ISL59910, ISL59913 ® Data Sheet December 15, 2006 Triple Differential Receiver/Equalizer Features The ISL59910 and ISL59913 are triple channel differential receivers and equalizers. They each contain three high speed differential receivers with five programmable poles. The outputs of these pole blocks are then summed into an output buffer. The equalization length is set with the voltage on a single pin. The ISL59910 and ISL59913 output can also be put into a high impedance state, enabling multiple devices to be connected in parallel and used in multiplexing application. • 150MHz -3dB bandwidth The gain can be adjusted up or down on each channel by 6dB using its VGAIN control signal. In addition, a further 6dB of gain can be switched in to provide a matched drive into a cable. The ISL59910 and ISL59913 have a bandwidth of 150MHz and consume just 108mA on ±5V supply. A single input voltage is used to set the compensation levels for the required length of cable. The ISL59910 is a special version of the ISL59913 that decodes syncs encoded onto the common modes of three pairs of CAT-5 cable by the EL4543. (Refer to the EL4543 datasheet for details.) The ISL59910 and ISL59913 are available in a 28 Ld QFN package and are specified for operation over the full -40°C to +85°C temperature range. FN6406.0 • CAT-5 compensation - 100MHz @ 600 ft - 135MHz @ 300 ft • 108mA supply current • Differential input range 3.2V • Common mode input range -4V to +3.5V • ±5V supply • Output to within 1.5V of supplies • Available in 28 Ld QFN package • Pb-free plus anneal available (RoHS compliant) Applications • Twisted-pair receiving/equalizer • KVM (Keyboard/Video/Mouse) • VGA over twisted-pair • Security video Pinouts 23 VCM_R 24 VCM_G 25 VCM_B 27 ENABLE 28 0V 23 HOUT 24 VOUT 25 SYNCREF 26 X2 27 ENABLE 28 0V 26 X2 ISL59913 (28 LD QFN) TOP VIEW ISL59910 (28 LD QFN) TOP VIEW VSMO_B 1 22 VSP VSMO_B 1 22 VSP VOUT_B 2 21 VINM_B VOUT_B 2 21 VINM_B VSPO_B 3 20 VINP_B VSPO_B 3 20 VINP_B 19 VINM_G VSPO_G 4 VSPO_G 4 THERMAL PAD VOUT_R 8 15 VSM VOUT_R 8 15 VSM VGAIN_B 14 16 VINP_R VREF 11 18 VINP_G VGAIN_G 13 VSMO_R 7 VGAIN_R 12 16 VINP_R VREF 11 VSMO_R 7 VCTRL 10 17 VINM_R VSPO_R 9 VSMO_G 6 VGAIN_B 14 17 VINM_R VGAIN_G 13 VSMO_G 6 VGAIN_R 12 VOUT_G 5 VCTRL 10 18 VINP_G VSPO_R 9 VOUT_G 5 19 VINM_G THERMAL PAD EXPOSED DIEPLATE SHOULD BE CONNECTED TO -5V 1 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. 2006. All Rights Reserved All other trademarks mentioned are the property of their respective owners. ISL59910, ISL59913 Ordering Information PART NUMBER PART MARKING TAPE & REEL PACKAGE PKG. DWG. # ISL59910IRZ (Note) 59910 CRZ - 28 Ld QFN (Pb-free) MDP0046 ISL59910IRZ-T7 (Note) 59910 CRZ 7” 28 Ld QFN (Pb-free) MDP0046 ISL59913IRZ (Note) 59913 CRZ - 28 Ld QFN (Pb-free) MDP0046 ISL59913IRZ-T7 (Note) 59913 CRZ 7” 28 Ld QFN (Pb-free) MDP0046 NOTE: Intersil Pb-free plus anneal products employ special Pb-free material sets; molding compounds/die attach materials and 100% matte tin plate termination finish, which are 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. 2 FN6406.0 December 15, 2006 ISL59910, ISL59913 Absolute Maximum Ratings (TA = +25°C) Operating Conditions Supply Voltage between VS+ and VS- . . . . . . . . . . . . . . . . . . . . .12V Maximum Continuous Output Current per Channel. . . . . . . . . 30mA Power Dissipation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . See Curves Pin Voltages . . . . . . . . . . . . . . . . . . . . . . . . . VS- -0.5V to VS+ +0.5V Storage Temperature . . . . . . . . . . . . . . . . . . . . . . . .-65°C to +150°C Ambient Operating Temperature . . . . . . . . . . . . . . . .-40°C to +85°C Die Junction Temperature . . . . . . . . . . . . . . . . . . . . . . +150°C CAUTION: Stresses above those listed in “Absolute Maximum Ratings” may cause permanent damage to the device. This is a stress only rating and operation of the device at these or any other conditions above those indicated in the operational sections of this specification is not implied. IMPORTANT NOTE: All parameters having Min/Max specifications are guaranteed. Typ values are for information purposes only. Unless otherwise noted, all tests are at the specified temperature and are pulsed tests, therefore: TJ = TC = TA Electrical Specifications PARAMETER VSA+ = VA+ = +5V, VSA- = VA- = -5V, TA = +25°C, exposed die plate = -5V, unless otherwise specified. DESCRIPTION CONDITIONS MIN TYP MAX UNIT AC PERFORMANCE BW Bandwidth (See Figure 1) 150 MHz SR Slew Rate VIN = -1V to +1V, VG = 0.39, VC = 0, RL = 75 + 75Ω 1.5 kV/µs THD Total Harmonic Distortion 10MHz 2VP-P out, VG = 1V, X2 gain, VC = 0 -50 dBc DC PERFORMANCE V(VOUT)OS Offset Voltage X2 = high, no equalization -110 -15 +110 mV ΔVOS Channel-to-Channel Offset Matching X2 = high, no equalization -140 0 +140 mV INPUT CHARACTERISTICS CMIR Common-Mode Input Range -4/+3.5 V ONOISE Output Noise VG = 0V, VC = 0V, X2 = HIGH, RLOAD = 150Ω, Input 50Ω to GND, 10MHz -110 dBm CMRR Common-Mode Rejection Ratio Measured at 10kHz -80 dB CMRR Common-Mode Rejection Ratio Measured at 10MHz -55 dB CMBW CM Amplifier Bandwidth 10k || 10pF load 50 MHz CMSLEW CM Slew Rate Measured @ +1V to -1V 100 V/µs CINDIFF Differential Input Capacitance Capacitance VINP to VINM 600 fF RINDIFF Differential Input Resistance Resistance VINP to VINM CINCM CM Input Capacitance Capacitance VINP = VINM to GND RINCM CM Input Resistance Resistance VINP = VINM to GND +IIN Positive Input Current DC bias @ VINP = VINM = 0V -IIN Negative Input Current DC bias @ VINP = VINM = 0V VINDIFF Differential Input Range VINP - VINM when slope gain falls to 0.9 1 MΩ 1.2 pF 1 MΩ 1 µA 1 µA 2.5 V OUTPUT CHARACTERISTICS V(VOUT) Output Voltage Swing RL = 150Ω I(VOUT) Output Drive Current RL = 10Ω, VINP = 1V, VINM = 0V, X2 = high, VG = 0.39 R(VCM) CM Output Resistance of VCM_R/G/B (ISL59913 only) at 100kHz Gain Gain VC = 0, VG = 0.39, X2 = 5, RL = 150Ω ΔGain @ DC Channel-to-Channel Gain Matching ΔGain @ 15MHz Channel-to-Channel Gain Matching V(SYNC)HI High Level output on V/HOUT (ISL59910 only) 3 50 0.85 ±3.5 V 60 mA 30 Ω 1.0 1.1 VC = 0, VG = 0.39, X2 = 5, RL = 150Ω 3 8 % VC = 0.6, VG = 0.39, X2 = 5, RL = 150Ω, Frequency = 15MHz 3 11 % V(VSP) - 0.1V V(VSP) FN6406.0 December 15, 2006 ISL59910, ISL59913 Electrical Specifications PARAMETER V(SYNC)LO VSA+ = VA+ = +5V, VSA- = VA- = -5V, TA = +25°C, exposed die plate = -5V, unless otherwise specified. DESCRIPTION CONDITIONS MIN Low Level output on V/HOUT (ISL59910 only) TYP V(SYNC REF) MAX UNIT V(SYNC REF) + 0.1V SUPPLY ISON Supply Current per Channel VENBL = 5, VINM = 0 32 ISOFF Supply Current per Channel VENBL = 0, VINM = 0 0.2 PSRR Power Supply Rejection Ratio DC to 100kHz, ±5V supply 36 39 mA 0.4 mA 65 dB LOGIC CONTROL PINS (ENABLE, X2) VHI Logic High Level VIN - VLOGIC ref for guaranteed high level VLOW Logic Low Level VIN - VLOGIC ref for guaranteed low level 0.8 V ILOGICH Logic High Input Current VIN = 5V, VLOGIC = 0V 50 µA ILOGICL Logic Low Input Current VIN = 0V, VLOGIC = 0V 15 µA 1.4 V Pin Descriptions ISL59910 ISL59913 PIN NUMBER PIN NAME 1 VSMO_B -5V to blue output buffer VSMO_B -5V to blue output buffer 2 VOUT_B Blue output voltage referenced to 0V pin VOUT_B Blue output voltage referenced to 0V pin 3 VSPO_B +5V to blue output buffer VSPO_B +5V to blue output buffer 4 VSPO_G +5V to green output buffer VSPO_G +5V to green output buffer 5 VOUT_G Green output voltage referenced to 0V pin VOUT_G Green output voltage referenced to 0V pin 6 VSMO_G -5V to green output buffer VSMO_G -5V to green output buffer 7 VSMO_R -5V to red output buffer VSMO_R -5V to red output buffer 8 VOUT_R Red output voltage referenced to 0V pin VOUT_R Red output voltage referenced to 0V pin 9 VSPO_R +5V to red output buffer VSPO_R +5V to red output buffer 10 VCTRL 11 VREF 12 VGAIN_R Red channel gain voltage (0V to 1V) VGAIN_R Red channel gain voltage (0V to 1V) 13 VGAIN_G Green channel gain voltage (0V to 1V) VGAIN_G Green channel gain voltage (0V to 1V) 14 VGAIN_B Blue channel gain voltage (0V to 1V) VGAIN_B Blue channel gain voltage (0V to 1V) 15 VSM 16 VINP_R Red positive differential input VINP_R Red positive differential input 17 VINM_R Red negative differential input VINM_R Red negative differential input 18 VINP_G Green positive differential input VINP_G Green positive differential input 19 VINM_G Green negative differential input VINM_G Green negative differential input 20 VINP_B Blue positive differential input VINP_B Blue positive differential input 21 VINM_B Blue negative differential input VINM_B Blue negative differential input 22 VSP 23 HOUT Decoded Horizontal sync referenced to SYNCREF VCM_R Red common-mode voltage at inputs 24 VOUT Decoded Vertical sync referenced to SYNCREF VCM_G Green common-mode voltage at inputs 25 SYNCREF Reference level for HOUT and VOUT logic outputs VCM_B Blue common-mode voltage at inputs PIN FUNCTION Equalization control voltage (0V to 0.95V) Reference voltage for logic signals, VCTRL and VGAIN pins -5V to core of chip +5V to core of chip 4 PIN NAME VCTRL VREF VSM VSP PIN FUNCTION Equalization control voltage (0V to 0.95V) Reference voltage for logic signals, VCTRL and VGAIN pins -5V to core of chip +5V to core of chip FN6406.0 December 15, 2006 ISL59910, ISL59913 Pin Descriptions (Continued) ISL59910 PIN NUMBER PIN NAME 26 X2 27 ENABLE 28 0V PIN FUNCTION Logic signal for x1/x2 output gain setting Chip enable logic signal 0V reference for output voltage Thermal Pad ISL59913 PIN NAME X2 ENABLE 0V PIN FUNCTION Logic signal for x1/x2 output gain setting Chip enable logic signal 0V reference for output voltage Must be connected to -5V Typical Performance Curves 5 X2=HIGH VGAIN=0.35V VCTRL=0V RLOAD=150Ω GAIN (dB) X2=LOW VGAIN=0V 3 VCTRL=0V RLOAD=150 1 -1 -3 -5 1M 10M 100M 200M FREQUENCY (Hz) FIGURE 1. FREQUENCY RESPONSE OF ALL CHANNELS X2=LOW VS=±5V RL=150Ω VGAIN=0V VCTRL=0.1V STEPS Source=-20dBm VCTRL=1V FIGURE 2. GAIN vs FREQUENCY ALL CHANNELS X2=LOW VS=±5V RL=150Ω Source=-20dBm VCTRL=0.25V VGAIN=0.25V VCTRL=0V VGAIN=0.25V VCTRL=0V VGAIN=0V VCTRL=0V FIGURE 3. GAIN vs FREQUENCY FOR VARIOUS VCTRL 5 FIGURE 4. GAIN vs FREQUENCY FOR VARIOUS VCTRL AND VGAIN FN6406.0 December 15, 2006 ISL59910, ISL59913 Typical Performance Curves (Continued) VCTRL=1V CABLE=600FT X2=LOW VCTRL=1V VS=±5V CABLE=3FT RL=150Ω VGAIN=1V SOURCE=-20dBm X2=LOW VGAIN=0.5V VCTRL=0.5V RLOAD=150Ω VCTRL=0V CABLE=3FT VCTRL=0V CABLE=600FT FIGURE 5. GAIN vs FREQUENCY FOR VARIOUS VCTRL AND CABLE LENGTHS VS=±5V, RL=150Ω INPUT 50Ω TO GROUND X2=HIGH VCTRL=0V RLOAD=150Ω INPUT=50Ω TO GND VGAIN=1V X2=LOW X2=HiGH VCTRL=0V X2=LOW VCTRL=0V FIGURE 7. OFFSET vs VCTRL X2=HIGH VS=±5V RL=150Ω VCTRL=0V VGAIN=1V TOTAL HARMONIC FIGURE 6. CHANNEL MISMATCH FIGURE 8. DC GAIN vs VGAIN X2=HIGH VS=±5V RL=150Ω INPUT=50Ω TO GROUND VCTRL=0V VGAIN=0V 3rd HARMONIC 2nd HAMONIC FIGURE 9. HARMONIC DISTORTION vs FREQUENCY 6 VCTRL=0V VGAIN=1V VCTRL=1V VGAIN=1V VCTRL=1V VGAIN=0V FIGURE 10. OUTPUT NOISE FN6406.0 December 15, 2006 ISL59910, ISL59913 -10 4 VGAIN=0.35V (ALL CHANNELS) -20 VCTRL=0V X2=HIGH VGAIN=0.35V (ALL CHANNELS) 2 VCTRL=0V RLOAD=150Ω X2=HIGH GAIN (dB) CMRR (dB) Typical Performance Curves (Continued) -40 -60 -80 0 -2 -4 -100 100k 1M 10M -6 100k 100M 1M FREQUENCY (Hz) FIGURE 12. CM AMPLIFIER BANDWIDTH 0 -20 VCC=5V VCTRL=0V -20 VGAIN=0V (ALL CHANNELS) INPUTS ON GND VEE=-5V VCTRL=0V -40 VGAIN=0V (ALL CHANNELS) INPUTS ON GND -PSRR (dB) +PSRR (dB) 100M FREQUENCY (Hz) FIGURE 11. COMMON-MODE REJECTION -40 -60 -60 -80 -100 -80 -100 10 10M 100 1k 10k 100k 1M 10M 100M -120 10 100 10k 100k 1M 10M 100M FREQUENCY (Hz) FREQUENCY (Hz) FIGURE 13. (+)PSRR vs FREQUENCY 1k FIGURE 14. (-)PSRR vs FREQUENCY BLUE GREEN RED FIGURE 15. BLUE CROSSTALK (CABLE LENGTH = 3ft.) 7 X2=LOW VS=±5V RL=150Ω VCTRL=1V VGAIN=1V FIGURE 16. BLUE CROSSTALK (CABLE LENGTH = 600ft.) FN6406.0 December 15, 2006 ISL59910, ISL59913 Typical Performance Curves (Continued) GREEN RED X2=LOW VS=±5V RL=150Ω VCTRL=1V VGAIN=1V BLUE FIGURE 17. GREEN CROSSTALK (CABLE LENGTH = 3ft.) FIGURE 18. GREEN CROSSTALK (CABLE LENGTH = 600ft.) RED GREEN BLUE FIGURE 19. RED CROSSTALK (CABLE LENGTH = 3ft.) X2=LOW VS=±5V RL=150Ω VCTRL=1V VGAIN=1V FIGURE 20. RED CROSSTALK (CABLE LENGTH =600ft.) VCTRL=0V CABLE=3FT VCTRL=0.2V CABLE=600FT X2=HIGH VS=±5V RL=150Ω VGAIN=0V INPUT=10MHz FIGURE 21. RISE TIME AND FALL TIME 8 FIGURE 22. PULSE RESPONSE FOR VARIOUS CABLE LENGTHS FN6406.0 December 15, 2006 ISL59910, ISL59913 Typical Performance Curves (Continued) JEDEC JESD51-7 HIGH EFFECTIVE THERMAL CONDUCTIVITY TEST BOARD - QFN EXPOSED DIEPAD SOLDERED TO PCB PER JESD51-5 1.2 4.5 POWER DISSIPATION (W) POWER DISSIPATION (W) 4 3.5 3.378W 3 θ JA 2.5 QF =3 7 2 N2 °C 8 /W 1.5 1 JEDEC JESD51-3 LOW EFFECTIVE THERMAL CONDUCTIVITY TEST BOARD 1 893mW 0.8 θ JA = 0.6 QF N2 14 8 0° C/ W 0.4 0.2 0.5 0 0 0 25 50 75 85 100 125 150 0 Applications Information Logic Control The ISL59913 has two logical input pins, Chip Enable (ENABLE) and Switch Gain (X2). The logic circuits all have a nominal threshold of 1.1V above the potential of the logic reference pin (VREF). In most applications it is expected that this chip will run from a +5V, 0V, -5V supply system with logic being run between 0V and +5V. In this case the logic reference voltage should be tied to the 0V supply. If the logic is referenced to the -5V rail, then the logic reference should be connected to -5V. The logic reference pin sources about 60µA and this will rise to about 200µA if all inputs are true (positive). The logic inputs all source up to 10µA when they are held at the logic reference level. When taken positive, the inputs sink a current dependent on the high level, up to 50µA for a high level 5V above the reference level. The logic inputs, if not used, should be tied to the appropriate voltage in order to define their state. Control Reference and Signal Reference Analog control voltages are required to set the equalizer and contrast levels. These signals are voltages in the range 0V to 1V, which are referenced to the control reference pin. It is expected that the control reference pin will be tied to 0V and the control voltage will vary from 0V to 1V. It is; however, acceptable to connect the control reference to any potential between -5V and 0V to which the control voltages are referenced. The control voltage pins themselves are high impedance. The control reference pin will source between 0µA and 200µA depending on the control voltages being applied. 9 50 75 85 100 125 150 AMBIENT TEMPERATURE (°C) AMBIENT TEMPERATURE (°C) FIGURE 23. PACKAGE POWER DISSIPATION vs AMBIENT TEMPERATURE 25 FIGURE 24. PACKAGE POWER DISSIPATION vs AMBIENT TEMPERATURE The control reference and logic reference effectively remove the necessity for the 0V rail and operation from ±5V (or 0V and 10V) only is possible. However we still need a further reference to define the 0V level of the single ended output signal. The reference for the output signal is provided by the 0V pin. The output stage cannot pull fully up or down to either supply so it is important that the reference is positioned to allow full output swing. The 0V reference should be tied to a 'quiet ground' as any noise on this pin is transferred directly to the output. The 0V pin is a high impedance pin and draws DC bias currents of a few µA and similar levels of AC current. Equalizing When transmitting a signal across a twisted pair cable, it is found that the high frequency (above 1MHz) information is attenuated more significantly than the information at low frequencies. The attenuation is predominantly due to resistive skin effect losses and has a loss curve which depends on the resistivity of the conductor, surface condition of the wire and the wire diameter. For the range of high performance twisted pair cables based on 24awg copper wire (CAT-5 etc). These parameters vary only a little between cable types and in general cables exhibit the same frequency dependence of loss. (The lower loss cables can be compared with somewhat longer lengths of their more lossy brothers.) This enables a single equalizing law equation to be built into the ISL59913. With a control voltage applied between pins VCTRL and VREF, the frequency dependence of the equalization is shown in Figure 8. The equalization matches the cable loss up to about 100MHz. Above this, system gain is rolled off rapidly to reduce noise bandwidth. The roll-off occurs more rapidly for higher control voltages, thus the system (cable + equalizer) bandwidth reduces as the cable length increases. This is desirable, as noise becomes an increasing issue as the equalization increases. FN6406.0 December 15, 2006 ISL59910, ISL59913 2 BLUE CM OUT (CH A) VOLTAGE (0.5V/DIV) By varying the voltage between pins VGAIN and VREF, the gain of the signal path can be changed in the ratio 4:1. The gain change varies almost linearly with control voltage. For normal operation it is anticipated the X2 mode will be selected and the output load will be back matched. A unity gain to the output load will then be achieved with a gain control voltage of about 0.35V. This allows the gain to be trimmed up or down by 6dB to compensate for any gain/loss errors that affect the contrast of the video signal. Figure 26 shows an example plot of the gain to the load with gain control voltage. an internal logic decoding block to provide Horizontal and Vertical sync output signals (HOUT and VOUT). GREEN CM OUT (CH B) RED CM OUT (CH C) VSYNC VOLTAGE (2.5V/DIV) Contrast HSYNC 1.8 TIME (0.5ms/DIV) GAIN (V) 1.6 FIGURE 26. H AND V SYNCS ENCODED 1.4 TABLE 1. H AND V SYNC DECODING 1.2 RED CM GREEN CM BLUE CM HSYNC VSYNC 0.8 Mid High Low Low Low 0.6 High Low Mid Low High Low High Mid High Low Mid Low High High High 1 0.4 0 0.2 0.4 0.6 0.8 1 VGAIN FIGURE 25. VARIATION OF GAIN WITH GAIN CONTROL VOLTAGE Common Mode Sync Decoding The ISL59910 features common mode decoding to allow horizontal and vertical synchronization information, which has been encoded on the three differential inputs by the EL4543, to be decoded. The entire RGB video signal can therefore be transmitted, along with the associated synchronization information, by using just three twisted pairs. NOTE: Level ‘Mid’ is halfway between ‘High’ and ‘Low’ Power Dissipation The ISL59910 and ISL59913 are designed to operate with ±5V supply voltages. The supply currents are tested in production and guaranteed to be less than 39mA per channel. Operating at ±5V power supply, the total power dissipation is: V OUTMAX PD MAX = 3 × 2 × V S × I SMAX + ( V S - V OUTMAX ) × ---------------------------R L Decoding is based on the EL4543 encoding scheme, as described in Figure 26 and Table 1. The scheme is a three-level system, which has been designed such that the sum of the common mode voltages results in a fixed average DC level with no AC content. This eliminates the effect of EMI radiation into the common mode signals along the twisted pairs of the cable where: The common mode voltages are initially extracted by the ISL59910 from the three input pairs. These are then passed to • IMAX = Maximum quiescent supply current per channel = 39mA (EQ. 1) • PDMAX = Maximum power dissipation • VS = Supply voltage = 5V • VOUTMAX = Maximum output voltage swing of the application = 2V RL = Load resistance = 150Ω Ω (EQ. 2) PD MAX = 1.29W θJA required for long term reliable operation can be calculated. This is done using Equation 3: 10 FN6406.0 December 15, 2006 ISL59910, ISL59913 Where ( Tj – Ta ) θ JA = ----------------------- = 50.4CW PD (EQ. 3) Tj is the maximum junction temperature (+150°C) Ta is the maximum ambient temperature (+85°C) For a QFN 28 package in a properly layout PCB heatsinking copper area, +37°C/W θJA thermal resistance can be achieved. To disperse the heat, the bottom heatspreader must be soldered to the PCB. Heat flows through the heatspreader to the circuit board copper then spreads and converts to air. Thus the PCB copper plane becomes the heatsink. This has proven to be a very effective technique. A separate application note details the 28 Ld QFN. PCB design considerations are available. 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 11 FN6406.0 December 15, 2006 ISL59910, ISL59913 QFN (Quad Flat No-Lead) Package Family MDP0046 QFN (QUAD FLAT NO-LEAD) PACKAGE FAMILY (COMPLIANT TO JEDEC MO-220) A SYMBOL QFN44 QFN38 D N (N-1) (N-2) B 1 2 3 PIN #1 I.D. MARK E (N/2) 2X 0.075 C 2X 0.075 C N LEADS TOP VIEW QFN32 TOLERANCE NOTES A 0.90 0.90 0.90 0.90 ±0.10 - A1 0.02 0.02 0.02 0.02 +0.03/-0.02 - b 0.25 0.25 0.23 0.22 ±0.02 - c 0.20 0.20 0.20 0.20 Reference - D 7.00 5.00 8.00 5.00 D2 5.10 3.80 5.80 3.60/2.48 E 7.00 7.00 8.00 E2 5.10 5.80 5.80 4.60/3.40 e 0.50 0.50 0.80 L 0.55 0.40 0.53 Basic - Reference 8 6.00 Basic - Reference 8 0.50 Basic - 0.50 ±0.05 - N 44 38 32 32 Reference 4 ND 11 7 8 7 Reference 6 NE 11 12 8 9 Reference 5 0.10 M C A B (N-2) (N-1) N b L PIN #1 I.D. 3 1 2 3 (E2) (N/2) NE 5 7 (D2) BOTTOM VIEW 0.10 C e C SYMBOL QFN28 QFN24 QFN20 QFN16 TOLERANCE NOTES A 0.90 0.90 0.90 0.90 0.90 ±0.10 - A1 0.02 0.02 0.02 0.02 0.02 +0.03/ -0.02 - b 0.25 0.25 0.30 0.25 0.33 ±0.02 - c 0.20 0.20 0.20 0.20 0.20 Reference - D 4.00 4.00 5.00 4.00 4.00 Basic - D2 2.65 2.80 3.70 2.70 2.40 Reference - E 5.00 5.00 5.00 4.00 4.00 Basic - E2 3.65 3.80 3.70 2.70 2.40 Reference - e 0.50 0.50 0.65 0.50 0.65 Basic - L 0.40 0.40 0.40 0.40 0.60 ±0.05 - N 28 24 20 20 16 Reference 4 ND 6 5 5 5 4 Reference 6 NE 8 7 5 5 4 Reference 5 Rev 10 12/04 SEATING PLANE NOTES: 0.08 C N LEADS & EXPOSED PAD 1. Dimensioning and tolerancing per ASME Y14.5M-1994. SEE DETAIL "X" 2. Tiebar view shown is a non-functional feature. 3. Bottom-side pin #1 I.D. is a diepad chamfer as shown. SIDE VIEW 4. N is the total number of terminals on the device. 5. NE is the number of terminals on the “E” side of the package (or Y-direction). (c) C 2 6. ND is the number of terminals on the “D” side of the package (or X-direction). ND = (N/2)-NE. A (L) A1 N LEADS DETAIL X 12 7. Inward end of terminal may be square or circular in shape with radius (b/2) as shown. 8. If two values are listed, multiple exposed pad options are available. Refer to device-specific datasheet. FN6406.0 December 15, 2006