X9269US24I

X9269 INTERSIL | Alldatasheet

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Technical content

FN8173.1 CAUTION: These devices are sensitive to electrostatic discharge; follow proper IC Handling Procedures. 1-888-INTERSIL or 1-888-352-6832 | Intersil (and design) is a registered trademark of Intersil Americas Inc. XDCP is a trademark of Intersil Americas Inc. Copyright Intersil Americas Inc. 2005. All Rights Reserved All other trademarks mentioned are the property of their respective owners. X9269 Single Supply/Low Power/256-Tap/2-Wire Bus Dual Digitally-Controlled (XDCP™) Potentiometers

FEATURES

• Dual–Two separate potentiometers  256 resistor taps/pot–0.4% resolution  2-Wire Serial Interface for write, read, and transfer operations of the potentiometer single supply device
• Wiper Resistance, 100Ω typical V CC = 5V  4 Nonvolatile Data Registers for Each Potentiometer  Nonvolatile Storage of Multiple Wiper Positions  Power-on Recall. Loads Saved Wiper Position on Power-up.  Standby Current < 5µA Max 5 0 kΩ, 100kΩ versions of End to End Pot Resistance  100 yr. Data Retention  Endurance: 100,000 Data Changes per Bit per Register  24-Lead SOIC, 24-Lead TSSOP  Low Power CMOS  Power Supply V CC = 2.7V to 5.5V

DESCRIPTION

The X9269 integrates 2 digitally controlled potentiometer (XDCP) on a monolithic CMOS integrated circuit. The digital controlled potentiometer is implemented using 255 resistive elements in a series array. Between each element are tap points connected to the wiper terminal through switches. The position of the wiper on the array is controlled by the user through the 2-Wire bus interface. Each potentiometer has associated with it a volatile Wiper Counter Register (WCR) and a four nonvolatile Data Registers that can be directly written to and read by the user. The contents of the WCR controls the position of the wiper on the resistor array though the switches. Powerup recalls the contents of the default Data Register (DR0) to the WCR. The XDCP can be used as a three-terminal potentiometer or as a two terminal variable resistor in a wide variety of applications including control, parameter adjustments, and signal processing. FUNCTIONAL DIAGRAM R H0 R L0R W0 VCC VSS 2-Wire Bus 50kΩ or 100kΩ versions R H1 R L1R W1 Power-on Recall Wiper Counter Registers (WCR) Data Registers (DR0–DR3) Interface Bus Interface and Control Address Data Status Write Read Transfer Inc/Dec Control Data Sheet March 28, 2005

2 FN8173.1 March 28, 2005 DETAILED FUNCTIONAL DIAGRAM CIRCUIT LEVEL APPLICATIONS  Vary the gain of a voltage amplifier  Provide programmable dc reference voltages for comparators and detectors  Control the volume in audio circuits  Trim out the offset voltage error in a voltage amplifier circuit  Set the output voltage of a voltage regulator  Trim the resistance in Wheatstone bridge circuits  Control the gain, characteristic frequency and Q-factor in filter circuits  Set the scale factor and zero point in sensor signal conditioning circuits  Vary the frequency and duty cycle of timer ICs  Vary the dc biasing of a pin diode attenuator in RF circuits  Provide a control variable (I, V, or R) in feedback circuits SYSTEM LEVEL APPLICATIONS  Adjust the contrast in LCD displays  Control the power level of LED transmitters in communication systems  Set and regulate the DC biasing point in an RF power amplifier in wireless systems  Control the gain in audio and home entertainment systems  Provide the variable DC bias for tuners in RF wireless systems  Set the operating points in temperature control systems  Control the operating point for sensors in industrial systems  Trim offset and gain errors in artificial intelligent systems INTERFACE AND CONTROL CIRCUITRY SCL SDA WP VCC VSS R 0 R 1 R 2 R 3 Wiper Counter Register (WCR) Resistor Array Pot 1 R 0 R 1 R 2 R 3 Wiper Counter Register (WCR) Data Pot 0 Power-on Recall Power-on Recall R H0 R L0R W0 R H1R L1 R W1 256-taps 50kΩ and 100kΩ X9269

3 FN8173.1 March 28, 2005 PIN CONFIGURATION PIN ASSIGNMENTS NC NC NC VCC R L0 SCL NC NC NC NC VSS R W1 R H1 R L1 SOIC/TSSOP X9269 NC NC R H0 R W0 A2 A1 SDAWP Pin (SOIC/TSSOP) Symbol Function

1 NC No Connect

2 A0 Device Address for 2-Wire bus.

3 NC No Connect

4 NC No Connect

5 NC No Connect

6 NC No Connect

8R L0 Low Terminal for Potentiometer 0. 9R H0 High Terminal for Potentiometer 0. 10 R W0 Wiper Terminal for Potentiometer 0. 11 A2 Device Address for 2-Wire bus. 12 WP Hardware Write Protect 13 SDA Serial Data Input/Output for 2-Wire bus. 14 A1 Device Address for 2-Wire bus. 15 R L1 Low Terminal for Potentiometer 1. 16 R H1 High Terminal for Potentiometer 1. 17 R W1 Wiper Terminal for Potentiometer 1.

18 V SS System Ground

19 NC No Connect

20 NC No Connect

21 NC No Connect

22 NC No Connect

23 SCL Serial Clock for 2-Wire bus. 24 A3 Device Address for 2-Wire bus. X9269

4 FN8173.1 March 28, 2005 PIN DESCRIPTIONS Bus Interface Pins S ERIAL DATA INPUT /OUTPUT (SDA) The SDA is a bidirectional serial data input/output pin for a 2-Wire slave device and is used to transfer data into and out of the device. It receives device address, opcode, wiper register address and data sent from an 2-Wire master at the rising edge of the serial clock SCL, and it shifts out data after each falling edge of the serial clock SCL. It is an open drain output and may be wire-ORed with any number of open drain or open collector outputs. An open drain output requires the use of a pull-up resistor. For selecting typical values, refer to the guidelines for calculating typical values on the bus pull-up resistors graph. S ERIAL CLOCK (SCL) This input is used by 2-Wire master to supply 2-Wire serial clock to the X9269. D EVICE ADDRESS (A3 - A0) The address inputs are used to set the least significant 4 bits of the 8-bit slave address. A match in the slave address serial data stream must be made with the Address input in order to initiate communication with the X9269. A maximum of 16 devices may occupy the 2-Wire serial bus. Potentiometer Pins R H , RL The R H and RL pins are equivalent to the terminal connections on a mechanical potentiometer. Since there are 2 potentiometers, there are 2 sets of R H and R L such that RH0 and RL0 are the terminals of POT 0 and so on. R W The wiper pin are equivalent to the wiper terminal of a mechanical potentiometer. Since there are 4 potentiometers, there are 2 sets of R W such that RW0 is the terminal of POT 0 and so on. Bias Supply Pins S YSTEM SUPPLY VOLTAGE (VCC ) AND SUPPLY G ROUND (VSS ) The VCC pin is the system supply voltage. The VSS pin is the system ground. Other Pins N O CONNECT No connect pins should be left open. This pins are used for Intersil manufacturing and testing purposes. H ARDWARE WRITE PROTECT INPUT (WP) The WP pin when LOW prevents nonvolatile writes to the Data Registers. X9269

– Instruction and Register Description. switch may be turned on at a time. Power-up and Down Requirements. Figure 1. Detailed Potentiometer Block Diagram

slave device in all applications. while SCL is HIGH. See Figure 2. byte the X9269 will respond with a final acknowledge. Figure 2. Acknowledge Response from Receiver

7 FN8173.1 March 28, 2005 Acknowledge Polling The disabling of the inputs, during the internal nonvolatile write operation, can be used to take advantage of the typical 5ms EEPROM write cycle time. Once the stop condition is issued to indicate the end of the nonvolatile write command the X9269 initiates the internal write cycle. ACK polling, Flow 1, can be initiated immediately. This involves issuing the start condition followed by the device slave address. If the X9269 is still busy with the write operation no ACK will be returned. If the X9269 has completed the write operation an ACK will be returned and the master can then proceed with the next operation. FLOW 1: ACK Polling Sequence INSTRUCTION AND REGISTER DESCRIPTION Instructions D EVICE ADDRESSING : IDENTIFICATION BYTE (ID AND A) The first byte sent to the X9269 from the host is called the Identification Byte. The most significant four bits of the slave address are a device type identifier. The ID[3:0] bits is the device id for the X9269; this is fixed as 0101[B] (refer to Table 1). The A[3:0] bits in the ID byte is the internal slave address. The physical device address is defined by the state of the A3-A0 input pins. The slave address is externally specified by the user. The X9269 compares the serial data stream with the address input state; a successful compare of both address bits is required for the X9269 to successfully continue the command sequence. Only the device which slave address matches the incoming device address sent by the master executes the instruction. The A3 - A0 inputs can be actively driven by CMOS input signals or tied to V CC or VSS . INSTRUCTION BYTE (I) The next byte sent to the X9269 contains the instruction and register pointer information. The three most significant bits are used provide the instruction opcode I [3:0]. The RB and RA bits point to one of the four Data Registers of each associated XDCP . The least significant bit points to one of two Wiper Counter Registers or Pots. The format is shown in Table 2. Register Selection Nonvolatile Write Command Completed EnterACK Polling Issue START Issue Slave Address ACK Returned? Further Operation? Issue Instruction Issue STOP No Yes Yes Proceed Issue STOP No Proceed Register Selected RB RA DR0 0 0 DR1 0 1 DR2 1 0 DR3 1 1 X9269

Table 1. Identification Byte Format Table 2. Instruction Byte Format Table 3. Instruction Set

instruction (See Instruction section for more details). Register zero (DR0) upon power-up. different from the value present at power-down. Design Considerations Section). parameters or user preference data. Table 4. Wiper counter Register, WCR (8-bit), WCR[7:0]: Used to store the current wiper position (Volatile, V). Table 5. Data Register, DR (8-bit), Bit [7:0]: Used to store wiper positions or data (Nonvolatile, NV).

10 FN8173.1 March 28, 2005 DEVICE DESCRIPTION Instructions Four of the nine instructions are three bytes in length. These instructions are: – Read Wiper Counter Register – read the current wiper position of the selected potentiometer, – Write Wiper Counter Register – change current wiper position of the selected potentiometer, – Read Data Register – read the contents of the selected Data Register; – Write Data Register – write a new value to the selected Data Register. The basic sequence of the three byte instructions is illustrated in Figure 4. These three-byte instructions exchange data between the WCR and one of the Data Registers. A transfer from a Data Register to a WCR is essentially a write to a static RAM, with the static RAM controlling the wiper position. The response of the wiper to this action will be delayed by t WRL . A transfer from the WCR (current wiper position), to a Data Register is a write to nonvolatile memory and takes a minimum of t WR to complete. The transfer can occur between one of the four potentiometers and one of its associated registers; or it may occur globally, where the transfer occurs between all potentiometers and one associated register. Four instructions require a two-byte sequence to complete. These instructions transfer data between the host and the X9269; either between the host and one of the data registers or directly between the host and the Wiper Counter Register. These instructions are: – XFR Data Register to Wiper Counter Register – This transfers the contents of one specified Data Register to the associated Wiper Counter Register. – XFR Wiper Counter Register to Data Register – This transfers the contents of the specified Wiper Counter Register to the specified associated Data Register. – Global XFR Data Register to Wiper Counter Register – This transfers the contents of all speci- fied Data Registers to the associated Wiper Counter Registers. – Global XFR Wiper Counter Register to Data Register – This transfers the contents of all Wiper Counter Registers to the specified associated Data Registers. INCREMENT/DECREMENT COMMAND The final command is Increment/Decrement (Figure 5 and 6). The Increment/Decrement command is different from the other commands. Once the command is issued and the X9269 has responded with an acknowledge, the master can clock the selected wiper up and/or down in one segment steps; thereby, providing a fine tuning capability to the host. For each SCL clock pulse (t HIGH ) while SDA is HIGH, the selected wiper will move one resistor segment towards the R H terminal. Similarly, for each SCL clock pulse while SDA is LOW, the selected wiper will move one resistor segment towards the R L terminal. See Instruction format for more details. X9269

12 FN8173.1 March 28, 2005 INSTRUCTION FORMAT Read Wiper Counter Register (WCR) Write Wiper Counter Register (WCR) Read Data Register (DR) Write Data Register (DR) Global XFR Data Register (DR) to Wiper Counter Register (WCR) S T A R T Device Type Identifier Device Addresses S A C K Instruction Opcode DR/WCR Addresses S A C K Wiper Position (Sent by X9269 on SDA)M A C K S T O P0101 A 3 A 2 A 1 A 0 100100 0 P 0 W C R W C R W C R W C R W C R W C R W C R W C R S T A R T Device Type Identifier Device Addresses S A C K Instruction Opcode DR/WCR Addresses S A C K Wiper Position (Sent by Master on SDA)S A C K S T O P0101 A 3 A 2 A 1 A 0 1010000 P 0 W C R W C R W C R W C R W C R W C R W C R W C R S T A R T Device Type Identifier Device Addresses S A C K Instruction Opcode DR/WCR Addresses S A C K Wiper Position (Sent by X9269 on SDA)M A C K S T O P0101A 3 A 2 A 1 A 0 1011R B R A 0 P 0 W C R W C R W C R W C R W C R W C R W C R W C R S T A R T Device Type Identifier Device Addresses S A C K Instruction Opcode DR/WCR Addresses S A C K Wiper Position (Sent by Master on SDA)S A C K S T O P HIGH-VOLTAGE WRITE CYCLE

0101 A 3 A 2 A 1 A 0 1100 R B R A0 P 0

W C R W C R W C R W C R W C R W C R W C R W C R S T A R T Device Type Identifier Device Addresses S A C K Instruction Opcode DR/WCR Addresses S A C K S T O P0 1 0 1 A3 A2 A1 A0 0 0 0 1 RB RA 0 0 X9269

13 FN8173.1 March 28, 2005 Global XFR Wiper Counter Register (WCR) to Data Register (DR) Transfer Wiper Counter Register (WCR) to Data Register (DR) Transfer Data Register (DR) to Wiper Counter Register (WCR) Increment/Decrement Wiper Counter Register (WCR) Notes: (1) “MACK”/”SACK”: stands for the acknowledge sent by the master/slave. (2) “A3 ~ A0”: stands for the device addresses sent by the master. (3) “X”: indicates that it is a “0” for testing purpose but physically it is a “don’t care” condition. (4) “I”: stands for the increment operation, SDA held high during active SCL phase (high). (5) “D”: stands for the decrement operation, SDA held low during active SCL phase (high). S T A R T Device Type Identifier Device Addresses S A C K Instruction Opcode DR/WCR Addresses S A C K S T O P HIGH-VOLTAGE WRITE CYCLE 0 1 0 1A 3 A 2 A 1 A 0 1000R B R A0 0 S T A R T Device Type Identifier Device Addresses S A C K Instruction Opcode DR/WCR Addresses S A C K S T O P HIGH-VOLTAGE WRITE CYCLE 0 1 0 1A 3 A 2 A 1 A 0 1110 R B R A 0 P 0 S T A R T Device Type Identifier Device Addresses S A C K Instruction Opcode DR/WCR Addresses S A C K S T O P0 1 0 1 A3 A2 A1 A0 1 1 0 1 RB RA 0 P0 S T A R T Device Type Identifier Device Addresses S A C K Instruction Opcode DR/WCR Addresses S A C K Increment/Decrement (Sent by Master on SDA) S T O P0 1 0 1 A3 A2 A1 A0 0 0 1 0 0 0 0 P0 I/D I/D . . . . I/D I/D X9269

14 FN8173.1 March 28, 2005 ABSOLUTE MAXIMUM RATINGS Voltage on SCL, SDA any address input COMMENT Stresses above those listed under “Absolute Maximum Ratings” may cause permanent damage to the device. This is a stress rating only; the functional operation of the device (at these or any other conditions above those listed in the operational sections of this specification) is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. POTENTIOMETER CHARACTERISTICS (Over recommended industrial (2.7V) operating conditions unless otherwise stated.) Notes: (1) Absolute linearity is utilized to determine actual wiper voltage versus expected voltage as determined by wiper position when used as a potentiometer. (2) Relative linearity is utilized to determine the actual change in voltage between two successive tap positions when used as a potentiometer. It is a measure of the error in step size. (3) MI = RTOT / 255 or (RH - RL) / 255, single pot (4) During power-up VCC > VH , VL, and VW . Symbol Parameter Limits Test ConditionsMin. Typ. Max. Units R TOTAL End to End Resistance 100 k Ω T version R TOTAL End to End Resistance 50 k Ω U version End to End Resistance Tolerance ±20 % Power Rating 50 mW 25 °C, each pot IW Wiper Current ±3 mA R W Wiper Resistance 300 Ω IW = ± 3mA @ VCC = 3V R W Wiper Resistance 150 Ω IW = ± 3mA @ VCC = 5V VTERM Voltage on any RH or RL Pin V SS VCC VV SS = 0V Noise -120 dBV Ref: 1V Resolution 0.4 % Absolute Linearity (1) ±1 MI (3) R w(n)(actual) - Rw(n)(expected)(5) Relative Linearity (2) ±0.6 MI (3) R w(n + 1) - Rw(n) + MI Temperature Coefficient of R TOTAL ±300 ppm/ °C Ratiometric Temp. Coefficient 20 ppm/°C C H /CL/CW Potentiometer Capacitances 10/10/25 pF See Macro model Ial R W , RH , RL Leakage 0.1 10.0 µA Device in stand by. Vin = VSS to VCC RECOMMENDED OPERATING CONDITIONS Temp Min. Max. Commercial 0 °C+ 7 0 °C Industrial -40 °C+ 8 5 °C Device Supply Voltage (V CC )(4) Limits X9261 5V ± 10% X9261-2.7 2.7V to 5.5V X9269

15 FN8173.1 March 28, 2005 D.C. OPERATING CHARACTERISTICS (Over the recommended operating conditions unless otherwise specified.) ENDURANCE AND DATA RETENTION CAPACITANCE POWER-UP TIMING POWER-UP AND DOWN REQUIREMENTS The are no restrictions on the power-up or power-down conditions of V CC and the voltages applied to the poten- tiometer pins provided that VCC is always more positive than or equal to VH , VL, and VW , i.e., VCC ≥ VH , VL, VW . The VCC power-up timing spec is always in effect. A.C. TEST CONDITIONS Notes: (6) This parameter is not 100% tested (7) tPUR and tPUW are the delays required from the time the (last) power supply (VCC -) is stable until the specific instruction can be issued. These parameters are periodically sampled and not 100% tested. Symbol Parameter Limits Test ConditionsMin. Typ. Max. Units ICC1 VCC supply current (active) 400 µA f SCL = 400kHz; VCC = +6V; SDA = Open; (for 2-Wire, Active, Read and Volatile Write States only) I CC2 VCC supply current (nonvolatile write) 15 m A f SCL = 400kHz; VCC = +6V; SDA = Open; (for 2-Wire, Active, Nonvolatile Write State only) ISB VCC current (standby) 5 µAV CC = +6V; VIN = VSS or VCC ; SDA = VCC ; (for 2-Wire, Standby State only) ILI Input leakage current 10 µAV IN = VSS to VCC ILO Output leakage cur- 10 µAV OUT = VSS to VCC VIH Input HIGH voltage V CC x 0.7 V CC + 1 V VIL Input LOW voltage -1 V CC x 0.3 V VOL Output LOW voltage 0.4 V I OL = 3mA VOH Output HIGH voltage V CC - 0.8 V I OH = -1mA, VCC ≥ +3V VOH Output HIGH voltage V CC - 0.4 V I OH = -0.4mA, VCC ≤ +3V Parameter Min. Units Minimum endurance 100,000 Data changes per bit per register Data retention 100 years Symbol Test Max. Units Test Conditions C IN/OUT(6) Input / Output capacitance (SDA) 8 pF V OUT = 0V C IN(6) Input capacitance (SCL, WP, A3, A2, A1 and A0)6 p F V IN = 0V Symbol Parameter Min. Max. Units tr VCC (6) VCC Power-up rate 0.2 50 V/ms tPUR (7) Power-up to initiation of read operation 1 ms Input Pulse Levels V CC x 0.1 to VCC x 0.9 Input rise and fall times 10ns Input and output timing level V CC x 0.5 X9269

16 FN8173.1 March 28, 2005 EQUIVALENT A.C. LOAD CIRCUIT AC TIMING Symbol Parameter Min. Max. Units fSCL Clock Frequency 400 kHz tCYC Clock Cycle Time 2500 ns tHIGH Clock High Time 600 ns tLOW Clock Low Time 1300 ns tSU:STA Start Setup Time 600 ns tHD:STA Start Hold Time 600 ns tSU:STO Stop Setup Time 600 ns tSU:DAT SDA Data Input Setup Time 100 ns tHD:DAT SDA Data Input Hold Time 30 ns tR SCL and SDA Rise Time 300 ns tF SCL and SDA Fall Time 300 ns tAA SCL Low to SDA Data Output Valid Time 0.9 µs tDH SDA Data Output Hold Time 0 ns TI Noise Suppression Time Constant at SCL and SDA inputs 50 ns tBUF Bus Free Time (Prior to Any Transmission) 1200 ns tSU:WPA A0, A1, A2, A3 Setup Time 0 ns tHD:WPA A0, A1, A2, A3 Hold Time 0 ns 1533Ω 100pF SDA pin R H 10pF C L C L R W R TOTAL C W 25pF 10pF R L SPICE Macromodel3V 867Ω 100pF SDA pin X9269

17 FN8173.1 March 28, 2005 HIGH-VOLTAGE WRITE CYCLE TIMING XDCP TIMING SYMBOL TABLE Symbol Parameter Typ. Max. Units tWR High-voltage write cycle time (store instructions) 5 10 ms Symbol Parameter Min. Max. Units tWRPO Wiper response time after the third (last) power supply is stable 5 10 µs tWRL Wiper response time after instruction issued (all load instructions) 5 10 µs WAVEFORM INPUTS OUTPUTS Must be steady Will be steady May change from Lo w to High Will change from Lo w to High May change from High to Low Will change from High to Low Don’t Care: Changes Allowed Changing: State Not Known N/A Center Line is High Impedance X9269

18 FN8173.1 March 28, 2005 TIMING DIAGRAMS Start and Stop Timing Input Timing Output Timing tSU:STA tHD:STA tSU:STO SCL SDA tR (START) (STOP) tF tR tF SCL SDA tHIGH tLOW tCYC tHD:DATtSU:DAT tBUF SCL SDA tDHtAA X9269

19 FN8173.1 March 28, 2005 XDCP Timing (for All Load Instructions) Write Protect and Device Address Pins Timing SCL SDA VWx (STOP) LSB tWRL SDA SCL ... ... ... WP A0, A1 tSU:WPA tHD:WPA (START) (STOP) (Any Instruction) X9269

20 FN8173.1 March 28, 2005 APPLICATIONS INFORMATION Basic Configurations of Electronic Potentiometers Application Circuits VR RW +V R I Three terminal Potentiometer; Variable voltage divider Two terminal Variable Resistor; Variable current Noninverting Amplifier Voltage Regulator Offset Voltage Adjustment Comparator with Hysterisis VS VO R 2 R 1 VO = (1+R2/R1)VS R 1 R 2 Iadj VO (REG) = 1.25V (1+R2/R1)+Iadj R2 VO (REG)VIN 317 VS VO R 2R 1 VUL = {R1/(R1+R 2)} VO (max) RL L = {R1/(R1+R 2)} VO (min) 100kΩ 10kΩ10kΩ 10kΩ -12V+12V TL072 –VS VO R 2R 1 10kΩ 10kΩ VCC X9269

21 FN8173.1 March 28, 2005 Application Circuits (continued) Attenuator Filter Inverting Amplifier Equivalent L-R Circuit VS VO R 3 R 1 VO = G VS -1/2 ≤ G ≤ +1/2 G O = 1 + R2/R1 fc = 1/(2πRC) VS VO R 2R 1 ZIN = R2 + s R2 (R1 + R3) C1 = R2 + s Leq (R1 + R3) >> R2 VS Function Generator R 2 R 4 R 1 = R2 = R3 = R4 = 10kΩ VS R 2 R 1 R C VO = G VS G = - R2/R1 R 2C 1 R 1 R 3 ZIN – R 2 R 1 R A R B frequency ∝ R1, R2, C amplitude ∝ RA, RB C VO X9269

22 FN8173.1 March 28, 2005 PACKAGING INFORMATION NOTE: ALL DIMENSIONS IN INCHES (IN PARENTHESES IN MILLIMETERS) 24-Lead Plastic, TSSOP, Package Code V24 .169 (4.3) .026 (.65) BSC .303 (7.70) .311 (7.90) 0.002 (0.05) 0.005 (0.15) .041 (1.05) .0075 (.19) .0118 (.30) See Detail “A” .031 (.80) .041 (1.05) .010 (.25) .020 (.50) .030 (.75) Gage Plane Seating Plane Detail A (20X) (4.16)(7.72) (1.78) (0.42) (0.65) ALL MEASUREMENTS ARE TYPICAL 0° - 8° X9269

23 FN8173.1 March 28, 2005 PACKAGING INFORMATION 0.290 (7.37) 0.299 (7.60) 0.393 (10.00) 0.420 (10.65) 0.014 (0.35) 0.020 (0.50) Pin 1 Pin 1 Index 0.050 (1.27) 0.598 (15.20) 0.610 (15.49) 0.003 (0.10) 0.012 (0.30) 0.092 (2.35) 0.105 (2.65) (4X) 7° 24-Lead Plastic Small Outline Gull Wing Package Type S NOTE: ALL DIMENSIONS IN INCHES (IN PARENTHESES IN MILLIMETERS) 0.420" 0.050" Typical 0.050" Typical 0.030" Typical

24 PlacesFOOTPRINT

0.010 (0.25) 0.020 (0.50) 0.015 (0.40) 0.050 (1.27) 0.009 (0.22) 0.013 (0.33) 0° - 8° X 45° X9269

All Intersil U.S. products are manufactured, assembled and tested utilizing ISO9000 quality systems. Intersil Corporation’s quality certifications can be viewed at www.intersil.com/design/quality Intersil products are sold by description only. Intersil Corporation reserves the right to make changes in circuit design, soft ware and/or specifications at any time without notice. Accordingly, the reader is cautioned to verify that data sheets are current before placing orders. Information furnishe d by Intersil is believed to be accurate and reliable. However, no responsibility is assumed by Intersil or its subsidiaries for its use; nor for any infringements of patents or other rights of third parties which may result from its use. No license is granted by implication or otherwise under any patent or patent rights of Intersil or its subsidiaries. For information regarding Intersil Corporation and its products, see www.intersil.com FN8173.1 March 28, 2005

ORDERING INFORMATION

Blank = 5V ± 10% -2.7 = 2.7 to 5.5V Temperature Range Blank = Commercial = 0°C to +70°C I = Industrial = -40°C to +85°C Package S24 = 24-Lead SOIC V24 = 24-Lead TSSOP Potentiometer Organization Pot U = 50k Ω T = 100k Ω X9269 P T V Y X9269