AS4C2M32SA-6TCN

AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Revision History 64Mb SDRAM AS4C2M32SA - 86pin TSOP II PACKAGE Revision Rev 1.0 Details Preliminary datasheet Date September 2015 Alliance Memory Inc. 511 Taylor Way, San Carlos, CA 94070 TEL: (650) 610-6800 FAX: (650) 620-9211 Alliance Memory Inc. reserves the right to change products or specification without notice Confidential -1/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Overview Features • Fast access time: 5.4/5.4 ns • Fast Clock rate: 166/143 MHz • Fully synchronous operation • Internal pipelined architecture • Four internal banks (512K x 32bit x 4bank) • Programmable Mode - CAS Latency: 2 or 3 - Burst Length: 1, 2, 4, 8, or full page - Burst Type: Sequential or Interleaved - Burst-Read-Single-Write • Burst stop function • Individual byte controlled by DQM0-3 • Auto Refresh and Self Refresh • Operating Temperature: - Commercial (0°C~+70°C) The 64Mb SDRAM is a high-speed CMOS synchronous DRAM containing 67,108,864bits. It is internally configured as a quad 512K x 32 DRAM with a synchronous interface (all signals are registered on the positive edge of the clock signal, CLK). Each of the 512K x 32 bit banks is organized as 2048 rows by 256 columns by 32 bits. Read and write accesses to the SDRAM are burst oriented; accesses start at a selected location and continue for a programmed number of locations in a programmed sequence. Accesses begin with the registration of a Bank Activate command which is then followed by a Read or Write command. The SDRAM provides for programmable Read or Write burst lengths of 1, 2, 4, 8, or full page, with a burst termination option. An auto precharge function may be enabled to provide a self-timed row precharge that is initiated at the end of the burst sequence. The refresh functions, either Auto or Self Refresh are easy to use. By having a programmable mode register, the system can choose the most suitable modes to maximize its performance. These devices are well suited for applications requiring high memory bandwidth. - Industrial (-40°C~+85 °C) • 4096 refresh cycles/64ms • Single +3.3V ± 0.3V power supply • Interface: LVTTL • Package: - 86-pin 400 x 875 mil plastic TSOP II package (Pb and Halogen Free) Table 1. Ordering Information Max Clock (MHz) Org Temperature AS4C2M32SA-6TIN 2M x 32 Industrial -40°C to +85°C 166 MHz 86-pin TSOP II AS4C2M32SA-6TCN 2M x 32 Commercial 0°C to +70°C 166 MHz 86-pin TSOP II AS4C2M32SA-7TCN 2M x 32 Commercial 0°C to +70°C 143 MHz 86-pin TSOP II Product part No Confidential -2/54- Package Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 1. Pin Assignment (Top View) VDD 1 86 VSS DQ0 2 85 DQ15 VDDQ 3 84 VSSQ DQ1 4 83 DQ14 DQ2 5 82 DQ13 VSSQ 6 81 VDDQ DQ3 7 80 DQ12 DQ4 8 79 DQ11 VDDQ 9 78 VSSQ DQ5 10 77 DQ10 DQ6 11 76 DQ9 VSSQ 12 75 VDDQ DQ7 13 74 DQ8 NC 14 73 NC VDD 15 72 VSS DQM0 16 71 DQM1 WE# 17 70 NC CAS# 18 69 NC RAS# 19 68 CLK CS# 20 67 CKE NC 21 66 A9 BA0 22 65 A8 BA1 23 64 A7 A10/AP 24 63 A6 A0 25 62 A5 A1 26 61 A4 A2 27 60 A3 DQM2 28 59 DQM3 VDD 29 58 VSS NC 30 57 NC DQ16 31 56 DQ31 VSSQ 32 55 VDDQ DQ30 DQ17 33 54 DQ18 34 53 DQ29 VDDQ 35 52 VSSQ DQ19 36 51 DQ28 DQ20 37 50 DQ27 VSSQ 38 49 VDDQ DQ21 39 48 DQ26 DQ22 40 47 DQ25 VDDQ 41 46 VSSQ DQ23 42 45 DQ24 VDD 43 44 VSS Confidential -3/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN CLOCK BUFFER Column Decoder CKE A10/AP COMMAND DECODER DQ Buffer CONTROL SIGNAL GENERATOR COLUMN COUNTER 2048 x 256 x 32 CELL ARRAY (BANK #1) ADDRESS BUFFER Row Decoder ~ 2048 x256 x 32 CELL ARRAY (BANK #2) Column Decoder REFRESH COUNTER Row Decoder A9 BA0 BA1 DQ31 Column Decoder MODE REGISTER A0 DQ0 DQM0~3 Row Decoder CS# RAS# CAS# WE# 2048 x 256 x 32 CELL ARRAY (BANK #0) ~ CLK Row Decoder Figure 2. Block Diagram 2048 x 256 x 32 CELL ARRAY (BANK #3) Column Decoder Confidential -4/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Pin Descriptions Table 2. Pin Details Symbol Type Description CLK Input Clock: CLK is driven by the system clock. All SDRAM input signals are sampled on the positive edge of CLK. CLK also increments the internal burst counter and controls the output registers. CKE Input Clock Enable: CKE activates (HIGH) and deactivates (LOW) the CLK signal. If CKE goes low synchronously with clock (set-up and hold time same as other inputs), the internal clock is suspended from the next clock cycle and the state of output and burst address is frozen as long as the CKE remains low. When all banks are in the idle state, deactivating the clock controls the entry to the Power Down and Self Refresh modes. CKE is synchronous except after the device enters Power Down and Self Refresh modes, where CKE becomes asynchronous until exiting the same mode. The input buffers, including CLK, are disabled during Power Down and Self Refresh modes, providing low standby power. BA0, BA1 Input Bank Activate: BA0 and BA1 define to which bank the BankActivate, Read, Write, or BankPrecharge command is being applied. The bank address BA0 and BA1 is used latched in mode register set. A0-A10 Input Address Inputs: A0-A10 are sampled during the BankActivate command (row address A0A10) and Read/Write command (column address A0-A7 with A10 defining Auto Precharge) to select one location out of the 512K available in the respective bank. During a Precharge command, A10 is sampled to determine if all banks are to be precharged (A10 = HIGH). The address inputs also provide the op-code during a Mode Register Set or Special Mode Register Set command. CS# Input Chip Select: CS# enables (sampled LOW) and disables (sampled HIGH) the command decoder. All commands are masked when CS# is sampled HIGH. CS# provides for external bank selection on systems with multiple banks. It is considered part of the command code. RAS# Input Row Address Strobe: The RAS# signal defines the operation commands in conjunction with the CAS# and WE# signals and is latched at the positive edges of CLK. When RAS# and CS# are asserted "LOW" and CAS# is asserted "HIGH," either the BankActivate command or the Precharge command is selected by the WE# signal. When the WE# is asserted "HIGH," the BankActivate command is selected and the bank designated by BA is turned on to the active state. When the WE# is asserted "LOW," the Precharge command is selected and the bank designated by BA is switched to the idle state after the precharge operation. CAS# Input Column Address Strobe: The CAS# signal defines the operation commands in conjunction with the RAS# and WE# signals and is latched at the positive edges of CLK. When RAS# is held "HIGH" and CS# is asserted "LOW," the column access is started by asserting CAS# "LOW." Then, the Read or Write command is selected by asserting WE# "LOW" or "HIGH." WE# Input Write Enable: The WE# signal defines the operation commands in conjunction with the RAS# and CAS# signals and is latched at the positive edges of CLK. The WE# input is used to select the BankActivate or Precharge command and Read or Write command. DQM0 - Input Data Input/Output Mask: Data Input Mask: DQM0-DQM3 are byte specific. Input data is DQM3 masked when DQM is sampled HIGH during a write cycle. DQM3 masks DQ31-DQ24, DQM2 masks DQ23-DQ16, DQM1 masks DQ15-DQ8, and DQM0 masks DQ7-DQ0. DQ0- Input/ Data I/O: The DQ0-31 input and output data are synchronized with the positive edges of CLK. DQ31 Output The I/Os are byte-maskable during Reads and Writes. NC - No Connect: These pins should be left unconnected. VDDQ Supply DQ Power: Provide isolated power to DQs for improved noise immunity. VSSQ Supply DQ Ground: Provide isolated ground to DQs for improved noise immunity. VDD Supply Power Supply: +3.3V±0.3V VSS Supply Ground Confidential -5/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Operation Mode Fully synchronous operations are performed to latch the commands at the positive edges of CLK. Table 3 shows the truth table for the operation commands. Table 3. Truth Table (Note (1), (2)) Command State CKEn-1 CKEn DQM(6) BA0,1 A10 Idle(3) H X X V BankPrecharge Any H X X V L PrechargeAll Any H X X X Write Active(3) H X V Write and AutoPrecharge Active(3) H X Read Active(3) H Read and Autoprecharge Active(3) Mode Register Set No-Operation BankActivate A0-9 L L H H X L L H L H X L L H L V L L H L L V V H Column address (A0 ~ A7) L H L L X V V L L H L H H X V V H Column address (A0 ~ A7) L H L H Idle H X X L L L L Any H X X X X X L H H H Active(4) H X X X X X L H H L Device Deselect Any H X X X X X H X X X AutoRefresh Idle H H X X X X L L L H SelfRefresh Entry Idle H L X X X X L L L H SelfRefresh Exit Idle L H X X X X H X X X L H H H H X X X L V V V H X X X L H H H Burst Stop Row address CS# RAS# CAS# WE# OP code (SelfRefresh) Clock Suspend Mode Entry Power Down Mode Entry Clock Suspend Mode Exit Active Any(5) H H L L X X X X X X X X Active L H X X X X X X X X Any L H X X X X H X X X L H H H X X X X Data Mask/Output Disable Active H X H X X X X X X Note: 1. V = Valid, X = Don't care, L = Logic low, H = Logic high 2. CKEn signal is input level when commands are provided. CKEn-1 signal is input level one clock cycle before the commands are provided. 3. These are states of bank designated by BA signal. 4. Device state is 1, 2, 4, 8, and full page burst operation. 5. Power Down Mode can not enter in the burst operation. When this command is asserted in the burst cycle, device state is clock suspend mode. 6. DQM0-3 X Power Down Mode Exit (PowerDown) Data Write/Output Enable Confidential Active H X L -6/54- X X X Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Commands 1 BankActivate (RAS# = "L", CAS# = "H", WE# = "H", BAs = Bank, A0-A10 = Row Address) The BankActivate command activates the idle bank designated by the BA0, 1 signal. By latching the row address on A0 to A10 at the time of this command, the selected row access is initiated. The read or write operation in the same bank can occur after a time delay of tRCD(min.) from the time of bank activation. A subsequent BankActivate command to a different row in the same bank can only be issued after the previous active row has been precharged (refer to the following figure). The minimum time interval between successive BankActivate commands to the same bank is defined by tRC(min.). The SDRAM has four internal banks on the same chip and shares part of the internal circuitry to reduce chip area; therefore it restricts the back-to-back activation of the two banks. tRRD(min.) specifies the minimum time required between activating different banks. After this command is used, the Write command and the Block Write command perform the no mask write operation. Figure 3. BankActivate Command Cycle (Burst Length = n) T1 T0 T2 T3 Tn+3 Tn+4 Tn+5 Tn+6 CLK ADDRESS Bank A Row Addr. Bank A Col Addr. Bank B Row Addr. RAS# - CAS# delay(tRCD) COMMAND Bank A Activate NOP NOP Bank A Row Addr. RAS# - RAS# delay time(tRRD) Bank B Activate R/W A with AutoPrecharge NOP NOP Bank A Activate RAS# - Cycle time(tRC) AutoPrecharge Begin Don’t Care 2 BankPrecharge command (RAS# = "L", CAS# = "H", WE# = "L", BAs = Bank, A10 = "L", A0-A9 = Don't care) The BankPrecharge command precharges the bank designated by BA signal. The precharged bank is switched from the active state to the idle state. This command can be asserted anytime after tRAS(min.) is satisfied from the BankActivate command in the desired bank. The maximum time any bank can be active is specified by tRAS(max.). Therefore, the precharge function must be performed in any active bank within tRAS(max.). At the end of precharge, the precharged bank is still in the idle state and is ready to be activated again. 3 PrechargeAll command (RAS# = "L", CAS# = "H", WE# = "L", BAs = Don’t care, A10 = "H", A0-A9 = Don't care) The PrechargeAll command precharges all banks simultaneously and can be issued even if all banks are not in the active state. All banks are then switched to the idle state. 4 Read command (RAS# = "H", CAS# = "L", WE# = "H", BAs = Bank, A10 = "L", A0-A7 = Column Address) The Read command is used to read a burst of data on consecutive clock cycles from an active row in an active bank. The bank must be active for at least tRCD (min.) before the Read command is issued. During read bursts, the valid data-out element from the starting column address will be available following the CAS latency after the issue of the Read command. Each subsequent data-out element will be valid by the next positive clock edge (refer to the following figure). The DQs go into high-impedance at the end of the burst unless other command is initiated. The burst length, burst sequence, and CAS latency are determined by the mode register, which is already programmed. A full-page burst will continue until terminated (at the end of the page it will wrap to column 0 and continue. Confidential -7/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 4. Burst Read Operation (Burst Length = 4, CAS# Latency = 2, 3) T0 T1 READ A NOP T2 T3 T4 T5 T6 T7 T8 CLK COMMAND CAS# latency=2 tCK2, DQ NOP NOP NOP NOP NOP NOP NOP DOUT A0 DOUT A1 DOUT A2 DOUT A3 CAS# latency=3 tCK3, DQ DOUT A0 DOUT A1 DOUT A2 DOUT A3 The read data appears on the DQs subject to the values on the DQM inputs two clocks earlier (i.e. DQM latency is two clocks for output buffers). A read burst without the auto precharge function may be interrupted by a subsequent Read or Write command to the same bank or the other active bank before the end of the burst length. It may be interrupted by a BankPrecharge/ PrechargeAll command to the same bank too. The interrupt coming from the Read command can occur on any clock cycle following a previous Read command (refer to the following figure). Figure 5. Read Interrupted by a Read (Burst Length = 4, CAS# Latency = 2, 3) T0 T1 T2 T3 T4 T5 T6 T7 T8 CLK COMMAND CAS# latency=2 tCK2, DQ CAS# latency=3 tCK3, DQ READ A READ B NOP NOP NOP NOP DOUT A0 DOUT B0 DOUT B1 DOUT B2 DOUT A0 DOUT B0 DOUT B1 NOP NOP NOP DOUT B3 DOUT B2 DOUT B3 The DQM inputs are used to avoid I/O contention on the DQ pins when the interrupt comes from a Write command. The DQMs must be asserted (HIGH) at least two clocks prior to the Write command to suppress data-out on the DQ pins. To guarantee the DQ pins against I/O contention, a single cycle with high-impedance on the DQ pins must occur between the last read data and the Write command (refer to the following three figures). If the data output of the burst read occurs at the second clock of the burst write, the DQMs must be asserted (HIGH) at least one clock prior to the Write command to avoid internal bus contention. Confidential -8/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 6. Read to Write Interval (Burst Length ≥ 4, CAS# Latency = 2) CLK T1 T0 T2 T3 T4 T5 T6 T7 T9 T8 DQM COMMAND NOP NOP BANKA ACTIVATE NOP CAS# latency=2 tCK2, DQ READ A WRITE A NOP DIN A0 Must be Hi-Z before the Write Command NOP NOP DIN A1 DIN A2 NOP DIN A3 Figure 7. Read to Write Interval (Burst Length ≥ 4, CAS# Latency = 2) CLK T0 T1 T2 T3 T4 T5 T6 T7 T8 DQM COMMAND NOP NOP READ A NOP CAS# latency=2 tCK2, DQ NOP WRITE B DIN B0 NOP NOP NOP DIN B1 DIN B2 DIN B3 Must be Hi-Z before the Write Command Don’t Care Figure 8. Read to Write Interval (Burst Length ≧ 4, CAS# Latency = 3) CLK T0 T1 T2 T3 T4 T5 T6 T7 T8 DQM COMMAND NOP READ A NOP NOP CAS# Latency=3 tCK3, DQ NOP DOUT A0 NOP WRITE B NOP NOP DIN B0 DIN B1 DIN B2 Must be Hi-Z before the Write Command Don’t Care A read burst without the auto precharge function may be interrupted by a BankPrecharge/ PrechargeAll command to the same bank. The following figure shows the optimum time that BankPrecharge/ PrechargeAll command is issued in different CAS latency. Confidential -9/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 9. Read to Precharge (CAS# Latency = 2, 3) T0 T1 T2 T3 T4 T5 T6 T7 T8 CLK Bank, Col A ADDRESS Bank Row Bank(s) tRP COMMAND READ A NOP CAS# latency=2 tCK2, DQ NOP NOP NOP Precharge NOP NOP Activate DOUT A0 DOUT A1 DOUT A2 DOUT A3 CAS# latency=3 tCK3, DQ DOUT A0 DOUT A1 DOUT A2 DOUT A3 Don’t Care 5 Read and AutoPrecharge command (RAS# = "H", CAS# = "L", WE# = "H", BAs = Bank, A10 = "H", A0-A7 = Column Address) The Read and AutoPrecharge command automatically performs the precharge operation after the read operation. Once this command is given, any subsequent command cannot occur within a time delay of {tRP(min.) + burst length}. At full-page burst, only the read operation is performed in this command and the auto precharge function is ignored. 6 Write command (RAS# = "H", CAS# = "L", WE# = "L", BAs = Bank, A10 = "L", A0-A7 = Column Address) The Write command is used to write a burst of data on consecutive clock cycles from an active row in an active bank. The bank must be active for at least tRCD (min.) before the Write command is issued. During write bursts, the first valid data-in element will be registered coincident with the Write command. Subsequent data elements will be registered on each successive positive clock edge (refer to the following figure). The DQs remain with high-impedance at the end of the burst unless another command is initiated. The burst length and burst sequence are determined by the mode register, which is already programmed. A full-page burst will continue until terminated (at the end of the page it will wrap to column 0 and continue). Figure 10. Burst Write Operation (Burst Length = 4) CLK COMMAND DQ T0 NOP T1 T2 T3 T4 WRITE A NOP NOP NOP DIN A0 DIN A1 DIN A2 DIN A3 The first data element and the write are registered on the same clock edge T5 NOP T6 NOP T7 NOP T8 NOP Don’t Care A write burst without the auto precharge function may be interrupted by a subsequent Write, BankPrecharge/PrechargeAll, or Read command before the end of the burst length. An interrupt coming from Write command can occur on any clock cycle following the previous Write command (refer to the following figure). Confidential -10/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 11. Write Interrupted by a Write (Burst Length = 4) CLK COMMAND T0 T1 NOP T2 T3 T4 T5 T6 WRITE A WRITE B NOP NOP NOP DIN A0 DIN B0 DIN B1 DIN B2 DIN B3 DQ T7 NOP T8 NOP NOP The Read command that interrupts a write burst without auto precharge function should be issued one cycle after the clock edge in which the last data-in element is registered. In order to avoid data contention, input data must be removed from the DQs at least one clock cycle before the first read data appears on the outputs (refer to the following figure). Once the Read command is registered, the data inputs will be ignored and writes will not be executed. Figure 12. Write Interrupted by a Read (Burst Length = 4, CAS# Latency = 2, 3) CLK COMMAND T0 NOP T1 T2 WRITE A CAS# latency=2 tCK2, DQ DIN A0 CAS# latency=3 tCK3, DQ DIN A0 T3 READ B NOP T4 NOP T5 NOP T6 NOP T7 T8 NOP NOP DOUT B0 DOUT B1 DOUT B2 DOUT B3 DOUT B0 DOUT B1 DOUT B2 DOUT B3 Input data must be removed from the DQ at least one clock cycle before the Read data appears on the outputs to avoid data contention Don’t Care The BankPrecharge/PrechargeAll command that interrupts a write burst without the auto precharge function should be issued m cycles after the clock edge in which the last data-in element is registered, where m equals tWR/tCK rounded up to the next whole number. In addition, the DQM signals must be used to mask input data, starting with the clock edge following the last data-in element and ending with the clock edge on which the BankPrecharge/PrechargeAll command is entered (refer to the following figure). Confidential -11/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 13. Write to Precharge T0 T1 COMMAND WRITE NOP ADDRESS BANK COL n CLK T2 T3 T4 T5 T6 T7 Activate NOP DQM tRP NOP Precharge NOP NOP BANK(S) ROW tWR DIN N+1 DIN N DQ Don’t Care Note: The DQMs can remain low in this example if the length of the write burst is 1 or 2. 7 Write and AutoPrecharge command (RAS# = "H", CAS# = "L", WE# = "L", BAs = Bank, A10 = "H", A0-A7 = Column Address) The Write and AutoPrecharge command performs the precharge operation automatically after the write operation. Once this command is given, any subsequent command can not occur within a time delay of {(burst length -1) + tWR + tRP(min.)}. At full-page burst, only the write operation is performed in this command and the auto precharge function is ignored. Figure 14. Burst Write with Auto-Precharge (Burst Length = 2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 CLK COMMAND Bank A Activate NOP DQ NOP WRITE A Auto Precharge NOP NOP NOP NOP tDAL DIN A0 tDAL=tWR+tRP 8 NOP Bank A Activate DIN A1 Begin AutoPrecharge Bank can be reactivated at completion of tDAL Mode Register Set command (RAS# = "L", CAS# = "L", WE# = "L", A0-A10 = Register Data) The mode register stores the data for controlling the various operating modes of SDRAM. The Mode Register Set command programs the values of CAS latency, Addressing Mode and Burst Length in the Mode register to make SDRAM useful for a variety of different applications. The default values of the Mode Register after power-up are undefined; therefore this command must be issued at the power-up sequence. The state of pins A0~A10 and BA0, 1 in the same cycle is the data written to the mode register. Two clock cycles are required to complete the write in the mode register (refer to the following figure). The contents of the mode register can be changed using the same command and the clock cycle requirements during operation as long as all banks are in the idle state. Confidential -12/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Table 4. Mode Register Bitmap BA0,1 A10 RFU* A9 0 1 A9 WBL A8 A7 Test Mode Write Burst Length Burst Single Bit A8 0 1 0 A6 A7 0 0 1 A5 A4 CAS Latency A3 BT A2 Test Mode Normal Vendor Use Only Vendor Use Only A3 0 1 A1 A0 Burst Length Type Sequential Interleave A6 0 0 0 0 1 A5 A4 CAS Latency A2 A1 A0 Burst Length 0 0 Reserved 0 0 0 1 0 1 Reserved 0 0 1 2 1 0 2 clocks 0 1 0 4 1 1 3 clocks 0 1 1 8 0 0 Reserved 1 1 1 Full Page (Sequential) All other Reserved All other Reserved *Note: RFU (Reserved for future use) should stay “0” during MRS cycle. Figure 15. Mode Register Set Cycle T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 CLK CKE tMRD CS# RAS# CAS# WE# BA0,1 A10 Address Key A0-A9 DQM DQ tRP Hi-Z PrechargeAll Confidential Mode Register Set Command -13/54- Any Command Don’t Care Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN • Burst Length Field (A2~A0) This field specifies the data length of column access using the A2~A0 pins and selects the Burst Length to be 2, 4, 8, or full page. Table 5. Burst Length Field A2 A1 A0 Burst Length 0 0 0 1 0 0 1 2 0 1 0 4 0 1 1 8 1 0 0 Reserved 1 0 1 Reserved 1 1 0 Reserved 1 1 1 Full Page • Burst Type Field (A3) The Burst Type can be one of two modes, Interleave Mode or Sequential Mode. Table • 6. Burst Type Field A3 Burst Type 0 Sequential 1 Interleave Burst Definition, Addressing Sequence of Sequential and Interleave Mode Table 7. Burst Definition Burst Length 2 4 8 Full page Confidential A2 X X X X X X 0 0 0 0 1 1 1 1 Start Address A1 X X 0 0 1 1 0 0 1 1 0 0 1 1 location = 0-255 A0 0 1 0 1 0 1 0 1 0 1 0 1 0 1 Sequential Interleave 0, 1 1, 0 0, 1, 2, 3 1, 2, 3, 0 2, 3, 0, 1 3, 0, 1, 2 0, 1, 2, 3, 4, 5, 6, 7 1, 2, 3, 4, 5, 6, 7, 0 2, 3, 4, 5, 6, 7, 0, 1 3, 4, 5, 6, 7, 0, 1, 2 4, 5, 6, 7, 0, 1, 2, 3 5, 6, 7, 0, 1, 2, 3, 4 6, 7, 0, 1, 2, 3, 4, 5 7, 0, 1, 2, 3, 4, 5, 6 n, n+1, n+2, n+3, …255, 0, 1, 2, … n-1, n, … 0, 1 1, 0 0, 1, 2, 3 1, 0, 3, 2 2, 3, 0, 1 3, 2, 1, 0 0, 1, 2, 3, 4, 5, 6, 7 1, 0, 3, 2, 5, 4, 7, 6 2, 3, 0, 1, 6, 7, 4, 5 3, 2, 1, 0, 7, 6, 5, 4 4, 5, 6, 7, 0, 1, 2, 3 5, 4, 7, 6, 1, 0, 3, 2 6, 7, 4, 5, 2, 3, 0, 1 7, 6, 5, 4, 3, 2, 1, 0 -14/54- Not Support Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN • CAS Latency Field (A6~A4) This field specifies the number of clock cycles from the assertion of the Read command to the first read data. The minimum whole value of CAS Latency depends on the frequency of CLK. The minimum whole value satisfying the following formula must be programmed into this field. tCAC (min) ≤ CAS Latency X tCK Table 8. CAS Latency Field A6 A5 A4 CAS Latency 0 0 0 Reserved 0 0 1 Reserved 0 1 0 2 clocks 0 1 1 3 clocks 1 X X Reserved • Test Mode Field (A8~A7) These two bits are used to enter the test mode and must be programmed to "00" in normal operation. Table 9. Test Mode Field A8 A7 Test Mode 0 0 normal mode 0 1 Vendor Use Only 1 X Vendor Use Only • Write Burst Length (A9) This bit is used to select the write burst length. When the A9 bit is "0", the Burst-Read-Burst-Write mode is selected. When the A9 bit is "1", the Burst-Read-Single-Write mode is selected. Table 10. Write Burst length A9 Write Burst Length 0 Burst-Read-Burst-Write 1 Burst-Read-Single-Write Note: A10 and BA0, 1 should stay “L” during mode set cycle. 9 No-Operation command (RAS# = "H", CAS# = "H", WE# = "H") The No-Operation command is used to perform a NOP to the SDRAM which is selected (CS# is Low). This prevents unwanted commands from being registered during idle or wait states. 10 Burst Stop command (RAS# = "H", CAS# = "H", WE# = "L") The Burst Stop command is used to terminate either fixed-length or full-page bursts. This command is only effective in a read/write burst without the auto precharge function. The terminated read burst ends after a delay equal to the CAS latency (refer to the following figure). The termination of a write burst is shown in the following figure. Confidential -15/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 16. Termination of a Burst Read Operation (Burst Length＞4, CAS# Latency = 2, 3) T0 T1 T2 T3 READ A NOP NOP NOP CLK COMMAND T4 T5 Burst Stop T6 NOP T7 NOP NOP T8 NOP The burst ends after a delay equal to the CAS# latency CAS# latency=2 tCK2, DQ DOUT A0 CAS# latency=3 tCK3, DQ DOUT A1 DOUT A2 DOUT A3 DOUT A0 DOUT A1 DOUT A2 DOUT A3 Figure 17. Termination of a Burst Write Operation (Burst Length = X) T0 T1 T2 T3 T4 T5 T6 T7 T8 CLK COMMAND DQ NOP WRITE A NOP NOP DIN A0 DIN A1 DIN A2 Burst Stop NOP NOP NOP NOP Don’t Care 11 Device Deselect command (CS# = "H") The Device Deselect command disables the command decoder so that the RAS#, CAS#, WE# and Address inputs are ignored, regardless of whether the CLK is enabled. This command is similar to the No Operation command. 12 AutoRefresh command (RAS# = "L", CAS# = "L", WE# = "H", CKE = "H", A0-A10 = Don't care) The AutoRefresh command is used during normal operation of the SDRAM and is analogous to CAS#-before-RAS# (CBR) Refresh in conventional DRAMs. This command is non-persistent, so it must be issued each time a refresh is required. The addressing is generated by the internal refresh controller. This makes the address bits a "don't care" during an AutoRefresh command. The internal refresh counter increments automatically on every auto refresh cycle to all of the rows. The refresh operation must be performed 4096 times within 64ms. The time required to complete the auto refresh operation is specified by tRC(min.). To provide the AutoRefresh command, all banks need to be in the idle state and the device must not be in power down mode (CKE is high in the previous cycle). This command must be followed by NOPs until the auto refresh operation is completed. The precharge time requirement, tRP(min), must be met before successive auto refresh operations are performed. 13 SelfRefresh Entry command (RAS# = "L", CAS# = "L", WE# = "H", CKE = "L", A0-A10 = Don't care) The SelfRefresh is another refresh mode available in the SDRAM. It is the preferred refresh mode for data retention and low power operation. Once the SelfRefresh command is registered, all the inputs to the SDRAM become "don't care" with the exception of CKE, which must remain LOW. The refresh addressing and timing is internally generated to reduce power consumption. The SDRAM may remain in SelfRefresh mode for an indefinite period. The SelfRefresh mode is exited by restarting the external clock and then asserting HIGH on CKE (SelfRefresh Exit command). Confidential -16/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN 14 SelfRefresh Exit command This command is used to exit from the SelfRefresh mode. Once this command is registered, NOP or Device Deselect commands must be issued for tXSR(min.) because time is required for the completion of any bank currently being internally refreshed. If auto refresh cycles in bursts are performed during normal operation, a burst of 4096 auto refresh cycles should be completed just prior to entering and just after exiting the SelfRefresh mode. 15 Clock Suspend Mode Entry / PowerDown Mode Entry command (CKE = "L") When the SDRAM is operating the burst cycle, the internal CLK is suspended (masked) from the subsequent cycle by issuing this command (asserting CKE "LOW"). The device operation is held intact while CLK is suspended. On the other hand, when all banks are in the idle state, this command performs entry into the PowerDown mode. All input and output buffers (except the CKE buffer) are turned off in the PowerDown mode. The device may not remain in the Clock Suspend or PowerDown state longer than the refresh period (64ms) since the command does not perform any refresh operations. 16 Clock Suspend Mode Exit / PowerDown Mode Exit command (CKE= "H") When the internal CLK has been suspended, the operation of the internal CLK is reinitiated from the subsequent cycle by providing this command (asserting CKE "HIGH", the command should be NOP or deselect). When the device is in the PowerDown mode, the device exits this mode and all disabled buffers are turned on to the active state. tPDE (min.) is required when the device exits from the PowerDown mode. Any subsequent commands can be issued after one clock cycle from the end of this command. 17 Data Write / Output Enable, Data Mask / Output Disable command (DQM = "L", "H") During a write cycle, the DQM signal functions as a Data Mask and can control every word of the input data. During a read cycle, the DQM functions as the controller of output buffers. DQM is also used for device selection, byte selection and bus control in a memory system. Confidential -17/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Table 11. Absolute Maximum Rating Symbol VIN, VOUT Input, Output Voltage Values - 1.0 ~ +4.6 VDD, VDDQ Power Supply Voltage - 1.0 ~ +4.6 V Commercial 0 ~ 70 °C Industrial - 40 ~ +85 °C - 55 ~ +150 °C TA TSTG Item Ambient Temperature Storage Temperature Unit V PD Power Dissipation 1.0 W IOS Short Circuit Output Current 50 mA Note: Stress greater than those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. Table 12. Recommended D.C. Operating Conditions (VDD = 3.3V ± 0.3V, TA = -40~+85°C) Symbol Parameter Min. Typ. Max. Unit Note VDD Power Supply Voltage 3.0 3.3 3.6 V 2 VDDQ Power Supply Voltage(for I/O Buffer) 3.0 3.3 3.6 V 2 VDDQ + 0.3 V 2 2 VIH LVTTL Input High Voltage 2.0 － VIL LVTTL Input Low Voltage - 0.3 － 0.8 V IIL Input Leakage Current (0V≦VIN≦VDD, All other pins not under test = 0V) - 10 － 10 µA (Output Disable, 0V≦VIN≦VDDQ) - 10 － 10 µA VOH LVTTL Output "H" Level Voltage (IOUT = -2mA) 2.4 － － V VOL LVTTL Output "L" Level Voltage (IOUT = 2mA) － － 0.4 V IOZ Output Leakage Current Table 13. Capacitance (VDD = 3.3V, f = 1MHz, TA = 25°C) Symbol CI CI/O Parameter Min. Max. Unit Input Capacitance 2 4 pF Input/Output Capacitance 4 6 pF Note: These parameters are periodically sampled and are not 100% tested. Confidential -18/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Table 14. D.C. Characteristics (VDD = 3.3V ± 0.3V, TA = -40~85°C) Description/Test condition Operating Current (One bank active) tRC ≥ tRC(min), Outputs Open, Input signal one transition per one cycle Precharge Standby Current in non-power down mode tCK = 15ns, CS# ≥ VIH(min), CKE ≥ VIH Input signals are changed every 2clks Precharge Standby Current in non-power down mode tCK = ∞, CLK ≤ VIL(max), CKE ≥ VIH Precharge Standby Current in power down mode tCK = 15ns, CKE ≤ VIL(max) Precharge Standby Current in power down mode tCK = ∞, CKE ≤ VIL(max) Active Standby Current in non-power down mode tCK = 15ns, CKE ≥ VIH(min), CS# ≥ VIH(min) Input signals are changed every 2clks Active Standby Current in non-power down mode CKE ≥ VIH(min), CLK ≤ VIL(max), tCK = ∞ Operating Current (Burst mode) tCK =tCK(min), Outputs Open, Multi-bank interleave Refresh Current tRC ≥ tRC(min) Self Refresh Current CKE ≤ 0.2V ; for other inputs VIH≧VDD - 0.2V, VIL ≤ 0.2V Confidential -5 -6 Max. -7 IDD1 120 95 75 IDD2N 25 25 25 IDD2NS 15 15 15 IDD2P 2 2 2 IDD2PS 2 2 2 IDD3N 35 35 35 IDD3NS 30 30 30 IDD4 120 100 90 3, 4 IDD5 150 130 120 3 IDD6 2 2 2 Symbol -19/54- Unit Note Rev.1.0 3 mA Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Table 15. Electrical Characteristics and Recommended A.C. Operating Conditions (VDD = 3.3V ± 0.3V, TA = -40~85°C) (Note: 5, 6, 7, 8) Symbol -5 A.C. Parameter -6 -7 Min. Max. Min. Max. Min. Max. Unit Note tRC Row cycle time (same bank) 55 - 60 - 63 - tRCD RAS# to CAS# delay (same bank) 15 - 18 - 21 - tRP 15 - 18 - 21 - 10 - 12 - 14 - 40 100K 42 100K 42 100K tWR Precharge to refresh/row activate command (same bank) Row activate to row activate delay (different banks) Row activate to precharge time (same bank) Write recovery time 2 - 2 - 2 - tCCD CAS# to CAS# Delay time 1 - 1 - 1 - CL* = 2 tCK Clock cycle time - - 10 - 10 - CL* = 3 5 - 6 - 7 - tCH Clock high time 2 - 2.5 - 2.5 - 10 tCL Clock low time 2 - 2.5 - 2.5 - 10 Access time from CLK (positive edge) CL* = 2 - - - 6 - 6.5 10 tAC CL* = 3 - 5 - 5.4 - 5.4 tOH Data output hold time 2 - 2.5 - 2.5 - tLZ Data output low impedance 1 - 1 - 1 - tHZ Data output high impedance - 5 - 5.4 - 5.4 8 tIS Data/Address/Control Input set-up time 1.5 - 1.5 - 1.5 - 10 tIH Data/Address/Control Input hold time 1 - 1 - 1 - 10 tPDE Power Down Exit set-up time tIS+tCK - tIS+tCK - tIS+tCK - tREFI Average Refresh Interval Time - 15.6 - 15.6 - 15.6 µs tXSR Exit Self-Refresh to Any Command tRC+tIS - tRC+tIS - tRC+tIS - ns tMRD Mode Register Set cycle time 2 - 2 - 2 - tCK tRFC Refresh cycle time 55 - 60 - 63 - ns tRRD tRAS CL* = 3 ns tCK 9 ns 9 * CL is CAS Latency. Note: 1. Stress greater than those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. 2. All voltages are referenced to VSS. VIH (Max) = 4.6V for pulse width < 3ns. VIL (Min) = -1.0V for pulse width < 3ns 3. These parameters depend on the cycle rate and these values are measured by the cycle rate under the minimum value of tCK and tRC. Input signals are changed one time during every 2 tCK. 4. These parameters depend on the output loading. Specified values are obtained with the output open. 5. Power-up sequence is described in Note 11. 6. A.C. Test Conditions Confidential -20/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Table 16. LVTTL Interface Reference Level of Output Signals 1.4V / 1.4V Output Load Reference to the Under Output Load Input Signal Levels (VIH /VIL) 2.4V / 0.4V Transition Time (Rise and Fall) of Input Signals 1ns Reference Level of Input Signals 1.4V 1.4V 3.3V 50Ω 1.2KΩ Output Output 30pF 870Ω Figure 18.1 LVTTL D.C. Test Load (A) Z0=50Ω 30pF Figure 18.2 LVTTL A.C. Test Load (B) 7. Transition times are measured between VIH and VIL. Transition (rise and fall) of input signals are in a fixed slope (1 ns). 8. tHZ defines the time in which the outputs achieve the open circuit condition and are not at reference levels. 9. If clock rising time is longer than 1 ns, (tR / 2 -0.5) ns should be added to the parameter. 10. Assumed input rise and fall time tT (tR & tF ) = 1 ns If tR or tF is longer than 1 ns, transient time compensation should be considered, i.e., [(tr + tf)/2 - 1] ns should be added to the parameter. 11. Power up Sequence Power up must be performed in the following sequence. 1) Power must be applied to VDD and VDDQ (simultaneously) when CKE= “L”, DQM= “H” and all input signals are held "NOP" state. 2) Start clock and maintain stable condition for minimum 200 µs, then bring CKE= “H” and, it is recommended that DQM is held "HIGH" (VDD levels) to ensure DQ output is in high impedance. 3) All banks must be precharged. 4) Mode Register Set command must be asserted to initialize the Mode register. 5) A minimum of 2 Auto-Refresh dummy cycles must be required to stabilize the internal circuitry of the device. * The Auto Refresh command can be issue before or after Mode Register Set command Confidential -21/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Timing Waveforms Figure 19. AC Parameters for Write Timing (Burst Length=4) T0 CLK tCH CKE T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 tCL tIS tIS Begin Auto Precharge Bank A tIH Begin Auto Precharge Bank B CS# RAS# CAS# WE# BA0,1 tIH A10 RAx RBx RAy tIS A0-A9 RAx DQM DQ RBx tRCD Hi-Z CBx Ax1 Write with Auto Precharge Command Bank A Ax2 Activate Command Bank B RAy tDAL tRC Ax0 Activate Command Bank A Confidential CAx Ax3 Bx0 CAy tIS Bx1 Write with Auto Precharge Command Bank B Bx2 tWR tIH Bx3 Ay0 Ay1 Activate Command Bank A Write Command Bank A Ay2 Ay3 Precharge Command Bank A Don’t Care -22/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 20. AC Parameters for Read Timing (Burst Length=2, CAS# Latency=2) T0 CLK T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 tCH tCL CKE tIS tIS Begin Auto Precharge Bank B tIH tIH CS# RAS# CAS# WE# BA0,1 tIH A10 RAx RBx RAy tIS A0-A9 RAx CAx CBx RBx tRRD tRAS tRC DQM tAC tLZ tRCD DQ Hi-Z Confidential Read Command Bank A tRP tHZ Ax0 Activate Command Bank A RAy tOH Activate Command Bank B -23/54- Ax1 Bx0 Read with Auto Precharge Command Bank B Bx1 tHZ Precharge Command Bank A Activate Command Bank A Don’t Care Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 21. Auto Refresh (Burst Length=4, CAS# Latency=2) CLK T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CKE CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx tRP tRFC tRFC DQM CAx tRCD DQ Ax0 Precharge All Command Auto Refresh Command Auto Refresh Command Activate Command Bank A Ax1 Read Command Bank A Don’t Care Confidential -24/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 22. Power on Sequence and Auto Refresh T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High Level Is reguired Minimum for 2 Refresh Cycles are required CS# RAS# CAS# WE# BA0,1 A10 Address Key A0-A9 DQM DQ tRP tMRD Hi-Z Precharge All Command Inputs must be Stable for 200µs Mode Register Set Command 1st Auto Refresh(*) Command 2nd Auto Refresh(*) Command Any Command Don’t Care Note(*): The Auto Refresh command can be issue before or after Mode Register Set command Confidential -25/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 23. Self Refresh Entry & Exit Cycle T0 T2 T1 CLK *Note 1 T3 T5 T6 T7 *Note 2 CKE CS# T4 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 tXSR *Note 5 *Note 3, 4 tIS tIH *Note 6 *Note 7 tIS *Note 8 tPDE RAS# *Note 9 CAS# BA0,1 A0-A9 WE# DQM DQ Hi-Z Hi-Z Self Refresh Entry Self Refresh Exit Auto Refresh Don’t Care Note: To Enter SelfRefresh Mode 1. CS#, RAS# & CAS# with CKE should be low at the same clock cycle. 2. After 1 clock cycle, all the inputs including the system clock can be don't care except for CKE. 3. The device remains in SelfRefresh mode as long as CKE stays "low". 4. Once the device enters SelfRefresh mode, minimum tRAS is required before exit from SelfRefresh. To Exit SelfRefresh Mode 5. System clock restart and be stable before returning CKE high. 6. Enable CKE and CKE should be set high for valid setup time and hold time. 7. CS# starts from high. 8. Minimum tXSR is required after CKE going high to complete SelfRefresh exit. 9. 4096 cycles of burst AutoRefresh is required before SelfRefresh entry and after SelfRefresh exit if the system uses burst refresh. Confidential -26/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 24.1. Clock Suspension During Burst Read (Using CKE) (Burst Length=4, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx CAx DQM tHZ DQ Hi-Z Ax0 Activate Cammand Bank A Confidential Read Command Bank A Ax1 Clock Suspend 1 Cycle Ax2 Clock Suspend 2 Cycles Ax3 Clock Suspend 3 Cycles Don’t Care -27/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 24.2. Clock Suspension During Burst Read (Using CKE) (Burst Length=4, CAS# Latency=3) T0 CLK T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CKE CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx CAx DQM DQ tHZ Hi-Z Ax0 Activate Cammand Bank A Confidential Read Command Bank A Ax1 Ax2 Clock Suspend 1 Cycle Clock Suspend 2 Cycles -28/54- Ax3 Clock Suspend 3 Cycles Don’t Care Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 25. Clock Suspension During Burst Write (Using CKE) (Burst Length=4) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx CAx DQM DQ Hi-Z DAx0 Activate Cammand Bank A DAx1 DAx2 Clock Suspend Clock Suspend 2 Cycles 1 Cycle DAx3 Clock Suspend 3 Cycles Don’t Care Write Command Bank A Confidential -29/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 26. Power Down Mode and Clock Suspension (Burst Length=4, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK tPDE tIH tIS CKE Valid CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx CAx DQM tHZ DQ Hi-Z Ax0 Ax1 ACTIVE STANDBY Activate Cammand Bank A Power Down Mode Entry Read Command Bank A Power Down Mode Exit Ax2 Ax3 Clock Suspension Clock Suspension Precharge Command End Start Bank A PRECHARGE STANDBY Power Down Mode Exit Any Commad Power Down Mode Entry Don’t Care Confidential -30/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 27.1. Random Column Read (Page within same Bank) (Burst Length=4, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx RAw A0-A9 RAw RAz CAw CAx RAz CAy CAz DQM DQ Hi-Z Aw0 Aw1 Aw2 Aw3 Ax0 Ax1 Activate Cammand Bank A Read Command Bank A Read Read Command Command Bank A Bank A Az0 Ay0 Ay1 Ay2 Ay3 Precharge Command Bank A Activate Command Bank A Read Command Bank A Don’t Care Confidential -31/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 27.2. Random Column Read (Page within same Bank) (Burst Length=4, CAS# Latency=3) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx RAw A0-A9 RAw RAz CAw CAx RAz CAy CAz DQM DQ Hi-Z Aw0 Aw1 Aw2 Aw3 Ax0 Ax1 Ay0 Ay1 Ay2 Ay3 Activate Cammand Bank A Read Command Bank A Read Read Command Command Bank A Bank A Precharge Command Bank A Activate Command Bank A Read Command Bank A Don’t Care Confidential -32/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 28. Random Column Write (Page within same Bank) (Burst Length=4) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx RBw A0-A9 RBw RBz CBw CBx RBz CBy CBz DQM DQ Hi-Z DBw0 DBw1 DBw2 DBw3 DBx0 DBx1 DBy0 DBy1 DBy2 DBy3 Activate Cammand Bank B Write Command Bank B Write Write Command Command Bank B Bank B DBz0 DBz1 Precharge Command Bank B Activate Command Bank B Write Command Bank B Don’t Care Confidential -33/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 29.1. Random Row Read (Interleaving Banks) (Burst Length=8, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High CS# RAS# CAS# WE# BA0,1 A10 RBx A0-A9 RBx tRCD RAx CBx RBy RAx CBy RBy CAx tAC tRP DQM DQ Hi-Z Activate Cammand Bank B Confidential Bx0 Bx1 Bx2 Read Command Bank B Bx3 Bx4 Bx5 Bx6 Bx7 Activate Command Bank A Ax0 Ax1 Ax2 Ax3 Read Command Bank A Precharge Command Bank B -34/54- Ax4 Ax5 Ax6 Ax7 Activate Command Bank B Read Command Bank B Don’t Care Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 29.2. Random Row Read (Interleaving Banks) (Burst Length=8, CAS# Latency=3) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High CS# RAS# CAS# WE# BA0,1 A10 RBx A0-A9 RBx RAx CBx RAx RBy CAx tAC tRCD RBy CBy tRP DQM DQ Hi-Z Activate Cammand Bank B Bx0 Bx1 Bx2 Bx3 Bx4 Bx5 Bx6 Bx7 Ax0 Ax1 Ax2 Ax3 Ax4 Ax5 Ax6 Ax7 By0 Read Command Bank B Activate Command Bank A Precharge Read Command Command Bank B Bank A Activate Command Bank B Read Precharge Command Command Bank B Bank A Don’t Care Confidential -35/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 30. Random Row Write (Interleaving Banks) (Burst Length=8) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx RBx CAx RBx RAy CBx tWR* tRCD RAy tRP CAy tWR* DQM DQ Hi-Z Activate Cammand Bank A DAx0 DAx1 DAx2 DAx3 DAx4 DAx5 DAx6 DAx7 DBx0 DBx1 DBx2 DBx3 DBx4 DBx5 DBx6 DBx7 DAy0 DAy1 DAy2 DAy3 Write Command Bank A Activate Command Bank B Write Command Bank B Precharge Command Bank A Activate Command Bank A Write Precharge Command Command Bank A Bank B Don’t Care * tWR > tWR (min.) Confidential -36/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 31.1. Read and Write Cycle (Burst Length=4, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx CAy CAx CAz DQM DQ Hi-Z Ax0 Ax1 Activate Cammand Bank A Read Command Bank A Ax2 Ax3 DAy0 DAy1 DAy3 Write The Write Data Command is Masked with a Bank A Zero Clock Latency Az0 Read Command Bank A Az3 Az1 The Read Data is Masked with a Two Clock Latency Don’t Care Confidential -37/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 31.2. Read and Write Cycle (Burst Length=4, CAS# Latency=3) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx CAy CAx CAz DQM DQ Hi-Z Ax0 Activate Cammand Bank A Ax1 Ax2 Ax3 DAy0 DAy1 Az0 DAy3 Write The Write Data Command is Masked with a Bank A Zero Clock Read Command Bank A Latency Read Command Bank A Az1 Az3 The Read Data is Masked with a Two Clock Latency Don’t Care Confidential -38/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 32.1. Interleaving Column Read Cycle (Burst Length=4, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11T12 T13 T14 T15 T16 T17 T18 T19T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 A0-A9 DQM RAx RAx RBx RAx RBx CAy tRCD DQ Hi-Z CBw CBx CAy CBz tAC Ax0 Ax1 Ax2 Ax3 Activate Cammand Bank A CBy Activate Read Command Command Bank B Bank A Bw0 Bw1 Bx0 Bx1 By0 By1 Ay0 Ay1 Bz0 Bz1 Bz2 Bz3 Read Command Bank B Read Read Read Read Command CommandCommand Command Bank B Bank A Bank B Bank B Precharge Command Bank A Precharge Command Bank B Don’t Care Confidential -39/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 32.2. Interleaved Column Read Cycle (Burst Length=4, CAS# Latency=3) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx CAx tRCD DQM DQ RBx RBx CBx Confidential CBz Ax0 Ax1 Ax2 Ax3 Bx0 Bx1 CAy tAC Hi-Z Activate Cammand Bank A CBy Read Command Bank A Activate Command Bank B By0 Read Read Read Command Command Command Bank B Bank B Bank B By1 Bz0 Bz1 Ay0 Read Precharge Command Command Bank A Bank B Ay1 Ay2 Ay3 Precharge Command Bank A Don’t Care -40/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 33. Interleaved Column Write Cycle (Burst Length=4) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx RBw A0-A9 RAx CAx RBw CBw CBx CBy CAy CBz tRCD tWR tWR DQM tRRD>tRRD(min) DQ Hi-Z DAx0 DAx1 DAx2 DAx3 DBw0 DBw1 DBx0 DBx1 DBy0 DBy1 DAy0 DAy1 DBz0 DBz1 DBz2 DBz3 Activate Cammand Bank A Write Command Bank A Activate Command Bank B Write Write Write Write Write Command Command Command CommandCommand Bank B Bank B Bank B Bank A Bank B Precharge Command Bank A Precharge Command Bank B Don’t Care Confidential -41/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 34.1. Auto Precharge after Read Burst (Burst Length=4, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High Begin Auto Precharge Bank A Begin Auto Precharge Bank B CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx RBx CAx RBy RBx CBx RAy RAz RBy CBy RAz tRP DQM DQ Hi-Z Activate Cammand Bank A Ax0 Ax1 Ax2 Activate Read Command Command Bank B Bank A Ax3 Read with Auto Precharge Command Bank B Bx0 Bx1 Bx2 Bx3 Ay0 Ay1 Ay2 Ay3 Activate Command Bank B Read with Auto Precharge Command Bank A By0 By1 By2 Activate Command Bank A Read with Auto Precharge Command Bank B Don’t Care Confidential -42/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 34.2. Auto Precharge after Read Burst (Burst Length=4, CAS# Latency=3) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High Begin Auto Precharge Bank B Begin Auto Precharge Bank A CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx RBx CAx RBx RBy CBx CAy RBy CBy tRP DQM DQ Hi-Z Activate Cammand Bank A Confidential Ax0 Ax1 Ax2 Ax3 Bx0 Bx1 Bx2 Bx3 Ay0 Ay1 Ay2 Ay3 Read Command Bank A Activate Command Bank B Read with Auto Precharge Command Bank B Read with Auto Precharge Command Bank A Activate Command Bank B By0 By1 By2 Read with Auto Precharge Command Bank B Don’t Care -43/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 35. Auto Precharge after Write Burst (Burst Length=4) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High Begin Auto Precharge Bank A Begin Auto Precharge Bank B CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx RBx CAx RBx RBy CBx CAy RBy CBy tDAL DQM DQ Hi-Z Activate Cammand Bank A Confidential DAx0 DAx1 DAx2 DAx3 DBx0 DBx1 DBx2 DBx3 DAy0 DAy1 DAy2 DAy3 Activate Command Bank B Write Command Bank A Write with Auto Precharge Command Bank B Write with Auto Precharge Command Bank A Activate Command Bank B DBy0 DBy1 DBy2 DBy3 Write with Auto Precharge Command Bank B Don’t Care -44/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 36.1. Full Page Read Cycle (Burst Length=Full Page, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx RBx CAx RBy RBx CBx RBy tRP DQM DQ Hi-Z Activate Cammand Bank A Ax Ax+1 Ax+2 Read Command Bank A Ax-2 Ax-1 Activate Cammand Bank B Ax Ax+1 Bx Bx+1 Bx+2 Bx+3 Bx+4 Bx+5 Bx+6 Read Command Bank B Activate Command Bank B Burst Stop Command The burst counter wraps from the highest order page address back to zero during this time interval Full Page burst operation does not terminate when the burst length is satisfied; the burst counter increments and continues bursting beginning with the starting address Confidential Precharge Command Bank B -45/54- Don’t Care Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 36.2. Full Page Read Cycle (Burst Length=Full Page, CAS# Latency=3) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12T13 T14 T15 T16 T17 T18 T19T20 T21 T22 CLK CKE High CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx RBx CAx RBy RBx CBx RBy tRP DQM DQ Hi-Z Activate Cammand Bank A Ax Ax+1 Ax+2 Ax-2 Ax-1 Ax Ax+1 Bx Bx+1 Bx+2 Bx+3 Bx+4 Bx+5 Read Read Activate Command Command Cammand Bank B Bank A Bank B The burst counter wraps from the highest order page address back to zero during this time interval Full Page burst operation does not terminate when the burst length is satisfied; the burst counter increments and continues bursting beginning with the starting address Confidential -46/54- Precharge Command Bank B Activate Command Bank B Burst Stop Command Don’t Care Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 37. Full Page Write Cycle (Burst Length=Full Page) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx RBx CAx RBy CBx RBx RBy DQM DQ Hi-Z Activate Cammand Bank A Data is ignored DAx DAx+1 DAx+2 DAx+3 DAx-1 Write Activate Command Cammand Bank A Bank B DAx DAx+1 DBx DBx+1 DBx+2 DBx+3 DBx+4 DBx+5 Write Command Bank B Precharge Command Bank B Burst Stop The burst counter wraps Command from the highest order page address back to zero Full Page burst operation does not during this time interval terminate when the burst length is satisfied; the burst counter increments and continues bursting beginning with the starting address Confidential -47/54- Activate Command Bank B Don’t Care Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 38. Byte Read and Write Operation (Burst Length=4, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx CAy CAx CAz DQM m DQM n DQ M Ax0 Ax1 Ax2 DQ N Ax1 Ax2 Ax3 Activate Cammand Bank A Read Command Bank A Upper Byte is masked DAy1 DAy2 DAy0 DAy1 Upper Byte Lower Byte Write is masked Command is masked Bank A Az0 Read Command Bank A Az2 Az1 Az2 Lower Byte is masked Az3 Lower Byte is masked Don’t Care Note : M represent DQ in the byte m; N represent DQ in the byte n. Confidential DAy3 Az1 -48/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 39. Random Row Read (Interleaving Banks) (Burst Length=4, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High Begin Auto Precharge Bank B Begin Auto Precharge Bank A Begin Auto Precharge Bank B Begin Auto Precharge Bank A CS# RAS# CAS# WE# BA0,1 A10 RBu A0-A9 RBu RAu CBu RBv CAu RAu RAv RBv CBv DQ Bu0 Activate Command Bank B Activate Command Bank A Read Bank B with Auto Precharge Bu1 Bu2 Bu3 RAv CAv tRP tRP DQM RBw Au0 Au1 Au2 Activate Command Bank B tRP Au3 Bv0 Bv1 Bv2 Bv3 Activate Command Bank A Read Bank B with Auto Precharge Read Bank A with Auto Precharge RBw Read Bank A with Auto Precharge Av0 Av1 Av2 Av3 Activate Command Bank B Don’t Care Confidential -49/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 40. Full Page Random Column Read (Burst Length=Full Page, CAS# Latency=2) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 RAx RBx A0-A9 RAx RBx RBw CAx CBx CAy CBy CAz RBw CBz tRP DQM tRRD DQ Hi-Z tRCD Ax0 Ax1 Bx0 Ay0 Ay1 By0 By1 Az0 Az1 Az2 Bz0 Bz1 Bz2 Activate Cammand Bank A Read Activate Read Read Command Command Command Command Bank B Bank B Bank B Bank A Read Read Command Command Bank A Bank A Read Command Bank B Precharge Command Bank B (Precharge Temination) Activate Command Bank B Don’t Care Confidential -50/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 41. Full Page Random Column Write (Burst Length=Full Page) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE CS# RAS# CAS# WE# BA0,1 A10 A0-A9 RAx RBx RAx RBx CAx RBw CBx CAy CBy CAz RBw CBz tWR tRP DQM tRRD DQ Hi-Z tRCD DAx0 DAx1 DBx0 DAy0 DAy1 DBy0 DBy1 DAz0 DAz1 DAz2 DBz0 DBz1 DBz2 Activate Write Activate Write Write Cammand Command Command Command Command Bank A Bank B Bank B Bank B Bank A Write Write Command Command Bank A Bank A Write Command Bank B Precharge Command Bank B (Precharge Temination) Write Data are masked Activate Command Bank B Don’t Care Confidential -51/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 42. Precharge Termination of a Burst (Burst Length=4, 8 or Full Page, CAS# Latency=3) T0 T1 T2 T3 T4 T5 T6 T7 T8 T9 T10 T11 T12 T13 T14 T15 T16 T17 T18 T19 T20 T21 T22 CLK CKE High CS# RAS# CAS# WE# BA0,1 A10 RAx A0-A9 RAx RAy RAy CAx tWR RAz CAy tRP RAz tRP DQM DQ Ay0 Ay1 Ay2 DAx0 DAx1 Activate Cammand Bank A Write Command Bank A Precharge Command Bank A Activate Command Bank A Precharge Termination of a Write Burst Write Data are masked Confidential Read Command Bank A Precharge Command Bank A Activate Command Bank A Precharge Termination of a Read Burst Don’t Care -52/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN Figure 43. 86 Pin TSOP II Package Outline Drawing Information 86 0.254 HE E 44 θ° L L1 A1 A2 e Symbol A A1 A2 B C D E e HE L L1 S y θ L L1 y B S C 43 D A 1 Dimension in inch Min Normal Max 0.047 － － 0.002 0.004 0.008 0.035 0.039 0.043 0.007 0.009 0.011 0.005 － － 0.87 0.875 0.88 0.395 0.400 0.405 0.0197 － － Min － 0.05 0.9 0.17 － 22.09 10.03 － Dimension in mm Normal － 0.10 1 0.22 0.127 22.22 10.16 0.50 Max 1.20 0.2 1.1 0.27 － 22.35 10.29 － 0.455 0.016 － － － 0°˚ 11.56 0.40 － － － 0°˚ 11.76 0.50 0.80 0.61 － － 11.96 0.60 － － 0.10 8°˚ 0.463 0.020 0.0315 0.024 － － 0.471 0.024 － － 0.004 8°˚ Notes: 1. Dimension D&E do not include interlead flash. 2. Dimension B does not include dambar protrusion/intrusion. 3. Dimension S includes end flash. 4. Controlling dimension: mm Confidential -53/54- Rev.1.0 Sep. 2015 AS4C2M32SA-6TIN AS4C2M32SA-6TCN AS4C2M32SA-7TCN PART NUMBERING SYSTEM AS4C DRAM 2M32SA 64Mb=2Mx32 A die version 6/7 6=166MHz 7=143MHz T T = TSOP II C/I N C=Commercial (0°C - 70°C) I=Industrial Indicates Pb and Halogen Free (-40°C - 85°C) Alliance Memory, Inc. 511 Taylor Way, San Carlos, CA 94070 Tel: 650-610-6800 Fax: 650-620-9211 www.alliancememory.com Copyright © Alliance Memory All Rights Reserved © Copyright 2007 Alliance Memory, Inc. All rights reserved. Our three-point logo, our name and Intelliwatt are trademarks or registered trademarks of Alliance. All other brand and product names may be the trademarks of their respective companies. Alliance reserves the right to make changes to this document and its products at any time without notice. Alliance assumes no responsibility for any errors that may appear in this document. The data contained herein represents Alliance's best data and/or estimates at the time of issuance. Alliance reserves the right to change or correct this data at any time, without notice. If the product described herein is under development, significant changes to these specifications are possible. The information in this product data sheet is intended to be general descriptive information for potential customers and users, and is not intended to operate as, or provide, any guarantee or warranty to any user or customer. Alliance does not assume any responsibility or liability arising out of the application or use of any product described herein, and disclaims any express or implied warranties related to the sale and/or use of Alliance products including liability or warranties related to fitness for a particular purpose, merchantability, or infringement of any intellectual property rights, except as express agreed to in Alliance's Terms and Conditions of Sale (which are available from Alliance). All sales of Alliance products are made exclusively according to Alliance's Terms and Conditions of Sale. The purchase of products from Alliance does not convey a license under any patent rights, copyrights; mask works rights, trademarks, or any other intellectual property rights of Alliance or third parties. Alliance does not authorize its products for use as critical components in life-supporting systems where a malfunction or failure may reasonably be expected to result in significant injury to the user, and the inclusion of Alliance products in such life-supporting systems implies that the manufacturer assumes all risk of such use and agrees to indemnify Alliance against all claims arising from such use. Confidential -54/54- Rev.1.0 Sep. 2015