TOSHIBA BT6K48-AS

JBT6K48-AS
TOSHIBA CMOS Digital Integrated Circuit Silicon Monolithic
JBT6K48-AS
Gate Driver for TFT LCD Panel
The JBT6K48-AS is a 240-channel output gate driver for TFT-LCD. Combining the source driver JBT6K47-AS for
TFT-LCD panel and the power supply IC JBT6K49-AS enables low power consumption operation.
Based on high-speed CMOS, the JBT6K48-AS offers both low power consumption and high-speed operation.
Features
·
LCD panel drive output pins: Switching 220 pins /240 pins output
·
LCD panel drive output voltage: 13.0 to 33.0 V
·
Power supply voltage (VDD): 2.5 to 3.6 V
·
Data transfer method: Bidirectional shift registers
·
Operating temperature: −20 to 75°C
·
Package: Gold bump chip
·
CMOS process
·
Recommended driver: Source driver JBT6K47-AS for TFT-LCD panel
Power supply IC JBT6K49-AS
Block Diagram
DI
CPV
U/D
OCM
/OE1
/OE2
VDDL/R
VSSL/R
VGGL/R
VEEL/R
Bidirectional shift registers
Input circuit
block
Control circuit block
Output pin
switching circuit
Output circuit block
G1
G3
G2
1
G238 G240
G239
2002-03-06
JBT6K48-AS
PAD Specification
Item
Chip size
Size
Unit
15470 ´ 1240
mm
(1)
-7735, 620
(2)
7735, -620
(3)
-7735, -620
(4)
7735, 620
Chip end coordinates
mm
Bump pitch
60
mm
Bump height
15
mm
Pin Name
Numbers of Pin
Input pin
96
Output pin
240
TEG pin
16
DUMMY pin
46 (Include DUV, DUG, DU)
Alignment mark
2
Note 1: The TEG pin is a test pin reserved for electrical characteristics measurements, and must be left open.
Alignment mark specification
Pattern prohibited
Al
Coordinates entry point
50 mm
30 mm
30 mm
30 mm
50 mm
50 mm 30 mm
30 mm 50 mm
30 mm
2
2002-03-06
4
DUV
4
OCM
4
DUG
8
DU
VSSL
VDDL
VEEL
50
50
100
50
50
50
50
20
40
20
40
20
40
105
40
20
40
20
40
20
40
105
· Long-side output PAD (G1 to G240)
40
3
4
U/D
10
20
4
DUG
8
80
4
CPV
12
65
4
DI
20
65
20
65
20
65
20
65
20
65
80
· Long-side power supply PAD (VEEL/R, VDDL/R, VSSL/R)
65
65
4
DU
· Long-side input PAD
4
/OE2
· Long-side power supply PAD (VGGL/R)
4
/OE1
· Short-side dummy PAD (DU)
12
8
10
16
4
4
4
DUV
JBT6K48-AS
Chip size: 15.47 ´ 1.24 mm
TEST17
7
Alignment mark_L
Output PAD 240 60 mm pitch single layout
DU
DU
G240
TEG
G239
VSSR
G2
VDDR
VGGL
4
G1
VEER
PAD Layout
VGGR
4
7
DU
[Unit: mm]
Alignment mark_R
2002-03-06
JBT6K48-AS
JBT6K48-AS
PAD Coordinates (1)
No.
Name
1
VEEL
-7258
2
VEEL
3
[Unit: mm]
X POINT Y POINT
No.
Name
X POINT Y POINT
No.
Name
-482
44
OCM
-2701
-7173
-482
45
OCM
VEEL
-7088
-482
46
4
VEEL
-7003
-482
5
VEEL
-6918
-482
6
VEEL
-6833
7
VEEL
8
-482
87
DU
2364
-482
-2616
-482
88
DU
2449
-482
OCM
-2531
-482
89
DU
2534
-482
47
DUV
-2311
-482
90
DU
2619
-482
48
DUV
-2226
-482
91
TEG1
2848
-482
-482
49
DUV
-2141
-482
92
TEG2
2933
-482
-6748
-482
50
DUV
-2056
-482
93
TEG3
3018
-482
VEEL
-6663
-482
51
U/D
-1836
-482
94
TEG4
3103
-482
9
VEEL
-6578
-482
52
U/D
-1751
-482
95
TEG5
3188
-482
10
VEEL
-6493
-482
53
U/D
-1666
-482
96
TEG6
3273
-482
11
VEEL
-6408
-482
54
U/D
-1581
-482
97
TEG7
3358
-482
12
VEEL
-6323
-482
55
DUG
-1361
-482
98
TEG8
3443
-482
13
VDDL
-5948
-482
56
DUG
-1276
-482
99
TEG9
3528
-482
14
VDDL
-5863
-482
57
DUG
-1191
-482
100
TEG10
3613
-482
15
VDDL
-5778
-482
58
DUG
-1106
-482
101
TEG11
3698
-482
16
VDDL
-5693
-482
59
CPV
-886
-482
102
TEG12
3783
-482
17
VDDL
-5608
-482
60
CPV
-801
-482
103
TEG13
3868
-482
18
VDDL
-5523
-482
61
CPV
-716
-482
104
TEG14
3953
-482
19
VDDL
-5438
-482
62
CPV
-631
-482
105
TEG15
4038
-482
20
VDDL
-5353
-482
63
DI
-436
-482
106
TEG16
4123
-482
21
VSSL
-5108
-482
64
DI
-351
-482
107
VSSR
4343
-482
22
VSSL
-5023
-482
65
DI
-266
-482
108
VSSR
4428
-482
23
VSSL
-4938
-482
66
DI
-181
-482
109
VSSR
4513
-482
24
VSSL
-4853
-482
67
DU
39
-482
110
VSSR
4598
-482
25
VSSL
-4768
-482
68
DU
124
-482
111
VSSR
4683
-482
26
VSSL
-4683
-482
69
DU
209
-482
112
VSSR
4768
-482
27
VSSL
-4598
-482
70
DU
294
-482
113
VSSR
4853
-482
28
VSSL
-4513
-482
71
/OE2
514
-482
114
VSSR
4938
-482
29
VSSL
-4428
-482
72
/OE2
599
-482
115
VSSR
5023
-482
30
VSSL
-4343
-482
73
/OE2
684
-482
116
VSSR
5108
-482
31
DU
-4098
-482
74
/OE2
769
-482
117
VDDR
5353
-482
32
DU
-4013
-482
75
/OE1
964
-482
118
VDDR
5438
-482
33
DU
-3928
-482
76
/OE1
1049
-482
119
VDDR
5523
-482
34
DU
-3843
-482
77
/OE1
1134
-482
120
VDDR
5608
-482
35
DU
-3758
-482
78
/OE1
1219
-482
121
VDDR
5693
-482
36
DU
-3673
-482
79
DUV
1439
-482
122
VDDR
5778
-482
37
DU
-3588
-482
80
DUV
1524
-482
123
VDDR
5863
-482
38
DU
-3503
-482
81
DUV
1609
-482
124
VDDR
5948
-482
39
DUG
-3261
-482
82
DUV
1694
-482
125
VEER
6323
-482
40
DUG
-3176
-482
83
TEST17
1914
-482
126
VEER
6408
-482
41
DUG
-3091
-482
84
TEST17
1999
-482
127
VEER
6493
-482
42
DUG
-3006
-482
85
TEST17
2084
-482
128
VEER
6578
-482
43
OCM
-2786
-482
86
TEST17
2169
-482
129
VEER
6663
-482
4
X POINT Y POINT
2002-03-06
JBT6K48-AS
PAD Coordinates (2)
No.
Name
130
VEER
6748
131
VEER
132
[Unit: mm]
X POINT Y POINT
No.
Name
X POINT Y POINT
No.
Name
-482
173
G26
5670
6833
-482
174
G27
VEER
6918
-482
175
133
VEER
7003
-482
134
VEER
7088
-482
135
VEER
7173
136
VEER
137
411
216
G69
3090
411
5610
411
217
G70
3030
411
G28
5550
411
218
G71
2970
411
176
G29
5490
411
219
G72
2910
411
177
G30
5430
411
220
G73
2850
411
-482
178
G31
5370
411
221
G74
2790
411
7258
-482
179
G32
5310
411
222
G75
2730
411
DU
7587
-305
180
G33
5250
411
223
G76
2670
411
138
DU
7587
-205
181
G34
5190
411
224
G77
2610
411
139
DU
7587
-105
182
G35
5130
411
225
G78
2550
411
140
DU
7587
-5
183
G36
5070
411
226
G79
2490
411
141
DU
7587
95
184
G37
5010
411
227
G80
2430
411
142
DU
7587
195
185
G38
4950
411
228
G81
2370
411
143
DU
7587
295
186
G39
4890
411
229
G82
2310
411
144
VGGR
7463
411
187
G40
4830
411
230
G83
2250
411
145
VGGR
7403
411
188
G41
4770
411
231
G84
2190
411
146
VGGR
7343
411
189
G42
4710
411
232
G85
2130
411
147
VGGR
7283
411
190
G43
4650
411
233
G86
2070
411
148
G1
7170
411
191
G44
4590
411
234
G87
2010
411
149
G2
7110
411
192
G45
4530
411
235
G88
1950
411
150
G3
7050
411
193
G46
4470
411
236
G89
1890
411
151
G4
6990
411
194
G47
4410
411
237
G90
1830
411
152
G5
6930
411
195
G48
4350
411
238
G91
1770
411
153
G6
6870
411
196
G49
4290
411
239
G92
1710
411
154
G7
6810
411
197
G50
4230
411
240
G93
1650
411
155
G8
6750
411
198
G51
4170
411
241
G94
1590
411
156
G9
6690
411
199
G52
4110
411
242
G95
1530
411
157
G10
6630
411
200
G53
4050
411
243
G96
1470
411
158
G11
6570
411
201
G54
3990
411
244
G97
1410
411
159
G12
6510
411
202
G55
3930
411
245
G98
1350
411
160
G13
6450
411
203
G56
3870
411
246
G99
1290
411
161
G14
6390
411
204
G57
3810
411
247
G100
1230
411
162
G15
6330
411
205
G58
3750
411
248
G101
1170
411
163
G16
6270
411
206
G59
3690
411
249
G102
1110
411
164
G17
6210
411
207
G60
3630
411
250
G103
1050
411
165
G18
6150
411
208
G61
3570
411
251
G104
990
411
166
G19
6090
411
209
G62
3510
411
252
G105
930
411
167
G20
6030
411
210
G63
3450
411
253
G106
870
411
168
G21
5970
411
211
G64
3390
411
254
G107
810
411
169
G22
5910
411
212
G65
3330
411
255
G108
750
411
170
G23
5850
411
213
G66
3270
411
256
G109
690
411
171
G24
5790
411
214
G67
3210
411
257
G110
630
411
172
G25
5730
411
215
G68
3150
411
258
G111
570
411
5
X POINT Y POINT
2002-03-06
JBT6K48-AS
PAD Coordinates (3)
No.
Name
259
G112
510
260
G113
261
[Unit: mm]
X POINT Y POINT
No.
Name
X POINT Y POINT
No.
Name
411
302
G155
-2070
450
411
303
G156
G114
390
411
304
262
G115
330
411
263
G116
270
411
264
G117
210
265
G118
266
411
345
G198
-4650
411
-2130
411
346
G199
-4710
411
G157
-2190
411
347
G200
-4770
411
305
G158
-2250
411
348
G201
-4830
411
306
G159
-2310
411
349
G202
-4890
411
411
307
G160
-2370
411
350
G203
-4950
411
150
411
308
G161
-2430
411
351
G204
-5010
411
G119
90
411
309
G162
-2490
411
352
G205
-5070
411
267
G120
30
411
310
G163
-2550
411
353
G206
-5130
411
268
G121
-30
411
311
G164
-2610
411
354
G207
-5190
411
269
G122
-90
411
312
G165
-2670
411
355
G208
-5250
411
270
G123
-150
411
313
G166
-2730
411
356
G209
-5310
411
271
G124
-210
411
314
G167
-2790
411
357
G210
-5370
411
272
G125
-270
411
315
G168
-2850
411
358
G211
-5430
411
273
G126
-330
411
316
G169
-2910
411
359
G212
-5490
411
274
G127
-390
411
317
G170
-2970
411
360
G213
-5550
411
275
G128
-450
411
318
G171
-3030
411
361
G214
-5610
411
276
G129
-510
411
319
G172
-3090
411
362
G215
-5670
411
277
G130
-570
411
320
G173
-3150
411
363
G216
-5730
411
278
G131
-630
411
321
G174
-3210
411
364
G217
-5790
411
279
G132
-690
411
322
G175
-3270
411
365
G218
-5850
411
280
G133
-750
411
323
G176
-3330
411
366
G219
-5910
411
281
G134
-810
411
324
G177
-3390
411
367
G220
-5970
411
282
G135
-870
411
325
G178
-3450
411
368
G221
-6030
411
283
G136
-930
411
326
G179
-3510
411
369
G222
-6090
411
284
G137
-990
411
327
G180
-3570
411
370
G223
-6150
411
285
G138
-1050
411
328
G181
-3630
411
371
G224
-6210
411
286
G139
-1110
411
329
G182
-3690
411
372
G225
-6270
411
287
G140
-1170
411
330
G183
-3750
411
373
G226
-6330
411
288
G141
-1230
411
331
G184
-3810
411
374
G227
-6390
411
289
G142
-1290
411
332
G185
-3870
411
375
G228
-6450
411
290
G143
-1350
411
333
G186
-3930
411
376
G229
-6510
411
291
G144
-1410
411
334
G187
-3990
411
377
G230
-6570
411
292
G145
-1470
411
335
G188
-4050
411
378
G231
-6630
411
293
G146
-1530
411
336
G189
-4110
411
379
G232
-6690
411
294
G147
-1590
411
337
G190
-4170
411
380
G233
-6750
411
295
G148
-1650
411
338
G191
-4230
411
381
G234
-6810
411
296
G149
-1710
411
339
G192
-4290
411
382
G235
-6870
411
297
G150
-1770
411
340
G193
-4350
411
383
G236
-6930
411
298
G151
-1830
411
341
G194
-4410
411
384
G237
-6990
411
299
G152
-1890
411
342
G195
-4470
411
385
G238
-7050
411
300
G153
-1950
411
343
G196
-4530
411
386
G239
-7110
411
301
G154
-2010
411
344
G197
-4590
411
387
G240
-7170
411
6
X POINT Y POINT
2002-03-06
JBT6K48-AS
PAD Coordinates (4)
[Unit: mm]
No.
Name
X POINT Y POINT
388
VGGL
-7283
411
389
VGGL
-7343
411
390
VGGL
-7403
411
391
VGGL
-7463
411
392
DU
-7587
295
393
DU
-7587
195
394
DU
-7587
95
395
DU
-7587
-5
396
DU
-7587
-105
397
DU
-7587
-205
398
DU
-7587
-305
¾
Alignment
mark_L
-7548
-433
¾
Alignment
mark_R
7548
-433
7
2002-03-06
JBT6K48-AS
Pin Description
Pin Name
I/O
Function
Data transfer direction switching pin
Specifies the shift direction of the shift registers.
U/D
I
· U/D = H: G1 ® G2 ® G3 ® G4 ® G5 ® … ® G240
· U/D = L: G240 ® G239 ® G238 ® G237 ® … ® G1
Use the pin at DC level. For High, VDD; for Low, VSS.
CPV
I
Vertical shift clock
Shift clock for the shift registers. Data are shifted in sync with the rising edge of CPV.
DI
I
Vertical shift data input pin
The data is input in the first stage of the shift register and latched in the shift register at the first
rising edge of the CPV.
Output switching
This pin switches numbers of LCD panel drive pins.
OCM
I
OCM = H: 220 Output mode (G221 to G240 pin output indefinite voltage.)
OCM = L: 240 Output mode
Output mode switching pin (1)
Mode
/OE1
Output Mode
I
H
Normal mode
L
All output off mode (ASYNC)
Output mode switching pin (2)
Mode
/OE2
Output Mode
I
H
Normal mode
L
All output off mode (sync with CPV)
G1 to G240
O
LCD panel drive pins.
VDDL/VDDR
¾
Power supply pin for internal logic
VSSL/VSSR
¾
Power supply pin for internal logic
VGGL/VGGR
¾
LCD panel drive pins
VEEL/VEER
¾
LCD panel drive pins
TEST17
I
Test pin (1)
The pull down resistor is connected to this pin, and must be left open.
TEG1 to 16
I
Test pin (2)
This is a test pin, and must be left open.
Dummy pin
These pins are dummies, and each pin has an electric function such as, VDD, VSS or floating.
The details are listed below.
Pin Name
DUG
DUV
DU
¾
Remarks
DUG
DUG … A dummy pin for VSS.
DUV
DUV … A dummy pin for VDD.
DU
Note 2:
DU … A dummy pin for floating.
The DUG pin and the DUV pin are used to fix the level by the adjacent input pin. Do
not use them as the reference power supply.
8
2002-03-06
JBT6K48-AS
Device Function and Operation
·
Setting the Data Transferring Direction
Setting U/D pin enables JBT6K48-AS shift the shift register in sync with the falling edge of the
vertical shift clock input from the CPV pin. When the U/D pin data is fixed before the DI data is input,
the function becomes valid.
·
Inputting Data
The data is latched at the first falling edge of the CPV. The signal is output from the first falling edge
of the CPV recognized the data.
·
Switching Numbers of the Output Pin
The valid output pin can be switched either 220 pins or 240 pins using the COM pin. The details
about the valid output pins are listed below.
OCM
Valid output pin
0
G1 to G240
1
G1 to G220
Remarks
G221 to G240 output indefinite voltage level
OCM
U/D
Shifting Direction
0
0
G240 ® G239 ® G238 ® …… ® G3 ® G2 ® G1
0
1
G1 ® G2 ® G3 ® …… ® G238 ® G239 ® G240
1
0
G220 ® G219 ® G218 ® …… ® G3 ® G2 ® G1
1
1
G1 ® G2 ® G3 ® …… ® G218 ® G219 ® G220
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2002-03-06
JBT6K48-AS
·
Output mode switching function
JBT6K48-AS is capable to control the output signal using /OE1 and /OE2 pins. The /OE2 signal
proceeds the /OE1 signal at output-off mode.
/OE2
1
/OE1
Functions
1
Normal mode (Fig. 1)
0
Output signals turn off unsynchronizing with CPV (Fig. 3)
1
Output signals turn off synchronizing with CPV (Fig. 2)
0
/OE2 has priority no relation to /OE1 and output signals turn off
0
a)
Normal operation mode
DI
1
2
3
4
5
236 237 238 239 240
CPV
G1 (G240)
G2 (G239)
G3 (G238)
G4 (G237)
G237 (G4)
G238 (G3)
G239 (G2)
G240 (G1)
(
) indicates when U/D is Low.
Figure 1
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2002-03-06
JBT6K48-AS
b)
Normal mode + Sync off mode (/OE2)
DI
1
2
3
4
5
CPV
/OE2
G1 (G240)
G2 (G239)
G3 (G238)
G4 (G237)
G5 (G236)
G6 (G235)
G7 (G234)
G8 (G233)
G9 (G232)
G10 (G231)
G11 (G230)
G239 (G2)
G240 (G1)
Figure 2
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2002-03-06
JBT6K48-AS
c)
Normal mode+ ASYNC off mode (/OE1)
DI
1
2
3
4
5
CPV
/OE1
G1 (G240)
G2 (G239)
G3 (G238)
G4 (G237)
G5 (G236)
G6 (G235)
G7 (G234)
G8 (G233)
G239 (G2)
G240 (G1)
Figure 3
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2002-03-06
JBT6K48-AS
d)
Synchronizing off mode + un-synchronizing off mode
DI
1
2
3
4
5
CPV
/OE1
/OE2
G1 (G240)
G2 (G239)
G3 (G238)
G4 (G237)
G5 (G236)
G6 (G235)
G7 (G234)
G8 (G233)
G9 (G232)
Figure 4
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2002-03-06
JBT6K48-AS
·
Recommended Power-on and Power-off Sequence
If the logic power supply is applied under the floating condition, the device might be destructed by the
large amounts of current because the LCD panel drive voltage is high. For this reason, apply the logic
power supply first, then turn the LCD panel drive power supply on, or turn the both power supply on at
the same timing. The internal logic condition is instable immediately after the logic power-on. Therefore,
initialize the internal logic by transferring the clock for the continuous connecting and setting period
using the CPV and DI input.
Turn the LCD panel drive power off first, then turn the logic power off, or turn the both power off at
the same timing.
VGG
VDD
t
VEE
VEE/VOFF
Figure 1
·
Relations between power supplies
LCD drive output
VGG
VDD
Logic input
Internal logic
Level shifter
VSS
VEE
Maximum Ratings (Unless Otherwise Noted, VSS = 0 V, Ta = 25°C)
Characteristics
Symbol
Rating
Unit
Supply voltage (1)
VDD
-0.3 to 6.5
V
Supply voltage (2)
VEE
-20.0 to 0.3
V
Supply voltage (3)
VGG - VEE
-0.3 to 45.0
V
Input voltage
VIN
-0.3 to
VDD + 0.3
V
Operating temperature
Topr
-20 to 75
°C
Storage temperature
Tstg
-55 to 125
°C
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JBT6K48-AS
Electrical Characteristics
DC Characteristics (1) Unless Otherwise Noted, VGG - VEE = 16.0 to 33.0 V,
VDD = 2.5 to 3.6 V, Ta = -20 to 75°C
Symbol
Test
Circuit
Test Condition
Min
Typ.
Max
Unit
Relevant Pin
Supply voltage 1)
VDD
¾
¾
2.5
¾
3.6
V
VDDL/R
Supply voltage (2)
VEE
¾
¾
-16.5
-11.0
-5
V
VEEL/R
Supply voltage (3)
VGG
¾
¾
8
12.5
16.5
V
VGGL/R
Supply voltage (4)
ïVGG - VEEï
¾
¾
16.0
¾
33.0
V
VGGL/R,
VEEL/R
VSS
¾
0.2
VDD
V
DI, CPV, U/D,
/OE1, /OE2,
OCM
kW
G1 to G240
Characteristics
Low level
VIL
¾
Input voltage
Output
resistance
High level
VIH
Low level
ROL
High level
ROH
¾
¾
0.8
VDD
¾
VDD
VOUT = VOFF + 0.5 V
¾
¾
7.5
VOUT = VGG - 0.5 V
¾
¾
7.5
Input leakage current
IIN
¾
¾
-1
¾
1
mA
DI, CPV, U/D,
/OE1, /OE2,
OCM
Operating frequency
fCPV1
¾
¾
¾
20
50
kHz
CPV
CL1
¾
¾
36
100
pF
G1~G240
Output load capacitance
(Note 3)
Note 3: Load capacitance per an output pin.
DC Characteristics (2) Unless Otherwise Noted, VGG - VEE = 16.0 to 33.0 V,
VDD = 2.5 to 3.6 V, Ta = -20 to 75°C
Typical value is VDD = 3.0 V, VGG - VEE = 30.0 V, CPV = 20 kHz,
Ta = 25°C
Symbol
Test
Circuit
Current dissipation (1)
IGG
¾
Current dissipation (2)
IEE
Current dissipation (3)
Current dissipation (4)
Characteristics
Current dissipation (5)
Min
Typ.
Max
(Note 4, 5)
¾
3.2
30.0
VGGL/R
¾
(Note 4, 5)
¾
3.3
-30.0
VEEL/R
IDD
¾
(Note 4)
¾
1.8
12.5
VDDL/R
ISS
¾
(Note 4)
¾
1.7
-13.0
STB
Test Condition
¾
(Note 6)
-1
¾
1
Unit
mA
Relevant Pin
VSSL/R
VGGL/R,
VEEL/R,
VDDL/R,
VSSL/R
Note 4: CPV = 50 kHz
Note 5: fFram = 70 Hz
Note 6: CPV = “L”
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JBT6K48-AS
AC Characteristics Unless Otherwise Noted, VGG - VEE = 30.0 V, VDD = 2.5 to 3.6 V,
Ta = -20 to 75°C
Symbol
Test
Circuit
Test Condition
tcycCPV
¾
¾
CPV pulse width Low level
tCPVL
¾
¾
500
ns
CPV pulse width High level
tCPVH
¾
¾
5
ms
¾
¾
twOE
¾
¾
1
tsDI
¾
¾
100
tsOE
¾
¾
100
thDI
¾
¾
300
thOE
¾
¾
300
Output delay time (1)
tpdG
¾
CL = 100 pF
2
ms
Output delay time (2)
tpdOE
¾
CL = 100 pF
2
ms
¾
CL = 100 pF
1.5
ms
Characteristics
CPV cycle time
CPV rising/falling time
trCPV
/tfCPV
/OE enable time
Data setup time
Data hold time
Output rising/falling time
trOG
/tfOG
16
Min
Typ.
Max
Unit
10
ms
100
ns
ms
ns
ns
2002-03-06
JBT6K48-AS
tcycCPV
tCPVH
CPV
VIH
tCPVL
trCPV
VIH
VIH
VIL
tfCPV
VIH
VIL
VIL
tsDI
VIH
DI
VIL
CPV
VIL
tsOE
/OE1
thOE
VIL
VIL
CPV
G1 to G240
thDI
VIL
tpdG
VIL
tpdG
90%
50%
10%
90%
50%
10%
tfOG
trOG
twOE
/OE1
50%
50%
tpdOE
G1 to G240
tpdOE
50%
50%
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2002-03-06
JBT6K48-AS
RESTRICTIONS ON PRODUCT USE
000707EBM
· TOSHIBA is continually working to improve the quality and reliability of its products. Nevertheless, semiconductor
devices in general can malfunction or fail due to their inherent electrical sensitivity and vulnerability to physical
stress. It is the responsibility of the buyer, when utilizing TOSHIBA products, to comply with the standards of
safety in making a safe design for the entire system, and to avoid situations in which a malfunction or failure of
such TOSHIBA products could cause loss of human life, bodily injury or damage to property.
In developing your designs, please ensure that TOSHIBA products are used within specified operating ranges as
set forth in the most recent TOSHIBA products specifications. Also, please keep in mind the precautions and
conditions set forth in the “Handling Guide for Semiconductor Devices,” or “TOSHIBA Semiconductor Reliability
Handbook” etc..
· The TOSHIBA products listed in this document are intended for usage in general electronics applications
(computer, personal equipment, office equipment, measuring equipment, industrial robotics, domestic appliances,
etc.). These TOSHIBA products are neither intended nor warranted for usage in equipment that requires
extraordinarily high quality and/or reliability or a malfunction or failure of which may cause loss of human life or
bodily injury (“Unintended Usage”). Unintended Usage include atomic energy control instruments, airplane or
spaceship instruments, transportation instruments, traffic signal instruments, combustion control instruments,
medical instruments, all types of safety devices, etc.. Unintended Usage of TOSHIBA products listed in this
document shall be made at the customer’s own risk.
· Light striking a semiconductor device generates electromotive force due to photoelectric effects. In some cases
this can cause the device to malfunction.
This is especially true for devices in which the surface (back), or side of the chip is exposed. When designing
circuits, make sure that devices are protected against incident light from external sources. Exposure to light both
during regular operation and during inspection must be taken into account.
· The products described in this document are subject to the foreign exchange and foreign trade laws.
· The information contained herein is presented only as a guide for the applications of our products. No
responsibility is assumed by TOSHIBA CORPORATION for any infringements of intellectual property or other
rights of the third parties which may result from its use. No license is granted by implication or otherwise under
any intellectual property or other rights of TOSHIBA CORPORATION or others.
· The information contained herein is subject to change without notice.
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2002-03-06