3.3/5V, High-Speed RS-485/422 Transceivers with High Temperature Range February 2013 GENERAL DESCRIPTION The HI-485xH devices are high-speed slew-rate controlled TIA-485/ TIA-422-B and ISO 8482:1993 compliant transceivers with extended temperature ranges of -55˚C to 175˚C for plastic packages and -55˚C to 200˚C for the ceramic CERDIP-8 package. The devices can operate over an extended supply (3.15V to 5.5V) and extended receiver common-mode range for high temperature and industrial control applications. The receiver input commonmode range of [-12, 15]V and ±20V for the half and full duplex configurations respectively, is valid over the full supply and temperature specification. The HI-4853H has a half-duplex configuration, and the HI-4854H and HI-4855H are full-duplex. Slew rates are optimized for data rates below 25Mbps. The drivers slewrate control and pre-emphasis reduces high-frequency components in the output signal transitions and also compensates for impedance mismatch. These features provide optimum EMI and jitter performance, essential in EMI sensitive environments and high-integrity data link applications such as in aerospace and industrial controls. The devices deliver at least ± 1.50V (VDD=3.15V), and ± 2.00V (VDD= 4.5V) output levels at an extended temperature range of -55°C to +200°C into a differential load of 54Ω and 50pF. The receiver offers true Fail-Safe operation, providing a guaranteed logic high on RO when the bus is open-circuit, shortcircuit, or idle (terminated but not driven). The receiver’s worst case minimum input resistance is at least 70KΩ at 200oC. FEATURES Extended Temperature Ranges -55°C to 175°C (plastic packages) and -55°C to 200°C (ceramic CERDIP-8 package) Slew Rate Control and Pre-Emphasis for superior EMI Extended Power Supply Operating Range 3.15V to 5.5V Extended Receiver Common-Mode Range: -12.0V to 15.0V Half-Duplex ±20V Full-Duplex ESD Protection ±16KV HBM (Bus Pins) ±8KV HBM (Logic Pins) 20 Mbps Data Rate up to 50 ft. CAT-5 UTP 12 Mbps Data Rate up to 1000 ft. CAT-5 UTP Current Limiting Protection Industry Standard 75176 Pin-out PIN CONFIGURATIONS (Top Views) 8 - VDD RO - 1 RE - 2 DE - 3 HI-4853PSHF HI-4853CRH 7-B 6-A DI - 4 5 - GND VDD - 1 RO - 2 APPLICATIONS DI - 3 Extended Temperature Range RS-485/422 Networks Oil exploration / down-hole drilling Process Control and Factory Automation EMI Emission Sensitive Avionics Industrial Field Bus Networks Networks requiring extended common-mode range Miniature Munitions Stores Interface (MMSI / EBR-1553) Device Selection Table Part Half/Full Number Duplex HI-4853 Half HI-4854 Full HI-4855 Full Data Rate (Mbps)* Package ≤ 20.0 8-pin SOIC ≤ 20.0 8-pin SOIC ≤ 20.0 14-pin SOIC 16-pin QFN 8-A 7-B HI-4854PSHF HI-4854CRH 6-Z GND - 4 5-Y 8-Pin Plastic SOIC package (Narrow Body) & 8-Pin Ceramic CERDIP - 1 14 VDD RO 2 13 - RE 3 12 A DE 4 HI-4855PSHF 11 B DI 5 10 Z GND 6 9 Y GND 7 8 - 14-Pin Plastic SOIC package (Narrow Body) * For RS-485 Transceivers optimized for data rates up to 5Mbps please refer to the HI-4850 data sheet. (DS4853H Rev. A) HOLT INTEGRATED CIRCUITS www.holtic.com 02/13 HI-4853H PIN DESCRIPTIONS SIGNAL FUNCTION DESCRIPTION Receiver Output. If VID ≥ -50mV, then RO is high. If VID < -150mV then RO is low. If the bus is shorted, open or terminated but not driven by another terminal, RO will be high. __ __ Receiver Enable. RE= Low enables the receiver. RE High forces the receiver output (RO) into a high impedance state. Internal 450KΩ pull-down resistor RO OUTPUT __ RE INPUT DE INPUT DI INPUT GND A, Y B, Z POWER ANALOG I/O ANALOG I/O POWER VDD Driver Enable. DE = high enables the driver. DE = low will force the driver __output into a high impedance state and the device will function as a line receiver if RE is also low. Internal 450KΩ pull-up resistor Driver Input. Forces the logic state of the Driver’s output, if Driver is enabled. Internal 450KΩ pull-up resistor Chip ground, 0V Supply Non-inverting Receiver Input / Driver Output. Inverting Receiver Input / Driver Output. Positive Supply: 3.15V ≤ VDD ≤ 5.5V RX FUNCTION TABLE TX FUNCTION TABLE TRANSMITTING INPUTS RE DE DI 1 1 X 1 X 0 0 0 X 1 0 X LINE CONDITION Transmit logic high Transmit logic low Disable Shutdown RECEIVING OUTPUTS B A 0 1 1 0 Hi-Z Hi-Z Hi-Z Hi-Z INPUTS __ RE DE 0 0 0 X 0 X 0 0 0 0 1 1 1 0 Typical Operating Circuit RO VDD RX DI RX X 1 0 1 1 Hi-Z Hi-Z RO RE A GND GND A HI-4853H X X OUTPUT OPERATION RO RT A TX -50mV ≤ VID VID ≤ -150mV Open or Shorted Idle and terminated B RT DE -150mV < VID < -50mV VDD B RE BUS PINS VID = VA - VB B HI-4853H B DE TX DI A HI-4853H HI-4853H Short unterminated stubs Figure 1 - Typical half-duplex configuration A VDD RT RX RO DI RT Z Z B RT Y GND TX B TX GND Y RT DI RO RX A VDD HI-4854H HI-4854H Figure 2 - Typical full-duplex 8-pin configuration HOLT INTEGRATED CIRCUITS 2 Undefined Input Receiver logic high Receiver logic low Default Default Disabled Shutdown HI-4853H ABSOLUTE MAXIMUM RATINGS (Voltages referenced to GND = 0V) Supply Voltage, VDD:...............................................................................7 V Control Input Currents: ...................................................-100mA to 100mA Control Input Voltages:..................................................-0.5V to VDD + 0.5V __ -0.5V to VDD + 0.5V Digital Input Voltages (DI, DE, RE):................................. Bus Voltage (AY, BZ):............................................................................±25V Digital Output Voltage (RO):............................................... -0.5V to V + 0.5V Short-Circuit Duration, Driver (V: ±15V).....................................................∞ ESD (Human Body Model): AY, BZ,VDD,GND pins:.......................................................±16KV __ DI, DE, RE, RO pins:.............................................................±8KV Operating Temperature Range:(Plastic)...........................-55°C to +175°C (Ceramic)........................-55°C to +200°C Internal Power Dissipation:..............................................................900mW Storage Temperature Range: .........................................-65°C to +150°C Solder Temperature: (Reflow)............................................260°C NOTE: Stresses above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. These are stress ratings only. Functional operation of the device at these or any other conditions above those indicated in the operational sections of the specifications is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. SPECIFIED OPERATING CONDITIONS PARAMETERS SYMBOL LIMITS CONDITIONS VDD Supply Voltage Temperature T VOCM TX Common-Mode Bus Loading RX Input Common-Mode Voltage Differential Load Resistance Differential Load Capacitance Digital Input High Voltage Digital Input Low Voltage Digital Input Current high Digital Input Pull-Down Current Digital Input Current low Digital Input Pull-Up Current VICM RL CL VIH VIL IIH IPD IIL IPU See Figure 4 Half-Duplex MIN TYP 3.15 -55 3.3/5.0 V 5.5 175/200 ˚C -7 12 V -16 20 V ∞ Ω pF %VDD 30 1 %VDD μA μA 54 __ DE, DI, RE __ DE, DI, RE DE, __DI, VIH = VDD RE, __ VIH = VDD RE, VIH = 0 DE, DI, VIH = 0V UNIT MAX 60 100 70 6 24 μA -1 -6 -24 μA DRIVER DC ELECTRICAL CHARACTERISTICS VDD = 3.15V to 3.6V or 4.5V to 5.5V; Operating Temperature Range; MIN and MAX values are at range boundaries PARAMETER Differential Output Voltage with no load Differential Output Voltage into load with no common-mode voltage Differential Output Voltage into load with applied common-mode voltage Differential Output Over/Under Shoot Change in Differential Output Voltage between logic states Output Common-Mode Voltage Change in output Common-Mode Voltage between logic states Bus Pin Leakage Current (High-Z Power On) Bus Pin Leakage Current (Power Off) SYMBOL CONDITIONS FIGURE |VOD1| RL = ∞ 3 |VOD2| RL = 54Ω, CL = 50pF |VOD3| -7V ≤ VOCM ≤ 12V VDD = 3.15V to 3.6V VDD = 5.0V ± 10% MIN VDD -0.1 VDD VDD -0.1 VDD V 3 1.5 3.0 2.45 4.0 V 4 1.2 3.0 2.0 4.0 V 3.2 %VOD 125 mV 3.0 V TYP TYP UNIT MAX MIN 5.5 MAX 125 -125 2.0 2.15 -125 125 -150 150 mV -200 200 -200 200 μA IOHZ2 DE=0, -12V≤ VOCM ≤ 15V DE=0, -12V≤ VOCM ≤ 15V VOCM = ±15V -200 200 -200 200 μA ISCPK DE = VDD, Bus Pin = ±15 -230 230 -250 250 mA Steady State Short Circuit Current ISC DE = VDD, Bus Pin = ±15 0 50 0 50 μA Differential Output Capacitance COD 16 pF Peak Short Circuit Current ∆VOD RL = 54Ω, CL = 50pF 3 -125 VOCM RL = 54Ω, CL = 50pF 4 1.15 ∆VOCM RL = 54Ω, CL = 50pF 4 IOHZ1 1.60 DE = 0 16 Static Supply Current IDD DE=VDD, RE=0, RL=∞ 8 Supply Current (Shutdown) IDDQ DE=0, RE=VDD, RL=∞ 90 HOLT INTEGRATED CIRCUITS 3 2.45 10 10 12 mA 110 125 400 μA HI-4853H HI-4850 DRIVER SWITCHING CHARACTERISTICS VDD 3.6Voror4.5V 4.5V – 5.5V noted, Operatingtemperature temperaturerange. range VDD = = 3.15V 3.0V - – 3.6V - 5.5V asas noted , Operating PARAMETER VDD 3.6V VDD==3.15V 3.3V ±–10% SYMBOL CONDITIONS FIGURE Propagation Delay Low - to - High tPDR RL = 54. CL=50pF Propagation Delay High - to - Low tPDF RL = 54, CL=50pF Differential Rise Time tr RL = 54, CL=50pF 5&6 90 9 105 12 Differential Fall Time tf RL = 54, CL=50pF 5&6 9 90 12 105 Output Pulse Skew tMSK RL = 54, CL=50pF 5&6 2 Driver Enable to Output High tZH RL = 500, CL=50pF 7 Driver Enable to output Low tZL RL = 500, CL=50pF Driver Disable from Output High tHZ Driver Disable from Output Low Shutdown to Active Output Delay Shutdown Delay tOFF VDD = 5.0V ± 10% UNIT MIN TYP MAX MIN TYP MAX 5&6 110 17 145 26 33 200 16 108 24 150 30 205 ns 5&6 110 17 145 26 200 33 108 16 24 150 30 205 ns 120 15 115 8 11 135 16 155 ns 15 120 8 115 11 135 16 125 ns 8 2 8 ns 95 120 90 117 ns 7 95 120 90 117 ns RL = 500, CL=50pF 7 20 33 18 30 ns tLZ RL = 500, CL=50pF 7 20 33 18 30 ns tON RL = 500, CL=50pF 7 10 10 µs 8 10 10 µs RECEIVER DC ELECTRICAL CHARACTERISTICS VDD == 3.0V 3.15V- 3.6V – 3.6V 4.5V – 5.5V noted, Operatingtemperature temperaturerange. range VDD or or 4.5V - 5.5V as as noted , Operating PARAMETER SYMBOL Differential Input Threshold Voltage VTH Input Hysteresis VHYS Input Resistance RIN CONDITIONS FIGURE -15V ≤ VICM ≤ +15V≤ -12 ≤ VICM ≤ +15 -12V ≤ VICM ≤ +15V≤ VICM = 0V ≤ +15V≤ VDD-20V VICM -12 ≤ ≤ VICM ≤ +15 -12V ≤ VICM ≤ +15V≤ RO Output High Level VOH +200mV VVIDICM==+200mV = -2.0mA @ 200oC IOUTIOUT = -5.0mA RO Output Low Level VOL -200mV IDICM VV = =-200mV OUT = 5.0mA +2.0mA @ 200oC IOUTI= RO Output Hi-Z Leakage Current IOZH 0V ≤ VRO ≤ VDD ≤ VDD==3.15V 3.3V ±–10% VDD 3.6V MIN TYP MAX -200 -100 -50 17 20 28 25 33 30 70 80 92 90% VDD = 5.0V ± 10% TYP MAX -200 -100 -50 mV mV 17 20 28 25 33 30 mV 80 70 92 K K 90% VDD 10% -1 1 UNIT MIN -1 10% VDD 1 µA RECEIVER SWITCHING CHARACTERISTICS VDD == 3.0V 3.15V- 3.6V – 3.6V 4.5V – 5.5V noted, Operatingtemperature temperaturerange. range VDD or or 4.5V - 5.5V as as noted , Operating PARAMETER SYMBOL CONDITIONS FIGURE Propagation Delay Low - to - High tRPDR VID = +1.5V, CL=15pF 9 8 Propagation Delay High - to - Low VDD 3.6V VDD == 3.15V 3.3V ±–10% VDD = 5.0V ± 10% UNIT MIN TYP MAX MIN TYP MAX 20 26 32 20 26 32 ns tRPDF VID = -1.5V, CL=15pF 98 20 26 32 20 26 32 ns RO Output Rise Time tRr VID = +1.5V, CL=15pF 9 8 1.1 1.9 3.3 1.1 1.9 3.3 ns RO Output Fall Time Output Pulse Skew tRf 8 9 9 8 1.1 1.9 0.8 3.3 1.6 1.1 tRMSK VID = -1.5V, CL=15pF VID = +1.5V, CL=15pF 1.9 0.8 3.3 1.6 ns ns Receiver Enable to RO Output High tRZH RL = 1K, CL =15pF 7 9 12 16 12 16 ns Receiver Enable to output Low tRZL RL = 1K, CL =15pF 7 9 12 16 12 16 ns Receiver Disable from Output High tRHZ RL = 1K, CL=15pF 7 9 6 10 6 10 ns Receiver Disable from Output Low tRLZ RL = 1K, CL =15pF 97 6 10 6 10 ns Shutdown to RO Active Output Delay tRON RL = 1K, CL =15pF 7 9 5 µs Shutdown Delay to RO HiZ tROFF RL = 1K, CL =15pF 9 7 60 100 60 100 ns HOLT INTEGRATED INTEGRATED CIRCUITS CIRCUITS 4 5 HI-4853H TEST CIRCUITS DE + AY DI |VOD| TX 54Ω 50pF BZ Figure 3 - Driver DC Characteristics ( VOD1, VOD2, and ∆VOD) DE DE + AY DI |VOD3| TX + 27Ω 50pF BZ AY VOCM DI |VOD3| TX 60Ω BZ 27Ω - 375Ω 375Ω - Figure 4 - Driver DC Characteristics with and without Common-Mode Loading ( VOCM, VOD3, and ∆VOD) DE 12Mbps 1Mpbs DI AY TX 50pF 54Ω BZ Figure 5 - Driver Switching Characteristics (tPDR, tPDF, tr and tf) VDD DI 1.5V 1.5V 0V t PDR 1/2V O t PDF BZ VO AY 1/2V O t MSK VO VOD = V(AY) - V(BZ) 90% t MSK 90% 0V -VO 10% tr Figure 6. Driver Switching Waveforms HOLT INTEGRATED CIRCUITS 5 10% tf VOCM HI-4853H HI-4850 1MHz 12Mbps DE GND / VDD DI AY 50pF BZ 50pF VDD / GND TX GND / V DD VDD DE 50% 50% 0V t ZL t LZ VDD AY, BZ VDD /2 OUTPUT NORMALLY LOW VDD /2 OUTPUT NORMALLY HIGH 0.5V V OL V OH AY, BZ 0.5V 0V t ZH t HZ Figure7.8. Driver Enable / Disable Switching Figure 1Mbps 12Mbps RE AY RX RO 15pF BZ V OD2 0V AY - BZ 0V INPUT -V OD2 t PHL t PLH V OH VDD/2 RO V OL VDD/2 OUTPUT Figure Figure8. 9. Receiver Propagation Delays 1MHz 12Mbps +200 mV / -200 mV RE AY RX BZ RO VDD / GND 15pF 3V RE 1.5V 1.5V 0V t ZL t LZ 5V RO 2.5V OUTPUT NORMALLY LOW 0.5V 2.5V OUTPUT NORMALLY HIGH 0.5V V OL V OH RO 0V t ZH t HZ Figure 10. 9. Receiver Enable and Disable Times HOLT INTEGRATED CIRCUITS 6 HI-4853H EXTENED COMMON-MODE PERFORMANCE CHARACTERISITICS RX Extended Common-Mode Range: Typical Supply, Maximum (-) Common-Mode VDD = 3.3V Tbit = 50ns TA = 27˚C RX Extended Common-Mode Range: Typical Supply, Maximum (+) Common-Mode B B A A VDD = 5.0V Tbit = 50ns TA = 27˚C A-B A-B Input CM = +21V Input CM = -16V RO 20Mbps 20Mbps RO RX Extended Common-Mode Range: Maximum Supply, Maximum (-) Common-Mode RX Extended Common-Mode Range: Maximum Supply, Maximum (+) Common-Mode A A B B A-B A-B VDD = 5.5V Tbit = 50ns TA = 27˚C VDD = 5.5V Tbit = 50ns TA = 27˚C RO 20Mbps RO Input CM = +21V Input CM = -15V RX Extended Common-Mode Range: Minimum Supply, Maximum (-) Common-Mode VDD = 3.0V Tbit = 100ns TA = 27˚C RX Extended Common-Mode Range: Minimum Supply, Maximum (+) Common-Mode A A B B A-B A-B RO Input CM = -16V VDD = 3.0V Tbit = 100ns TA = 27˚C Input CM = +22V RO HOLT INTEGRATED CIRCUITS 7 HI-4853H High-Speed Performance Characteristics Over Distance 10Mbps Data Pulse Over 1000ft 2 CAT-5 UTP 12Mbps Data Pulse Over 1000ft 2 CAT-5 UTP 2V/DIV 2V/DIV VDD = 3.0V fdata = 10Mbps TA = 27˚C DITX DITX BTX BTX ATX ATX 100ns/DIV 100ns/DIV RORX RORX VDD = 3.0V fdata = 12Mbps TA = 27˚C 20Mbps Data Pulse Over 1000ft 2 CAT-5 UTP 2V/DIV DITX BTX ATX VDD = 3.0V fdata = 20Mbps TA = 27˚C 100ns/DIV RORX 20Mbps Data Over 250ft CAT-5 UTP 20Mbps Data Over 250ft CAT-5 UTP DITX 2V/DIV 2V/DIV BTX BTX VDD = 3.0V fdata = 20Mbps TA = 27˚C ATX 50ns/DIV VDD = 3.0V fdata = 20Mbps TA = 27˚C RORX HOLT INTEGRATED CIRCUITS 8 ATX 50ns/DIV RORX HI-4853H PERFORMANCE CHARACTERISTICS OVER SUPPLY AND TEMPERATURE TX Differential Rise/Fall Time vs. Temperature 13 VDD = 5.5V 12 Tbit = 100ns RL = 54Ω CL = 50pF 11 VDD = 3.0V 10 9 -55 -30 -5 20 45 70 TX Differential Rise/Fall Time vs. Temperature TX Propagation Delay (ns) TX Rise/Fall Time (ns) 14 95 74 69 VDD = 5.5V 64 Tbit = 100ns RL = 54Ω CL = 50pF 59 VDD = 3.0V 54 49 -55 120 -30 -5 20 45 70 95 120 TEMPERATURE (˚C) TEMPERATURE (˚C) TX Propagation Delay (ns) TX Differential Zero To Peak Amplitude 3.5 VDD = 5.5V 3 Tbit = 100ns RL = 54Ω CL = 50pF 2.5 2 VDD = 3.0V 1.5 -55 -30 -5 20 45 70 95 120 TEMPERATURE (˚C) RX Propagation Delay vs. Common-Mode RX Propagation Delay (ns) RX Propagation Delay (ns) RX Propagation Delay vs. Temperature 60 55 50 VDD = 3.0V 45 40 Tbit = 100ns CL = 15pF VDD = 5.5V 35 30 -55 -30 -5 20 45 70 TEMPERATURE (˚C) 95 120 49 48 47 46 45 Tbit = 100ns VDD = 3.3V T = 27˚C CL = 14pF 44 43 42 41 -15 -10 -5 0 5 10 Input Common-Mode (V) HOLT INTEGRATED CIRCUITS 9 15 20 HI-4853H TYPICAL TRANSCEIVER PERFORMANCE CHARACTERISITICS Typical 20Mb/s Operation: RL = 54Ω; CL = 50pF Typical 10Mb/s Operation: RL = 54Ω; CL = 50pF Single 4853 Device Single 4853 Device DI DI B B A A 2V/DIV VDD = 3.3V fdata = 10Mbps TA = 27˚C 2V/DIV VDD = 3.3V fdata = 20Mbps TA = 27˚C 100ns/DIV 50ns/DIV RO RO Typical 10Mb/s Operation: RL = 54Ω; CL = 50pF Typical 20Mb/s Operation: RL = 54Ω; CL = 50pF Single 4853 Device VDD = 5.0V fdata = 10Mbps TA = 27˚C Single 4853 Device DI DI B B A A 5V/DIV 100ns/DIV VDD = 5.0V fdata = 20Mbps TA = 27˚C RO 5V/DIV 50ns/DIV RO RX Output Jitter Over CM and Input Amplitude (3.0V) 0.6 0.45 Timing Jitter: 0.5UI = 50nsPK-PK Resulting in a 5% Duty Error 0.5 0.4 VCM = 0.3 VCM = 0V 0.2 VCM = RX Output Jitter (UI) RX Output Jitter (UI) RX Output Jitter Over CM and Input Amplitude (5.5V) +20V -15V 0.1 Timing Jitter: 0.5UI = 50nsPK-PK Resulting in a 5% Duty Error 0.4 0.35 0.3 VCM 0.25 = +20V 0.2 VCM = 0V VCM = -15V 0.15 0.1 0.05 0 0 0.1 0.6 1.1 1.6 2.1 Input Signal Amplitude (V) 2.6 0.1 HOLT INTEGRATED CIRCUITS 10 0.6 1.1 1.6 2.1 Input Signal Amplitude (V) 2.6 HI-4853H HI-4850 ORDERING INFORMATION HI-485x PS H x (Plastic) LEAD FINISH F 100% Matte Tin (Pb-free, RoHS compliant) PS 8 PIN PLASTIC NARROW BODY SOIC (8HN) (HI-4853, HI-4854): -55˚C to 175˚C PS 14 PIN PLASTIC NARROW BODY SOIC (14HN) (HI-4855 only): -55˚C to 175˚C 4853 HALF DUPLEX TRANSCEIVER 4854 FULL DUPLEX TRANCEIVER ALWAYS ENABLED 4855 FULL DUPLEX TRANSCEIVER WITH ENABLE PINS HI-485x CR H CR 8 PIN CERDIP (8D) not available Pb-free: -55˚C to 200˚C 4853 HALF DUPLEX TRANSCEIVER 4854 FULL DUPLEX TRANCEIVER ALWAYS ENABLED HOLT INTEGRATED CIRCUITS 11 7 HI-4853H REVISION HISTORY Revision DS4853H, Rev. A Rev New Date Description of Change 09/20/2012 Initial Release 02/25/2013 Correct typo on nRE pull-up resistor (should be pull-down). Update Digital Input pull-up/pull-down current. Update differential output voltage and output common mode voltage specs in DC Electrical Characteristics. Update typo in Figure 4 resistors. Update solder temperature (reflow) in Max Ratings. HOLT INTEGRATED CIRCUITS 12 HI-4853H PACKAGE DIMENSIONS 14-PIN PLASTIC SMALL OUTLINE (SOIC) - NB (Narrow Body) Package Type: 14HN .007 ± .003 (.175 ± .075) .341 (8.65) BSC .236 BSC (5.99) inches (millimeters) .154 (3.90) BSC Top View See Detail A .016 ± .004 (.410 ± .100) .069 (1.750) max. .050 BSC (1.27) 0 to 8 .033 ± .017 (.835 ± .435) BSC = “Basic Spacing between Centers” is theoretical true position dimension and has no tolerance. J( EDEC Standard 95) .007 ± .003 (.175 ± .075) Detail A 8-PIN CERDIP inches (millimeters) Package Type: 8D .380 .004 (9.652 .102) .005 min (.127 min) .248 .003 (6.299 .076) .039 .006 (.991 .154) .100 BSC (2.54) .015 min (.381min) .200 max (5.080 max) .314 .003 (7.976 .076) Base Plane .010 .006 (.254 .152) Seating Plane .163 .037 (4.140 .940) .056 .006 (1.422 .152) .018 (.457 .006 .152) BSC = “Basic Spacing between Centers” is theoretical true position dimension and has no tolerance. ( JEDEC Standard 95) HOLT INTEGRATED CIRCUITS 139 .350 .030 (8.890 .762) HI-4853H PACKAGE DIMENSIONS 8-PIN PLASTIC SMALL OUTLINE (SOIC) - NB (Narrow Body) inches (millimeters) Package Type: 8HN .193 BSC (4.90) .007 ± .003 (.175 ± .075) .236 BSC (6.00) PIN 1 .154 BSC (3.90) See Detail A .016 ± .004 (.410 ± .100) .056 ± .006 (1.413 ± .163) 0 to 8 BSC = “Basic Spacing between Centers” is theoretical true position dimension and has no tolerance. J( EDEC Standard 95) .050 BSC (1.27) .033 ± .017 (.835 ± .435) HOLT INTEGRATED CIRCUITS 8 14 .007 ± .003 (.175 ± .075) Detail A