HA456 ® Data Sheet September 26, 2008 120MHz, Low Power, 8x8 Video Crosspoint Switch Features • Fully Buffered Inputs and Outputs (AV = +1) The HA456 is the first 8x8 video crosspoint switch suitable for high performance video systems. Its high level of integration significantly reduces component count, board space, and cost. The crosspoint switch contains a digitally controlled matrix of 64 fully buffered switches that connect 8 video input signals to any, or all, matrix outputs. Each matrix output connects to an internal, high-speed (200V/µs), unity gain buffer capable of driving 400Ω and 5pF to ±2V. For applications requiring gain or increased drive capability, the HA456 outputs can be connected directly to two HFA1412 quad, gain of two video buffers, which are capable of driving 75Ω loads. This crosspoint’s true high impedance three-state output capability, makes it feasible to parallel multiple HA456s and form larger switch matrices. HA456CMZ HA456CMZ (Note) • Serial or Parallel Digital Interface • Expandable for Larger Switch Matrices • Wide Bandwidth . . . . . . . . . . . . . . . . . . . . . . . . . . 120MHz • High Slew Rate . . . . . . . . . . . . . . . . . . . . . . . . . . 200V/µs • Differential Gain and Phase . . . . . . . . . . . . . .0.05%, 0.05° • Low Crosstalk at 10MHz . . . . . . . . . . . . . . . . . . . . . -55dB • Pb-Free Available (RoHS Compliant) Applications • Professional Video Switching and Routing Pinout PACKAGE PKG. DWG. # 0 to +70 44 Ld PLCC N44.65 0 to +70 44 Ld PLCC (Pb-free) N44.65 NOTE: These Intersil Pb-free plastic packaged products employ special Pb-free material sets, molding compounds/die attach materials, and 100% matte tin plate plus anneal (e3 termination finish, which is RoHS compliant and compatible with both SnPb and Pb-free soldering operations). Intersil Pb-free products are MSL classified at Pb-free peak reflow temperatures that meet or exceed the Pb-free requirements of IPC/JEDEC J STD-020. HA456 (44 LD PLCC) TOP VIEW 6 A0 IN1 NC IN2 DGND NC IN3 DGND IN4 EDGE/LEVEL IN5 5 4 3 2 1 44 43 42 41 40 7 8 39 38 9 37 10 11 36 12 35 34 13 33 14 15 32 31 16 30 17 29 OUT2 VOUT3 AGND OUT4 NC AGND OUT5 AGND OUT6 V+ V+ IN6 18 19 20 21 22 23 24 25 26 27 28 1 SER/PAR IN7 VNC WR LATCH CE CE OUT7 HA456CM TEMP. RANGE (°C) • Switches Standard and High Resolution Video Signals IN0 A1 A2 D0/SER IN D1/SER OUT NC V+ OUT0 D2 OUT1 D3 HA456CM PART MARKING • Routes Any Input Channel to Any Output Channel • Security and Video Editing Systems Ordering Information PART NUMBER FN4153.7 CAUTION: These devices are sensitive to electrostatic discharge; follow proper IC Handling Procedures. 1-888-INTERSIL or 1-888-468-3774 | Intersil (and design) is a registered trademark of Intersil Americas Inc. Copyright © Intersil Americas Inc. 2003, 2006, 2007, 2008. All Rights Reserved. All other trademarks mentioned are the property of their respective owners. HA456 HA456 Functional Block Diagram IN0 IN1 IN2 IN3 IN4 IN5 IN6 IN7 OUTPUT BUFFERS (AV = 1) OUT0 EN0 HA456 8x8 SWITCH MATRIX OUT7 EN7 EN0:7 SLAVE REGISTER SER/PAR MASTER REGISTER D0/SER IN A0 2 A1 A2 D2 LATCH EDGE/LEVEL WR CE CE D1/SER OUT D3 FN4153.7 September 26, 2008 HA456 Pin Descriptions NAME NC FUNCTION No connect. Not internally connected. D1/SER OUT Parallel Data Bit input D1 for Parallel Programming Mode. Serial Data Output (MSB of shift register) for cascading multiple HA456s in serial programming mode. Simply connect Serial Data Out of one HA456 to Serial Data In of another HA456 to daisy chain multiple devices. D0/SER IN Parallel Data Bit Input D0 for Parallel Programming Mode. Serial Data Input (input to shift register) for serial programming mode. A2, A1, A0 Output Channel Address Bits. These inputs select the output being programmed in parallel programming mode. IN0-IN7 Analog Video Input Lines. DGND Digital Ground. Connect both DGND pins to AGND. EDGE/LEVEL V+ SER/PAR VWR LATCH A user strapped input that defines whether synchronous channel switching is edge or level controlled. With this pin is strapped high, the slave register loads from the master register (thus changing the switch matrix state) on the rising edge of the LATCH signal. If it is strapped low (level mode), the slave register is transparent while LATCH is low, passing data directly from the master register to the switch state decoders. Strapping EDGE/LEVEL and LATCH low causes the channel switch to execute on the WR rising edge (not recommended for serial mode operation). Positive Supply Voltage. Connect all V+ pins together and decouple each pin to AGND (see Figure 2). A user strapped input that defines whether the serial (SER/PAR = 1) or parallel (SER/PAR = 0) digital programming interface is being utilized. Negative Supply Voltage. Connect both V- pins together and decouple each pin to AGND (see Figure 2). WRITE Input. In serial mode, data shifts into the shift register (Master Register) LSB from SER IN on the WR rising edge. In parallel mode, the Master Register loads with D3:0 (if D3:0 = 0000 through 1000), or the appropriate action is taken (if D3:0 =1011 through 1111), on the WR rising edge (see Table 1). Synchronous Channel Switch Control Input. If EDGE/LEVEL = 1, data is loaded from the Master Register to the Slave Register on the rising edge of LATCH. If EDGE/LEVEL = 0, data is loaded from the Master to the Slave Register while LATCH = 0. In parallel mode, commands 1011 through 1110 execute asynchronously, on the WR rising edge, regardless of the state of LATCH or EDGE/LEVEL. Parallel mode command 1111 executes a software “Latch” (see Table 1). CE Chip Enable. When CE = 0 and CE = 1, the WR line is enabled. CE Chip Enable. When CE = 0 and CE = 1, the WR line is enabled. OUT7-OUT0 AGND Analog Video Outputs. Analog Ground. D3 Parallel Data Bit Input D3 when SER/PAR = 0. D3 is unused with serial programming. D2 Parallel Data Bit Input D2 when SER/PAR = 0. D2 is unused with serial programming. 3 FN4153.7 September 26, 2008 HA456 Absolute Maximum Ratings Thermal Information Supply Voltage (V+ to V-). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12V Positive Supply Voltage (V+) Referred to AGND . . . . . . . . . . . . . 6V Negative Supply Voltage (V-) Referred to AGND. . . . . . . . . . . . -6V DGND Voltage . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . AGND ±1V Analog Input Voltage . . . . . . . . . . . . . . . . . . . . . . . . . . . . ±VSUPPLY Digital Input Voltage . . . . . . . . . . . . . . (V+ + 0.3V) to (DGND - 0.3V) ESD Rating Human Body Model (Per MIL-STD-883 Method 3015.7). . . . 1.5kV Thermal Resistance (Typical, Note 1) θJA (°C/W) PLCC Package. . . . . . . . . . . . . . . . . . . . . . . . . . . . . 47 Maximum Junction Temperature . . . . . . . . . . . . . . . . . . . . . +150°C Maximum Storage Temperature Range . . . . . . . . . -65°C to +150°C Pb-free reflow profile . . . . . . . . . . . . . . . . . . . . . . . . . .see link below http://www.intersil.com/pbfree/Pb-FreeReflow.asp Operating Conditions Temperature Range . . . . . . . . . . . . . . . . . . . . . . . . . . . 0°C to +70°C Supply Voltage Range (Typical). . . . . . . . . . . . . . . . ±4.5V to ±5.5V CAUTION: Do not operate at or near the maximum ratings listed for extended periods of time. Exposure to such conditions may adversely impact product reliability and result in failures not covered by warranty. NOTE: 1. θJA is measured with the component mounted on a low effective thermal conductivity test board in free air. See Tech Brief TB379 for details. VSUPPLY = ±5V, AGND = DGND = 0V, RL = 400Ω (Note 2), Unless Otherwise Specified. Electrical Specifications TEST LEVEL (Note 3) TEMP (°C) MIN (Note 7) TYP MAX (Note 7) UNITS A 25 0.990 0.996 1.00 V/V A Full 0.988 0.995 1.00 A 25 - 0.001 0.004 A Full - 0.001 0.005 All Outputs Enabled, RL = Open, VIN = 0V, Total for All V+ (3) or V- (2) Pins A 25 - 68 80 A Full - 71 83 All Outputs Disabled, RL = Open, Total for All V+ (3) or V- (2) Pins A 25 - 47 65 A Full - 47 67 A Full ±2 ±2.5 - V PARAMETER TEST CONDITIONS Voltage Gain VIN = -1.5V to +1.5V, Worst Case Switch Configuration Channel-to-Channel Gain Mismatch Supply Current Disabled Supply Current Input Voltage Range V/V mA mA Analog Input Current VIN = 0V A Full - 1.6 12 µA Input Noise (RS = 75Ω) DC to 40MHz B 25 - 0.15 - mVRMS ≥10kHz B 25 - 22 - nV/√Hz DC C 25 - 4 - MΩ B 25 - 3.2 - pF A 25 -18 -6.5 5 mV A Full -20 -7.5 6 A 25 - 2 11 A Full - 4 13 Analog Input Resistance Analog Input Capacitance (Input Connected to One Output or All Outputs, Note 6) Output Offset Voltage VIN = 0V, Worst Case Switch Configuration Channel-to-Channel Offset Voltage Mismatch Offset Voltage Drift VIN = ±2.5V Output Voltage Swing mV B Full - 20 - µV/°C A 25 ±2.2 ±2.48 - V A Full ±2.1 ±2.47 - V Output Resistance Enabled, DC B 25 - 0.25 - Ω Output Leakage Current (Including D1/SER OUT) All Outputs Disabled, VOUT = 2.5V A 25 - 0.2 5 µA A Full - 1 10 µA Output Resistance Output Disabled A 25 0.6 15 - MΩ 4 FN4153.7 September 26, 2008 HA456 VSUPPLY = ±5V, AGND = DGND = 0V, RL = 400Ω (Note 2), Unless Otherwise Specified. (Continued) Electrical Specifications PARAMETER TEST CONDITIONS TEST LEVEL (Note 3) TEMP (°C) MIN (Note 7) TYP MAX (Note 7) UNITS B 25 - 3.5 - pF Output Capacitance (Output Disabled) Power Supply Rejection Ratio DC, VS = ±4.5V to ±5.5V, VIN = 0V A Full 45 53 - dB Digital Input Current (Note 5) VIN = 0V or 5V A Full - - 1 µA Digital Input Low Voltage A Full - - 0.8 V Digital Input High Voltage A 25 2.0 - - V A Full 2.2 - - V SER OUT Logic Low Voltage Serial Mode, IOL = 1.6mA A Full - - 0.4 V SER OUT Logic High Voltage Serial Mode, IOH = -0.4mA A Full 3.0 - - V CL = 5pF, VIN = 200mVP-P B 25 - 120 - MHz CL = 5pF, VIN = 1VP-P B 25 - 70 - MHz CL = 5pF, VIN = 2VP-P B 25 - 50 - MHz VOUT = 4VP-P B 25 - 200 - V/µs AC CHARACTERISTICS (Note 4) -3dB Bandwidth (Note 6) Slew Rate (Note 6) All Hostile Crosstalk (Note 6) 10MHz, VIN = 1VP-P, RL =1kΩ B 25 - -55 - dB All Hostile Off-Isolation (Note 6) 10MHz, VIN = 1VP-P B 25 - 70 - dB Differential Phase NTSC or PAL, RL = 1kΩ B 25 - 0.05 - ° NTSC or PAL, RL ≥ 10kΩ B 25 - 0.05 - ° NTSC or PAL, RL = 1kΩ B 25 - 0.05 - % NTSC or PAL, RL ≥10kΩ B 25 - 0.02 - % Write Pulse Width High (tWH) A Full 20 - - ns Write Pulse Width Low (tWL) A Full 20 - - ns Chip-Enable Setup Time to Write (tCS) A Full 5 - - ns Chip-Enable Hold Time From Write (tCH) A Full 5 - - ns Parallel Mode A Full 20 - - ns Serial Mode A Full 20 - - ns Data and Address Hold Time from Write (tDH) A Full 25 - - ns Latch Pulse Width (tL) A Full 40 - - ns Latch Delay From Write (tD) A Full 40 - - ns Differential Gain TIMING CHARACTERISTICS (See Figure 3 for More Information) Data and Address Setup Time to Write (tDS) LATCH Edge to Output Disabled (tOFF) Serial Mode B Full - 30 - ns LATCH Edge to Output Enabled (tON) Serial Mode B Full - 185 - ns Output Break-Before-Make Delay (tON - tOFF) Serial Mode B Full - 155 - ns NOTES: 2. For the lowest crosstalk, and the best composite video performance, use RL ≥ 1kΩ. 3. Test Level: A. Production Tested; B. Typical or Established Limit Based on Characterization; C. Design Typical for Information Only. 4. See AC Test Circuits (Figure 6 through Figure 9). 5. Excludes D1/SER OUT which is a bidirectional terminal and thus falls under the higher Output Leakage limit. 6. See “Typical Performance Curves” beginning on page 11 for more information. 7. Parameters with MIN and/or MAX limits are 100% tested at +25°C, unless otherwise specified. Temperature limits established by characterization and are not production tested. 5 FN4153.7 September 26, 2008 HA456 Application Information HA456 Architecture The HA456 video crosspoint switch consists of 64 switches in an 8x8 grid (see Figure 1). Each input is fully buffered and presents a constant input capacitance whether the input connects to one output or all 8 outputs. This yields consistent input termination impedances regardless of the switch configuration. The 8 matrix outputs are followed by 8 unity gain, wideband, tristatable buffers optimized for driving 400Ω and 5pF loads. The output disable function is useful for multiplexing two or more HA456s to create a larger input matrix (e.g., two multiplexed HA456s yield a 16x8 crosspoint). The HA456 outputs can be disabled individually or collectively under software control. When disabled, an output enters a high-impedance state. In multichip parallel applications, the disable function prevents inactive outputs from loading lines driven by other devices. Disabling an unused output also reduces power consumption. The HA456 outputs connect easily to two HFA1412 quad, gain-of-two buffers when 75Ω loads must be driven. Power-On RESET The HA456 has an internal power-on reset (POR) circuit that disables all outputs at power-up, and presets the switch matrix so that all outputs connect to IN0. In parallel mode, the desired switch state may be programmed before the outputs are enabled. In serial mode, all outputs are connected to GND each time they are enabled, so switch state programming must occur after the output is enabled. Digital Interface The desired switch state can be loaded using a 7-bit parallel interface mode or 32-bit serial interface mode (see Tables 1 through 3). All actions associated with the WR line occur on its rising edge. The same is true for the LATCH line if EDGE/LEVEL = 1. Otherwise, the Slave Register updates asynchronously (while LATCH=0, if EDGE/LEVEL = 0). WR is logically AND’ed with CE and CE to allow active high or active low chip enable. 7-Bit Parallel Mode In the parallel programming mode (SER/PAR = 0), the 7 control bits (A2:0 and D3:0) typically specify an output channel (A2:0) and the corresponding action to be taken (D3:0). Command codes are available to enable or disable all outputs, or individual outputs, as shown in Table 1. Each output has 4-bit Master and Slave Registers associated with it that hold the output’s currently selected input address (defined by D3:0). The input address (if applicable) is loaded into the Master Register on the rising edge of WR. If the HA456 is in level mode, and if LATCH = 0 (asynchronous switching), then the input address flows through the transparent Slave Register and the output immediately switches to the new input. For synchronous switching on the rising edge of LATCH, strap the HA456 for edge mode, program all the desired switch connections, and then drive an inverted pulse on the LATCH input. Note: Operations defined by commands 1011 - 1111 occur asynchronously on the WR rising edge, without regard for the state of LATCH or EDGE/LEVEL. 32-Bit Serial Mode In the serial programming mode, all master registers are loaded with data, making it unnecessary to specify an output address (A2:0). The input data format is D3-D0, starting with OUT0 and ending with OUT7 for 32 total bits (i.e., first bit shifted in is D3 for OUT0, and 32nd bit shifted in is D0 for OUT7). Only codes 0000 through 1010 are valid serial mode commands. Code 1010 disables an individual output, while code 1001 enables it. After data is shifted into the 32-bit Master Register, it transfers to the Slave Register on the rising edge of the LATCH line (Edge mode), or when LATCH = 0 (Level mode, see Figure 5). HA456 AV = +2 WR LATCH INPUT SELECT AND COMMAND CODES OR SERIAL I/O VIDEO OUT 75Ω INPUT BUFFERS VIDEO INPUTS OUTPUT SELECT 75Ω 8X8 SWITCH MATRIX HFA1412 OR HFA1405 A2 A1 A0 D3 D2 D1/SER OUT D0/SER IN AV = +2 FIGURE 1. TYPICAL CABLE DRIVING APPLICATION 6 FN4153.7 September 26, 2008 HA456 TABLE 1. PARALLEL INTERFACE COMMANDS A2:0 D3:0 Selects Output Being Programmed Address Inputs are Irrelevant for These Functions ACTION 0000 to 0111 Connect the input defined by D3:0 to the output selected by A2:0. Doesn’t enable a disabled output. 1000 Connect the output selected by A2:0 to GND. Doesn’t enable a disabled output. 1011 Asynchronously disable the single output selected by A2:0, and leave the Master Register unchanged. 1100 Asynchronously enable the single output selected by A2:0, and leave the Master Register unchanged. 1101 Asynchronously disable all outputs, and leave the Master Register unchanged. 1110 Asynchronously enable all outputs, and leave the Master Register unchanged. 1111 Send a Software “Latch” pulse to the Slave Register to load it from the Master Register, iff, the LATCH input = 1. If the LATCH input = 0, then this command is a NOP. The Master Register is unchanged by this command. 1001 or 1010 Do not use these codes in the parallel programming mode. These codes are for serial programming only. TABLE 2. SERIAL INTERFACE COMMANDS D3:0 0000 to 0111 ACTION Connect the output to the input channel defined by D3:0. Doesn’t enable a disabled output. 1000 Connect the output to GND. Doesn’t enable a disabled output. 1001 Enable the output and connect it to GND. The default power-up state is all outputs disabled, so use this code to enable outputs after power is applied, but before programming the switch configuration. 1010 Disable the output. The output is no longer associated with any input channel; the desired input must be redefined after re enabling the output. 1011 to 1111 Do not use these codes in the serial programming mode. TABLE 3. DEFINITION OF DATA AND ADDRESS BIT FUNCTIONS SER/PAR D3 D2 D1 D0 A2:0 COMMENT H X X Serial Data Output Serial Data Input X 32-Bit Serial Mode L H Parallel Data Input Parallel Data Input Parallel Data Input Output Address Parallel Mode; D2:0 define the command to be executed L L Parallel Data Input Parallel Data Input Parallel Data Input Output Address Parallel Mode; D2:0 define the Input Channel Figure 2 shows a typical application of the HA456 with HFA1412 quad, gain-of-two buffers at the outputs to drive 75Ω loads. This application shows the HA456 digital-switch control interface set up in the 7-bit parallel mode. The HA456 uses 7 data lines and 3 control lines (WR, CE and LATCH). The input/output information is presented to the chip at A2:0 and D3:0 by a parallel printer port. The data is stored in the Master Registers on the rising edge of WR. When the LATCH line goes high, the switch configuration loads into the Slave Registers, and all 8 outputs reconfigure at the same time. Each 7-bit word updates only one output at a time. 7 If several outputs are to be updated, the data is individually loaded into the Master Registers. Then, a single LATCH pulse can reconfigure all channels simultaneously. An IBM compatible PC loads the programming data into the HA456 via its parallel port (LPT1) using a simple BASIC program. FN4153.7 September 26, 2008 HA456 HFA1412 (AV = +2) HA456 6 8 10 13 15 17 19 21 VIDEO INPUTS OUT0 IN0 IN1 IN2 IN3 IN4 IN5 OUT1 OUT2 OUT3 OUT4 OUT5 OUT6 OUT7 CE IN6 IN7 EDGE/LEVEL 1 2 3 4 5 19 24 V+ 3 2 42 40 7 5 4 AGND D0/SER IN D1/SER OUT DGND D2 VD3 A0 A1 SER/PAR A2 CE 25 LATCH 6 7 8 30 14 16 33 36 18 WR 43 RS 3 IN 1 41 34 37 35 32 30 28 27 16 RS 5 IN 2 10 IN 3 12 IN 4 75Ω OUT1 1 VOUT 7 OUT2 8 OUT3 14 OUT4 75Ω RS 18, 29, 44 V+ 4 -IN0:3 V11 2, 6 9, 13 -5V +5V 31, 33, 36 11, 14 22, 38 -5V 20 26 NC NOTE: All decoupling capacitors 0.1µF Ceramic (1 per supply pin). For lowest crosstalk, connect unused pins to GND use RS to tune the overall output response. FIGURE 2. TYPICAL HIGH PERFORMANCE, PARALLEL MODE APPLICATION CIRCUIT (SEE FIGURE 18) Waveforms VALID DATA A2:0, D3:0 VALID DATA tDS tDH tCS CE tCH tWL tWH WR tD tL LATCH (EDGE MODE) FIGURE 3. DIGITAL TIMING REQUIREMENTS 8 FN4153.7 September 26, 2008 HA456 Waveforms (Continued) DATA (N) DATA (N + 1) DATA (N + 2) WR LATCH DATA (N) MASTER REGISTER CONTENTS SLAVE REGISTER CONTENTS (EDGE/LEVEL = 0) DATA (N + 1) DATA (N + 1) DATA (N) SLAVE REGISTER CONTENTS (EDGE/LEVEL = 1) DATA (N + 2) DATA (N + 2) DATA (N + 1) DATA (N) DATA (N + 2) FIGURE 4. PARALLEL PROGRAMMING MODE OPERATION (SER/PAR = 0) NEW DATA FOR OUT0 D3 SER IN D2 D1 NEW DATA FOR OUT1 TO OUT6 D0 D3 D2 NEW DATA FOR OUT7 D3 D2 D1 1st WRITE WR D0 32nd WRITE LATCH t=0 SLAVE REGISTER CONTENTS (EDGE/LEVEL = 0) OLD DATA SLAVE REGISTER CONTENTS (EDGE/LEVEL = 1) OLD DATA NEW DATA NEW DATA FIGURE 5. SERIAL PROGRAMMING MODE OPERATION (SER/PAR = 1) 9 FN4153.7 September 26, 2008 HA456 AC Test Circuits IN0 OUT0 VOUT IN1 OUT1 VOUT IN2 OUT2 VOUT OUT3 IN3 OUT3 VOUT IN4 OUT4 IN4 OUT4 VOUT IN5 IN0 OUT0 IN1 OUT1 IN2 OUT2 IN3 VOUT OUT5 IN5 OUT5 VOUT IN6 OUT6 IN6 OUT6 VOUT IN7 OUT7 IN7 OUT7 VOUT VIN = 1VP-P , AT 10MHz VIN = 1VP-P , SWEEP FREQUENCY FIGURE 6. -3dB BANDWIDTH (NOTES 8 thru 11) 7 X 75Ω FIGURE 7. ALL HOSTILE OFF-ISOLATION (NOTES 11 thru 13) IN0 OUT0 VOUT IN0 OUT0 IN1 OUT1 VOUT IN1 OUT1 IN2 OUT2 VOUT IN2 OUT2 IN3 OUT3 VOUT IN3 OUT3 IN4 OUT4 VOUT IN4 OUT4 IN5 OUT5 VOUT IN5 OUT5 IN6 OUT6 VOUT IN6 OUT6 IN7 OUT7 IN7 OUT7 75Ω VIN = 1VP-P , AT 10MHz VIN = 1VP-P , AT 10MHz FIGURE 8. SINGLE CHANNEL CROSSTALK (NOTES 11, 14 thru 17) VOUT FIGURE 9. ALL HOSTILE CROSSTALK (NOTES 11, 16, 18 thru 20) NOTES: 8. Program the desired input to output combination (e.g., IN7 to OUT1). 9. Enable the selected output(s). 10. Drive the selected input with VIN, and measure the -3dB frequency at the selected output (VOUT). 11. Load all outputs with the desired RL. 12. Disable all outputs. 13. Drive all inputs with VIN and measure VOUT at any output; isolation (in dB) = -20log10 (VOUT/VIN). 14. Drive VIN on one input which connects to one output (e.g., IN7 to OUT7). 15. Terminate all other inputs to GND. 16. Enable all outputs. 17. Measure VOUT at any undriven output; crosstalk (in dB) = 20log10 (VOUT/VIN). 18. Terminate one input to GND, and connect that input to a single output (e.g., IN0 to OUT0). 19. Drive the other seven inputs with VIN, and connect these active inputs to the remaining seven outputs. 20. Measure VOUT at the quiescent output; crosstalk (in dB) = 20log10 (VOUT/VIN). 10 FN4153.7 September 26, 2008 HA456 VSUPPLY = ±5V, TA = +25°C, RL = 400Ω, Unless Otherwise Specified. 1.4 4 1.2 3 1.0 2 OUTPUT VOLTAGE (V) OUTPUT VOLTAGE (V) Typical Performance Curves 0.8 0.6 0.4 0.2 0 1 0 -1 -2 -3 -0.2 -4 TIME (20ns/DIV) FIGURE 10. SMALL SIGNAL PULSE RESPONSE GAIN (dB) 3 0 TIME (20ns/DIV) FIGURE 11. LARGE SIGNAL PULSE RESPONSE VOUT = 0.2VP-P GAIN -3 VOUT = 1VP-P 1.0 VOUT = 2VP-P PHASE 45 90 VOUT = 1VP-P 135 VOUT = 0.2VP-P PHASE (°) 0 GAIN (dB) -6 0.5 0 -0.5 VOUT = 1VP-P -1.0 -1.5 VOUT = 0.2VP-P -2.0 180 VOUT = 2VP-P 1M 10M 10M 200M 1M 10M FREQUENCY (Hz) FREQUENCY (Hz) FIGURE 12. FREQUENCY RESPONSE 20 VIN = 1VP-P -20 30 -30 40 RL = 150Ω -40 -50 RL = 1kΩ -60 -70 -80 100M 200M VIN = 1VP-P RL = 1kΩ 50 60 70 80 RL = 150Ω 90 100 -90 -100 200M FIGURE 13. GAIN FLATNESS OFF-ISOLATION (dB) CROSSTALK (dB) -10 10M 1M 10M FREQUENCY (Hz) FIGURE 14. ALL HOSTILE CROSSTALK 11 100M 200M 110 1M 10M FREQUENCY (Hz) FIGURE 15. ALL HOSTILE OFF-ISOLATION FN4153.7 September 26, 2008 HA456 VSUPPLY = ±5V, TA = +25°C, RL = 400Ω, Unless Otherwise Specified. (Continued) 120 225 110 200 175 150 1 INPUT TO ALL OUTPUTS 100 90 80 1 INPUT TO 1 OUTPUT 70 60 125 PHASE 0 100 10 75 50 0.5 20 1.0 1.5 2.0 2.5 3.0 3.5 4.0 VOUT (VP-P) 4.5 5.0 5.5 6.0 0.03M FIGURE 16. SLEW RATE vs VOUT 0.1M 1M FREQUENCY (Hz) PHASE (°) MAGNITUDE (dBΩ) 250 30 100M 10M FIGURE 17. INPUT IMPEDANCE vs FREQUENCY RL =150Ω RS = 0Ω VOUT = 0.5VP-P 3 GAIN (dB) SLEW RATE (V/µs) Typical Performance Curves 0 -3 VOUT = 1VP-P -6 1M 10M FREQUENCY (Hz) 100M 200M FIGURE 18. FREQUENCY RESPONSE OF HA456-HFA1412 COMBINATION (PER FIGURE 2) 12 FN4153.7 September 26, 2008 HA456 Plastic Leaded Chip Carrier Packages (PLCC) 0.042 (1.07) 0.048 (1.22) PIN (1) IDENTIFIER 0.042 (1.07) 0.056 (1.42) 0.004 (0.10) C 0.025 (0.64) R 0.045 (1.14) 0.050 (1.27) TP C L D2/E2 E1 E C L D2/E2 VIEW “A” 0.020 (0.51) MIN A1 A D1 D N44.65 (JEDEC MS-018AC ISSUE A) 44 LEAD PLASTIC LEADED CHIP CARRIER PACKAGE INCHES MILLIMETERS SYMBOL MIN MAX MIN MAX NOTES A 0.165 0.180 4.20 4.57 - A1 0.090 0.120 2.29 3.04 - D 0.685 0.695 17.40 17.65 - D1 0.650 0.656 16.51 16.66 3 D2 0.291 0.319 7.40 8.10 4, 5 E 0.685 0.695 17.40 17.65 - E1 0.650 0.656 16.51 16.66 3 E2 0.291 0.319 7.40 8.10 4, 5 N 44 44 SEATING -C- PLANE 0.020 (0.51) MAX 3 PLCS 0.026 (0.66) 0.032 (0.81) 0.013 (0.33) 0.021 (0.53) 0.025 (0.64) MIN 0.045 (1.14) MIN 6 Rev. 2 11/97 VIEW “A” TYP. NOTES: 1. Controlling dimension: INCH. Converted millimeter dimensions are not necessarily exact. 2. Dimensions and tolerancing per ANSI Y14.5M-1982. 3. Dimensions D1 and E1 do not include mold protrusions. Allowable mold protrusion is 0.010 inch (0.25mm) per side. Dimensions D1 and E1 include mold mismatch and are measured at the extreme material condition at the body parting line. 4. To be measured at seating plane -C- contact point. 5. Centerline to be determined where center leads exit plastic body. 6. “N” is the number of terminal positions. 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, software and/or specifications at any time without notice. Accordingly, the reader is cautioned to verify that data sheets are current before placing orders. Information furnished 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 13 FN4153.7 September 26, 2008