Features: • Power supply voltage 2.7V to 3.3V• High performance: Flash: 70ns maximum access time PSRAM: 65ns maximum access time• Package: 107-ball BGA• Operating Temperature: -30C to +85C• Power Dissipation: Read Current at 1 Mhz: 4 mA maximum Read Current at 5 Mhz:1...
IS75V16F128GS32: Features: • Power supply voltage 2.7V to 3.3V• High performance: Flash: 70ns maximum access time PSRAM: 65ns maximum access time• Package: 107-ball BGA• Operating Temperature...
SeekIC Buyer Protection PLUS - newly updated for 2013!
268 Transactions
All payment methods are secure and covered by SeekIC Buyer Protection PLUS.
Symbol | Parameter |
Rating |
Unit | |
Min. |
Max. | |||
Tstg | Storage Temperature |
-55 |
+125 |
|
TA | Ambient Temperature with Power Applied |
-30 |
+85 |
|
VIN,VOUT | Voltage with Respect to Ground All Pins(2) |
-0.3 |
VCC+0.3(6) |
V |
VCCf1,VCCf2 | VCCf Supply(2) |
-0.3 |
3.5 |
V |
VCCr | VCCr Supply(2) |
-0.3 |
3.5 |
V |
VIN | RESET1, RESET2(3) |
-0.5 |
+13.0 |
V |
VACC | WP/ACC(4) |
-0.5 |
+10.5 |
V |
This 107-ball MCP IS75V16F128GS32 is a space-saving combination of 3 memories: two 64Mbit Flash and one 32Mbit Pseudo SRAM. Each 64Mbit Flash (Flash1 and Flash 2) contains 4,194,304 words and the 32Mbit PSRAM contains 2,097,152 words. Each word is 16 bits wide. Data lines DQ0-DQ15 handle the access for all three memories. Write Enable,Output Enable, and A0-A20 are shared among the three memories. Single Byte data on the PSRAM can be accessed one at a time on DQ0-DQ7 or DQ8-DQ15 by using LB or UB, respectively. The package of IS75V16F128GS32 uses a 3.0V power supply for all operations. No other source is required for program and erase perations.
The flash IS75V16F128GS32 can be programmed in system using this 3.0V supply, or can be programmed in a standard EPROM programmer.
The flash chips IS75V16F128GS32 are compatible with the JEDEC Flash command set standard. The flash access time is 70ns and the PSRAM access time is 65ns.
Each Flash memory implements an architecture composed of two virtual banks that allows simultaneous operation on
each bank. Optimized performance can be achieved by first initializing a program or erase function in one bank, then
immediately starting a read from the other bank. Both operations would then be operating simultaneously on the same chip, with zero latency.