Row

Decoder

•

Memory Matrix

----OCND

•

128X!28

•

•

110,0--....,.-;

Column 110

Input

Dat.
Control

i/O.

o--rl-;
".

".

".

At.

(Top View)

WE o---"L-!:±::t

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Voltage on Any Pin Relative to GND

VT

-0.5· to +7.0

V

Operating Temperature

T."

-55 to +125

·C

Storage Temperature

T".

-65 to +150

·C

Power Dissipation

PT

1.0

W

Unit

• Pulse Width 50ns: -1.5V

.TRUTH TABLE
CS

OE

WE

Mode

H

X

X

Not Selected

L

L

H

Read

Icc

Dout

L

H

L

Write

Icc

Din

Write Cycle (1)

L

L

L

Write

Icc

Din

Write Cycle (21

146

Vee Current

Is B•

•

1881

HITACHI

I/O Pin

Ref. Cycle

High Z
Read Cycle (11-(31

---------------------------------------------------HM6116K-3,HM6116K-4
• RECOMMENDED DC OPERATING CONDITIONS (Ta= 0 to +70·C)
Item

Symbol

typ

max

Unit

4.5

5.0

5.S

V

0

0

0

V

Vi.

2.2

3.5

6.0

V

V,.

-1.0'

-

0.8

V

min

Vee

Supply Voltage

GND
Input Voltage
.. Pulse Width: SOns, DC: V/L ••• --O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc=5V±10%, GND-OV, Ta=-55-+125·C)
min

typO

max

Unit

I ILl I

Vee-5.5V, V..-GND to Vee

-

-

10

pA

I ho I

CS- V,. or OE- V,.,
Vi/o-GND to Vee

-

-

10

,.,A

Icc

CS-V'L, Il/o-OmA

-

35

90

mA

Vi.-3.5V, V,.-0.6V,

-

30

-

mA

Symbol

Item
Input Leakage Current
Output Leakage Current

Test Conditions

Operating Power Supply
Current

Iccl"

Average Operating Current

Il/o-OmA

lecl

Min. cyele, duty-l00%

-

35

90

mA

IS8

CS-V'H

-

4

20

mA

1SBI

CS;;;:Vee-0.2V, Vi .. ;;;:; Vee
-0.2V or V,.::;;0.2V

-

0.02

2

mA

VOL

I oL-2.1mA

-

-

0.4

V

VOH

I oH --1.0mA

2.4

-

-

V

Standby Power Supply
Current

Output Voltage
.. Vcc -5V. To-2S·C

*.

Reference Only

.AC CHARACTERISTICS (Vcc -5V±10%, Ta=-55 to +125·C)
• AC TEST CONDITIONS
Input Pulse Levels: O,S to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: 1TTL Gate and CL = 100pF (including scope and fig)
.READ CYCLE
HM6116K-3

HM6116K-4

Symbol

Item

Unit

min

max

min

max

-

200

-

ns

Read Cycle Time

he

150

Address Access Time

I ..

-

150

-

200

n.

Chip Select Access Time

lACS

-

150

-

200

n.

leu

10

-

10

-

n.

Output Enable to Output Valid

10E

-

100

-

120

n.

Output Enable to Output in Low Z

lou

10

-

10

-

n.

Chip De.election to Output in High Z

tCHZ

0

50

0

60

n.

Chip Disable to Output in High Z

tOHZ

0

50

0

60

n.

Output Hold from Address Change

ION

10

-

10

-

ns

Chip Selection to Output in Low

'z

•

HITACHI

147

HM6116K-3,HM6116K-4 - - - - - - - - - - - - - - - - - - - - - - - - - - - WRITE CYCLE
HM6116K-3

Symbol

Item

HM6116K-4

min

max

min

max

Unit

W rite Cycle Time

Iwe

150

-

ns

tew

90

-

200

Chip Selection to End of Write

120

-

ns

Address Valid to End of Write

tAW

120

-

140

-

ns

Address Set Up Time

lAS

20

20

-

ns

Write Pulse Width

twp

90

120

-

ns

W rite Recovery Time

IWR

10

-

10

-

ns

Output Disable to Output in High Z

tOHZ

0

50

0

60

ns

W ri te to Output in High Z

tWHZ

0

60

0

60

ns

Data to Write Time Overlap

tDW

40

-

60

ns

Data Hold from Write Time

IDR

10

-

10

Output Active from End of Write

tDW

10

-

10

-

ns
ns

.CAPACITANCE (f-lMHz, Ta-25'C)
Symbol

Item

Input Capacitance

C..

Input/Output Capacitance

Cl/ D

Test Conditions

v..-OV
v,,,,-OV

typ

max

3

5
7

5

Note) This parameter is sampled and not 100% tested.

• TIMING WAVEFORM
-READ CYCLE (1)(1)

,-\ddrE'ss

I'lt
If"~

r-----tAO---+---l

______t:::::::~"~"::::::::~

r----~----~~~~

-READ CYCLE (2)(1)(2) (')

Address

Dout

~."=:a-_l_'"1-

NOTES: 1.
2.
3.
4.

148

WE is High for Read Cycle.
Device is continuously selected, CS"= VlL.
Address Valid prior to or coincident with ~t~ansition Low.

'OE= V/L'

eHITACHI

Unit
pF
pF

--------------------------HM6116K-3,HM6116K-4
WRITE CYCLE(1)
~-------------I.'~--------------~
Address

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

t-___ ".''-U''-J_ _-i

Uin

eWRITE CYCLE(2)'"
Addre..

Dout

Din

NOTES: 1. A write occurs during the overlap (tJl!.f) of a low Nand a low"w'
2. tWR is measured from the earlier of cror W going high to the end
of write cycle.
3. During this period, I/O pins are in the output state so that the input
signals of opposite phase to the outputs must not be applied.
4. If the CS' low transition occurs simultaneously with the W low
transitions or after the WE transition, output remain in a high impedance state.
S. tlE"is continuously low. (OF: VIL)
6. Dout is t1:le same phase of write data of this write cycle.
7. Dc128

(DP-24A)

I/O, o--ff'[)--~

.PIN ARRANGEMENT
I/O'-r--j-+-£>+--L_

A.

I

24

Vee

13

110.

B--~~=t~~---------,
wr---H~~

O£--~~:=LJ--~

.ABSOLUTE MAXIMUM RATINGS
Item
Voltage on Any Pin Relative to GND

Symbol

Rati",

Unit

V,

-0.5· to +7.0
o to +70
-55 to +125
-10 to +85
\.0

V
·C

Operating Temperature

T.,.

Storage Temperature

T...

Temperature Under Bias

T.".

Power Dissipation

p,

·C

·c
W

(Top View)

• Pullf' Width SOns: -1.5V

.TRUTH TABLE

150

CS

OE

WE

--

-Mode

H

X

x

Not Selected

L
L
L

L
H
L

H
L
L

Write
Write

Vee Current

Read

•

Iss. 1511
ler

1/0 Pin
High Z

Ref. Cycle

Dout

Read Cycle 1\)-131

icc

Din

Write Cycle 111

Icc

Din

W rite Cycle 121

HITACHI

----------------HM6116AP-10,HM6116AP-12,HM6116AP-15,HM6116AP-20
HM6116ASP-10,HM6116ASP-12,HM6116ASP-15,HM6116ASP-20

.RECOMMENDED DC OPERATING CONDITIONS (To-O to +70'C)
Item

Symbol

typ

max

Unit

4.5

5.0

5.5

V

0

0

0

V

11,.

2.2

3.5

6.0

V

V"

-\.0·

-

0.8

V

min

Vee

Supply Volta,.

GND
Input Volta,.
•

Pul.~

Wldlh : SOna. DC: V,L nun -

O. 3V

.DC AND OPERATING CHARACTERISTICS (Vcc =5V±10%. GND-OV. To-O to +70'C)
Item

Symbol

Test Conditions

HM6116AP/ASp·IO

HM6116AP/ASP·12

HM6116AP/ASP·IS

HM6116AP/ASP-20

min

typ·

max

min

typ·

max

min

typ·

max

min

typ·

max

Unit

Input Leakage
Current

I ILl I

Vc c=5.5V, Vin=GND
to Vcc

-

-

2

-

-

2

-

-

2

-

-

2

p.A

Output Leak...
Current

Ihol

CS= V1H or OE= V1H•
VIIO=GND to Vcc

-

-

2

-

-

2

-

-

2

-

-

2

p.A

Icc

CS= VIL.ll/o=OmA
Yin= VIR or Va

-

5

IS

-

5

15

-

5

IS

-

5

IS

rnA

Icci

VIH=VCC. VIL=OV,
CS=VIL •
Il/o=OmA,f=IMHz

-

3

6

-

3

6

-

3

6

-

3

6

rnA

min. cycle, duty=IOO%

-

40

70

-

35

60

-

25

45

-

20

35

rnA

-

I

4

-

I

4

-

I

4

-

I

4

rnA

ISBI

tcs;vlH
CS~ Vcc -0.2V

0,02

2

2

-

0.02

2

-

0.02

2

rnA

IOL=4mA

-

0.4

-

0.02

VOL
VOH

-

-

0.4

-

-

0.4

-

-

0.4

V

IOH=-1.0mA

2.4

-

-

2.4

-

-

2.4

-

-

2.4

-

-

V

Operating Power
Supply Current

Average Operating
Current

ICC2
ISB

Standby Power
Supply Current
Output Voltage

*

.'

VCC=5V, Ta=25°C

.AC CHARACTERISTICS (Vcc -5V±10%. Ta=O to +70'C)
.AC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: lTTL Gate and CL = 100pF (including scope and jig)

.READ CYClE
1Iem

Symbol

H~li.~rJ
min

H~li.W/

max

min

HMlli.W'

max

min

HM6116APJ
ASP·20

max

min

max

Unit

Read Cycle Time

tRC

100

-

120

-

150

-

200

-

ns

Address Access Time

tAA

-

-

-

ISO
ISO

-

200
200

ns

tACS

120
120

-

Chip Select Access Time

100
100

Chip Selection to Output in Low Z

tCLZ

10

-

ns

Output Enable to Output Valid
Output Enable to Output in Low Z

tOE
tOLZ

ns
ns

Chip Deselection to Output in High Z

tCHZ

Chip

Di~able

to Output in High Z

Output Hold from Address Change

tOHZ
tOH

•

-

-

10

-

10

-

55

-

60

-

70

10
0
0
10

-

10
0
0
15

-

10
0
0
20

-

-

10

-

50

10
0
0
10

40
40

-

-

HITACHI

40
40

-

SO
50

-

ns

60
60

ns

-

ns

ns

151

HM6116AP·10,HM6116AP·12,HM6116AP·15,HM6116AP·20 - - - - - - - - - - - - - - - - - ' - HM6116ASP·10,HM6116ASp·12,HM6116ASp·15,HM6116ASP·20
eWRlTE CYCLE
HM6116AP/
ASP-IO

Symbol

Item
Write Cycle Time
Chip Selection to End of Write
Address Valid to End of Write
Address Set Up Time
Write Pulse Width
Write Recovery Time
Output Disable to Output in High Z
Write to Output in High Z
Data to Write Time Overlap
Data Hold from Write Time
Output Active from End of Write

twe
tew
tAW
tAS
twp
tWR
tOHZ
tWHZ
tDW
tDH
tow

max

min

100
6S
80
0
60
0
0
0
30
0
10

-

120
70
lOS
0
70
0
0
0
3S
0
10

-

-

40
30

-

-

H~Ji.ftPI

HM6116AP/
ASN2

min

HM6116AP/
ASP-20

max

min

max

min

max

-

ISO
90
120
0
80
0
0
0
40
0
10

-

200
120
140
0
100
0
0
0
SO
0
10

-

-

-

-

40
3S

-

-

-

-

SO
40

-

-

-

-

60
SO

-

-

.CAPACITANCE (J-IMHz, Ta-25·C)
Symbol

Item
Input Capacitance
Input/Output Capacitance

C,.
C"O

Test Conditions
I
I v..-OV .
I v,,,,-OV

typ

3
5

max
5
7

Note} This parameter is sampled and not 100% tested.

.TIMING WAVEFORM
eREAD CYCLE (1)(1)

Address

~------tAes----~--~

Dout

_ __-1====~t£eL~Z~==~

r-~--~~~~

eREAD CYCLE(2)(I)(2"')

tRe

----.1
Address

-JI\

E-

,
~tOH

tA
I = *:

~tOH3<

Dout

eREAD CYCLE(3)(I)(3",)

NOTES: I. W£"is High for Read Cycle.
2. Device is continuously selected, N .. VIL.
3. Address Valid prior to or coincident with Ntransition Low.
4. mr.. VIL.

152

•

HITACHI

Unit
pF
pF

Unit
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns

- - - - - - - - - - - - - - - - HM811 8AP·10,HM8118AP·12,HM8118AP·15,HM811 8AP·20
HM811 8ASp·1 O,HM6116ASP·12,HM611 8ASP·15,HM6116ASP·20

-WRITE CYCLE(1)

Address

twp·!,.ll--,I---I
Dout

_____________
Din

~-1:+r_tD_w--_t_D_H_~~~~~



twe
Address

....-~""~~~I----tew---t:=;~!,.-~~~~
CS

-J~~::~~~~~(.~)~::::::::::~4-1I~~-L-L~~-

Din

-------------------~

GOO<

NOTES: I. A write occurs during the overlap (t..ll'.f) of a low ~ and a 10w"WE".
2. t WR is measured from the earlier of cr or WE' going high to the end
of wri te cycle.
3. During this period, 1/0 pins are in the output state so that the input
signals of opposite phase to the outputs must not be applied.
4. If the CS" low transition occurs simultaneously with the WE' low
transitions or after the WE transition, output remain in a high impedance state.
S. UE'is continuously low. (OE = VIL)
6. Dout is tlte same phase of write data of this write cycle.
7. DCUIl.is the read data of next address.
8. If CS is Low during this period, 1/0 pins are in the output state.
Then the data input signals of opposite phase to the outputs must
not be applied to them .

•

HITACHI

153

HM6116ALP-10, HM6116ALP-12,
HM6116ALP-15, HM6116ALP-20,
HM6116ALSP-10, HM6116ALSP-12,
HM6116ALSP-15, HM6116ALSP-20
2048-word x 8-blt High Speed Static CMOS RAM
• FEATURES
HM6116ALPSeries
• High Speed: Fast Access Time 100ns/120ns/150ns/200ns (max.)
• Low Power Standby and
Standby:
5jJ.W (typ.)
10mW (typ.) (f = 1MHz)
Low Power Operation;
Operation:
• Capability pf Battery Back up Operation
• Single 5V Supply and High Density 24 Pin Package
• Completely Static RAM: No clock nor Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Pin Out Compatible with Standard 16K EPROM/MASK ROM
(DP-Z4l
• Equal Access and Cycle Time
HM6116ALSP Series

• FUNCTIONAL BLOCK DIAGRAM

··-~=rl

)

,,, <>---t-~=:::::J
(DP-24M
I/O •. <>---rl-.[)---i

• PIN ARRANGEMENT

~~c-~=t--t:----------------~

M

)i

I

24

Vee

I

WE <>---+11)1--1
0E.~----~---4-r-----

.ABSOLUTE MAXIMUM RATINGS
Item
Volt ... on Any Pin Relative to GND
Oper.tinl Temperature
Stor..e Temperature
Temperature Under Bia.
Power Di.sipation

Symbol

Ratilll
·-0.5· to +7.0

Vr

o to +70
-55 to +125
-10 to +85
1.0

T•••
T..,
T....
Pr

Unit
V

·c
·c
·c
W

(Top View)

• Pul.. Wid'" SO .. : -1.5V

..• TRUTH
TABLE------

154

-.-~-

-_

DE

WE

x

x

L

L

L
L

H
L

H
L
L

CS
H

..

~

.....

- ---

Mode
Not Selected
Read
Write
Write

•

Vee Current

111,1,,1
Icc

Icc
Icc

HITACHI

I/O Pin
Hip Z

Ref. Cycle

Dout
Din
Din

Read Cycle (1)-(3)
Write Cycle (l)
Write Cycle (2)

- - - - - - - - - - - - - - - H M 6 1 1 6 A L P - 1 O,HM6116ALP-12,HM6116ALP-15,HM6116ALP-20
HM6116ALSP-1 O,HM6116ALSP-12,HM6116ALSP-15,HM6116ALSP-20

.RECOMMENDED DC OPERATING CONDITIONS (Ta-O to +70·C)
typ

max

Unit

4.5

5.0

5.5

V

0

0

0

V

V,.

2.2

3.5

6.0

V

V"

-1.0·

-

0.8

V

Symbol

Item

min

Vee

Supply Voltage

GND

Input Voltage
• Pulse Width: SOns. DC: VlL min - -O.3V

.DC AND OPERATING CHARACTERISTICS (Vcc=5V ±10%. GND=OV. Ta-O to +70·C)
Symbol

Item

HM6116ALPI
ALSP·)O
min typO max

Test Conditions

Hr.~m:,w'

H~mw'

min

typO

max

min

typO

max

HM6116ALPI
ALSP-20
min typO max

Unit

Inpu t Leakage
Current

I ILl I

Vcc=S.SV. Vln=GND
to Vcc

-

-

2

-

-

2

-

-

2

-

-

2

I'A

Ou tput Leakage
Current

IILOI

CS= VIH or OE= VIH.
Vl/o=GND to Vcc

-

-

2

-

-

2

-

-

2

-

-

2

!AA

Icc

CS=VIL. hIO=OmA
V'n=VIH or V/L

-

4

12

-

4

12

-

4

12

-

4

12

rnA

ICCI

VIH=VCC. VIL=OV.
CS=V6L •
hlO= mA.f=IMHz

-

2

5

-

2

5

-

2

5

-

2

5

rnA

ICC2

min. cycle, duty=IOO% -

35

60

-

30

50

-

20

40

-

IS

30

rnA

ISB

CS= VIH

3

3

3

3

rnA

I

50

I

50

-

0.5

SO

-

0.5

I

-

0.5

CS ~ Vcc -0.2V

-

0.5

ISB]

1

SO

/loA

VOL

IOL=4mA

-

0.4

-

-

-

0.4

-

-

0.4

V

IOH=-1.0mA

-

2.4

-

0.4

VOH

-

-

2.4

-

-

2.4

-

-

V

Operating Power
Supply Current

Average Operating
Current
Standby Power
Supply Current
Output Voltage

2.4

* : VcC=5V, To=25°C
.AC CHARACTERISTICS (Vcc=5V ±10%. To-O to +70·C)
e AC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: 1.5V
Output Load: 1TTL Gate and CL - 100pF (including scope and jig)

eREAD CYCLE
Item

Symbol

HM6116ALPI
ALSP·)O
max

min

100
100

HM6116ALPI
ALSP-12
min
max

HM6116ALPI
ALSP-IS

HM6116ALPI
ALSP-20

min

max

min

120

150

150
150
60
-

200

-

ns

-

200
200

ns

Read Cycle Time

IRC

Address Access Time

tAA

100
-

Chip Select Access Time

tACS

-

Chip Selection to Output in Low Z

tCLZ

10

-

10

Output Enable to Output Valid

tOE

-

-

Output Enable to Output in Low Z

tOLZ

Chip Deselection to Output in High Z

tCHz

Chip Disable to Output in High Z

tOHZ

10
0
0

Output Hold from Address Change

tOH

10
0
0
10

50
40
40

120
120
55
40
40

-

10

-

•

-

HITACHI

10

10
0
0
15

SO
SO

-

Unit

max

ns

10

-

ns

-

70

ns

10
0
0
20

-

ns

60
60

ns

-

ns

ns

155

HM6116ALP·10,HM6116ALP·12,HM6116ALP·15,HM6116ALP·20 - - - - - - - - - - - - - HM6116ALSP·10,HM6116ALSP·12,HM6116ALSp·15,HM6116ALSP·20

.WRITE CYCLE
Item

Symbol

Write Cycle Time
Chip Selection to End of Write
Address Valid to End of Write
Address Set Up Time
Write Pulse Widtk
Write RecoverY Time
Output Disable to Output in High Z
Write to Output in High Z
Data to Write Time Overlap
Data Hold from Write Time
Output Active from End of Write

twe
tew
tAW
'AS
twp
tWR
tOHz
tWHZ
tDW
tDH
tow

HM6116ALPI
ALSP-lS

HM6116ALPI
ALSP·20

max

min

max

min

max

-

-

-

200
120
140
0
100
0
0
'0
50
0

-

-

ISO
90
120
0
80
0
0
0
40
0

-

10

-

10

HM6116ALPI
ALSP-I0

HM6116ALPI
ALSP-12

min

max

min

100
6S
80
0
60
0
0
0
30
0

-

-

120
70
lOS
0
70
0
0
0
35
0

-

10

10

-

40
30

-

-

-

40
35

-

-

SO
40

-

-

60
SO

-

.CAPACITANCE {J-IMHz. Ta-2S'C)
Item

Symbol

typ

max

l'nil

Input Capaeitanee

C ••

V.• -OV

3

5

pF

Input I Output Capaeitanee

C,.O

V, o-OV

5

1

pF

Test Conditions

Note} This parameter is sampled and not 100% tested.

• TIMING WAVEFORM
• Read Cycle (1)
(1]

~---------tRe----------~

Address

~-----tAes----r-~

Dout

___-1====~t£eL~Z~===4~

r--~--~~~~

.Read Cycle (2)
(11. (21, (41

.Read Cycle (3)
(11, (31, (4)

m

NOTES: 1.
is High for Read Cycle.
2. Device is continuously selected. CS = V/L.
3. Address Valid prior to or coincident with CS transition Low.
4. OE= VIL'

156

•

HITACHI

Unit
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns
ns

--------------HM6116ALP-10,HM6116ALP-12,HM6116ALP-15,HM6116ALP-20
HM6116ALSP-1 O,HM6116ALSP-12,HM6116ALSP-15,HM6116ALSP-20
eWrite Cycle (1)
twe
Address
t--

OE

L..L.t

es

\.\. ,\. \. \. \.'!J4)
tAW
tAs :-::::1

tewWE

(;fDW

Din

----,.

Address

'//////

I-twp[l)-

Dout

(5)

--

/

IIIIII

,tet [1)
'\. '\ '\ '\ ~
WP 1 -

WE -

I-tA

tWH~(3)

Dout

I--tOH@
f-tow-t

w"l2!-

ktDW+--tDH~8)

-

)OOO(

Din
NOTES:

ZZZ

tWR [2]

tew

\ \ \ \ \.(4)

-

tDH$;

twe

-

es \ '\

,""

\.\.\.\.\.

tOHZ 1-[3.1::1

eWrite Cycle (2)

tWR(2)

1. A write occurs during the overlap (twp) of a
low es and a low WE.
2. tWR is measured from the earlier of es or WE
going high to the end of write cycle.
3. During this period, 1/0 pins are in the output
state so that the input signals of opposite
phase!2.. the outputs must not be applied.
4. If the es low transition occurs simultaneously
with the WE low transitions or after the WE

5.
6.

7.
8.

transition, output remain in a high impedance
state.
OE is continuously low. (TIE = VIL)
D out is the same phase of write data of this
write cycle.
DO.ll1.is the read data of next address.
If es is Low during this period, 1/0 pins are
in the output state. Thim the data input
signals of opposite phase to the outputs must
not be applied to them .

• LOW Vee DATA RETENTION CHARACTERISTICS (Ta=O to +70'C)
Item

Symbol

Test Conditions

Vee for Data Retention

VDR

CS;;: Vee -0.2V

Data Retention Current

IceD"-

Vee-3.0V, CS;;:2,8V

Chip Deselect to Data Retention Time

,.

See Retention Waveform

Operation Recovery Time
• IO,uA max at Ta-Ot: to +40't. V"
h, "" Read Cycle Time.

**

fCDR

min

typ

max

Unit

2.0

-

-

--

3D

V
pA

-

-

0
tII:c··

ns
ns

min - -O.3V

eLow Vee Data Retention Waveform,

eHITACHI

157

HM6117P-3, HM6117P-4---204S-wordxS-bit High Speed Static CMOS RAM
.FEATURES
•
•
•

Single 5V Supply and High Density 24 pin Package.
High Speed: Fast Access Time
150ns/200ns (max.)
Low Power Standby and
Standby:
100~W (typ.)
Low Power Operation:
Operation: 200mW (tyP.)
Completely Static RAM:
No clock nor Timing Strobe Required
Directly TTL Compatible: All Input and Output
Equal Access and Cycle Time

•
•
•

.FUNCTIONAL BLOCK DIAGRAM
(DP-24)

__ vcc
Memory Matrix

Row

Decoder

_ _ GND

.PIN ARRANGEMENT

128Xl28

Input

Da..
Control

~2.-~~==r--r----11--------------"l
~l---+-o"""

WE

_---=t~.:::I;iD----..J

(Top View)

.ABSOLUTE MAXIMUM RATINGS
Item
Voltage on Any Pin Relative to GND

Symbol

VT

Power Dissipation

Pr

Operating Temperature

T.,.

Storage Temperature

T.t6

Temperature Under Bia.

T....

Rating

Unit.

'-0.5 to +7.0
1.0
o to +70
-55 to +125
-10 to +85

V

W

·c
·C

·c

* Pulle width SOn.: -1.5V
.TRUTH TABLE
CEI
H

WE

X

x
x

Noi" Selected

I~CLI

Not Selected

fccL2

High Z
High Z

H

Read
Write

Icc

Dout

Icc

Din

x

H

L
L

L
L

158

va

CEo

--

L

Mode

Vee Current

- .._..

Pin

_._ ..

eHITACHI

---------------------------HM6117P-3,HM6117P-4
(O"C~Ta~70"C)

.RECOMMENDED DC OPERATING CONDITIONS
Item

Vee

Supply Voltage

* Pulse width: SOns.

4.5
0

GND

Input High (logic 1) Voltage
Input Low (logic 0) Voltage
DC:

VIL"'~-

typ

max

Unit

5.0
0
3.5

5.5

V

0

V
V
V

min

Symbol

VIH

2.2
-1.0-

VII.

6.0
0.8

-

-O,3V

.DC AND OPERATING CHARACTERISTICS (Ta=Ot! to HOt!, Vcc=SV±10%. GND=OV)
Item
Input Leakage Current

Symbol

Output Leakage Current

I ho I

Operating Power Supply
Current: DC

Average Operating Current
Standby Power Supply

Ihll

Icc
leci
leeLl·

Current ill : DC
Standby Power Supply
Current 121 : DC
Output low Voltage
Output High Voltage

CE, -

CE". - VII.. II.o-OmA

Min cycle. duty-l00%

CE,-VIL. CE,-VIL
CE,"'Vee-0.2V.
VINE!; Vee-0.2V or VI,v$0.2V

feel.!·

eE''''Vcc-0.2V

VOL
V.H

IOL-2.1mA
ION-.,..l.OmA

typ

max

Unit

-

-

10

"A

-

-

10

"A

-

40

80

mA

-

40

80

mA

-

0.02

2

rnA

-

0.02

2

mA

min

Test Conditions

V.. -GND to Vee
eE, - VIN or CE, - VIN
VI, o-GND to Vee

-

-

0.4

V

-

V

-

2.4

Notes: 1) Typical limits are at Vcc-S.OV. Ta-+2S-c
21 • : V" ••• --O.3V

.CAPACITANCE (Ta-2S"C. f-1.0MHz)
Item
Input Capacitance
Input/Output Capacitance

Symbol

Test Conditions

typ

max

Unit

CIN

VIN-OV
V, o-OV

3
5

5

pF
pF

C"U

7

Note} This parameter is .ampled and not 100% tested •

• AC CHARACTERISTICS (Ta-Ot! to +70t!. Vcc -5V±10% unless otherwise noted)
e AC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10 ns
Input and Output Timing Reference Levels: l.SV
Output Load: 1 TIL Gate and CL=100pF (including scope and jig)
eREAD CYCLE
Item

Symbol

HM6117P-3
max

min

HM61l7P-4
min
max

Unit

Read Cycle Time

lac

150

-

ns

IAA

150

200

n.

tCQI

150

-

200

Chip Enable (CE.) to Output

tCOI

-

-

-

Address Acces. Time
Chip Enable (CE,) to Output

150

-

200

n.
ns

Chip Enable (CE,) to Output in Low Z
Chip Enable (C&) to Output in Low Z
Chip Disable (eE,) to Output in High Z
Chip Disable (CE,) to Output in High Z
Output Hold from Address Change

lUI

tua
tH~1
tHZ!

to.

•

10
10
0
0
15

HITACHI

-

70
70

-

200

10

-

10
0
0
15

80

80

-

n.
ns
n.
ns
ns

159

HM6117P-3,HM6117P-4 - - - - - - - - - - - - - - - - - - - - - - - - - eTIMING WAVEFORM OF READ CYCLE

(Notes 1)
IftC

Adclre81

CEI

Dout

Data Valid

NOTES: 1. WE is High for Read Cycle.

eWRITE CYCLE

Write Cycle Time
Chip Enable ("CE,) to End of Write
Chip Enable ("CE,) to End of Write
Addre.. Set Up Time
Addre •• Valid to End of Write
Write Pul •• Width
Write Recovery Time
Write to Output in High Z
Data to Write Time Overlap
Dat, Hold from Write Time
Outpui Active from End of Write

HM6117P-4
max
200
120
130
20
150
120
15
70
0
60
20
10

HM6117P-3
min
max
150
100
110
20
130
100
15
0
60
50
20
10
-

Symbol

Item

Iwe
lewl
Ie ..
lAS

!"w
Iwp
IWR
tWHZ

min

-

-

low
ID'
low

Unit
n.
n.
n.
n.
n.
n.
n.
n.
n.
n.
n.

eTIMING WAVEFORM OF WRITE CYCLE

-

lwe

Acldre..

---,.

.

---.J

EE,

\\\\\\ l\\\~

"r3'r-

I•

I

(5)
Ie..

\\\\\' l\\\

I ••

fwp(l}

f..,(2)

\\\\\\

~,

~

"'~l~

DOllt
I ••

I ••

_f

\fX

Din

NOTES: 1 A write occurs during the
- 1lVerlap- -llivpr of -low- CE , ,
~2 andWJ::.
2. t AS is measured from the
address changes to the bigin.
ning of the write.
3. tWR is measured from the
earlier of (;£" ~, or WE
going high to the end/of
write cycle.

160

l(S)

Data In V.lid

4. During this period, I/O pins
- are' in- the- -output -state- ~o­
that the input signals of
opposite phase to the out·
puts must not be applied.
S. If the CEI or CE. low transi·
tion occurs simultaneously
with the WE low transitions or
after the W! transitions, out·
ISut remain in a high im·
pedance state.

•

HITACHI

'V.YV.:::....

6. Dout is the same phase of
write --data-- ~f-- this --write
cycle.
7. Dout is the read jlata of next
address.
8. If eE, and CE; are low
during this period, I/.O pins
are in the output state. Then
the data input signals of opposite phase to the outputs
must not be applied to them.

------------------------------------------------------HM6117p~,HM6117P~

SUPPLY CURRENT
VS. SUPPLY VOLTAGE

SUPPLY CURRENT
VS. AMBIENT TEMPERATURE

1.6

1.6

Vcc=s.ov

r.=25'C
1A

.....

1.2

1.0

~

~

0.8

V

]
i

~

1.2

- ---

'" t---~

1.0

a

0.8

.

-----

~

]:
~

0.6

OA

4.5

1.4

4.15

5.0

5.5

525

0.6

OA

o

20

Supply Voltage Vee (V)

40

re)

ACCESS TIME
VS. AMBIENT TEMPERATURE

1.3

1.3
Vee = S.oV

To=2S"C
2

2

It-..

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

~

e::

80

60

Ambient Temperature To

ACCESS TIME
VS. SUPPLY VOLTAGE

r--

V

1

~

--........

o.9

1.0

r.............

9

V

/'

~

0.8

O.1

O.1

4.5

4.15

5.5

525

5.0

20

Supply Voltage Vee (V)

60

40

Ambient Temperature Ta

ACCESS TIME
vs. LOAD CAPACITANCE

SUPPLY CURRENT
VS. FREQUENCY

1.8

1.3
200ns

1~

A

12

1.0

/

~

~

/'

V

.....

80

(Oe)

150n5

120n5

12

1.1

1.0

r.=25'C
Vcc=MIN

9

- --

0.8

.8

O.1

.6
100

200

300

400

10

500
Frequency

Load Capac Itance CL (pFJ

eHITACHI

f

(MHz)

161

HM6117P-3,HM6117P-4 - - - - - - - - - - - - - - - - - - - - - - - - - - INPUT HIGH VOLTAGE
VB. SUPPLY VOLTAGE

INPUT LOW VOLTAGE
VB. SUPPLY VOLTAGE

.3

1.3

T.=25'C

Th=25'C
1.2

1. 2

j

t

~
~

g

•

.3

1

-

1

1.0

t--

~

;

~

I

o.9

~

0.8

0:

4.75

5.5

5.25

5.0

1.0

~

4.5

5.25

5.0

5.5

OUTPUT LOW CURRENT
vs. OUTPUT LOW VOLTAGE
1.6

1.6
T.-25'C
Vcc=5V

,

1.4

]

\

1.0

0.6
0.4

I

1.4

]

1\

1.2

0.8

I

:i
~

\

1.2

1.0

E

c3

\

0.8

/

il.

d

0.&

~

Output. Voltale

VOR

I

/

T.=25'C
'Vcc-SV

eHITACHI

0.6

0.4
(Aatput Volt.ge

(V)

/

1/
0.2

1

162

4.75

Supply Volta,e Vee (V)

OUTPUT HIGH CURRENT
VB. OUTPUT HIGH VOLTAGE

~

l.--

0.8

Supply Voltage Vee (V)

I

---

~

o.9

o.7

0.7

4.5

1. 1

:l!

VOL

(V)

0.8

HM6117FP-3, HM6117FP-4--204S-wordXS-bit High Speed Static CMOS RAM
.FEATURES
• High Density Small Sized Package
• Projection Area Reduced to One-Thirds of Conventional DIP
• Thickness Reduced to a Half of Conventional DIP
• Single 5V Supply and High Density 24 pin Package.
• High Speed: Fast Access Time
150n5/2oons (max.)
• Low Power Standby and
Standby:
100/lW (typ.)
Low Power Operation:
Operation: 200mW (typ.)
• Completely Static RAM:
No clock nor Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Equal Access and Cycle Time
(FP-24)

.PIN ARRANGEMENT

.FUNCTIONAL BLOCK DIAGRAM
AI
AJ
AJ
A.

,..AA
A7

!~

- - - 0 Vee

Memory Matrix

Row

DeeocIer

- - - 0 GND

128Xl28

---tl:;C==1
Input

Data
Control

cr2_~~==j--i----t----------------.
(Top View)

crl---+-D...-.4

iVE_----lt>--=[;i[r----'

.ABSOLUTE MAXIMUM RATINGS
Item
Voltage on Any Pin Relative to GND
Power Dissipation

Symbol

Rating

VT

'-0.5 to +7.0

PT

Operating Temperature

To.r

Storage Temperature

T.,.

1.0
o to +70
-55 to +125

Temperature Under Bias

T•• u

-10 to +85

Unit
V
W
·C
·C
·C

• Pulse width SOns: -l.SV

.TRUTH TABLE
CEI
H

CEo

WE

Mode

Vee Current

X

X

[ceLl

X

feeL!

I/O Pin
High Z
High Z

L

H
L

Not Selected
Not Selected

H

Icc

Dout

L

L

L

Read
Write

Icc

Din

X

eHITACHI

163

HM6117FP~,HM6117FP4---------------------------------------------------

.RECOMMENDED DC OPERATING CONDITIONS (O'C~Ta~70'C)
Item

typ

max

4.5

5.0

5.5

V

0
2.2
-1.0-

0
3.5

0
6.0
0.8

V

Symbol

min

Vee

Supply Voltage

GND

V,.

Input High (logic 1) Voltage
Input low (logic 0) Voltage

V'L

-

Unit

V
V

• Pulse width: 5On.. DC: V".... --O.3V

.DC AND OPERATING CHARACTERISTICS (Ta-O'C to +70'C. Vcc-SV±10%. GND=OV)
Item
Input Leakage Current

Symbol

Output Leakage Current

I ILo I

Operating Power Supply
Current: DC

Icc

Average Operating Current

1cci

Standby Power Supply

I ILl I

leeL!-

Current !II : DC
Standby Power Supply
Current (21 : DC
Output low Voltage
Output High Voltage

typ

max

Unit

-

-

10

IlA

-

-

10

IlA

-eE,-CJ;;,-V'L. I, o-OmA

-

40

80

mA

Min cycle, duty-l00%

-

40

80

mA

-

0.02

2

mA

Test Conditions

min

V•• -GND to Vee
-eE,-V,. or CE.-V,.
V"o-GND to Vee

a:;, - VIL. a:;, - V'L
CEI~Vee-0.2V.

V,.<:Vee -0.2Vor VI..S:0.2V

feeu·

CE.;;;:Vee-0.2V

-

0.02

2

mA

VOL
VO.

IOL-2.1mA
I o.--1.0mA

-

-

0.4

V

2.4

-

-

V

Notes: 1) Typical limits are at Vcc-S.OV. TII- +2S-C
2) • : V,Loo .• - -O.3V

.CAPACITANCE (Ta-2S'C. /-1.0MHz)
Item
Input Capacitance

Input/Output Capacitance

Symbol

Test Conditions

typ

max

C'N
C,o

VIN-OV
V, o-OV

3
5

5

Unit
pF

7

pF

Note} This parameter is sampled and not 100% tested.

• AC CHARACTERISTICS (Ta-O'C to +70'C. Vcc =5V±10% unless otherwise noted)
e AC TEST CONDITIONS
Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: IOns
Input and Output Timing Reference Levels: l.SV
Output Load: ITTL Gate and CL = 100pF (including scope and jig)
eREAD CYCLE
Item

Symbol

HM6117P-4

HM6117P-3
max

min

max

min

Read Cycle Time

he

150

-

200

-

Address Access Time

t"

-

150

-

200

Chip Enabl.~. (CE,) to Output
Chip Enable (CE.) to Output

t.C.o1 _

-

_.-

teot

-

Chip Enable (CE,) to Output in Low Z

tLZI

Chip Enable (CE.) to Output in Low Z
Chip Disable (CE,) to Output in High Z
Chip Disable (CE.) to Output in High Z

IHZ2

Output Hold from Address Chang.

to.

164

•

-.

._150 ..

-

~

..

-200-·

150

-

200

10

-

10

lLZ2

10

-

10

-

IHzl

0
0
15

70

0
0
15

HITACHI

70

-

Unit
ns
ns
--- -ns-

ns
ns
ns

80

ns

80

ns
ns

-

- - - - - - - - - - - - - - - - - - - - - - - - - - HM6117FP-3,HM6117FP-4
eTIMING WAVEFORM OF READ CYCLE

(Notes 1)
IRC

Address

CEI

Dout

Oua Valid

NOTES: 1.

WE is High for Read Cycle.

eWRITE CYCLE
Item

HM61l7P-3

Symbol

HM6117P-4
min
rna.

-

200

-

-

120

-

130

-

n'

20

-

n'

150

-

n'

15

-

W rite Cycle Time

twc

Chip Enable (CE') to End of Write

lewl

100

Chip Enable (CE.) to End of Write

tCWI

110

Address Set Up Time

t ..

20

Address Valid to End of Wri te

t.w

130

Write Pulse Width

100

Write Recovery Time

'two
I"

-

120
15

W rite to Output in High Z

tWHZ

0

60

0

70

Data to W rite Time Overlap

tow

50

60

Data Hold from W rite Time
Output Active from End of Write

10.

20

tow

10

-

-

eTIMING WAVEFORM OF WRITE CYCLE

Unit

max

min
150

20
10

o'
n'

n'
ns
n'
ns
n'
ns

,.,

Address

,.,

---'

\\\\"0 \\\\\'\

terr,

..

\\\\\ l\\\
tu(2)

,
\\\\\\

r...,.o)

~

1'.."Z(4)1

~(7)

,'\I

Dout

@.

Din

NOTES: I. A 'write occurs during the
overlap J!Ji!p) of low CE"
CE, and WE.
2. t A.S is measured from the address changes to the biginning
of the write.
3. tWR is measured from the
earlier of CE " CEo or WE
going high to the end/of
write cycle.

".

HITACHI

IDN

'V.Y\t.::>..
(8)

D,t, In. Valid

4. During this period, I/O pins
are in the output state so
that the input signals of
opposite phase to the outputs must not be applied.
S. If the CE , or CE, low transition occurs simultaneously
with the WE low transitions or
after the WE transitions, output remain in a high im-

•

f'm-

WI

I

(5)

pedance state.
6. Dout is the same phase of
write data of this write
cycle.
7. Dout is the read ,data of next
address.
8. If CE , and CEo are low
during this period, I/O pins
are in the output state. Then
the data inpu t signals of opposite phase to the outputs
must not be applied to them .

165

HM6117FP·3,HM6117FP-4 - - - - - - - - - - - - - - - - - - - - - - - - SUPPLY CURRENT
ya. SUPPLY VOLTAGE

SUPPLY CURRENT
Ya. AMBIENT TEMPERATURE
To=-251:

Vee = 5.0V

".

~

...,....... ~

V

r--

---r---

c

~
d 0.8

I--

~

j
0.4
4.5

4.75

004

525

5.0

0.6

5.5

o

20

Su.pply Volta,e Vee (V)

40

ACCESS TIME
Ya. SUPPLY VOLTAGE

eel

ACCESS TIME
YS. AMBIENT TEMPERATURE

1.3

1.3

Vcc-s.ov

r.=25'C

1
i

1.2

I" .............

~ I.
~

.f

1.0

]
i

~

I
j::

80

60

Ambient Temperature To

O.9

"'--r----

1.2

~

I.

~

1.0

V

I

V

L
~

j
0.8

0.8

o.7
4.5

4.75

5.0

o.7

5.5

5.25

Supply Volta,_ Vee (V)

80

ACCESS TIME
ya. LOAD CAPACITANCE

SUPPLY CURRENT
ya. FREQUENCY

1.8

1.3,-,.--r--r-r"7:-T.!.:--,
200ns
150na
lZ0n.

/

V

/

1.2r--~----+----~----~--~

V
To=2S"C

.0/
.

Vcc-MIN

0.8~--~-----+----~----+_--~

.8
.6
100

200

300

400

O.7'::-O----+----~--~~-_!;--~10

soo

~requency

Load Capacitance Ct. (pF)

166

60

40

Ambient Temperature Ta (-C)

,.

~

20

•

HITACHI

J

(MHz)

--------------------------HM6117FP.3,HM6117FP-4
INPUT LOW VOLTAGE
va. SUPPL Y VOLTAGE

INPUT HIGH VOLTAGE
VI. SUPPLY VOLTAGE

1.3

1.3
r.=25"e

TII=25"(;

1.2

1.2

j
~
;

!

•

oS

]

-

1

1.0
~

!

1.1

}
j

\. 0

:!!

~

O. 9

} o.9

I-----

~

~

~

~

O.ll

'"

O. 1

4.5

4.15

5.0

5.25

0.lI

O.1
4.5

5.5

4.15

Supply Voltage, Vee (V)

5.25

5.0

OUTPUT HIGH CURRENT
va. OUTPUT HIGH VOLTAGE

OUTPUT LOW CURRENT
VS. OUTPUT LOW VOLTAGE

1.6

.6
Ta=2S"C

Vcc .... sv

,

1.4

2

.4

\

0

O.6

O. 4

5.5

Supply Volt.le Vee (V)

.2

\

.0

\

8

0.6

~
0..

1

o

..i.

L
V
L
L

Ta=25"C
Vcc=5V

II
0.2

0.'

0.6

0.8

Output Volt.,e VOlt' (V)

•

HITACHI

167

HM6117LP-3, HM6117LP-4--204S-wordXS-bit High Speed Static CMOS RAM
.FEATURES
• Single 5V Supply and High Density 24 Pin Package.
• High Speed: Fast Access Time
150ns/200ns max.
• Low Power Standby and Low Power Operation;
Standby: 10J..lW (typ.) Two Chip Enable Input for Battery Back up
Operation: 180mW (typ.)
• Completely Static RAM:
No clock nor Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Equal Access and Cycle Time
• Capability of Battery Back up Operation
(DP-24)

.FUNCTIONAL BLOCK DIAGRAM
A,
AI
AI

d

A.
As
At.
A,

-oVcc
Memory Matrix

Row

Decoder

.PIN ARRANGEMENT

-OGND

128X128

CE:t---+-D~

WE

_--.:c>-..::::r;D----'

(Top View)

.ABSOLUTE MAXIMUM RATINGS
Item
Voltage on Any Pin Relative to GND

Symbol

Operating Temperature

T."

Storage Temperature

T~lw

Temperature Under Bias

T6 ...

Power Dissipation

PT

* Pulse width SOns:

Rating

Unit

·-0.5 to +7.0
o to +70
-55 to +125
-10 to +85
1.0

VT

V

·c
·C

·c
W

-l.SV

.TRUTH TABLE
CE,
-Il-

168

X

L

H
L

L

L

X

WE

CEo
-~

.. -

~-~~~X

X

H
L

~-

-~Not-

Mode
Selectea ~

Not Selected
Read
Write

Vee Current
~~

.. -,-

lcc-Ll'~-

1/0 Pin
High Z-

/CCLZ

High Z

Icc
Icc

Dout

eHITACHI

Din

----------------------------------------------------HM6117Lp~.HM6117LP~

.RECOMMENDED DC OPERATING CONDITIONS (Ta-O'C to+70'C)
Symbol

Item

Vee

Supply Voltage

GND

Input High (logic 1) Voltage
Input low (logic 0) Voltage

*

min

typ

max

4.5
0

5.0

5.5

V

0
6.0
0.8

V
V
V

V,H

2.2

0
3.5

VIL

-1.0·

-

Unit

Pulse Width: SOns. DC: VII. •.• --O.3V .

• DC AND OPERATING CHARACTERISTICS (Ta-O'C to+70'C, Vee-SV±10%, GND-OV)
Item

Symbol

Input Leakage Current

I ILl I

Output Leakage Current

I hoi

Operating Power Supply
Current: DC

Icc

max

Unit

VIN-GND to Vee

Test Conditions

-

-

2

",A

CE,-VI• or CE.-VIH

-

-

2

",A

CE,-CE.-VIL. 1I,o-OmA

-

35

70

mA

Min cycle. duty-lOO%
CEI-VIL, C£'z-VtL
'CE, ~ Vee-0.2V

-

35

70

mA

-

2

50

pA

-

2

50

",A

0.4

V
V

VI,o-GND to Vee

Average Operating Current

IccI

Standby Power Supply
Current (1) : DC

ICCLI·

Standby Power Supply
Current (21 : DC

feeL!·

CE.~Vee-0.2V

VOL

Io L-2.1mA
IOH--1.0mA

Output low Voltage
Output High Voltage

VOH

typ

min

VIN;;: Vee-0.2V or VI.::>0.2V

-

2.4

-

Notes: 1) Typical limits are at Vcc-S.OV. Ta-+2S"C
2) • : Vn..... --O.3V

.CAPACITANCE (Ta=2S'C, f-1.0MHz)
Symbol

Test Conditions

typ

Input Capacitance

CIN

VIN-OV

Input/Output Capacitance

C,/o

VI/O-OV

3
5

Item

I
I
I

max

Unit
pF
pF

5
7

Note:--O This parameter is sampled and not 100% teated.

• AC CHARACTERISTICS (Ta-O'C to +70'C, Vee =SV±10% unless otherwise noted)
• AC TEST CONDITIONS

Input Pulse Levels •.•...................
Input Rise and Fall Times .....•..........
Input and Output Timing Reference Levels ..•
Output Load ..........................

O.SV to 2.4V
10n8
1.SV
1 TTL Gate and CL = 100pF (Including Scope & Jig)

eREAD CYCLE
Item

Symbol

Read Cycle Time
Address Access Time
Chip Enable (CE, ) to Output
Chip Enable (CE,) to Output.

min

he

150

-

200

-

I"

-

ISO

-

200

-

150
150

-

200
200

10
10

-

10

-

0
0

70
70

10
0

15

-

tCOI

iLZl

fLzz
tHZl

Chip Disable (CEo) to Output in High Z

tHZ!

Output Hold from Address Change

to.

$

HM6117LP-4
max

max

teo!

Chip Enable (eE,) to Output in Low Z
Chip Enable (CE,) to Output in Low Z
Chip Disable (CE:/) to Output in High Z

HM6117LP-3
min

HITACHI

-

-

Unit
ns
ns
ns
ns
ns

80

ns
ns

0

80

ns

15

-

ns

169

HM6117LP-3,HM6117LP-4 - - - - - - - - - - - - - - - - - - - - - - - - - eTIMING WAVEFORM OF READ CYCLE

(Notes 1)

Address

Dout

Data Valid

NOTES: 1.

WE is High for Read Cycle.

_

eWRITE CYCLE

Write Cycle Time
Chip Enable (eE,) to End of Write

Iwe

150

-

few1

100
110
20

-

Chip Eo.ble (CE.) to End of Write
Address Set Up Time

lew2

Address Valid to End of Write
Write Pulse Width

tAw

lAS

IWR
tWHZ

Data to Write Time Overlap
Data Hold from Write Time

10.

Output Active from End of Write

low

low

min

200
120
130
20
150
120
15
0
60
20
10

-

-

130
100
15

Iwp

Write Recovery Time
Write to Output in High Z

HM6117LP-4
max

HM6117LP-3
min
max

Symbol

Item

-

0

60

50
20
10

-

-

-

-

Unit
ns
ns

-

ns
ns

-

n'
n'
ns

70

n.

-

n'
ns
n.

eTlMING WAVEFORM OF WRITE CYCLE

I.,
Address

(5)

terr.

,.u(2)

DOdl

ID"

'''11
(8)

Din

NOTES: 1 A write occurs during the
~r1ap ~p) of low eE"
CEo and WE.
2. t AS is measured from the
address changes to the biginning of the write.
3. tWR is measured from the
earlier of CE" CE. or WE
going high to the end/of
write cycle.

170

Data In Valid

4. During this period, I/O pins
are in the output state so
that the input signals of
opposite phase to the outputs must not be applied.
S. If the <:£, or CE. low transition occurs simultaneously
with the WE low transitions or
after the WE transitions, output remain in a high impedance state.

$

HITACHI

6. Dout is the same phase of
write data of this write
cycle.
7. Dout is the read aata of next
address.
8. If CE, and CEo are low
during this period, I/O pins
are in the output state. Then
the data input signals of opposite phase to the outputs
must not be applied to them.

--------------------------HM6117LP·3,HM6117LP-4
.LOW Vee DATA RETENTION CHARACTERISTICS (Ta-O'Cto +70'C)
Symbol

Item

Test Conditions

min

Vee for Data Retention

VD.U

CE, :i:Vee -O.2V,
VIN;;:; Vee -0. 2V or VlN :OO.2V

Vee for Data Retention

VOltl

CE,;;:;Vee-O.2V

Data Retention Current

fcc DR I

Vee -3.0V, cr-;;;:;2.8V,
V,N:i:2.8V or V,N=>0.2V
Vee -3.0V, CE,;;:;Vcc-O.2V

Data Retention Current

[CCDa!

Chip Deselect to Data Retention Time

teDa

Operation Recovery Time

t.

See Retention Waveform

2.0
2.0

-

typ

max

-

-

V

-

V

30·

pA

30·

pA

-

-

°

-

tRC"

Unit

ns
ns

• lOpA max at T.-Q"C to +40"C. VtL min--O.3V
I.e-Read Cycle Time

**

-LOW Vee DATA RETENTION WAVEFORM
Data Retention Mode

~,----------------"'~----------------------------------~r----------------

~

_ _ _.J

ov--- ______________________________________ _
NOTE:

1. ~ cont~Address buffer, WE buffer, CE , buffer and DIN
buffer. If CEo con trois data retention mode, VIN level (address,
(WE,
01/0) can be in the high impedance state. If CE,
controls data retention mode, VIN level (address, WE, DE"
01/0) must be VIN ~ Vee-O.2Vor VIN ;l; O.2V.

cr.,

SUPPLY CURRENT
VB. SUPPLY VOLTAGE

SUPPLY CURRENT
vs. AMBIENT TEMPERATURE

1.6

1.6

Vcc=s.ov

Ta-25"C
1A

./

12

1.0

...........

0.8

~

~

V
~

1.0

~

0.8

""
d

--- -

r---- r--

0.6
0,4

4.5

4.75

5.0

o.4

5.5

5.25

Supply Voltage Vee (V)

20

40

60

80

Ambient Temparature To ("C)

•

HITACHI

171

HM6117LP·3, H M 6 1 1 7 L P . 4 - - - - - - - - - - - - - - - - - - - - - - - - ACCESS TIME VS.
SUPPLY VOLTAGE

ACCESS TIME VS.
AMBIENT TEMPERATURE

1.3

1.3

Vee = s.oV

r.=25"(;
1.2

j
~

1.1

1

1.0

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

:!

~

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

;l

I

j:;

0.9

J

0.8

/

I

1.0

I'-...

I

.
.li
f.:

o.9

/

~

0.8

o.7

0.7
4.5

4.15

5.0

5.25

20

5.5

Supply Voltase Vee (V)

1.3

IA

~

1.2

3
I

;:

S·
.li

..,,-

1.6

!

1.G

./

V

./

60

2oon,

150ft.

I. I

V

1.0

~~

TII=25"C

Vcc=MIN
0.9

0.8

0.8

o.7
100

200

300

400

10

500
Frequency

Load Capacitance Cr. (pF)

INPUT LOW VOLTAGE VS.
SUPPLY VOLTAGE

I

(MHz)

INPUT HIGH VOLTAGE VS.
SUPPLY VOLTAGE
.3

1.3
Ta=25'C

To=25"C

I.2

I.2

-

I

~
==

..s-

•

oS

1.0

!---"

i

1.0

~

; o.9
..s-

o.8

:t:

~

4..75

S.O

S.2S

--

I

o.9

O. 7
4.5

O.8

------

O.7
4.S

S.5

Supply Voltage Vee (V)

172

120ft.

1.2

V

0.6

i

80

SUPPLY CURRENT VS.
FREQUENCY

1.8

~

40

Ambient Temperature Ta I·e)

ACCESS TIME VS.
LOAD CAPACITANCE

j

/'

4.75

S.O

Supply Voltage Vee (V)

•

HITACHI

~

S.25

S.S

--------------------------HM6117LP-3,HM6117LP-4
OUTPUT HIGH CURRENT
VB. OUTPUT HIGH VOLTAGE

OUTPUT LOW CURRENT
va. OUTPUT LOW VOLTAGE

I.6

I.4

1
!
!
:;

I.6

,

I.2

,

Vcc-5V

I.

0.8

!

I.2

~

1.0

c3

0.8

:;

!

\

j
o.6

!

\

I
~

-'-

/

]

\

I.D

I

d

r.-2S-c

/

o.6

I

TCI=25"C
Vcc=SV

o.4
VOII

(V)

Output Voltage

STAND-BY CURRENT va.
AMBIENT TEMPERATURE

0.6

0.4

0.2
Output Volta,e

VOL

STAND-BY CURRENT va.
SUPPLY VOLTAGE

,

·

I.

Vcc=3V
CEo=2.8V
2

~

·

0

;; lO'

.::

V

E

(l

~

1u;

·

lO'

L

o.8

./

V

V

V

O.

'V

V

5'=

Ta=2S"C
Vee-O.2V

O. 2

20

40

60

2

Ambient Temperature Til t"C!

Supply Voltage Vee (V)

STAND-BY CURRENT va.
INPUT VOLTAGE

STAND- BY CURRENT va.
INPUT VOLTAGE

0
TII=251:
Vcc .. sv
CEI-4.8V

"
8

6

6

4

,

2

2

~

\

To=25"<:
Vcc=SV
~=4.8V

8

0

/
~

.IV

6

,
10'

o

0.8

(V)

0

Input Volta,e Y,N (V)

Input Yoltage V.. (V)

_HITACHI

173

HM6117LFP-3, HM6117LFP-4-204S-wordXS-bit High Speed Static CMOS RAM
.FEATURES
• High Density Small·sized Pack~ged
• Projection Area Reduced to One·Thirds of Conventional DIP
• Thickness Reduced to a Half of Conventional DIP
• Single 5V Supply
• High Speed: Fast Access Time
150ns/200ns max.
• Low Power Standby and Low Power Operation;
Standby: 10",W (typ.) Two Chip Enable Input for Battery Back up
Operation: 18OmW(typ.)
• Completely Static RAM:
No clock nor Timing Strobe Required
• Directly TTL Compatible: All Input and Output
• Equal Access and Cycle Time
• Capability of Battery Back up Operation

(FP-24)

.PIN ARRANGEMENT
.FUNCTIONAL BLOCK DIAGRAM
AI
At
At
At
AI
At
A.

i~

---+-i:j(=::::J

--Vee
Memory Mattix

Row
D.......

_ _ GND

128Xl28

IIOI---ri-Oh--t

(Top View)

CEl---fo00.4
WE _ _

-=t~.::r;;o-_..J

.ABSOLUTE MAXIMUM RATINGS
Item
Voltage on Any Pin Relative to GND

Symbol
VT

Rating
0-0.5 to +7.0

Unit
V

Operating Temperature

T."r

Storage Temperature

T.,.

o to +70
-55 to +125

·C
·C

Temperature Under Bias
Power Dissipation

T....
PT

-10 to +85
1.0

·c
W

• Pulse width 5Ons: -1.5V

.TRUTH TABLE
CEI

CE.

WE

H

X

X

174

X

H

X

L

L

H

L

L

L

Mode
Not Selected
Not Selected

Vee Current

Read
Write

$

/ceLl

I/O Pin
High Z

ICCLZ

High Z

Icc

Dout

Icc

Din

HITACHI

-------------------------------------------------HHM6117LFP·3,HM6117LFP·4
.RECOMMENDED DC OPERATING CONDITIONS (Ta-O'C to+70't!)
Item

min

typ

max

Vee

4.5

GND

0
2.2
-1.0·

5.0
0

5.5
0

3.5

6.0
0.8

Symbol

Supply Voltage
Input High (logic I) Voltage
Input low (logic 0) Voltage

VI.
Vn

-

Unit
V
V
V
V

vll.... --O.3V .

• Pul.. Width:50na, DC:

• DC AND OPERATING CHARACTERISTICS (Ta=O'C to +70'C, Vee-SV±10%, GND-OV)
Item
• Input Leakage Current
Output Leakage Current
Operating Power Supply
Current: DC
Average Operating Current

Standby Power Supply
Current III : DC
Standby Power Supply
Current 121 : DC
Output low Voltage
Output High Voltage

min
-

typ

max
2

Unit

-

-

-

2

JlA

eE,-CE,-V,L, 1,·o-OmA

-

35

70

mA

Min cycle, duty-lOO%

-

35

70

mA

-

2

50

JlA

-

2

50

JlA
V
V

Symbol

I ILl I
I fLo I
Icc
lccl
feeu·

Test Conditions
VIN-GND to Vee
CE,-VIH or CE,-VIH
VI,o-GND to Vee

CE,-Vn, eE,-V'L
CE,01:Vee -0.2V
VI .• ~ Vee-0.2V or V/NS:0.2V

feeu-

eE.~Vee-0.2V

VOL

IOL-2.lmA
IOH--1.0mA

VOH

-

-

0.4

2.4

-

-

JlA

Notes: 1) Typical limits are at Vee-S.O\'. T.-+2S"C
2) • : V".... --O.3V

.CAPACITANCE (Ta-2S'C, /-1.0MHz)
Item
Input Capacitance
Input/Output Capacitance

Symbol

typ

Test Conditions

VIN-OV
V, o-(lV

Cu;
Cl,O

3

max
5

5

7

Unit
pF
pF

Note: 1) This parameter ia sampled and not 100% tested .

• AC CHARACTERISTICS (Ta=O'C to +70'C, Vee -SV±10% unless otherwise noted)
• AC TEST CONDITIONS
Input Pulse Levels· .....................
Input Rise and Fall Times· ...............
Input and Output Timing Reference Levels· ..
Output Load ..•..................•....

O.SV to 2.4V
10ns
1.SV
1 TTL Gate and CL ~ 100pF (Including Scope & Jig)

eREAD CYCLE
Item

Symbol

HM6117LFP-3
min

HM6117LFP-4

max

min
200

max

Unit

-

ns

-

200

-

200
200

n.
n.

10

-

n.
ns

10

-

10

-

ns

0

70

0

80

0
IS

70

0
IS

80

n.
n.

-

n.

Read Cycle Time

he

ISO

-

Address Access Time
Chip Enable (CE,) to Output
Chip Enable (CE.) to Output

I ••

-

tCOI

-

tC02

-

ISO
ISO
ISO

Chip Enable (CE,) to Output in Low Z

tLZI

10

Chip Enable (eE.) to Output in Low Z
Chip Disable (eE,) to Output in High Z

Itzz
IHzl

Chip Disable (a~',) to Output in High Z

IHzz

Output Hold from Address Change

to.

_HITACHI

-

175

HM6117LFP-3,HM6117LFP-4------------------------------------------------eTIMING WAVEFORM OF READ CYCLE

(Notes 1)

'oe
Address
'08

Dout

Data Valid

NOTES: 1. WE is High for Read Cycle.

eWRITE CYCLE
HM6117LFP-3

Symbol

Item
Write Cycle Time

Iwe

Chip Enable (CE",) to End of Write
Chip Enable (CE".) to End of Write

tewl

Address Set Up Time

I ..

Address Valid to End of Write
Write Pulse Vlldth

I,w

W rite Recovery Time

Iw.

Write to Output in High Z

tWHZ

Data to W rite Time Overlap

low

Data Hold from W rite Time

10.

Output Active Irom End of Write

low

min

ISO
100
110
20
130
100
IS
0
50
20
10

fewz

I_p

max

HM6117LFP-4
min

max

200

ns
ns

120
130

60

Unit

ns

20
ISO

ns

120

ns
ns

IS
0
60
20
10

ns

70

ns
ns
ns
ns

eTIMING WAVEFORM OF WRITE CYCLE
1o,
Address

CEI

tu(2)

Dout

Din

NOTES: 1 A write occurs during the
overlap Qwp} of low CE
"
~o and WE.
2. t.AS is measured from the
address changes to the biginning of the write.
3. tWR is measured from the
earlier of CE " ~. or 'WE
going high to the end/of
write cycle.

176

Data In Valid

4. During this period, I/O pins
are in the output state so
that the input signals of
opposite phase to the outputs must not be applied.
S. If the ~, or 'CEo low transition occurs simultaneously
with the"ft low transitions or
after the WE transitions, output remain in a high im-

eHITACHI

pedance state.
6. Dout is the same phase of
write data of this write
cycle.
7. Dout is the read .data of next
address.
8. If CE, and CE; are low
during this period, I/O pins
are in the output state. Then
the data input signals of opposite phase to the outputs
must not be applied to them.

HM6117LFP·3, HM6117LFP·4
.LOW Vee DATA RETENTION CHARACTERISTICS (Ta~O'Cto +70'C)
Item

Symbol

Vee for Data Retention

VD"I

Vee for Data Retention

VDJU

Data Retention Current

IceDR I

Data Retention Current

/CCDRZ

Chip Deselect to Data Retention Time

teDit

Operation Recovery Time

t.

*.

*

typ

max

-

V

-

V

0

-

tile"

-

min

Test Condition
CE1~VCC-0.2V,

2.0

V'N<:Ve e-0.2Vor V/N:>0.2V
CE,~Vee-0.2V

2.0

Vee-3.0V,

CE.' O:2.8V,

V,N~2.8V

or V,N::OO.2V

Vee-3.0V,

-

CE,~Vce-0.2V

See Retention Waveform

Unit

30·

pA

30'

pA

-

ns

-

ns

IGpA max. at Ta-O·C to +4ffC. V,L min- -O.3V
i.e - Read Cycle Time

-LOW Vee DATA RETENTION WAVEFORM
Vee - - - - - - _ " " ' " '

Data
1-------==.::..:==:....:::=.-----.,
, ________
Retention Mode

a.-___J
ov _________________________________________ •
NOTE:

1. CEO controls Address buffer,.WE buffer, CE , buffer and DIN
buffo:!:Jf C£; controls data retention mode, VIN level J!cidress,
WE, CE, , 01/0) can be in the high impedance state. If CE; con·
trois data retention mode, VIN level (address, WE, CE" 0,,0)
must be VIN ~ Vcx::-O.2V or VIN ~ O.2V.

SUPPLY CURRENT
vs. SUPPLY VOLTAGE

SUPPLY CURRENT

vs. AMBIENT TEMPERATURE
1.6
Vcc=S.OV

To-25"C
]

IA

1

1.2

z

~

.,g

1.0

I

0.8

u

./

~

~

.........

./

~

1.2

~

0.6

o.4

1.4

?

j
'"

]

4.5

us

5.25

5.5

~

r--

0.6

o.4
5.0

--- -20

40

60

80

Amb,t>nr Temparalure Ta /'C)

Supply Voltage Vee l V)

•

HITACHI

177

HM6117LFP-3, H M 6 1 1 7 L F P - 4 - - - - - - - - - - - - - - - - - - - - - - - ACCESS TIME VS.
SUPPLY VOLTAGE

ACCESS TIME VS.
AMBIENT TEMPERATURE

1.3

1.3

Vcc=S.ov

r.=25'C
1.2

1.2

]
1

~

i

""

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

~

1.1

~

1.0

!
f=

o.9

V

:1!

~

-..............
0.9

r---.....

,,-/

V

E

~

0.8

o.1
4.75

0.8

.7

5.0

5.25

20

5.5

Supply Voltage Vee (V)

SUPPLY CURRENT VS.
FREQUENCY

1.8

1A

~

1.2

;:;

1.0

~

1.3

I

./V

./

150ns

--

r---

V

V

1

r.=25'C
Vee = MIN
9

]
0.8

0.8

0.6
100

200

300

soo

400

o.7
10

load Capacitance CL (pF)

Frequency / (MHz)

INPUT LOW VOLTAGE VS.
SUPPLY VOLTAGE
1.3:,-----.---.,.----,-----,

INPUT HIGH VOLTAGE VS.
'SUPPLY VOLTAGE
1.3

Ta=2S'C

]
~

1.21----+---+----+----1
1.1

~
;;:

i

~
i!.

1.0

0.9

..!i

.3•

-

-

T(I=25~

1.2

.1

.0

~
.9

0.8
0.7
4.5

--

~

----

.8

4.75

5.0

5.25

5.5

Supply Voltage Vee (V)

178

120ft.

200ns

./

1.6

~

80

60

40

Ambient Temperall1re Ta ('e,

ACCESS TIME vs.
LOAD CAPACITANCE

]

V

o.7

4.5

4.15

5.0

Supply Voltage Vee (V)

eHITACHI

5.25

5.5

HM6117lFP-3, HM6117lFP-4
OUTPUT HIGH CURRENT
VB. OUTPUT HIGH VOLTAGE

OUTPUT LOW CURRENT
VB. OUTPUT LOW VOLTAGE
.6

I.6

•

I.

TII=25·C

,

2

Vcc=SV

\

0

.

]
~

1. 2

~

]

\

O.6

=
d

I

\

1.0

0.8

0..
Output Voltage

VON

~

<3

10'

V

to-

o

0.'

0.2

0.8

0.6
VOL

STAND-BY CURRENT
SUPPLY VOLTAGE

(V)

VB.

1.4

j
~

V

~

V

1.2

1.0

L

;;

-=

0.8

f
<3

./

V

O.

L
~

V

=
6

O.

'V

,

O

Ta=2S1:

Vcc=5V

Vcc=3V
ct,=2.8V

·
·

~

]

/

Output Voltage

·
to-

/

/

V

(V)

STAND-BY CURRENT VB.
AMBIENT TEMPERATURE

.

/

O.ll

1\

•

O•

~

1

V

Ta=Z5"C

c:r =

Vee -0.2V

O. 2

20

40

60

80

2
Supply Volt.,e Vee (VJ

Ambient Temperature Ta (-C)

STAND-BY CURRENT va.
INPUT VOLTAGE

STAND-BY CURRENT
INPUT VOLTAGE

VB.

0

0

T.=25'C

r.. =25"(

Vcc=5V

Vcc=SV
CE.=UV

CE.=uv
8

8

6

6

4

•
2

o
o

~

\

0
Input Voltage

Input Voltage V,/W (V)

_HITACHI

v..

(V)

179

HM616SH-4S,HM6168H-SS'-~=I~pment

HM616SH-70,HM616SHP-4S,
HM616SHP-SS,HM616SHP-70
4096-wordX4-bit High Speed Static CMOS RAM
.FEATURES
• High Speed: Fast Access Time 45/55/70 ns (max.)
• Single +5V Supply and High Density 20 Pin Package
• Low Power Standby and Low Power Operation;
1001tW typo (Standby), 250mW typo (Operation)
• Completely Static Memory
No Clock or Timing Strobe Required
• Equal Access and Cycle Times
• Directly TTL Compatible - All Inputs and Outputs

HM6168H-45/55/70

.FUNCTIONAL BLOCK DIAGRAM

(DG-20)

A.~--~c=c=~----'

HM6168HP-45/55/70

A·o---Dt=:=I
A.o---ca:=::::::!
I{tlW
A,o---Dt=:=I Uocnder
A. o---~=::::!
A.o---C:O;:=:::::l
A·o----t(a==L__-1

Memory Matrix

GNP

128X 128

Column VO
Column UeC'oder

(DP-20)

.PIN ARRANGEMENT

~~~LJ~----------------------------~

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Voltage on Any Pin Relative to GND

V,N

-3.5' to +7.0

V

Power Dissipation

PT

1.0

W

Unit

Operating Temperature

Top,

o to

+70

·C

Storage Temperature (Ceramie)

T.,•

-65 to +150

·C

Storage Temperature (Plastic)

T.,•

-55 to +125

·C

Temperature under Bias

T....

-10 to +85

·C

* Pulse Width 2On&, OC--O.5V
Note} The specifications of thi" device are subiec:t to eha. without notice.
Please contact your nearest Hitachis Sales Dept. reqarding specifications .

180

•

HITACHI

(Top View)

HM6168HLP-45,HM6168HLP-55,
HM6168HLP-70
Under Development
4096-word x 4-bit High Speed Static CMOS RAM
.FEATURES
• High Speed: Fast Access Time 45/55/70ns(max.)
• Single +5V Supply and High Density 20 Pin Package
• Low Power Standby and Low Power Operation;
5JJ,W typo (Standby). 250mW typo (Operation)
• Completely Static Memory
No Clock or Timing Strobe Required
• Equal Access and Cycle Times
• Directly TTL Compatible-All Inputs and Outputs
• Capable of Battery back up Operation
(DP-20)

.FUNCTIONAL BLOCK DIAGRAM
,-\0

o----t;:a:===r--"l

.PIN ARRANGEMENT

A, o---;';;~==I
A. o----[~==1

Vee
Memury Matrix

o----l.::c:::=:::1
A. O----l.::c:::=:::1
A.

GND

128X 128

A, o----[~==1
A.

o-----l;cI===1._-.-J
Column

Input
Data

VO

Column De('oder

Cnntrnl

1/1l! o--~+t::H---1

(Top View)

~~~L-r-r-------------------~~

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Voltage on Any Pin Relative to GND

VIN

-3.5· to +7.0

V

Power Dissipation

PT

1.0

W

+70

·c

o to

Unit

Operating Temperature

Top,

Storage Temperature

Td •

-55 to +125

·C

Temperature under Bias

T~iu

-10 to

·c

* Pulse Width 20n8,

+85

DC--O.SV

Note} The llpecifications of this device are subject to ehange without notice.
Please contact your nearest Hitachi's Sales Dept. reprdina 5pecifications .

•

HITACHI

181

HM6167,HM6167-6,HM6167-S,
HM6167P,HM6167P-6,HM6167P-S
16384-word x1-bit High Speed Static CMOS RAM
.FEATURES
• Single +5V Supply and High Density 20 Pin Package
• Fast Access Time - 70ns/85ns1100ns
• Low Power Stand-by and Low Power Operation
Stand-by 25mW Typ. and Operating 150mW Typ.
• Completely Static Memory . • . • . No Clock nor Refresh Required
• Fully TTL Compatible - All Inputs and Output
• Separate Data Input and Output • ........ Three State Output
• Pin.Qut Compatible with Intel 2167 Series
.BLOCK DIAGRAM

HM6161. HM6161-6,
HM6161-8

(DC-20)

""--[:;:0

~Vee
~GND

HM6167P, HM6167P-6,
HM6167P-8

Memory Array
128X 128

Row
Select

Dout

Din

(DP-20)

.PIN ARRANGEMENT
.ABSOLUTE MAXIMUM RATINGS
Symbol

Item

Rating

Unit

Terminal Voltage with Respect to GND

VT

-0.5 to +1.0

V

Power Dissipation

PT

1.0

W

Operating Temperature

ToJlr

o to

+10

·C

Storage Temperature(Plastic)

h,,.

-55 to +125

·C

Storage Temperature ( Ceramic)

he.

-65 to +150

·C

.RECOMMENDED DC OPERATING CONDITIONS
( O'C~Ta~70'C)
Item
Supply Voltage
Input High Voltage
Input Low Voltage

182

Symbol
Vee

GND

"'.
"'L

min

4.5

typ

max

Unit

5.0

5.5

V

0

V

2.2

-

6.0

V

-0.5

-

0.8

V

0

0

eHITACHI

(Top View)

HM6167, HM6167-6, HM6167-8, HM6167P, HM6167P-6, HM6167P-8

.TRUTH TABLE
CS

WE

Mode

Vee Current

Output Pin

H

X

Not Selected

ISB, /S81

High Z

L

H

Read

Icc

Dout

Read Cycle I, 2

L

L

Write

Icc

High Z

Write Cycle I, 2

Reference Cycle

.DC AND OPERATING CHARACTERISTICS (Vcc-5V±10%, Ta=O'C to +70'C)
min

typ

max

Unit

Input Leakage Current

I ILl I

Vee-5.5V, ViN-OV-Vee

-

-

2

JlA

Output Leakage Current

Ihol

CS- ViH, VOUT-OV- Vee

-

-

2

JlA

Operating Power Supply Current

Icc

CS- ViL, Output Open

-

30

60

mA

Iss

CS- ViH

-

5

20

rnA

-

0.02

2

rnA

-

-

0.4

V

2.4

-

-

V

Item

Symbol

Standby Power Supply Current

Test Conditions

CS-Vee-0.2V
Issl

ViN::iOO.2Vor
Output Low Vohage

VOL

IOL-8mA

Output High Vol tage

VOH

IOH=-4mA

~Vee-0.2V

Note) Typical limits are at Vcc-S.OV. Tu-2S-C and specified loading.

.AC TEST CONDITIONS

Output Load A

Input pulse levels: GND to 3.0V
Input rise and fall times: 5 ns
Input timing reference levels: 1.5V
Output reference levels: 1.5V
Output load: See Figure

Output Load B
(for

+sv

~

'80Q

Do"

2550

.

tHZ.

hz, twz & tow)

+sv

."~:,,

3.,F'

* Including scope and jig•
• CAPACITANCE (Ta= 2S'C, f
Item

=

Symbol

1. OMHz)
max

Unit

Input Capacitance

C'N

5

pF

ViN-OV

Output Capacitance

COlJT

6

pF

VOUT=OV

Conditions

Note) This parameter is sampled and not 100% tested.

• AC CHARACTERISTICS (Vcc-SV±10%, Ta=O'C to 70'C, unless otherwise noted.)
eREAD CYCLE
HM6l61, HM6l61P
Item

HM6l61-6, HM6l61P-6

HM6l67-8, HM6l61P-8

Symbol
min

max

min

max

min

Unit

max

Read Cycle Time

toe

10

-

85

-

100

-

ns

Addres. Access Time

I"

-

70

85

-

100

ns

Chip Select Access Time

tACS

-

70

-

85

-

100

ns

Output Hold from Address Change

tOH

n.

n.

Chip Selection to Output in Low Z

ILz

5

-

5

-

5

-

Chip Deselection to Output in High Z

1Hz

0

30

0

40

0

40

Chip Selection to Power Up Time

tpu

0

-

0

-

0

-

ns

Chip Deselection to Power Down Time

tPD

45

ns

-

5

-

35

eHITACHI

-

5

-

40

5

-

ns

183

HM6167. HM6167-6. HM6167-8. HM6167P. HM6167P-6. H M 6 1 6 7 P - 8 - - - - - - - - - e WRITE CYCLE
HM6167. HM6167P
Item

Symbol

min

HM6167-6. HM6167P-6 HM6167-8. HM6167P-8

max

min

max

min

max

-

85

100

65

0

-

55

-

35

-

0

Write Cycle Time

Iwe

70

Chip Selection to End of Write

lew

55

Address Valid to End of Write

lAW

55

Address Setup Time

lAS

0

Write Pulse Width

Iwp

40

Write Recovery Time

IWA

0

Data Valid to End of Write

low

30

Data Hold Time

10.

0

-

Write Enable to Output in High Z

Iw.

0

30

0

Output Active from End of Write

low

0

-

0

65

0
45
0

80
80

ns

3.4

-

0

-

ns

3.4

0.." V.lhI

V.lid

NOTES: 1. WE is high and ~is low' for READ cycle.
2. Addresses valid prior to or coincident with ~ transition low.
3. Transition is measured ± 500mV from steady state voltage with
specified loading in Load B.

_HITACHI

ns

40

... s....,

184

ns

0

1).2)

Dati

ns

40

eTIMING WAVEFORM OF READ CYCLE NO.2 1).3)

Qui

2

-

Addre ••

Data

ns
ns

0

40

a.

Data Out

Notes

-

0

Notes) 1. If CS goes high sirnultaneouly with ·WE high. the output remains in a high impedance state.
All Write Cycle timings are referenced from the last valid address to the first transitioning address.
3. Transition is measured ±500mV from steady state voltarre with specified loading in Load B.
4. This parameter is sampled and not 100% tested.

eTIMING WAVEFORM OF READ CYCLE NO.1

Unit

ns
ns
ns

- - - - - - - - - - - - H M 6 1 6 7 , HM6167-6, HM6167-8, HM6167P, HM6167P-6, HM6167P-8
eTIMING WAVEFORM OF WRITE CYCLE NO.1 (WE Controlled)

D...... I..

D.,. Undehned

Data Out

NOTE:

1. Transition is measured :tSOOmV from steady state voltage with
specified loading in Load B.

eTIMING WAVEFORM OF WRITE CYCLE No.2 (CS Controlled)

'.e
Address

~

)

----./

'"

I
Ie.

'\

."

-""'-"'" -"'" -"'" -"'"
I

~

/11

...

...

X

Data In

'"

lop

X

Data In Valid

'"
Data Oul
High Impedance

Data Undefined

Note}

Transition is measured ±500mV from steady state voltage with specified loading in Load B.

SUPPLY CURRENT vs. SUPPLY VOLTAGE

SUPPLY CURRENT vs. AMBIENT TEMPERATURE
1.6

1.6

Vcc=S.ov

T.=25"C

..]~
z

1.4

1.2

G
~ 1.0

g

...........V-

0.8

~

.....-

./

1.0

"
~

<3

<3

-----

r--

0.8

~

~

~

0.6

'"

0.6

r--

o.4

OA

4.5

4.15

5.0

5.25

20

5.5

40

60

80

Ambient Temperature Ta ("C)

Supply Voltage Vee (V)

•

HITACHI

185

HM6167, HM6167·6, HM6167·8, HM6167P, HM6167p·6, H M 6 1 6 7 P · 8 - - - - - - - - - - ACCESS TIME vs.
AMBIENT TEMPERATURE

ACCESS TIME vs.
SUPPLY VOLTAGE
1.3

.3

Vcc-s.ov

r.-25"(;
1.2

.2

]

V

...

:i•
~

.

1.1 ....

•

1.0

~

0.9

J

0.8

~

1.1

~

1.0

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

0.9

./

~

0.8

0.7

0.7
4.5

4.75

5.0

5.5

5.25

o

20

1.8

1.4

~

1.2

3
I

1.3

;:::

1.0

j

0.8

......

V

./

C

.!l

T/J-25\:
Vcc-MIN

300

120ns

1

./

200

400

-

1.0

e
d 0.9

I--

o.7

500

10

Load Capacitance Q. (pFJ

Frequency

J

(MHz)

INPUT HIGH VOLTAGE vs.
'SUPPLY VOLTAGE

INPUT LOW VOLTAGE vs.
SUPPLY VOLTAGE
.3

.3

r.:25'C

...

.

To:=2S·C

.2

E

1.1

S

1.0

2

-

02

j

~

.

s

1

1.0

t l..---

:: o.9

~ o.9

1 o.

j

.;

4.5

----

~

~

~

8

o. 1
4.15

5.0

5.25

5.5

o.8
O. 1
4.5

Supply Voltage Vee (V)

186

80

1.2

.7

0.6

100

150ns

200ft.

,.

1.6

:i

60

SUPPLY CURRENT vs.
FREQUENCY

ACCESS TIME vs.
LOAD CAPACITANCE

t

40

Ambient Temperature Til (OC)

Supply Voltage Vee (V)

1

V

4.75

5.0
Supply Voltage

eHITACHI

5.25

Vec (V)

5.5

_ _ _ _ _ _ _ _ _ _ _ HM6167. HM6167-6. HM6167-8. HM6167P. HM6167P-6. HM6167P-8
OUTPUT LOW CURRENT vs.
OUTPUT LOW VOLTAGE

OUTPUT HIGH CURRENT vs.
OUTPUT HIGH VOLTAGE
.s

.6

,

.4

.2

.0
1

<3
~

0, 8

:;;

..
.0

!I:

..'l

fr

6

~

o. 4

Output High Voltage

"

II.

0,6

V

,

n.
VOH

/

,

I

V

Ta;2S'C
r(C'=5V

tl.4

0.8

0.6

Output Low Voltage

(V)

VOl.

(V)

STANDBY CURRENT vs.
SUPPLY VOLTAGE

STANDBY CURRENT vs.
AMBIENT TEMPERATURE
10

/

~
<3

'\

.s

j

.2

\
'\

~

~

Ta=25"C
Vcc=5V

..

"'
l-cc=3V

CS=2.8V
.2

.,

.11

.

V

V
10" 1
b

V

V

0

.,.V

c

~

/'

u

i

u.b

n.

'l./

V

7=

1iJ=25'C

~cc-O.2V

n. 2

,0

20

/

" ."

~

V

/

80

60

Supply Voltage Vee (V)

Ambient Temperature Ta ("C)

STANDBY CURRENT vs.
INPUT VOLTAGE
0
Ta=2S'C
Vcc=S.OV

CS=4.8V
8

;;

6

~

\

•

1\......

2

U

'"

Input Voltage

v..

(V)

•

HITACHI

187

HM6167LP, HM6167LP-6,
HM6167LP-8
16384-word x 1-bit High Speed Static CMOS RAM
.FEATURES
• Single +5V Supply and High Density 20 Pin Package
• Fast Access Time ..•••••••••.•..••...• 70ns/85ns/1 OOns
• Low Power Stand·by and Low Power Operation
Stand-by 5IJ.W (typ) and Operating 150mW (tyP.)
• Completely Static Memory .•.••. No Clock or Refresh Required
• Fully TTL Compatible .••.•.•.•.••.. All Inputs and Output
• Separate Data Input and Output .••..•••• Three State Output
• Capable of Battery Back up Operation
.BLOCK DIAGRAM

(DP-ZO)
~Vee

~GNO

Row

Memory Array

Decoder

I28XI28

.PIN ARRANGEMENT

0...,

Din

.ABSOLUTE MAXIMUM RATINGS
Item

Symbol

Rating

Unit

Terminal Voltage with Respect to GND

Vr

-0.5 to +7.0

V

Power Dissipation

Pr

1.0

W

+70

·c
·c

Operating Temperature

To"

Storage Temperature

hr•

o to

-55 to, +125

(Top View)

• RECOMMENDED DC OPERATING CONDITIONS (O·C;>;Ta;>;70·C)
Item

Symbol

min
4.5

Vee

Supply Voltage

GND

typ

max

Unit

5.0

5.5

V

0

V

Input High Voltage

V,H

2.2

-

6.0

V

Input Low Voltage

V,L

-0.5

-

0.8

V

188

0

•

HITACHI

0

-----------------------------------------HM6167LP,HM6167LP-6,HM6167LP-8
.TRUTH TABLE
CS

WE

Mode

H

X

Not Selected

L

H

Read

Icc

Dout

L

L

Write

Icc

High Z

Vee Current

Iss,

Output Pin

Reference.Cycle

High Z

ISBI

Read Cycle 1. 2
Write Cycle

i. 2

.DC AND OPERATING CHARACTERISTICS (Vcc-5V±10%, Ta=O-+70·C)
Symbol

Item

Test Conditions

min

typ

max

Unit

V,N-OV- Vee

-

-

2

pA

-

-

2

pA

30

60

mA

-

5

20

mA

-

1

50

pA

0.4

V

-

V

Input Leakage Current
Output Leakage Current

I ILl I
Ihol

CS-V,H. Il.,-OV-Vce

Operating Power Supply Current

Icc

CS -

Is.

CS-V,H

Standby Power Supply Current

Vee-5.5V

v, ••

Output Open

CS-Vce-0.2V
lssl

V,_lOO.2V or '" Vee-0.2V

-

Output Low Voltage

Yo.

Io.-8mA

Output High Voltage

VOH

IOH--4mA

2.4

-

Note) Typical limits are at Vcc -5.0V. Ta-2S"C and specified JoadiRl'•

• AC TEST CONDITIONS
Output Load A

Input pulse levels: GND to 3.0V
Input rise and fall times: 5 ns
Input timing reference levels: 1.5V
Output reference levals: 1.5V
Output load: See Figure

Output Load B
(for

+5V

tHZ.

tu. twz & tow)

-~: ~'-=d:.
+5V

• Including scope and iii.

• CAPACITANCE (Ta=25·C,j=1.0MHz)
Symbol

max

Unit

Input Capacitance

Item

CI_

5

pF

V,N-OV

Output Capacitance

COUT

6

pF

VOVT-OV

Conditions

Note) This parameter is sampled and not 100% tested.

• AC CHARACTERISTICS (Ta=O·C to +70·C. Vee = 5V±10%, unless otherwise noted.)
eREAD CYCLE
Item

Symbol

HM6167LP-6

HM6167LP-8

min

HM6167LP

max

min

max

min

70

-

85

-

100

-

ns

-

70

-

85

-

100

ns

85

-

100

ns
ns

max

Unit

'Read Cycle Time

IRe

Address Access Time

I ••

Chip Select Access Time

tACS

Output Hold from Address Change

10H

5

-

5

-

5

Chip Selection to Output in Low Z

Itz

5

-

5

-

5

-

Chip Deselection to Output in High Z

1HZ

0

30

0

40

0

40

ns

Chip Selection to Power Up Time

Ipv

0

-

0

-

0

-

ns

Chip Deselection to Power Down Time

I ..

45

ns

-

•

70

35

HITACHI

-

40

-

ns

189

HM6167LP,HM6167LP·6,HM6167LP·S-----------------------------------------eTIMING WAVEFORM OF READ CYCLE NO.1

1),2)

Mdresa

Dlta Out

Data V.lid

eTIMING WAVEFORM OF READ CYCLE NO.2 1),3)

Data V.lid

Dna Oat

Cnrant

NOTES: 1.

WE is high and CS" is low for READ Cycle,

2. Addresses valid prior to or coincident with cs transition low.
3. Transition is measured
specified loading B.

±soOmV

from steady state voltage with

eWRITE CYCLE
Symbol

Item

HM6161LP-6

HM6161LP
min

max

min

HM6167LP-8

max

min

max

Unit

Notes

2

Write Cycle Time

Iwe

70

-

85

-

100

-

ns

Chip Selection to End of Write

lew

55

65

-

80

-

ns

Address Valid to End of Write

lAW

55

-

Address Setup Time

lAS

0

-

0

Write Pulse Width

Iwp

40

-

45

Write Recovery Time

Iw.

0

0

Data Valid to End of Write

low

30

-

35

-

Data Hold Time

10.

0

-

0

Write Enable to Output in High Z

Iwz

0

30

Output Active from End of Write

low

0

-

-

ns

:!...

ns

55

-

ns

0

-

ns

40

-

ns

-

0

-

ns

0

40

0

40

ns

3,4

0

-

0

-

ns

3,4

65

.

Notes) 1. If CS goes high simultaneouly with WE high. the output remains in a high impedance state.
2. All Write Cycle timings are referenced from the last valid address to the first transitioning address.

3. Transition is measured ±500mV from steady state voltage with specified loading in Load B.
4. This parameter is sampled and not 100% tested.

..,

eTIMING WAVEFORM OF WRITE CYCLE NO.1 (WE Controlled)

Addr•••

.,.

."
Data In

Data Out

190

Data Undefined

•

HITACHI

80
0

- - - - - - - - - - - - - - - - - - - - H M 8 1 8 7 L P , HM8187LP-8, HM8187LP-8
eTIMING WAVEFORM OF WRITE CYCLE No.2 (CS Controlled)
Add,. ..

,.,

--.,
---'

...

l::::::::-l
\

I ••

I,.
I.

\ \ \ \ \

...

I

*

na,. Out
DUI

III
I ..

J.

Ot,a'JLV.11cl

_I

I ••

~

Undefined

HI.h .,..tlfte.

.LOW Vee DATA RETENTION CHARACTERISTICS (Ta-O'C to 70·C)
Parameter

Symbol

Vee for Oat. Retention

Telt Condition

V••

2.0

-

CSOi: Vcc-0.2V

O.ta Retention Current

IccD"

Chip Deselect to O.t. Retention Time

tCDR

Operation Recovery Time

II

min

v..Oi: Vcc-0.2V or

OV:iO V..:iOO.2V

0
hc6
.0..

be-Rod Cyele Time

typ

max

Unit

-

-

V

-

-

20·

pA

30··
-

n.
n.
•

*.

Vcc-Z.OV
Vcc",.OV

.LOW Vee DATA RETENTION WAVEFORM

Vrc------_,
4.5V---------

nata Retention Mode

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

-----.---

Ci 2' v(·(·-n.2\,

e1 _ _ _.1

ov _______________________________________ ~ ____ _

•

HITACHI

191

HM6167H-45, HM6167H-55,
HM6167HP-45, HM6167HP-55
16384-word x l-bit' High Speed Static CMOS RAM
• FEATURES
45ns (max)
• Fast Access Time ••.....••.• HM6167H/P·45
55ns (max)
HM6167H/P·55
• Low Power Standby and Low Power Operation
Standby 100~W (typ). Operating 200mW (typ)
• Single +5V Supply and High Density 20 Pin Package
• Completely Static Memory .•.. No Clock nor Refresh Required
• Fully TTL Compatible .•.••.• AII Inputs and Output
• Separate Data Input and Output ••••••.•. Three State Output

HM6167H-4S, HM6167H-SS

(00-20)

• BLOCK DIAGRAM

HM6167HP·4S, HM6167Hp·SS
~vcc
~GND

A.--[::::d
A,

Memorv Array
128X 128

A. ---{::t:I
An

Au
DOlI'

Din

(DP-20)

• PIN ARRANGEMENT

• ABSOLUTE MAXIMUM RATINGS
Item
Terminal Voltage with respect to GND
Power Dissipation
Operating Temperature
Storage Temperature (Plastic)
Storage Temperature (Ceramic)
Storage Temperature (under bias)

Symbol
Rating
-3.5* to +7.0
VT
1.0
I'T
o to +70
TOl'r
-55 to +125
Totti
-65 to +150
Totti
-10 to +85
Tbi...

Unit
V
W
·C
·C
·C
·C

• Pulse Width 2Ons, DC: -O.S?,

• RECOMMENDED DC OPERATING CONDITIONS (Ta
Item
Supply Voltage
Input Voltage

Symbol
Vee

GND
VIH
VIL

• Pulse Width: 20ns, DC: VIL (mm)

192

min
4.5
0
2.2
-3.0·

typ
5.0
0

-

max
5.5
0
6.0
0.8

=0 to +70oC)
Unit
V
V
V
V

=-O.SV

_HITACHI

- - - - - - - - - - - - - - H M 6 1 6 7 H - 4 5 , HM6167H-55, HM6167HP-45, HM6167HP-55

• TRUTH TABLE
Ref. Cycle

CS

WE

Mode

Vee Current

Dout Pin

H

X

Not selected

/S8, IS81

High-Z

L

H

Read

Icc

Dout

Read Cycle

L

Write

Icc

High-Z

Write Cycle

L

.DC AND OPERATING CHARACTERISTICS (Vcc-5V±10%, TIJ-O't') to +70't')
Symbol

Item

Test Conditions

Unit

2

,.A

-

2

,.A

CS- V,L, Output Open

40

80

mA

CS- V,H

-

10

20

mA

-

0.02

2

mA

-

-

0.4

V

-

V

Output Leakage Current

CS-ViH, VOVT-OV- Vee

Operating Power Supply Current

Icc
I ..

CS ~Vee-0.2V

Standby Power Supply Current

max

-

I ILl I
11.01

Input Leakage Current

typ

min

Vee-5.5V, Vi.-OV-Vcc

lUI

V,."0.2V or 0: Vee-0.2V
Output Low Voltale

VOL

IOL-8mA

Output High Voltage

VOH

IOH--4mA

2.4

Note) Typical limits are at Vcc -5.0V. Ta-25t .nd specified loadi....

• AC TEST CONDITIONS

Output Load B

Output Load A

Input pulse levels: GND to 3.0V
Input rise and fall times: 5 ns
Input timing reference levels: 1.5V
Output reference levels: 1.5V
Output load: See Figure

( for 1HZ, hz, Iw. & low)

+5V

~.~.:,.
• Includina scope and

ii,.

+5V

Do ..

~
255Q

80g
5pF·

• Inchllllilll' scope .nd iii.

• CAPACITANCE (TIJ=2S'C, J-1.0MHz)
typ

max

Unit

Input Capscitance

C,.

3

5

pF

v,.-OV

Output Capacitance

COUT

5

7

pF

VOVT-OV

Item

Symbol

Conditions

Note) This parameter i. sampled and not 100% tested.

•

HITACHI

193

HM6167H-45. HM6167H-55, HM6167HP-45. H M 6 1 6 7 H P - 5 5 - - - - - - - - - - - - - - -

.AC CHARACTERISTICS (Vcc=5V±10%. Ta=O·C

to 70·C. unless otherwise noted.)

-READ CYCLE
Item

Symbol

HM6167H/P-45
min

HM6167Hp·55

max

min

max

Unit

Notes
(I)

Read Cycle Time

IRC

45

-

55

-

ns

Address Access Time

IAA

-

45

-

55

ns

Chip Select Access Time

lACS

-

45

-

55

ns

Output Hold from Address Change

IOH

5

-

5

ns

Chip Selection to Output in Low Z

ILZ

5

-

5

-

ns

(2) (3) (7)

Chip Deselection to Ou!pu t in High Z

1HZ

0

30

0

30

ns

(2) (3) (7)

Chip Selection to Power Up Time

IPU

0

-

0

-

ns

Chip Deselection to Power Down Time

IPD

30

-

30

ns

-

NOTES: 1. All Read Cylce timing are referenced from last valid address to the first transitioning address.
2. At any given temperature and voltage condition, tHZ max. is less than t LZ min. both for a given device and
from device to device.
3. Transition is measured ±500mV from steady state voltage with specified loading in Load B.
4. WE is High for READ cycle.
5. Device is continuously selected, CS = VlL. _
6. Addresses valid prior to or coincident with CS transition low.
7. This parameter is sampled and not 100% tested.

-TIMING WAVEFORM OF READ CYCLE NO.1 4 ), 5)

Address

~

'.C-----l~r-

t---

~
tOH

Data Out

Previous Data
Valid

Data Valid

-TIMING WAVEFORM OF READ CYCLE NO.2 4 ),6)
~-----tRC------~r_-----

CS

Data Valid

Data Out

v" Supply

Current

194

ISB

eHITACHI

- - - - - - - - - - - - - - H M 6 1 6 7 H - 4 5 . HM6167H-55. HM6167HP-45. HM6167HP-55
• WRITE CYCLE

HM6167H/P-45

Symbol

Item

min

HM6167H/P·55

max

min

max

Unit

Notes

ns

(2)

twc
tcw
tAW

45

-

55

40

-

50

tAS
twp

0

0

25

-

-

35

-

ns

0

-

0

-

ns

25

-

25

-

ns

0

-

0

-

ns

Write Enable to Output in High Z

tDH
twz

0

25

0

2S

ns

(3)(4)

Output Active from End of Write

tow

0

-

0

-

ns

(3) (4)

Write Cycle Time
Chip Selection to End of Write
Address Valid to End of Write
Address Setup Time
Write Pulse Width
Write Recovery Time

tWR
tDW

Data Valid to End of Write
Data Hold Time

NOTES: 1.
2.
3.
4.

40

50

ns
ns
ns

If Cs goes high simultaneously with WE high, the output remains in a high impedance states.
All write cycle timings are referenced from the last valid address to the flISt transitioning address.
Transition is measured ±SOOmV from steady state voltage with specified loading in Load B.
This parameter is sampled and not 100% tested.

eTIMING WAVEFORM OF WRITE CYCLE (WE Controled)
~---------,twc----------~

Address

Data In

tow~r--

WZj
Data Out

_D_a_ta_U_n_d_e_fm
__
ed________..J) High Impedance~

• TIMING WAVEFORM OF WRITE CYCLE

(CS Controled)
twc

Address

----.

~

1'---

--..J

~

tcw

'\
tWR

tAW
r-----twP

/ / /

\ \ \ \ \
I

Data In

Data Out

*
Data Undefined

•

tDH

tDW
Data In Valid

)(

twz

,I
High Impedance

HITACHI

195

HM6167H-45, HM6167H-55, HM6167HP-45, H M 6 1 6 7 H P - 5 5 - - - - - - - - - - - - - SUPPLY CURRENT
SUPPLY VOLTAGE

SUPPLY CURRENT VS.
AMBIENT TEMPERATURE

VS.

.6

6
\-h=5.0V

Ta=2S'C

1.4

1.4

2

1.0

.........

O. 8

~

v---

V

./

2

Or-o

r----

0, 8

~
~

J

Jj

o. 6
O. 4

4.5

4.75

5.0

0, 6

o.40

5.5

5.25

-

20

40

60

ACCESS TIME vs.
SUPPLY VOLTAGE

ACCESS TIME VS.
AMBIENT TEMPERATURE
3

1. 3

Vcc=5.QV

Ta::=2S'C
1.2

2

1. 1

1. 1

0

r---1'---

--

O. 9

~

o~

r--

~
~

o. 9
o. 8

O.8

O. 7

80

Ambient Temperature Ta ('C)

Supply Voltage Vee (V)

4.5

5.25

5.0

4.75

o. 7

5.5

0

20

Supply Voltage Vee (V)

60

40

80

Ambient Temperature Ta rC)

ACCESS TIME VS.
LOAD CAPACITANCE

SUPPLY CURRENT
FREQUENCY

1.8

200

.1

VS.

100

66

50

lOOns 85ns

./

1. 6

.0

V

.4

/

.2

V

./

.9

~

]

100

200

300

Load Capacitance Q

196

0 .7

.6

400

500

(pFJ

O. 50

/
10
Frequency

eHITACHI

L

L

/

(3

.8

.6

/

.8

.0/

V

V

40
700s

15

f

(MHz)

20

25

- - - - - - - - - - - - - HM8187H-45, HM8187H-55, HM8187HP-45, HM8187HP-55

v•.

INPUT LOW VOLTAGE
SUPPLY VOLTAGE

INPUT HIGH VOLTAGE
SUPPLY VOLTAGE

v•.

1.3

1.3

To-25"C

T,=25'C

1.2

.2

1

1. 1

0

o.9

~

---

I..--"

l---

1.0

o.8

o.8
O. 7
4.5

5,0

4.75

OUTPUT CURRENT
OUTPUT VOLTAGE

1~

1. 2

..,::

o.8

1

o.6

v•.

5.0

5.5

5.25

Vcr (V)

.

OUTPUT CURRENT VI.
OUTPUT VOLTAGE
.6

T,=25'C

)

V('c=5V

.4

/

2

\

1.0

\

o.8

\

/

0.6

0.4
Output High Voltage

VtIH

I

V

T,-25'C
Vrc=5V

V

\

O. 4 1

0.2

O.~

0.4

0.8

Output Low Volta.e VtJl. (V)

(V)

STANDBY CURRENT w.
SUPPLY VOLTAGE

STANDBY CURRENT v•.
AMBIENT TEMPERATURE

10'

4.75

Supply Volta,e

~

0

-- --

(VI

,

1.6

1.4

VCl'

O. 7 4.5

5.5

5.25

Supply Volt'liCe

]

~

o.9

~

.

.4

Vcc=3V
a:=2.8V
.2

,

.0

.

V~

./

V

V

o. 8
o.6
o.

,
10
2"

40

/

/

T,=2S'C

9=VC/'-0.2V

O. 2,

80

60

4V

V
./

V

V

/

Supp Iy Voltage \i'l' (V)

Ambient Temperature Ta ("C)

•

HITACHI

197

HM6167H·45, HM6167H·55, HM6167HP·45, H M 6 1 6 7 H P · 5 5 - - - - - - - - - - - - - STANDBY CURRENT vs.
INPUT VOLTAGE
0
Ta=25'C

~=5.0V
=4.8V

8

..

6

\
4

2

1\

\

~ ..........

Input Vo Itage

198

v,.

(V)

•

HITACHI

HM6167HCG-46,HM6167HCG-6616384-word x 1-bit High Speed Static CMOS RAM
.FEATURES
• High Density 20 pin Leadless Chip Carrier
• High Speed: Fast Access Time 45/55ns Max.
• Low Power Standby and Low Power Operation
Standby: 100llW typ., Operation: 200mW typo
• Completely Static Memory;
No Clock or Timing Strobe Required
• Equal Access and Cycle Times
• Directly TTL Compatible; All Inputs and Output

~

~

.BLOCK DIAGRAM
(CG-ZO)

A.

~V('r

A,

~GND

A.
A,

Huw

A.

Uf'coder

.PIN ARRANGEMENT

Memorv Arrav
12RXl2R

Au

An
Din

DOUl

CS

(Bottom View)

.ABSOLUTE MAXIMUM RATINGS
Symbol

Rating

Voltage on Any Pin·

V,

-0.5 to +7.0

V

Power Dissipation

p,

1.0

W

Operating Temperature

Item

Unit

Top.

o to

+70

·C

Storage Temperature

Td •

-65 to +150

·C

Temperature Under Bias

Til, ..

-10 to +85

·C

VIN min--3.SV (Pulse width 2Ons)

• with respect to GND•

• TRUTH TABLE
CS

WE

Mode

Vee Current

Oout Pin

H

X

Not selected

1S8, ISBI

High-Z

Ref. Cycle

L

H

Read

lee

Dout

Read Cycle

L

L

Write

lee

High-Z

Write Cycle

•

HITACHI

199

HM6167HCG·45,HM6167HCG·55 - - - - - - - - - - - - - - - - - - - - - -

..

• RECOMMENDED DC OPERATING CONDITIONS (Ta=O to +70·C)
Item

Symbol

Vee

Supply Voltage

-:nin

typ

max

4.5

5.0

5.5

V

0

0

0

V

GND
Input Voltage

*

Unit

V'H

2.2

-

6.0

V

VfL

-0.5'

-

O.S

V

-S.OV (Pulse width 200s)

.DC AND OPERATING CHARACTERISTICS (Vcc=5V ±10%. Ta=O w +70·C)
Item

Symbol

Test Conditions

2

JlA

-

2

JlA

40

SO

mA

10

20

mA

Unit

CS - VfL• Output Open

ISBl

CS<:Vee-0.2V. VfN:;;0.2V or V{N;;;Vee-0.2V

-

20

2000

JlA

VOL

IoL-SmA

-

-

0.4

V

VOH

IOH--4mA

2.4

-

-

V

I ho I

CS- V'H. VOUT-OV to Vee

Note) • : Typical limits are at Vcc-S.OV.

max

CS- VfH

Output Leakage Current

Output Voltage

-

Icc

Vee~5.5V.

Standby Power Supply Current

typ·

Iss

I ILl I

Operating Power Supply Current

min

-

Input Leakage Current

TIJ-25~

V'N-OV to Vee

and specified loading .

• CAPACITANCE (Ta=25·C. /=lMHz)
typ

max

Unit

Input Capacitance

C"

v..-OV

3

5

pF

Output Capacitance

Co..,

v... -OV

5

7

pF

Item

Note)

Symbol

Test Conditions

'{his parameter is sampled and not 100% tested.

• AC CHARACTERISTICS (Vcc =5V ±10%. Ta=O to +70·C)

Output Load A

.AC TEST CONDITIONS

Input Pulse Levels: GND to 3.0V
Input Rise and Fall Times: 5 ns
Output Reference Levels: 1.5V

Output Load B
( for

+5V

~'~:'

tHZ.

tLz. twz & tow)
+5V

~,~:"

* Including scope and jig.
• READ CYCLE
Item

HM6167HCG-45

HM6167HCG-55

min

max

min

Symbol

Unit

Notes

1

max

Read Cycle Time

tRe

45

-

55

-

ns

Address Access Time

tAA

-

45

-

55

ns

Chip Select Access Time

tACS

-

45

-

55

ns

Output Hold from Address Change

tOH

5

-

5

-

ns

Chip Selection to Output in Low Z

tLZ

5

-

5

-

ns

2.3.4

Chip Deselection to Output in High Z

1HZ

0

30

0

30

ns

2.3.4

Chip Selection to Power Up Time

Ipu

0

-

0

-

ns

Chip Deselection to Power Down Time

IPD

30

ns

Notes) 1.
2.
3.
4.

200

-

30

-

All Read Cycle timings are referenced from last valid address to the first transitioning address.
At any given temperature and voltage condition. lHZ max is less than hz min both for a given devicE' and from device to device.
Transition is measured ±SOOmV from steady state voltage with specified loading in Load B.
This parameter is sampled and not 100% tested.

•

HITACHI

- - - - - - - - - - - - - - - - - - - - - - H M 6 1 6 7 H C G - 4 5 , HM6167HCG-55

eRead Cycle-1 (Notes 1,2)

'/IC
Address

'AA

'.N
Previous
Data Valid

Data Out

Data Valid

eRead Cycle-2 (Notes 1,3)
Ie

~

J

\.
lACS

tHr31

tu,l3I

V

HiRh Impedance

Data Out

"

Vee Supply

Curr.nt

'V

'"

J

1"---'f

~

Data V.11d

J

I
Hish Impedance

I

"0

I..

Notes) 1., WE is high for Read Cycle.
2. Address valid prior to or coincident with CS transition low.
3. Transition i. mea.ured ±500mV from ,teady atate volta.e with specified loadina: in Load B.

eWRITE CYCLE
HM6167HCG-45
Item

Notes

-

ns

2

-

ns

50

-

ns

0

-

ns

35

ns

max

min

max

-

55
50

-

Write Cycle Time

twe

.45

tew

40

Address Valid to End of Write

tAW

40

Address Setup Time

t ..

0

Write Pulse Width

twp

25

Write Recovery Time

two

0

Data Valid to End of Write

tow

25

Data Hold Time

to.

Write Enable to Output in High Z
Output Active from End of Write

-

Unit
min

Chip Selection to End of Write

Notes} 1.
2.
3.
4.

HM6167HCG-55

Symbol

25

0

-

0

-

twz

0

25

0

25

ns

3,4

tow

0

-

0

-

ns

3,4

-

0

ns
ns
ns

If CS goes high simultaneouly with WE high. the output remains in a higb impedance state.
All Write Cycle timings are referenced from the last valid address to the first transitioning address.
Transition is measured ±500mV from steady state voltage with specified loading in Load 8.
This parameter is sampled and not 100% tested.

•

HITACHI

201

HM6167HCG-45. H M 6 1 6 7 H C G - 5 5 - - - - - - - - - - - - - - - - - - - - - - - - '

..,

eWrite Cycle-1 (WE Controlled)

..

Address

...

'AS

Data In

Data Out

Data Undefined.

eWrite Cycle-2 (CS

Address

Control:~d)

..,

----""'\

----'

'"

I

."

I

\.

...

tAli'

""'\

'"

I II

\ \ \
I

...

tD.'

t

Data In

Data In Valid

.

h'z

Data

Out
Data Undefined

202

Hi",h Impedance

_HITACHI

:(

HM6167HLP-45, HM6167HLP-55x 1-bit High Speed Static CMOS RAM

16384-word

• FEATURES
• Fast Access Time •..•..•.... HM6167HLP·45 45ns (max)
HM6167HLP-55 55ns (max)
• Low Power Standby and Low Power Operation
Standby 51lW (typ) and Operating 200mW (typ)
• Capable of Battery Back-up Operation
• Single +5V Supply and High Density 20 Pin Package
• Completely static Memory
No Clock or Timing Strobe Required
• Equal Access and Cycle Times
• Directly TTL Compatible ..... AII Inputs and Output
(DP-20)

• BLOCK DIAGRAM
"'--[;0

~vcc

A,-----...o-o

~GNO

A.-----.........
Al--I:xl
A,

• PIN ARRANGEMENT

Row

Memorv Arrav

Selecl

128X 128

Oou.

Dm

• ABSOLUTE MAXIMUM RATINGS
Item
Tenninal Voltage with respect to GND
Power Dissipation
Operating Temperature
Storage Temperature
Storage Temperature Under Bias
* Pulse Width 2Ons, DC: -O.SV

Symbol

VT
PT
Topr
T,t/l
TblOl

• RECOMMENDED DC OPERATING CONDITIONS (Ta
Item
Supply Voltage
Input Voltage

* Pulse Width 20ns, DC:

Symbol
Vee

GND
V,H
VIL

min
4.5
0
2.2
-3.0·

typ
5.0
0

-

-

Unit
V
W
·C
·C
·C

Rating
-3.5· to +7.0
1.0
oto +70
-55 to +125
-10 to +85

max
5.5
0
6.0
0.8

=0 to +70°C)
Unit
V
V
V
V

VIL min = -0.5V

•

HITACHI

203

HM6167HLP-45, H M 6 1 6 7 H I . P - 5 5 - - - - - - - - - - - - - - - - - - - - - -

• TRUTH TABLE

cs

WE

Mode

H

X

Not selected

lSI,

Ref. Cyete

Dout Pin

Vee Current

High-Z

IS81

L

H

Read

lee

Dout

Read Cycle

L

L

Write

lee

High-Z

Write Cycle

_x

.DC AND OPERATING CHARACTERISTICS (Vee-SV±lO%, Ta-O-+70'C)
Symbol

Item

Te.t Conditions

min

typ

-

-

2
2

pA
pA

40
10

80

mA

20

mA

1

50

pA

0.4

V

-

V

Input Leakqe Current
Output Leakage Current

liL,l
liLol

Operating Power Supply Current

lee

CS-V,L. Output Open

-

I ..

CS-V,.

--

Standby Power Supply Current

Vee-5.5V

v,.-OV-Vee

CS-v, •• V.. -OV-Vee

CS-Vee-0.2V
lUI

V,.liOO.2V or Oi: Vee-0.2V

-

Output Low Voltage

VOL

IOL-8mA

Output High Voltage

VOH

lo.--4mA

Unit

-

2.4

Note) Typical limita are at Vee-I.OV. T.-25·C and apec:ified loadlnc.

• AC TEST CONDITIONS
Output Load A

Input pulse levels: GND to 3.0V
Input rise and fall times: 5 ns
Input timing raference levels: 1.5V
Output reference levell: 1.5V
Output load: See Figure

Output Load B

+sv

(for 'liZ, tLZ, h,z I: tow)

+sv

~,~:"

Do ..

~
25SQ

* Including scope and jig.

80g
SpF'

• Including scope and jig.

_x

• CAPACITANCE (Ta-2S·C,J-l.OMHz)
Symbol

typo

Input Capacitance

item

C,.

3

5

pF

v,.-OV

Output Capacitance

COUT

5

7

pF

VOUT-OV

Note) Thil parameter is ....pled and not 100%

Unit

Conditions

t ••ted •

• AC CHARACTERISTICS (Ta-O'C to +70'C, Vee - SV±lO~, unless otherwise noted.)
eREAD CYCLE
Item

Symbol

HM6167HLP-45

HM6167HLP-55

min

max

mb!

Read Cycle Time

IRC

45

-

55

Address Access Time

tAA

-

45

-

Chip Select Access Time

lACS

45

-

Output Hold from Address Change

IOH

5

Chip Selection to Output b! Low Z

tLZ

Chip Selection to Output in High Z

-

Unit

Notes

-

ns

(I)

55

ns

max

55

ns

5

-

ns

5

-

5

-

ns

(2)(3) (7)

1HZ

0

30

0

30

ns

(2)(3)(7)

Chip Selection to Power Up Time

tpu

0

-

0

-

ns

Chip Deselection to Power Down Time

tPD

30

-

30

ns

-

NOTES: 1. All Read Cylce timing are referenced from last valid address to the first transitioning address.
2. At any given temperature and voltage condition, 'HZ max. is less than tLZ min. both for a given device and
from device to device.
3. Transition is measured ±SOOm V from steady state voltage with specified loading in Load B.
4. WE is High for READ cycle.
5. Device is continuously selected, CS = VlL .
6. Addresses valid prior to or coincident with CS transition low.
7. This parameter is sampled and not 100% tested .

204

•

HITACHI

-----------------------------------------------HM6167HLP-45,HM6167HLP-55
eTIMING WAVEFORM OF READ CYCLE NO.1

4) 5)

------------tRe----------~j~

-:-----/iL~
tru:

Address

t AA------J

,.--------

Previous Data
Valid

Data Out

Data Valid

eTIMING WAVEFORM OF READ CYCLE NO.2 4)

6)

Data Out

Data Valid

Vee Supply
Current

e

WRITE CYCLE
HM6167HLP-45

Symbol

Item

HM6167HLP-55

min

max

min

-

55

max

Unit

Notes

ns

(2)

Address Valid to End of Write

tAW

40

-

50

-

Address Setup Time

tAS

0

-

0

-

ns

Write Pulse Width

twp

25

-

35

ns

Write Recovery Time

tWR

0

-

0

-

Oat. Valid to End of Write

tDW

25

25

tDH

0

0

-

ns

Data Hold Time

-

Write En.ble to Output in High Z

twz

0

2S

0

2S

ns

(3) (4)

Output Active from End of Write

tow

0

-

0

-

ns

(3) (4)

Write Cycle Time

twc

45

Chip Selection to End of Write

tcw

40

50

ns
ns

ns
ns

NOTES: 1. If CS goes high simultaneously with WE high, the output remains in a high impedance states.
2. All Write Cycle timings are referenced from the last valid address to the fust transitions address.
3. Transition is measured ±50OmV from steady state voltage with specified loading in Load B.
4. This parameter is sampled and not 100% tested.
e TIMING WAVEFORM OF WRITE CYCLE NO.1 (WE Controlled)

twe
Address ~V

W
j

-J.

tew

L

CS

1
f-----tAs_

tAW

__ twR __
twp

\\\

j

EDWtam

~d

Din

-twz

.e:.r

DH

)K

I---tow

-----------j
High Impedance
"1----Dout
..AJ----:;;..~---i(~_ _
•

HITACHI

205

HM6167HLP·4S, H M 6 1 6 7 H L P · S S - - - - - - - - - - - - - - - - - - - - - -

e TIMING WAVEFORM OF WRITE CYCLE NO.2 (CS ControUed)

~----------------twe----------------~~

.
-- ~--j''---AW

tAS-

-tWR

,

CS

tew

1\

twp
\

WE

-tDwDin

tDH

Data in Valid

-----------------------~~~----~~~p--------twz

Dout

. hIm edance

.LOW Vee DATA RETENTION CHARACTERISTICS (Ta=O·C to 70·C)
Parameter
Vee for Data Retention

Data

Reten~ion

Symbol

Test Condition

VD•
CS~

Current

Chip De.elect to Data Retention Time

tCDR.

Operation Recovery Time

t.

typ

max

Unit

2.0

-

-

V

-

20·

-

30"

0

-

hell.

-

-

Vcc-O.2V

-

Vcc-0.2V or

-

IceDs
v,.~

min

OVS V,.SO.2V

6.

he - Read Cycle Time

eLOW Vee DATA RETENTION WAVEFORM
Data Retention Mode
vee------------~I

4.SV--------- -------------------------

---------

2.2V------

VDR -----

CS!1; Vee-O.2V

CS------.J

OV---------------------------------------------

206

•

HITACHI

pA
n.
n.
•
VCt -2.0V
•• Vcc-3.0V

HM6264P-10, HM6264P-12,
HM6264P-15
8192·word x 8-bit High Speed Static CMOS RAM
• FEATURES
1OOns/120nsl150ns (max.)
• Fast access Time
Standby:
O.1mW (typ.)
• Low Power Standby
Low Power Operation
Operating: 200mW (typ.)
• Single +5V Supply
• Completely Static Memory ..•.. No clock or Timing Strobe Required
• Equal Access and Cycle Time
• Common Data Input and Output, Three State Output
• Directly TTL Compatible: All Input and Output
• Standard 28pin Package Configuration
• Pin Out Compatible with 64K EPROM HN482764

(DP·28)

• BLOCK DIAGRAM

• PIN ARRANGEMENT

,,<>----t:£==~-,

...

MelllOr, M.trill

--oCND

NC

2~X256

Detoder

VCC

A,.
11<> c>--?H:.-f--I

A3
CSI

A.

~~---'------,-------~

A,

,,,0-----------..1
• ABSOLUTE MAXIMUM RATINGS
Item
Terminal Voltage *
Power DiSsipation
Operating Temperature
Storage Temperature
Storage Temperature (Under Bias)
.. With respect to GND.

• TRUTH TABLE
WE CS, CS. OE
X
H
X
X
X
XL
X
H
H
L
L

L
L
L
L

H
H
H
H

H
L
H
L

Symbol
VT

PT

Top.
Tata

Rating
-0.5 ... to +1.0
1.0
o to +10
-55 to +125
-10 to +85

Thlas
.. Pulse width SOns: -3.0V

Mode
Not Selected

Unit
V
W

(Po~rDown)

Write

1/0,

°c
°c
°c
(Top View)

I/O Pin
High Z
HighZ
High Z
Dout
Din
Din

Output Disabled
Read

1/0.

Vee Current
/8B,/8Bl
/8B,/8B2
/CC'/CCI
/CC,ICCl
/CC'/CCI
/CC,ICCl

Note

Write Cycle (1)
Write Cycle (2)

x : Don'l care.

•

HITACHI

207

HM8284P·10, HM8264P·12, H M 6 2 8 4 P · 1 5 - - - - - - - - - - - - - - - - - -

• RECOMMENDED DC OPERATING CONDITIONS (To = 0 to +70°C)
Symbol
Vee
OND
V,H
Input Voltage
VIL
• Pulse Width SOns: -3.0V
Item

typ
5.0
0

min
4.5
0
2.2
-0.3*.

Supply Voltage

max
5.5
0
6.0
0.8

-

Unit
V
V
V
V

• DC AND OPERATING CHARACTERISTICS (Vee = SV± 10%, GND = OV, To = 0 to +70°C)
Test Condition

Symbol

Item
Input LeaJcage Current
Output Leakage Current

min

Ihll

Vln-OND to Vce

-

Ihol

CSl"V,H or CS2==V,L or OE"VIH, V,/o*OND
to Vee

-

Operating Power Supply Current

Icc

CSI-VIL, CS2-V,H,II/O-OmA

Average Operating Current

lecl

Min. cycle, duty-l00%, CSi-V,L. CS2=W'H

ISB

CSI"V,H or CS2"V,L,II/O-OmA

ISBI··

CSI~Vec-0.2V, CS~Vee-0.2Vor CS2~0.2V

ISBZ'"

CS2~0.2V

Standby Power Supply Current

VOL

Ou tput Volt8jle

VOH

IOL"2.lmA

--

IOH"-1.OmA

-

2.4

typ* max

-

2

Unit
/loA

2

/loA

40

80

mA

60

110

mA

I

3
2

mA
mA

2

mA

0.02
0,02

-

0.4

- -

V
V

• Typical limits are at Vee-S.OV, Ta-2S·C and specified loading.
•• V'L mln--0.3V

• CAPACITANCE (f= IMHz, To = 25°C)
typ

Symbol Test Condition
Item
Input Capacitance
V'n" OV
e'n
Input/Output Capacitance
ello
VI/o" OV
Note) This parameter is sampled and not 100% tested.

-

max
6
8

Unit
pF
pF

• AC CHARACTERISTICS (Vee" 5V±10%. Ta" 0 to +70°C)
• AC TEST CONDITIONS
I nput Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10n.
Input and Output Timing Reference Level: 1.6V
Output Load: 1TTL Gate and CL • 100pF (Including scope and jig)
• READ CYCLE

Item

Symbol

HM6264P-10
min
max
100
-

HM6264P.12

HM6264P.IS

min

max

min

max

Unit

120

ISO

-

-

-

-

100

-

ISO

ns
ns
ns

-

-

150

-

-

'cOZ
tOE

100
100
SO

120
120

tLZI

10

-

10

tLZZ

10

tOLZ

5

-

10
5

-

5

-

ns

CSI

tHZI

0

35

0

40

0

SO

ns

I CS2
Output Disable to Output in High Z.

tHZ2

0

35

0

40

0

50

ns

tOHZ

35

0

40

0

SO

ns

Output Hold from Address Change

tOH

0
10

-

10

-

15

-

ns

Read Cycle Time

tRC

Address Access Time

tAA

Chip Selection to Output

I

CSI
CS2

Output Enable to Output Valid
CSI
CS2
Output Enable to Output in Low Z
Chip Selection to
Output in Low Z

Chip Deselection to
Output In High Z

I
I

tCOI

-

-

120
60

-

-

150

ns

-

70

ns

15

-

15

-

ns
ns

NOTES: I 'HZ and tOHZ are defined II the tim. at which the outputs achieve the open circuit condition and are not referred
to output voltage levell.
2 At any given temperature and voltage condition, 1HZ max is less than tLZ min both for a given device and from
device to device.
•
.

208

HITACHI

- - - - - - - - - - - - - - - - - - - - H M 6 2 6 4 P - 1 0 , HM6264P-12, HM6264P-15

• READ CYCLE
~-------------------tRe---------

.t

CS2

Dout~~------

__________________________--(

NOTE: I) WE is high for Read Cycle

• WRITE CYCLE

Symbol

Item

HM6264p·1O

HM6264P·12

HM6264P·15

min

max

min

max

min

max

ISO

Unit

Write Cycle Time

twe

100

..

120

Chip Selection to End of Write

tew

80

85

-

100

Address Setup Time

tAS

0

0

-

0

-

Address Valid to End of Write

tAW

80

-

85

-

100

-

ns

Write Pulse Width

twp

60

-

70

-

90

-

ns

tWRl

5

-

10

-

os

IS

-

5

tWR2

IS

-

15

-

ns

Write Recovery Time

I CSI, WE
I

CS2

ns

tWHZ

0

0

50

os

Data to Write Time Overlap

tDW

40

-

50

-

60

Data Hold from Write Time

tDH

0

-

0

-

0

-

ns

ot to Output in High Z

tOHZ

0

35

0

40

0

50

ns

Output Active from End of Write

tow

5

-

5

-

10

-

os

HITACHI

0

40

ns

Write to Output in High Z

•

35

ns

os

209

HM6264P·10, HM6264P·12, H M 6 2 6 4 p · 1 5 - - - - - - - - - - - - - - - - - - _

• WRITE CYCLE 111 (OE clockl

=,,'''-____

Addrt'ss _ _ _.../1'-_ _ _ _ _ _ _ _

%xx\
• WRIT!: CYCLE (21 (OE Low Fixl

Address

Dr"

----1~====_=;_;;::====;:-:~'r'\..---I~\\
i /11111 ["i

----------(2nk==~=~ttt:t~~

NOTES: I) A write occurs during the overlap of a low CSI, a 3h CS2 and a low
WE. A write begins at the latest transition among CSI going low, CS2
going h~ and WE going low. A write ends at the earliest transition
among CSI going high, CS2 going low and WE going high. twp is
measured from the beginninng of write to the end of write.
2) tew is measured from the later of CSI going low or CS2 going high to
the end of write.
3) t AS is measured from the address valid to the beginning of write.
4) tWR is measured from the end of write to the address change.
tWRl applies in case a write ends at CSI or WE going high.
tWR2 applies in case a write ends at CS2 going low.
S) During this period, I/O pins are in the output state, therefore the input
signals of opposite phase to the outputs must not be applied.
6) If CSI goes low simultaneously with WE going low or after WE going
low, the outputs remain in high impedance state.
7) Dout is in the same phase of written data of this cycle.
8) Dout is the read data of the new address.
9) If CSI is low and CS2 is high during this period, I/O pins are in the
output state. Therefore, the input signals of opposite phase to the
outputs must not be applied to them.

210

eHITACHI

HM6264LP-10, HM6264LP-12HM6264LP-15
8192-word x 8-bit High Speed Static CMOS RAM
• F'EATURES
• Fast access Time
100ns/120ns/150ns (max.)
• Low Power Standby
Standby: 0.01mW(typ.)
Low Power Operation
Operating: 200mW (typ.)
• Capability of Battery Back-up Operation
• Single +5V Supply
• Completely Static Memory ..... No clock or Timing Strobe Required
• Equal Access and Cycle Time
• Common Data Input and Output, Three State Output
• Directly TTL Compatible: All Input and Output
• Standard 28pin Package Configuration
• Pin Out Compatible with 64K EPROM HN482764

(DP-28)

• BLOCK DIAGRAM
• PIN ARRANGEMENT

"o----cc=::ri

---0

--QliNJ)

M~m"ry Matrl.
~!ili

>(

~il

256

"o---H::;(=:::::J

CSI

W. ~---,,--_ _-,-_ _ _ _.J

,,,0-------'
• ABSOLUTE MAXIMUM RATINGS
Item
Terminal Voltage ..
Power Dissipation
Operating Temperature
Storage Temperature
Storage Temperature (Under Bias)
• With respect to GND.

Symbol
VT
PT
Topr
Tsta

1blas

•• Pulse width

50n~:

Rating
to +7.0
1.0
o to +70
-55 to +125
-IOto +85

-0.5

*.

Unit
V
W
·C
·C
·C

-

(Top View)

-3.0V

• TRUTH TABLE
WE
X
X
H
H
L
L

CS,
H
X
L
L
L
L

CS,
X
L
H
H
H
H

bE
X
X
H
L
H
L

Mode
Not Selected
(Power Down)

I/O Pin
High Z
HighZ
High Z
Dout
Din
Din

Output Disabled
Read
Write

Vee Current
ISB,lSBl
ISB,ISB2
Icc, Icc 1
lee,leel
lee,leel
lee,leCl

Note

Write Cycle .(1)
Write Cycle (2)
,I

x : Dun't care.

•

HITACHI

211

HM6264LP·10, HM6264LP·12, H M 6 2 6 4 L P · 1 5 - - - - - - - - - - - - - - - - - - -

• RECOMMENDED DC OPERATING CONDITIONS (To = 0 to +70°C}
Symbol

Item
Supply Voltage

Vee
GND

Input Voltage

VIH
VlL

typ
5.0
0

min
4.5
0
2.2
-0.3·

max
5.5
0
6.0
0.8

-

Unit
V
V
V
V

-

• Pulse Width SOns: -3.0V

• DC AND OPERATING CHARACTERISTICS (VCC = SV±IO%, GND = OV, To = 0 to +70°C)
Symbol

Item
Input Leakage Current

Test Condition

min

typ·

-

-

-

IILlI

Vin=GND to Vee

Output Leakage Current

IlLol

CSI=VIH or CS2=VIL or OE=VIH, VI/o=GND
to Vee

Operating Power Supply Current

Icc

Average Operating Current

leel

Min. cycle, duty=IOO%, CS1=VIL, CS2=VIH

ISB

CSI=VIH or CS2=VIL,/l/o=OmA

/SBI"

CSI~Vee-0.2V, CS2~Vee-0.2Vor CS2~0.2V

ISB2"

CS2~0.2V

-

VOL

IOL=2.1mA

VOH

/o~-1.OmA

Standby Power Supply Current

Output Voltage

,

max

Unit

2

/JA

2

/JA

40

80

rnA

60

110

rnA

I

3

rnA

2

100

/JA

2

100

/J A

-

-

0.4

V

2.4

-

-

V

CSI=VIL, CS2=VIH,II/o=OmA

• Typical limits are at Vec=5.0V, T,,=25°C and specified loading.
•• VIL min=-0.3V

• CAPACITANCE (f= IMHz, To = 25°C)
typ

Symbol Test Condition
Vin =OV
Cin
VI/O =OV
ClIO

Item
Inpu t Capacitance
Input/Output Capacitance

-

max
6
8

Unit
pF
pF

Note) This parameter is sampled and not 100% tested.

• AC CHARACTERISTICS (Vcc = 5V±10%, Ta = 0 to +70o C)
• AC TEST CONDITIONS

Input Pulse Levels: 0.8 to 2.4V
Input Rise and Fall Times: 10ns
Input and Output Timing Reference Level: 1.5V
Output Load: lTTL Gate and CL =10:lpF !including scope and jig)
• READ CYCLE

Symbol

Item
Read Cycle Time

tRe

Address Access Time

tAA

HM6264LP-I0

HM6264LP-12

HM6264LP-15

min

max

min

max

min

100

-

120

-

150

-

ns

100

-

120

150

ns

100

120

150

ns

100

-

-

120

-

150

ns

max

Unit

CSI

teol

CS2

teo2

-

tOE

-

50

-

60

-

70

ns

CSI

tLZI

10

-

10

-

15

ns

CS2

tLz2

10

-

10

-

15

tOLZ

5

-

5

-

5

-

CSI

tHZl

0

35

0

40

0

SO

ns

CS2

tHZ2

0

35

0

40

0

SO

ns

Output Disable to Output in High Z

tOHZ

0

35

0

40

0

50

ns

Output Hold from Address Change

tOH

10

-

10

-

15

-

ns

Chip Selection to Ou tpu t

i

Output Enable to Output Valid
Chip Selection to
Output in Low Z

I
I

Output Enable to Output in Low Z
Chip Deselection to
Output in High Z

l

I

ns
ns

NOTES: I tHZ and tOHZ are defined as the time af which the outputs achieve the open circuit condition and are not referred
to output voltage levels.
2 At any given temperature and voltage condition, tHZ max is less than tLz min both for a given device and from
device to device.

212

eHITACHI

- - - - - - - - - - - - - - - - - - - H M 6 2 6 4 L P · 1 0 , HM6264LP·12, HM6264Lp·15

• READ CYCLE
r----------tRc----------~

Dout----------------------------------~

NOTE: 1) WE is high for Read Cycle

• WRITE CYCLE
Symbol

Item

HM6264LP·10

HM6264LP·12

HM6264LP·15

min

max

min

max

min

max

Unit

Write Cycle Time

twc

100

-

120

-

150

-

Chip Selection to End of Write

tcw

80

-

85

-

100

-

ns

Address Setup Time

tAS

0

0

-

0

-

ns

Address Valid to End of Write

tAW
twp

80

-

85

-

100

-

ns

60

-

70

-

90

-

ns

tWRI

5

-

5

-

10

ns

-

15

-

15

50

ns

Write Pulse Width
Write Recovery Time

I CS1, WE
I

CS2

ns

tWRZ

15

Write to Output in High Z

tWHZ

0

35

0

Data to Write Time Overlap

tDW

40

-.

50

-

60

-

ns

Data Hold from Write Time

tDH

0

-

0

-

0

-

ns

OE to Output in High Z

tOHZ

0

35

0

40

0

50

ns

tow

5

-

5

-

-

ns

Output Active from End of Write

•

HITACHI

40

0

10

ns

213

HM6264Lp·10, HM6264LP·12, H M 6 2 6 4 L P · 1 5 - - - - - - - - - - - - - - - - - • WRITE CYCLE 111 10i clack 1

---.. _. -twc .

..

---

CS2 .....'"'""~'"""....:..'fo.'.JI·
,,,tAs(3) -tAw~'::iwp"l~t,..W'...RW.{....:..:...::.....:..l..:..

rt&&

WE
Dout

.~sr

» )» » ))))))

[1)

l.«iV/Wffi

tDW-'- - ; - - - - tDH

r TCELQV.
13. These parameters are reference to CE leading edge in
early write cycles and to W leading edge in delayed
write or read-modify-write cycles.
14. lWLCEL, TCELWL and TRELWL are not restrictive
operating parameters. They are included in the data
sheet as electrical characteristics only: If lWLCEL =
lWLCEL (min), the cycle is an early write and the
data out pin will remain open circuit (high Impedance)
throughout the entire cycle; i( TCELWL TCELWL
(min) and TRELWL will contain data read from the
selected cell; if neither of the above sets of conditions
is satisfied the condition of the data out (at access
time) is indeterminate.
IS. Capacitance measured with Boonton Meter or effective capacltance measuring methods.)
16.
= VIHC to disable Q.

=

a

eHITACHI

- - - - - - - - - · - - - - - - - - H M 4 7 1 8 A · 1 , HM4718A·2, HM4718A·3, HM4718A·4,
HM4718AP·1, HM4718Ap·2, HM4718AP·3, HM4718AP·4

• ELECTRICAL CHARACTERISTICS AND RECOMMENDED AC OPERATING CONDITIONS
(Ta-O to +70·C. VDD -12V±10%, Vcc-5V±10%. Vss-OV. VB.--5V±10%)
HM4716A-l

HM4716A-2

Old

New

min

min

hc

TRELREL

320

Read·Write Cycle Time

"'wc

.TRELREL

320

Page Mode Cycle Time

Ipc

TCELCEL

160

Symbol

Parameter
Random Read or Write
Cycle Time

rna.

-

320
320
170

HM4716A-4

HM4716A-3

max

-

max

min

375

-

410

-

ns

515

-

n.

275

-

ns

375
225

200

250

ns

8.10

135

165

ns

9.10

0

70

ns

50

3

50

ns

120

-

150

-

ns

200

10000

250

10000

n.

TRELQV

120

tCAe'

TCELQV

80

-

tOFF

TCEHQZ

0

35

0

50

0

60

IT

TT

3

35

3

35

3

100

-

150

10000

Transition Time
(Rise and Fall)
jffi"" Precharge Time

lAP

TREHREL

100

RE Pulse Widlh

I ... ,

TRELREH

120

1m" Hold

hSH

TCELREH

80

-

100

CE Pulse Width

tCAS

TCELCEH

80

10000

CE Hold Time

Ic ..

TRELCEH

120

-

100

RE to CE Delay Time

IReD

TRELCEL

15

40

CE 10 RE

leap

TCEHREL

0

Time

Precharge Time

10000

-

150
25
-20

10000

-

50

-

135
135
200
30
-20

10000

165

-

165

10000

250

-

n.

65

40

85

ns

-20

-

tAsa

TAVREL

0

0

0

0

ns

tRotH

TRELAX

Column Address Sel.up Time

t.4SC

TAVCEL

15
-5

20
-5

25
-5

·35
-5

ns
ns

Column Address Hold Time

ICAH

TCELAX

40

R.ference 10 RE

IAR

TRELA1(

80

Read Command Sel·up Time

hes

TWHCEL

0

Reid Command Hold Time

IReN

TCEHWL

0

Write Command Hold Time

tweN

TCELWH

40

'welt

TRELWH

80

Iwp

TWLWH

I",,,

45
95
0
20

95

40

-

TWLREH

50

-

60

leWI.

TWLCEH

50

Data·in Set·up Time

'0'

TDVCEL

0

Data·in Hold Time

ION

TCELDX

40

Write Command Hold Time
Reference RE
Wrile Command Pulse Width
Write Command 10 RE
Lead Time
Write Command to CE
Lead Time

Data·in Hold Time

-

45

45

60
0

-

45

55
120
0
20

-

75
160
0

120

-

160

55

-

75

80

-

100

0

ns
ns

75

55

ns

ns

-

-

ns

20

55

80

-

100
0

-

75

12

ns

Row Addre •• Sel.up Time

-

7

ns

-

11

ns

Row Addre .. Hold Time

Column Address Hold Time

8

100

hAC

Acce .. Time From CE
Delay

max

150

Acce .. Time From RE
Output Buffer Turn·oll

Unit Notes

min

ns
ns
ns
n.
ns

13

ns

13

tDHH

TRELDX

80

-

95

-

120

-

160

-

Icp

TCEHCEL

60

-

60

-

80

-

100

-

ns

Refresh Period

IRE'

TRVRV

-

2

-

2

-

2

-

2

ms

W Command

twes

TWLCEL

0

-20

-20

-20

ns

ICWD

TCELWL

60

95

125

ns

14

IRWO

TRELWL

100

-

70
120

ns

14

lopc

TREHCEL

0

-

0

Referenced RE
CE Precharge Time (for
Page·mode Cycle Only)
Set·up Time

CE to RE Delay
RE to W Delay
RE Prechar,e .to
CEHoid Time

-

160

-

200

0

-

0

-

ns

14

ns

• AC ELECTRICAL CHARACTERISTICS
Parameter
Input Capacitance (Ao-A •• D)
Input Capacitance

RE.

CE, W

Output Capacitance (Q)

Symbol

typ

rna.

Unit

Not.s

CII

-

5

pF

15

10

pF

15

7

pF

15, 16

Cit
C.

•

-

-

HITACHI

221

HM4716A-1, HM4716A-2, HM4716A-3, H M 4 7 1 6 A - 4 - - - - - - - - - - - - - - - - HM4716AP-1, HM4716AP-2, HM4716AP-3, HM4716AP-4
.TIMING WAVEFORMS
.READ CYCLE
>-------TRELREL-------!
V I H C - -.....' - -

1~=:Tmc;;;::=:::j:=====iil

VlL

VIL

AUDItESSES

vm

",
VlHC

VI

VIL

TR£LQV~ J ~TC~
--------'OPEN--t::ID--

.WRITE CYCLE (EARLY WRITE)
\'IHC

____u:==~~~~~TRE"LR~E:.L::::::1:======~
TREt-AX

TRELRF.II-

VIL

yIHC-----H--...,~

1\..4~'-----_+-rJ

VIL

VON _ _ _ _ _ _ _ _ _ _-.

/"-~,"","-..J.

,",.,.,.rrt..,..,.,,.,...

'--"''''''"'-Jj

•

HITACHI

223

HM4716A-1, HM4716A-2, HM4716A-3, H M 4 7 1 6 A - 4 - - - - - - - - - - - - - - -_ _
HM4716AP-1, HM4716AP-2, HM4716AP-3, HM4716AP-4

• TYPICAL CHARACTERISTICS
ACCESS TIME (NORMARIZEO) vs. VDD

ACCESS TIME (NORMARIZEO) vs. V..

1.2

1.2

T}=50'C

Tr=50'C

1. 1

1.1

~

'"

0.9

j
.~

~

1.0

7-

:>

ij

'-

'"

f-

0.9

o.8

0.8

10

11

12

14

13

3

-5

Supply Voltage VDD (V)

ACCESS TIME (NORMARIZEO) vs. T;

]
.~

1.0

7-

30r-------,-------,--------r-------,

>
0-J

::!
f0.9

/

V

v

V

25~-------r--~~~r_------1_------_i

'0 1-------+-----::::....1F-------t--------;

151-------~

__--__~~~~

10 l ' " O - - - - 1 L . . 1 - - - - - I 1 ' - - - - - ' U - - - - I " "

0.8

-10

20

80

50

110

Junction Temperature TJ ('C)

Supply Voltage VIlI) \ \'}

1001 vs. T

1001 vs. CYCLE RATE
0

30

VDD=13.2V

T~REL=375ns

VDD=13.2V

TJ=50'C

I

'5

0

TRE~EL=5Il(Jns
0

'0

./

10
-10

/'

L

/

V

0

5

TRELREL 800ns

,0

1
so

5"

Junctlun TemperatufP

224

-7

IDOl vs. VD•

1.2

1.1

-6

Supply Voltage VSS (V)

{}

110

Cycle Rate (I/TRELRELl (MHz)

TJ ("C)

~HITACHI

- - - - - - - - - - - - - - - - - H M 4 7 1 6 A - 1 . HM4716A-2. HM4716A-3. HM4716A-4
HM4716AP-1. HM4716AP-2. HM4716AP-3. HM4716AP-4

1002 (STANDBY)

VB.

V••

1002 (STANDBY)

T, =50'C

i

:;;

l
0.8

.:l

1
fon

/

V

~

-...

1.0

~

~

-

~

0.8

0.6

on

10

11

0.'

I.

13

12

-10

20

1003 ( RE ONLY CYCLE)

VB.

1003 (RE ONLY CYCLE)

V••

20

0

15

5

T,

1Il

0

11

!lI

12

13

I.

[L=500",

-

"-

I~

JELREL=315ns

-

~

10

I

TRELREL=800ns

r--

20

1004 (PAGE-MODE CYCLE)

50

110

80

Junction Temperature T, (Oe)

Supply Voltage VbO (V)

VB.

1004 (PAGE-MODE CYCLE)

V..

VB.

T,

25r-------~------_r------_r-------,

25

VOIl=13.2V

T,=SO'C

~

VB.

-

TRELREL=375ns

;;:

lIO

5

T,=50"C

:§

80

50

Junction Temperature T/ (Oe)

25

'"'
J.

--

~

Supply Voltage VOD' (V)

~

"-........~

u

0.6

0.'

<.

T,

VOD=13.2V

1.0

~

VB.

1.2

1.2

TRELREL=225ns

20

i

15

.:l

20~------r-----~f=---~~-----;

E

"
.:l

15~-------r------~f=~--. .~~-----i

or.

I

;:,

TRELREL=500ns
10~-------r------~r-------~-------i

10

~

10

II

12

13

I'

-10

20

50
JunctIon Temperature

Supply Vollage VIII) \ V)

eHITACHI

80

110

T, ('C)

225

HM4716A-1, HM4716A-2,HM4116A-3,HM4716A-4--------------------------------HM4716AP-1, HM4716AP-2, HM4716AP-3, HM4716AP-4
CLOCK INPUT LEVELS vs. V."
2. 5

_.

I
T,=50·C

-

>
~
Cl

I. 5

I

VIHC{MIN:

5
VII.C(il:\X)

VILC(MAXI

I. 0

Il

o. 5

tl. 5

HI

12

II

13

-4.5

-4.0

Il

CLOCK INPUT LEVELS vs. T,
Vi

I
V80::::-Sr

2.0

2.5

I

2.1 I

..

:-

~

1.5

\'IW

I'JI,.IMI~I

-- ----

TI=fiO'C

VRB=-5V

;,

!

-6.tI

ADDRESS AND DATA INPUT
LEVELS vs. V••

V'HcJ~

Vuu-=12\'

-5.;

-5.1l

Supply \tohaRE" VBB. \' I

SupplY r"ltaRt' Vun ;\',

~
Cl

I

T,=50'C
VOD=12\'
2.0

-

!

2..5

VIJIMINI

VFl8=-SV
2.11

CLOCK INPUT LEVELSvs. V..

1.5

j

~AXI

1.1 I

I,(J

~

--

VII..M.ata

J<'--------

- - - - - - - - - - - - - - - - - - H M 4 8 6 4 - 2 , HM4864-3, HM4864P-2, HM4864P-3

."RAS-ONLY" REFRESH CYCLE

Mcl.rell

_ _ _ _ _ _ _ _ _ _ _ Open _ _ _ _ _ _ _ _ _ _ __

Do..

• PAGE MODE READ CYCLE

1---------------,,,.-----------------1
f----------'''''---------RAS

v"'

'"

\"1.

CAS

WE

V,.
t'n

V,H
VI/.

V,.
Vt/
10"

Daul

.PAGE MODE WRITE CYCLE

ill

v,.
v"

CAs

v,.
v"

Address

WE

Din

v"
VII.

V,.
V"

V,.
V"

•

HITACHI

241

HM4864-2, HM4864-3, HM4864P-2, H M 4 8 6 4 P - 3 - - - - - - - - - - - - - - - - -

• TYPICAL CHARACTERISTICS
AE:CESS TIME

ACCESS TIME

va. SUPPLY VOLTAGE

va. AMBIENT TEMPERATURE

Ta=20*C

]

\..

1.1

"-

~

}

Vcc=5.5V

1.0

~

;:

~

•.9

'.0

I

'"

~

5.0

'.5

0

.

'-.....

~

6.0

5.5

~

---

o.9

-20

AmbIent Templ!'ratl.lre

SUPPLY CURRENT
va. SUPPLY VOLTAGE

"

,,,

Til =211"C

.0

30

~

.1..:27.',
-

-

3311

0
500

::
(J

I

ltlu

(OC)

-

0

~

.g

,,,
Ta

trc=5.5V

<

~

V

SUPPLY CURRENT
va. AMBIENT TEMPERATURE

511

.!

,.

III

Supply Voltage Vee (V)

~

10

-

0

2"

4.•

5.•

'.5

5.5

-l,OIlIl

I0

b.O

-20

SUPPLY CURRENT
va. CYCLE RATE

Inn

40

ItJ

Ambient Temperature

Supply Voltage Vee (VJ

Ta

("C)

SUPPLY CURRENT
va. SUPPLY VOLTAGE

50

rcr=5.5V

1',,=20'C

0

/
0

/

V

L

/

--I

II

Cycle Rate{ 1/ tIel (MHz)

242

I

m.rn:!'"

To:=20"C
1I.p=JOOns

V

.;,,)

.........

~

.1.0

"

Supply Voltage Vee IV)

•

HITACHI

b,lI

- - - - - - - - - - - - - - - - - H M 4 8 6 4 - 2 , HM4864-3, HM4864P-2, HM4864P-3

SUPPLY CURRENT
VB. SUPPLY VOLTAGE

SUPPLY CURRENT
vs. AMBIENT TEMPERATURE

50..-----.----......---.------.
TII=20'C

i

~

3~----~------~------~----__1

~ ~o~-----4------~------4_----__1

ti
~

~

~

hc==270n5

30~-----4------~-----=~~--~

~

3311

<3
>.

1

1~-----4------~------~----__1

J!
I,OIlIl

IOL-____~~~__-L______~____~

II L.____....J._ _ _ _..1..______~-------I

-2.)

10

4n

70

u

IUU

u

Ambient Temperature Ta (tl

Supply Voltage Vee (V)

SUPPLY CURRENT

SUPPLY CURRENT
vs. AMBIENT TEMPERATURE

vs. CYCLE RATE

..------,------,-------"T""----,

511

:)1)

\,( =5.1\
TII=2u'C

Vcc=5.5V

]
~

40~----~------~------~----~

.

--

30

10

-

tiu-27tJns-

--

20

~
.l:
~

~

I-.
-50fl

411

70

III

IOU

Cycle Rate (l/tllc\(MHzl

SUPPLY CURRENT
vs. AMBIENT TEMPERATURE
5()~-----.----..,..----~---~

5CJ
Til

=2U'C

;;:
-!

:£
~

",

~

"'I------4------+------4_----~

i

l'.
:!:

~

311

""
~

V

V

/

..,/

Ta ("e)

SUPPLY CURRENT
vs. SUPPLY VOLTAGE

~
<3
];
J!

:!u

];
J!

_1.0flO

Ambient Temperature

C

'10

g:,

---:no

10

-2f1

..

,II

ti

ti

~

iRl'=ifIUns

3111---_--+------I------l------~

"

"'

:?25

1:

20

<3

5111,

--

211~....:=~==::::!:===-_L_= 225

J
111 L.___....J"-___...,L-______-,L___---::'
~

u

u

u

u

-

tl" -liUnll

-!iIlU

111 L.____---'______..1..______..I.._ _---J
-20

IU

HI

Ambient Temperature

Supply Voltage \h IVI

eHITACHI

in

lUll

1'.,: 't

243

HM4864-2, HM4864-3, HM4864P-2, H M 4 8 6 4 P - 3 - - - - - - - - - - - - - - - - -

INPUT LEVEL
va. SUPPLY VOLTAGE

SUPPLY CURRENT
va. CYCLE RATE

,

511

r({ =5.:W

!

T,,=:!u\

TII=-:!U\'
fl"

-'''UII~

~ ,U

P

"

j
Ii

~

",

'ill

.l!
<3

.!u

.----- ~ ---

~

1:
Jl

-~

."...

~

L--'"

~

---

k

----

"
u, ",

I"

V
. ..
,

I
'• .11

5.5

Supply Voltage Vcc (V I

Cycle Rate IlIlpc) (MHz)

CLOCK INPUT LEVEL
VB. SUPPLY VOLTAGE

INPUT LEVEL
va. AMBIENT TEMPERATURE

,,''---"'""T""--T"""

['I-=:!U't'

:1.11

~

-----::::---

]

f

15

I."

I.n

I.'

=

~

;;:

,

V
~

-+__....J

II.; L-_ _...J.._ _ _I.-_ _
-.!U

10

~j)

Ambient Temperature Ta

70

4.11

Ilin

CLOCK INPUT LEVEL
va. AMBIENT TEMPERATURE
III

=:;.lJ\"

2.11

E
~
~

1.1

-

'IL

U
lou

u,~':",,...,--...J...I"---'J...,,--......,;~"---::!IO'll
Ambient Temperature Ta (OC)

244

.I,ll

Supply Voltage Vcr tV)

("C)

$

HITACHI

h.O

- - - - - - - - - - - - - - - - - H M 4 8 6 4 - 2 , HM4864-3, HM4864P-2, HM4864p-3

h
h
t2

-

l.un. RAS/CAS Cyct.

RASICAS I:),el.

RAS

''a,r Mod. C,cl.

RAS Onl)' Cycle

/ " ~h

rh

L-.J

•

'00

1 '"
"
•,

·

II

II",

JI

'v

J

I

JI

II

n
V'

\.
\...-...J

J

u

(

ft

/1/\

/'
\.,..JU

\

J

Ir

(

"-T

J

-u(

-,-,,~

.APPLICATION INFORMATION
epOWER ON

l l/1

An initial pause of 500 lAS Is required after power·up and a
minimum of eight (8) initialization cycle,(any combination of
cycles containing a RAS clock such as 'AAS-only refresh) must
follow an initial pause.
The Vcc current (Icc) requirement of the HM4864 during
power on is, however, dependent upon the input levels (RAS,
CAS) and the rise time of Vcc, asshown In Fig. 1.

,,

,

eREAD CYCLE

A read cycle begins with addresses stable and a negative going
transition of RAS. The time delay between the stable address
and the start of RAS·on is controlled by parameter tASR .
Following the time when RAS reaches its low level, the row
address must be held stable long enough to be captured. This
controlling parameter is tRAH' Following this interval, the
address can be changed from row address to column address.
When the column address is stable,CAS can be turned on. The
leading edge of CAS" is controlled by parameter tRCD. The
basic limit on the CAS leading edge is that CAS can not start
until the column address is stable, and this is controlled by
parameter tASC. The column address must be held stable long
enough to be captured. The controlling parameter is tCAH'
Note that tRCD (max) is not an operating limit of the
HM4864 though its specification is listed on the data sheets. If
CAS becomes on later than tRCD (max), the access time from
RAS will be increased by the time which tRCD exceeds tRCD
(max).
Following the time when CAS reaches its low level, the
data-out pin remains in a high impedance state until a valid
data appears. This parameter is tCAC ·access time from CAS.
The access time from RAS-tRAC-is the time from RAS·on
to valid Dout.
The minimum value of tRAC is derived as the sum of tRCD
(max) and tCAC'
The selected output data is held valid internally until CAS
becomes high, and then Dout pin becomes high impedance.
This parameter is tOFF·

•

HITACHI

I,
11\

"

w.rn .. r~s

'-

j

V

lli.clcii~ ~'('I'

r-........

'"

211

."

3U

1'ImI' 1/,,1
1,1 \'n' du' 1IIIlI""'IU,,,

l/1
15

""R'A'S.cA'Smvu
~

10

.f

~

100

RAS,m",~·,.(

200

;jun

40U

"11~(",1

I.! \'((' rIle cime,"IOO,ll.

Flg.1 I cc va. Vee during power up.

245

500

HM4864-2, HM4864-3,HM4864P-2,HM4864P-3----------------------------------• WRITE CYCLE
A write cycle is performed by bringing WE low
before or during CAS-on_
Two different write cycles can be defined as;
Write cycle-Write data are available at the beginning
of the CAS-on so that the write operation starts at
the beginning_ In this mode, Dout and WE signal
times are not in any critical path for determining
cycle time_
Following the time when WE" reaches its low level,
Wi: must be held stable long enough to be captured_
This WE-on pulse deration is called twp- The time
required to capture write data in a latch is called
tDH. This cycle is called an "early write".
Read Write cycle-This cycle starts as a read cycle,
but as soon as the device specification is met, a
write cycle is initiated.
WE and Din are delayed until after Dout. This cycle
is called a "delayed write". A "Read-modify-write"
cycle is a variation of this operation. In this mode,
Din and WE become critical path signals for
determining cycle time.

• REFRESH
Refresh of the HM4864 is accomplished by performing a memory cycle at each of the 128 row
addresses within each two millisecond time interval.
AD to A6 are refresh address pin compatible with
standard 16K RAM (HM4716A, HM4816A). During
refresh, either V'l or V'H is permitted for A7_ Any
cycle in which RAS signal occurs refreshes the
entire selected row_ ~-only refresl1 results in
substantial reduction in operating power_ This reduction in power is reflected in the 1CC3 specification_
• PAGE MODE
Page mode operation allows faster successive memory operations at multiple column locations of the
same row address with increased speed_
This is done by strobing the row address into the
chip and maintaining RAS at a logic low throughout
all successive CAS memory cycles in which the row
address is latched_ As the time normally required for
strobing a new row address is eliminated, access and
cycle times can be descreaded and the operating
power is reduced_ These are specifications.

• CLOCK-OFF TIMING
RAS and CAS must stay on for Dout sta~ilized to
valid data. In the case of CAS, this is controlled by
parameter tCAS (min).
In the case of RAS, this is controlled by parameter
tCAS (min). Following the end of RAS, CAS must
stay off long enough to precharge internal circuits.
The only parameter of concern is tRP. Normally
CAS is not required to be off for minimum time of
tCRP. However, in a page mode memory operation,
there is a tcp (min) specification to control the
CAS-off time .
• DATA OUTPUT
Dout is three-state TTL compatible with a fan-out
of two standard TTL loads.
When CAS is high, Dout is in a high impedance
state. When CAS is low, valid data appears after
tCAe at a read cycle, and Dout is not valid as an
early-write cycle.

246

$

HITACHI

HM4864CC-2,
HM4864CC-3
65536-word x 1-bit Dynamic Random Access Memory
• FEATURES
• 18-pin Leadless Chip Carrier
• 150ns access time, 270ns cycle (HM4864CC-2)
200ns access time, 335ns cycle (HM4864CC-3)
• Single power supply of 5V ± 10% with a built-in Vss generator
• Low power: 330mW active, 20mW standby (max)
• The inputs TTL compatible, low capacitance, and protected against
static charge_
• Output data controlled by CAS and unlatched at end of cycle to
allow two dimensional chip selection and extended page boundary.
• Common I/O capability using "early write" operation
• Read-Modify-Write, HAS-only Refresh, and Page-mode capability
128 refresh cycle

(CC-18)

• PIN ARRANGEMENT
.FUNCTIONAL BLOCK DIAGRAM

Din

Doul

.,

~

Mem"ry
,hray

Ruw Dec.
Memnry

..\rray

!
£

---I

VIIS

Generator

I

Memor)
."'rray

A.-A,

• ABSOLUTE MAXIMUM RATINGS
Voltage on any pin relative
to Vss . __ .•. __ .• _ ... _. -1.0 to +7V
Operating Temperature, Ta
(Ambient) ... _ ... ___ . _ . _ 0 to +70°C
Storage Temperature
(Ambient) .... _ .. _ .... _. -65 to +150°C
Short-circuit Output Current . 50 mA
Power Dissipation .. __ •. _ _ _ 1 W

•

HITACHI

CAS

Address Inputs
Column Address Strobe

Din

Data In

Dout
RAS

Data Out
Row Address Strobe

WE
Vee

Read/Write Input
Power (+5V)

V:.:s

Ground

Ao-A~

Refresh Address Input

247

HM4864CC-2,HM4864CC-3------------------------------------------------• RECOMMENDED DC OPERATING CONDITIONS (Ta= 0 to +70'C)
Symbol

Parameter

Supply Voltage

min

Vee

4.5

Vss

0

Input High. Voltage

V,II

Input Low Voltage

Vi,

typ

max

Unit

5.0

5.5
0

V

-

6.5

V

1

-

0.8

V

I

2.4
-1.0

0

Notes
1

V

• DC ELECTRICAL CHARACTERISTICS (Ta=O to +70·C. Vcc=5V±10%, Vss=OV)
min

max

Unit

Notes

IcC!

-

60

mA

2,4

lcc2

-

3.5

mA

2

leca

-

45

mA

2,4

In 4

-

45

mA

2,4

INPUT LEAKAGE
Input Leak~ge Current, any Input (V.. -0 to +6.SV, all other pins not
under test -OV)

lu

-10

10

"A

OUTPUT LEAKAGE
Output Leakage Current (Dout is disabled, V••• -0 to +5.SV)

Iw

-10

10

I'A

2.4
0

Vee
0.4

V
V

Symbol

Parameter

OPERATING CURRENT
Average Power Supply Operating Current (RAS,CAS Cycling;IRc-min.)
STANDBY CURRENT
Power Supply Standby Current (RAS - V1I4 Dout ~High Impedance)
REFRESH CURRENT
Average Power Supply Current, Refresh Mode

(RAS Cycling, CAS - VlH;IRc-min.)
PAGE MODE CURRENT
Average Power Supply Current, Page-mode Operation

(RAS-VII,CAS Cycling;tpc=min.)

OUTPUT LEVELS
Output High (Logic 1) Voltage (I••• - -SmA)
Output Low (Logic 0) Voltage (IQ' -4.2mA)

VOH

VOL

3

NOTES
1. All voltages referenced to V ss.
2. ICC depends on output loading condition when the device is selected. ICC max. is specified at the output open condition.
3. lLO consists of leakage current only.
4, Current depends on cycle rate: maximum current is measured at the fastest cycle rate .

• AC ELECTRICAL CHARACTERISTICS
Symbol

typ

rna.

Unit

Input Capacitance (A,-A" Din)

C .. ,

-

7

pF

Input Capacitance (RAS,CAS,WE)

C.. ,

-

10

pF

1
1

Output Capacitance (Dout)

Co.. ,

-

7

pF

1,2

Parameter

NOTES
1. Capacitance measured with Boonton Meter or effective capacitance measuring method.
2. CAS = V/H to disable DOUT'

248

eHITACHI

Notes

-----------------------------------------------HM4864CC-2,HM4864CC-3
• ELECTRICAL CHARACTERISTICS AND RECOMMENDED AC OPERATING CONDITIONS
(Ta-O to +70'C, Vcc=5V±10%, VSS-OV)
Symbol

Parameter

HM4864CC-2

HM4864CC-3

min

max

min
335

max

Unit

1).2)

Notes

IRC

270

Read· Write Cycle Time

'IRWC

270

-

335

-

ns

Page Mode Cycle Time

Ipc

170

-

225

-

ns

t RAC

-

150

200

ns

4.6

Access Time from CAS

tCAe

-

100

-

135

ns

Output Buffer Turn·off Delay

t"FF

0

40

0

50

ns

5.6
7

Transition Time (Ris~ and Fall)

IT

3

35

3

50

ns

3

RAS Precharge Time

I"

100

120

-

ns

RAS Pulse Width

IRAS

150

200

10000

ns

RAS Hold Time

lUll

100

CAS Pulse Width

t(',u

100

CAS Hold Time

/cSH

150

-

200

-

ns

RAS to CAS Delay Time

iRCD

20

50

25

65

ns

CAS to RAS Precharge Time

tCRP

-20

-

-20

n.

0

-

-

Random Read or Write Cycle Time

Access Time from

R'AS

10000

-

135

Row Address Set·up Time

IASR
hAH

Column Address Set·up Time

lAse

20
'-10

Column Address Hold Time

ICAH

45

Column Address Hold Time referenced to RAS

IAR

95

Read Command Set-up Time

iRes

0

Read Command Hold Time

tH.CH

0

Write Command Hold Time

tWC'H

45

-

55

Write Command Hold Time referenced to RAS

t WCR

95

-

120

-

55

Iwp

45

Write Command to RAS Lead Time

tRIttI.

45

Write Command to CAS Lead Time

fewl.

45

Data-in Set-up Time

tD:>

Data·in Hold Time

' 0•

Data·in Hold Time referenced to RAS

tDHM

CAS Precharge Time (for Page·mode Cycle Only)

Icp

0
25
-10
55
120
0
0

55

-

55

45

-

55

95

-

120

-

80

-

0

0

Refresh Period

tREF

60
-

Write Command Set-up Time

twrs

-20

CAS to WE Delay

leWD

60

RAS to WE Delay

"WD

110

RAS Precharge to CAS Hold Time

tRl'C

0

-

135

Row Address Hold Time

Write Command Pulse Width

ns

2

~

-20
80
145
0

ns
ns

-

-

-

ns
ns
ns
ns
n.
ns
ns
n.
ns
ns
ns
ns
ns

9

ns

9

ns

-

ns

2

m.

-

8

os

10

ns

10

ns

10

ns

NOTES
1. AC measurements assume tT = Sns.
2. 8 cycles are required after power-on or prolonged
periods (greater than 2ms) of RAS inactivity before
proper device operation is achieved. Any 8 cycles
which perform refresh are adequate for this purpose.
3. VIH (min) and VIL (max) are reference levels for
measuring timing of input signals. Also, transition
times are measured between VIH and ViL:
4. Assumes that tRCD ~ tRCD (max). If tRCD is greater
than the maximum recommended value shown in this
table tRAC exceeds the value shown.
S. Assumes that tRCD ~ tRCD (max).
6. Measured with a load circuit equivalent to 2TTL loads
and 100 pF.
7. tOFF (max) defines the time at which the output
achieves the open circuit condition and is not referenced to output voltage levels.
8. Operation with the tRCD (max) limit insures that

•

tRAC (max) can be met. tRCD (max) is specified as a
reference point only; if tRCD is greater than the
specified tRCD (max) limit, then access time is
controlled exclusively be tCAC' __
9. These parameters are reference to CAS leading edge in
early write cycles and to WE leading edge in delayed
write or read-modify-write cycles.
10. twcs tCWD and tR WD are not restrictive operating
parameters. They are included in the data sheet as
electrical characteristics only: if twcs ~ twcs (min),
the cycle is an early write cycle and the data out pin
will remain open circuit (high impedance) throughout
the entire cycle; if tCWD ~ tCWD (min) and tR WD ~
tRWD (min) the cycle is a read/write and the data
output will contain data read from the selected cell; if
neither of the above sets of conditions is satislied the
condition of the data out (at access time) is indeterminate.

HITACHI

249

HM4864CC·~,HM4864CC·3------------------------------------------------

.TlMING WAVEFORMS
eREAD CYCLE

f----------,oc----------..;
t--------k·SH'---------t

V,R

W

V"
V,.

CiS

V"

A44re.. VII
V"

WE

V"
V"

0",

VOl

V"

eWRITE CYCLE
til'
feSN

m

-,,,

V"

CAS

V,R

V"
V..

AtW.rell

tASII~

i-t'AH-j

Ius

,,,

V,M

tlSH-

l

I~CA~

IASC'

Column Address

Row Address
V"

,

~

~.. CJ

..

,

V.lid 0."

IX:

~:--------------------~."'---------------------------

VIN

v"
h.

Address

V"

V"
fn

0",
0"

250

".-

tell,

m v"tit

'ViE

"-

"'-V

e READ· WRITE/READ· MODIFY· WRITE CYCLE

ITs

f---lIp-

I--II"H-

~ 1--...-

0",

IX.

~

t,l,

X

Din

teAS

V..

V"
V"
V"

$

HITACHI

------------------------------------------------HM4864CC-2,HM4864CC-3

."RAS-ONLY" REFRESH CYCLE

Addreu

_ _ _ _ _ _ _ _ _ _ _ _ 0'0. _ _ _ _ _ _ _ _ _ _ _ __

Do_,

.PAGE MODE READ CYCLE

I--------------"c-----------------j

ill

VIN

CAS

VIB

v"

\"L

MIm,

WE

~I'H

v"
VIB
r~,
OF'

Do"

v••
VOL

.PAGE MODE WRITE CYCLE
~----------_<.c----------------~

RAS

v,.
v"

CAS

VIN

Address

WE

Din

v"
VIN

VII.

VIN

VIN
V"

_HITACHI

251

HM48641-2, HM48641-3,
HM4864K-2, HM4864K-3
Wide Operating Temperature Range
65536-word x 1-bit Dynamic Random Access Memory
The HM4864 is a 65,536-words by 1-bit, MOS random access
memory circuit fabricated with HITACHI's double-poly N-channel
silicon gate process for high performance and high functional
density_ The HM4864 uses a single transistor dynamic storage cell
and dynamic control circuitry to achieve high speed and low power
dissipation_
Multiplexed address inputs permit the HM4864 to be packaged in a
standard 16 pin DIP on 0_3 inch centers_
This package size provides high system bit densities and is
compatible with widely available automated testing and insertion
equipment_ System oriented features include single power supply of
+5V with ±10% tolerance, direct interfacing capability with high
performance logic families such as Schottky TTL, maximum input
noise immunity to minimize "false triggering" of the inputs, on-chip
address and data registers which eliminate the need for interface
registers, and two chip select methods to allow the user to determine
the appropriate speed/power characteristics of this memory system_
The HM4864 also incorporates several flexible timing/operating
modes_
In addition to the usual read,write, and read-modify-write cycles, the
HM4864 is capable of delayed write cycles, page-mode operation
and RAS-only refresh_
Proper control of the clock inputs (RAS, CAS, and WE) allows
common I/O capability, two dimensional chip selection, and
extended page boundaries (when operating in page mode)_

(DG-16B)

• PIN ARRANGEMENT

• FEATURES
• Wide Operating Temperature Range

(Top View)

HM48641-2/-3
HM4864K-2/-3

•
•
•
•
•
•

Recognized industry standard 16-pin configuration
150ns access time, 270ns cycle time (HM48641-2, HM4864K-2)
200ns access time, 335ns cycle time (HM48641-3, HM4864K-3)
Single power supply of +5V±10% with a built-in Vss generator
Low Power; 330 mW active_ 22 mW standby (max)
The inputs TTL compatible, low capacitance, and protected
against static charge
• Output data controlled by CAS and unlatched at end of cycle to
allow two aimensional chip selection and extended page boundary
• Common I/O capability using "early write" operation
• Read-Modify-Write, RAS-only refresh, and Page-mode capability
• 128 refresh cycle

252

eHITACHI

Ao-A7

Address Inputs

CAS

Column Address Strobe

Din

Data In

Dout

Data Out

RAS

Row Address Strobe

WE

Read/Write Input

Vee

Power (+5V)

Vss

Ground

A.-A.

Refresh Address Input

- - - - - - - - - - - - - - - - - H M 4 8 6 4 1 . 2 , HM48641·3, HM4864K·2, HM4864K·3
.FUNCTIONAL BLOCK DIAGRAM
,------iR/W Swi".I---.,
Din

• ABSOLUTE MAXIMUM RATINGS
Voltage on any pin relative
toVss ...............• -1.0to+7V
Operating Temperature, Ta
(Ambient) .. -40 to +85°C (HM48641 Series)

0....
---0

Row Dec.

Memory
Array

--1

Row Dec.

~
~

Vee

Vo Generator

I

Memory
Array

-55 to +85°C (HM4864K Series)
Storage Temperature
(Ambient) .............. -65 to +150°C
Short-circuit Output Current . 50 mA
Power Dissipation • . . . . . . .. 1 W

• RECOMMENDED DC OPERATING CONDITIONS (Ta= -40 to +as'C)*
Parameter

Symbol

-

Supply Voltage
Input High Voltage

.

Input Low Voltage

*·HM4864KSenes;Ta =

min
4.5

Vee

Vss

0

V,H

2.4

V"

-1.0

typ

max

Unit

5.0

5.5

V

0

-

-

Notes

1

0

V

6.5

V

1

0.8

V

1

55 to +85 C

.DC ELECTRICAL CHARACTERISTICS (Ta=-40 to +8S'C:Vcc=5V±lO%. Vss=OV)
min

max

Unit

Notes

Icc I

-

60

mA

2.4

Icc!

-

4

mA

2

lccl

-

45

mA

2.4

PAGE MODE CURRENT
Average Power Supply Current, Page-mode Operation
(RAS-V'L,CAS Cycling;/pc=min.)

feet

-

45

mA

2.4-

,
INPUT LEAKAGE
Input Leakage Current. any Input (V.. - 0 to +6.5V. all other pins not
under test -OV)

Iu

-10

10

I'A

OUTPUT LEAKAGE
Output Leakage Current (Dout is disabled,

/w

-10

10

I'A

VaH
VOL

2.4
0

Vee
0.4

V
V

Parameter

Symbol

OPERATING CURRENT
Average Power Supply Operating Current (RAS.CAS Cycling; IRe-min.)
STANDBY CURRENT
Power Supply Standby Current (RAS - V'II, Dout - High Impedance)
REFRESH CURRENT
Average Power Supply Current, Refresh 'Mode
(RAS Cycling. CAS - V,H; IRe-min.)

V~k'

= 0 to +S.5V)

OUTPUT LEVELS
Output High (Logic 1) Voltage (I ... = -SmA)
Output Low (Logic 0) Voltage (In' -4.2mA)

3

NOTES

1. All voltages referenced to Vss.
2. ICC depends on output loading condition when the device is selected. lee max. is specified at the output open condition.
3. fLO consists of leakage current only.
4. Current depends on cycle rate: maximum current is measured at the fastest cycle rate.
5. .: HM4864K Series; Ta = - S5 to +85'C

.AC ELECTRICAL CHARACTERISTICS (Vcc=5V±10%. Ta=25'C)
Parameter
Input Capacitance (A,-A,. Din)
Input Capacitance

(RAS. CAS. WE )

Output Capacitance (Oout)

Symbol

typ

max

Unit

C... I

-

7

pF

CIII:

-

10

pF

1

7

pF

1.2

C... ,

-

Notes
1

NOTES
I. Capacitance measured with Boonton Meter or effective capacitance measuring method.
2. CAS = V/H to disable DOUT.

_HITACHI

253

HM48641-2. HM48641-3. HM4864K-2. H M 4 8 6 4 K - 3 - - - - - - - - - - - - - - - - -

• ELECTRICAL CHARACTERISTICS AND RECOMMENDED AC OPERATING CONDITIONS
(Ta--40 to +8S·C·, Vcc-SV±lO%, VSS-OV)
Parameter

Symbol

HM48641/K-2

HM4864I1K -3

max

min
335

-

Random Read or Write Cycle Time

',e

Read-Write Cycle Time

IllWe

min
270
270

Page Mode Cycle Time

Ipc

170

Aec ... Time Irom HAS

IMC

-

150

Access Time Irom CAS

'CAe

-

100

Output Buffer Turn-off Delay

II)""

0

40

Transition Time (Rise and Fall)

IT

3

35

RAS Precharge Time

lop

HAS Pulse Width

tH.U

150

RAS Hold Time

ttuN

100

-

leAS

100

tCSH

150

RAS to CAS Delay Time

heD

CAS to RAS Precharge Time

tCRP

Row Address Set-up Time

tMIt

0

Row Address Hold Time

tRAH

Column Address Set-up Time

20
-20

-

335

n.
ns

200

ns

4.6

135

ns

0

50

ns

5,6
7

3

50

ns

3

-

ns

10000

200

10000

ns

-

135

-

ns

-

200

-

ns

50

25

65

ns

135

-

ns

-20

20

-

lAse

-5

-

-5

Column Address Hold Time

tCAH

45

55

Column Address Hold Time relerenced to HAS

I ..

95

-

120

-

ns

Read Command Set-up Time

IRCS

0

-

0

-

ns

Read Command Hold Time

tRCH

0

0

-

n.

Write Command Hold Time

tW(,H

45

55

-

ns

Write Command Hold Time relerenced to HAS

twelt

95

120

ns

Write Command Pulse Width

Iwp

45

-

Write Command to RAS Lead Time

tRW/"

45

Write Command to CAS Lead Time

lew/..

45

Data-in Set-up Time

IDS

0

Data-in Hold Time

'0_

45

-

55

Data-in Hold Time relerenced to RAS

lDHR

95

-

120

CAS Prech,rge Time (lor Page-mode Cycle Only)

lep

60

-

Relresh Period
Write Command Set -up Time

IREF

-

2

twes

-10

CAS to WE Delay

leWD

60

IOWD

HO

tRPC

0

RAS to

WE"

Delay

RAS Prech,rge to CAS Hold Time

-

-

-

Notes

ns

225

-

Unit

120

100

CAS Pulse Width
CAS Hold Time

max

1), 2)

0
25

55

-

55

-

0

-

55

80

-

-10
80

2

-

8

ns
ns
ns
n.
ns

ns
ns
ns
ns

9

ns

9

ns
ns
ms
ns

lO

ns

10
10

145

-

ns

0

-

ns

NOTES

1. AC measurements assume tT =Sns.
2. 8 cycles are required after power-on or prolonged
periods (greater than 2ms) of RAS inactivity before
proper device operation is achieved. Any 8 cycles
which perform refresh are adequate for this purpose.
3. V1H (min) and VIL (max) are reference levels for
measuring timing of input signals. Also, transition
times are measured between VIH and VIL'
4. Assumes that tRCD ~ tRCD (max). If tRCD is greater
than the maximum recommended value shown in this
table tRAC exceeds the value shown.
S. Assumes that tRCD ~ tRCD (max).
6. Measured with a load circuit equivalent to 2TTL loads
and 100 pF.
7. tOFF (max) defines the time at which the output
achieves the open circuit condition and is not referenced to output voltage levels.
8. Operation with the tRCD (max) limit insures that

254

tRAC (max) can be met, tReD (max) is specified as a
reference point only; if tReD is greater than the
specified tReD (max) limit, then access time is
controlled exclusively be tCAe. _ _
9. These parameters are reference to CAS leading edge in
early write cycles and to Wf leading edge in delayed
write or read-modify-write cycles.
10. twes tCWD and tR WD are not restrictive operating
parameters. They are included in the data sheet as
electrical characteristics only: If twcs ~ twcs (min),
the cycle is an early write cycle and the data out pin
will remain open circuit (high impedance) throughout
the entire cycle; If tewD ~ tewD (min) and tR WD ~
tR WD (min) the cycle is a read/write and the data
output will contain data read from the selected cell; If
neither of the above sets of conditions is satisfied the
Condition of the da~ out (at access time) is indeterminate.
11. *: HM4864K Series; Ta=-SS to +8S·C

eHITACHI

- - - - - - - - - - - - - - - - - H M 4 8 6 4 1 · 2 , HM48641·3, HM4864K·2, HM4864K·3

• TIMING WAVEFORMS
• READ CYCLE

• "RAS·ONLY" REFRESH CYCLE

-----,,,------

_ _ _ _ _ _ _ _ _ '()pen _ _ _ _ _ _ _ __
I)nlll

• WRITE CYCLE

• PAGE MODE READ CYCLE

",

ii"B \~:'I

ro

,,-tlll'l

~~,~

IItSH--

I('.-Is-

tUR.!;;:

fl.!!!:L'AS('---t

-\ddrt'ssrlH XRow. dreulX
\'11 ~I'

-II'AH-

X o n:l.IWrell
-~/I'"
-=;;;/~~.
~ t""~

~

111('

!lm

\"H
\'11.

1-------'"<'________-1

It .~H
INA ~

~

to.

.x

-

r-'HI'- "~kRIJ_
~

CAS ~;~~,
lAS.

Address

~~~~.5f¥l~~rc~t~~c~~~c:t====

l)c~1I

g:~:-------i:

!IIH

\tI id Hala
~-IIJ//HIlpt·n

.READ·WRITE/READ·MODIFY·WRITE CYCLE

• PAGE MODE WRITE CYCLE

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

c,-\s

r',~

,.\ddress

~:::':)j~~~K;;~;:J~~=t=:::~~~=1t===

tAU

•

HITACHI

255

HM4864A-12, HM4864A-1l5,=-----HM4864A-20, HM4864AP-12,
,HM4864AP-1l5, HM4864AP-20
65536-word x 1-blt Dynamic Random Access Memory
• FEATURES
• Industry standard 16- Pin DIP (plastic, Cerdip)
• Single 5V (±10%)
• On ch ip substrate bias generator
• Low Power: 250mW active, 18mW standby
• High speed: Access Time 120ns / 150ns /200ns
• Common I/O capability using early write operation
• Page mode capability
• Output data controlled by CAS
• TTL compatible
• 128 refresh cycles - (2ms)
• Hidden refresh capability

HM4864A-12, HM4864A-15,
HM4864A-20

~
.... ..
,.,

,.,.":,,,

~I'

(DG-IIB)

• BLOCK DIAGRAM

HM4864AP-12, HM4864AP-15,
HM4864AP-20

Din

Memory
Ar'tll

Row Do..

!~ i

j dj

~

g

1

~

MollO',

~

Array

Memory

Do..

~

Array

1

_Vce

Row Doc. ~

tol, ... "

--0

.,1 --I

v..

V.. aenerator

I

(DP-II)

Array

• PIN ARRANGEMENT

.ABSOLUTE MAXIMUM RATINGS
Voltage on any pin relative to Vss " " " " " ' , '
Operating temperature, Ta (Amblant) " " " ' , "
Storage temperature (Cerdlp) , , , , , , , , , , , , , , , "
Storage temperature (Plastic) " ••.• " ••• , •• ,,'
Power dissipation ••••••••• "', ••• ,,.,.,.,.,'
Short circuit output current, ••••••••••••••• ,.

-tV to 7V

oOe to 70°C
_66°C to 150°C
-66°C to 125°C
1W
50 mA

• RECOMMENDED DC OPERATING CONDITIONS (Ta- 0 to 70'C)
min.

typo

Supply Voltag.

V.e

4.5

5.0

Input High Volta,e

V,.

2.4

Input Low Volta,';

VEL

-1.0

Parameter

Symbol

-

max.

Unit

Note.

5.5

V

1

6.5

V

1

0.8

V

1

Not.es : 1. All voltaps referenced to V u

(Top View)

AO-A7

00
Din
Dout
RAS
WE

Vee
Vss

AO-A6

256

•

HITACHI

Address Inputs
Column Address Strobe
Data In
Data Output
Row Address Strobe
ReadlWrite Input
Power (+5V)
Ground
Refresh Address Inputs

- - - - - - - - - - - - - - - - - - - - H M 4 8 6 4 A - 1 2 , HM4864A-15, HM4864A-20,
HM4864AP-12, HM4864AP-15, HM4864AP-20

.DC ELECTRICAL CHARACTERISTICS (Ta-O to 70'C, Vcc-SV±lO%, Vss-OV)
Parameter

Symbol

Operati., CurrentCRAS;'CAS Cycli.,:he-min)
Standby CnrrentCRXS"- V,., Dout-High Impedance)
Refresh CurrentCRAS" Cyeli.,,~- V,., he-min)
Standby CurrentCRXS"- V,.,Dout Enable)
Page Mode Current(KAS- V,£,CAS Cyeling:lpe-min)
Input Leakage(0..

~

Ilh

},.

It",.. Addl'f'~\~

'--

,,,

I

IhH

tlp.n

I-~

-

10H

V,lldOa'.

V"L

DlJun',Ca""

eWRITE CYCLE (EARLY WRITE)
Ri\':~

1-----

r,ft

,,,

"

11IA\

I'u

,

t.en
l'1:C;

v"
"'n

v"
WffSltl

~

n tA~r"1
,.....,. t-

Wi:

\',.
I'lL

r'll
~'IL

258

IU'L

I

1/lilL

I

.=-1t-t/J!I~
Valid 0.11

J

0",

1'"
rOL

•

~
tel'''

X

b(

0

Jt

l\--

,,,

~

,E ,., D.¥

:k

0".

"""'

Ie ...

V.tf

T

IIIT/l ,

0"

I

Row .o\ddrl'ss..J<.......)q CDlulIIII MlffU

\'IL

--n

tits,.

HITACHI

------------------------------------~--HM4864A.12,HM4864A·15,HM4864A·20,

I1M4864AP·12, HM4864AP·15, HM4864Ap·20
.READ·WRITEIREAD·MODIFY·WRITE CYCLE

."

V"

1m

V"

."."5.

bCD

V..
CAS

V"
V..

AddRlR.
V"
V..

WE
V"
V~

Doo.

V"
V..

Om
V"

.",

'.

----------------."~.~~---

--------------~. . . --=--o
Don'(Care

."RAS·ONLY" REFRESH CYCLE

"'N

RA.'i

~'n

V"

t::\.<;

V"

V"

Addrenrl

I'll

V",

~.,

V"
DDon'ICare

.PAGE MODE READ CYCLE
V"

RAs

CAs

v"
v"
v"
IAU

Mllre.lII.

00..

iii:

v"
v"
v~

v"
v"
l'n

CJDan'IC.n!

•

HITACHI

259

HM4864A-12,HM4864A-15,HM4864A-20---------------------------------------HM4864AP-12, HM4864AP-15, HM4864AP-20
.PAGE MODE WRITE CYCLE

o

Don't Care

• HIDDEN REFRESH CYCLE

m

v,s
\'/1,

v"
CAs

v"
~'11r

Address"

v"
WE

v"
v"
v"

Doo'
Vo<

Dnon'tCare

260

•

HITACHI

HM4864ACG-12, HM4864ACG-15,
HM4864ACG-20
Preliminary
65536-word x 1-bit Dynamic Random Access Memory
•
•
•
•
•
•
•
•
•
•
•
•

FEATURES
t8-pin Leadless Chip Carrier
Single SV (±10%)
On chip substrate bias generator
Low Power: 2S0mW active, 18mW standby
High speed: Access Time 120/150/2oons (max)
Common I/O capability using early write operation
Page mode capability
Output data controlled by CAS
TTL compatible
128 refresh cyclesl2ms
Hidden refresh capability

(eG-IS)

.PIN ARRANGEMENT
.BLOCK DIAGRAM
WE

R/W SWIIC/t

Utn

RAS

Memory

CAS

Array

....!

<

i
i

.= ~ .

~ 8

S

0

Memory

Doul

- Row Dec.

;,

Row Dec.

Array

Memory
Array

~

~

8

--aVec
--0

~

Memorv
Arrav

Vss

VltB Gen~ralor

I
(Bottom View)

AO-A7

CAS
• ABSOLUTE MAXIMUM RATINGS
Voltage on any pin relative to Vss ...••......•.... -tV to +7V
Operating temperature, Ta (Ambient) .•.......•... O°C to +70 oC
Storage temperature .................•.•• -6SoC to +150°C
Power Dissipation ••.......••........•.•........••• 1W
Short circuit output current .....••.•.....•.••...•.. SOmA

Din
Dout
RAS

WE

Vee
Vss
AO-A6

Address Inputs
Column Address Strobe
Data In
Data Output
Row Address Strobe
Read/Write Input
Power (+5V)
Ground
Refresh Address Inputs

.RECOMMENDED DC OPERATING CONDITIONS(Ta=O to 70'C)
Parameter

min.

typo

max.

Unit

Supply Voltage

Vel.:

4.5

5.0

5.5

V

1

Input High Voltage

Y,N,

2.4

-

6.5

V

1

Input Low Voltage

V,L

-1.0

-

0.8

V

1

Symbol

Notes

Notes: 1. All \'ul tases referenced to V ~.,
XuteJ The speeifit-ations of this df"\'ice are subjl"ct to changl" without noliee'.
Pleasr ('0018("1 your nearest Hitachi's Sales lliopt. regarding specifications .

•

HITACHI

261

HM4864ACG-12,HM4864ACG-15,HM4864ACG-20-----------------------------------

.

.DC ELECTRICAL CHARACTERISTICS (Ta=O to 70'C Vcc -5V±10% , Vss-OV)
Symbol

Parameter
Operating Current(RAS";"CAS Cycling:IHc-min)
Standby Cnrrent(RAS- V,N,Dout-High Impedance)
Refresh Current(R"AS Cycling,C'AS- V,N,IRe-min)
Standby Current(RAS"- V,N, Dout Enable)
Page Mode Current(RA."S- V,L,CA5 Cyeling;lpe-min)
Input Leakage(O < V.. , <6. 5V)
Output Leakage(Dout is disabled,O

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