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Partno Mfg Dc Qty AvailableDescript
MC10E446FNON N/a60avai5V ECL 4-Bit Parallel/Serial Converter
MC10H188FNR2MOTN/a597avaiHex Buffer with Enable
MC100E116FNN/a59avaiQUINT DIFFERENTIAL LINE RECEIVER
MC100E122FNN/a374avai5V ECL 9-Bit Buffer
MC100E136FNN/a54avai6-BIT UNIVERSAL UP/DOWN COUNTER
MC100E136FNONN/a518avai6-BIT UNIVERSAL UP/DOWN COUNTER
MC100E142FNMN/a80avai5V ECL 9-Bit Shift Register
MC100E156FNONN/a23avai5V ECL 3-Bit 4:1 Mux-Latch
MC100E158FNONN/a22avai5V ECL 5-Bit 2:1 Multiplexer
MC100E310FNR2MOTN/a500avai2:8 Differential Fanout Buffer
MC100E404FNONN/a101avaiQUAD DIFFERENTIAL AND/NAND
MC100E431FNONN/a2331avai5V ECL 3-Bit Differential Flip-Flop
MC100E451FNR2MOTN/a500avai5V ECL 6-Bit D Register Differential Data and Clock
MC100E452FNR2MOTN/a2500avai5V ECL 5-Bit Differential Register
MC100EL01DONS ?N/a422avai5V ECL 4-Input OR/NOR
MC100EL01DONN/a500avai5V ECL 4-Input OR/NOR
MC100EL01DTONN/a2799avai5V ECL 4-Input OR/NOR
MC100EL04DONN/a895avai2-Input AND/NAND
MC100EL11DTONN/a45avai5V ECL 1:2 Differential Fanout Buffer
mc100EL14DWONN/a2000avai1:5 Clock Distribution Chip
MC100EL33MOTOROLAN/a1780avai5V ECL Divide by 4 Divider
MC100EL34DR2MOTN/a1246avai5V ECL Divide by 2, Divide by 4, Divide by 8 Clock Generation Chip
MC100EL38DWR2ON SemiconductorN/a987avai5V ECL Divide by 2, Divide by 4/6 Clock Generation Chip
MC100EL52DR2MOTN/a900avai5V ECL Differential Data and Clock D Flip-Flop
MC100EL57MOTOROLAN/a1258avai5V ECL 4:1 Differential Multiplexer
MC100EL57DONN/a50avai5V ECL 4:1 Differential Multiplexer
MC100EL57DR2ON ?N/a158avai5V ECL 4:1 Differential Multiplexer
MC100EL57DR2ONN/a122avai5V ECL 4:1 Differential Multiplexer
MC100EL58DN/a141avai5V ECL 2:1 Multiplexer
MC100EL90DWR2ONN/a1000avai-3.3V / -5V Triple ECL Input to PECL Output Translator
MC100EP140DMOTN/a85avai3.3V ECL Phase-Frequency Detector
MC100ELT23DONN/a2500avai5V Dual Differential PECL to TTL Translator
MC100ELT23DR2MOTOROLAN/a13715avai5V Dual Differential PECL to TTL Translator
MC100ELT24DR2N/a2378avai5V TTL to Differential ECL Translator
MC100ELT25DR2MOTN/a10000avaiDifferential -5V ECL To TTL Translator
MC100ELT28DR2ONN/a14avai5V TTL to Differential PECL and Differential PECL to TTL Translator
MC100EP140DR2N/AN/a216avai3.3V ECL Phase-Frequency Detector
MC100EP16DTONN/a6949avai3.3V / 5V ECL Differential Receiver/Driver
MC100EP32DTONN/a7088avai3.3V / 5V ECL ÷2 Divider
MC100EP33DTR2ONN/a155avai3.3V / 5V ECL ÷4 Divider
MC100EP90DTONN/a3675avai3.3V / 5V Triple ECL Input to LVPECL/PECL Output Translator
MC100EPT22DTONN/a100avai3.3V Dual LVTTL/LVCMOS to Differential LVPECL Translator
MC100EPT26DTONN/a77avai1:2 Fanout Differential LVPECL to LVTTL Translator
MC100H643FNONN/a3avai1:8 Clock Driver
MC100H646ONN/a39avaiPECL/TTL-TTL 1:8 Distribution Chip
MC100LVE222ONN/a425avaiLow-voltage 1:15 differential ECL/PECL clock driver
MC100LVE222FAONN/a1402avai3.3V ECL 1:15 Differential ÷1/÷2 Clock Driver
MC100LVEL05NAN/a55avai4-input differential AND/NAND
MC100LVEL05N/a70avai4-input differential AND/NAND
MC100LVEL12DR2ONN/a96avai3.3V ECL Low Impedance Driver
MC100LVEL14ONN/a23avai3.3V ECL 1:5 Clock Distribution Chip
MC100LVEL14DWR2ONN/a1100avai3.3V ECL 1:5 Clock Distribution Chip
MC100LVEL16DN/a64avai3.3V ECL Differential Receiver
MC100LVEL16DR2MOTN/a660avai3.3V ECL Differential Receiver
MC100LVEL16DTONN/a42avai3.3V ECL Differential Receiver
MC100LVEL17ONN/a97avai3.3V ECL Quad Differential Receiver
MC100LVEL38DWN/a278avai3.3V ECL ÷ 2, ÷ 4/6 Clock Generator Chip
MC100LVEL39DWR2ON ?N/a1076avai3.3V ECL ÷ 2/4, ÷ 4/6 Clock Generation Chip
MC100LVEL39DWR2ON SemiconductorN/a677avai3.3V ECL ÷ 2/4, ÷ 4/6 Clock Generation Chip
MC100LVEL39DWR2ONN/a409avai3.3V ECL ÷ 2/4, ÷ 4/6 Clock Generation Chip
NB100LVEP222ONN/a9avai2.5V/3.3V 1:15 Differential ECL/PECL w1/w2 Clock Driver
MC100LVEL92DWONN/a76avai5V Triple PECL Input to LVPECL Output Translator
MC100LVELT23DMOTN/a296avai3.3V Dual Differential LVPECL to LVTTL Translator
MC100LVEP11DR2ONN/a2786avai2.5V / 3.3V ECL 1:2 Differential Fanout Buffer
MC10E101FNONN/a349avaiQuad 4-Input OR/NOR Gate
MC10E107FNR2ONN/a2470avai5V ECL Quint 2-Input XOR/XNOR Gate
MC10E111FNR2ONN/a970avai5V ECL 1:9 Differential Clock Driver
MC10E112MOTN/a61avai5V ECL Quad Driver
MC10E116FNR2ONN/a500avai5V ECL Quint Differential Line Receiver
MC10E136FNR2ONN/a490avai5V ECL 6-Bit Universal Up/Down Counter
MC10E142FNR2ONN/a1967avai5V ECL 9-Bit Shift Register
MC10E150FNR2MOTON/a2000avai5V ECL 6-Bit D Latch
MC10H189MMOTON/a1650avaiHex Inverter with Enable
MC10EL04DR2ONN/a331avai5V ECL 2-Input AND/NAND
MC10EL15ONN/a4avai5V ECL 1:4 Clock Distribution Chip
MC10EL31DR2ONN/a2500avai5V ECL D-Type Flip-Flop with Set and Reset
MC10EL33DTONN/a550avai5V ECL Divide by 4 Divider
MC10EL51DR2MOTN/a3024avai5V ECL Differential Clock D Flip-Flop
MC10ELT20DR2MOTN/a883avaiTTL To Differential PECL Translator
MC10ELT21DR2ONN/a1388avai5V Differential PECL To TTL Translator
MC10ELT22DONN/a1240avai5V Dual TTL to Differential PECL Translator
MC10ELT25DN/a87avaiDifferential -5V ECL to TTL Translator
MC10EP016FAMOTN/a50avai3.3V / 5V ECL 8-Bit Synchronous Binary Up Counter
MC10EP01DTONN/a499avai3.3V / 5V ECL 4-Input OR/NOR
MC10EP08DTMOTOROLA ?N/a10avai3.3V / 5V Differential 2-Input XOR/XNOR
MC10EP11DR2MOTN/a151avai3.3V / 5V 1:2 Differential Fanout Buffer
MC10EP131FAR2ONN/a2000avai3.3V / 5V ECL Quad D Flip Flop with Set, Reset, and Differential Clock
MC10EP17DTR2ONN/a5000avai3.3V / 5V ECL Quad Differential Driver/Receiver
MC10EP445ONN/a185avai3.3V / 5VECL 8-Bit Serial/Parallel Converter
MC10EP446ONN/a31avai3.3V / 5V ECL 8-Bit Differential Parallel/Serial Converter
MC10EP451ONN/a8avai3.3V / 5V ECL 6-Bit Differential Register with Master Reset
MC10EP56MOTON/a65avai3.3V / 5V ECL Dual Differential 2:1 Multiplexer
MC10EP57DTONN/a28avai3.3V / 5V ECL 4:1 Differential Multiplexer
MC10EP58DMOTON/a58avai3.3V / 5V ECL 2:1 Multiplexer
MC10EPT20DMOTON/a11avai3.3V TTL/CMOS to Differential PECL Translator
MC10H016FNR2MOTOROLAN/a5500avai4-Bit Binary Counter
MC10H100MOTON/a600avaiQuad 2-Input NOR Gate With Strobe
MC10H101MMOTON/a1850avaiQuad OR/NOR Gate
MC10H101MELONN/a18000avaiQuad OR/NOR Gate
MC10H103FNR2ONN/a3500avaiQuad 2-Input OR Gate
MC10H105ONN/a51avaiTriple 2-3-2-Input OR/NOR Gate
MC10H106MOTORMLN/a20avaiTriple 4-3-3-Input NOR Gate
MC10H106FNR2ONN/a4000avaiTriple 4-3-3-Input NOR Gate
MC10H107ONN/a826avaiTriple 2-Input XOR/XNOR Gate
MC10H107FNONN/a45avaiTriple 2-Input Exclusive OR/Exclusive NOR Gate
MC10H107MELONN/a1834avaiTriple 2-Input XOR/XNOR Gate
MC10H109FNR2MOTON/a2000avaiDual 4-5-Input OR/NOR Gate
MC10H109MN/a532avaiDual 4-5-Input OR/NOR Gate
MC10H115ONN/a120avaiQuad Line Receiver
MC10H116ON ?N/a57avaiTriple Line Receiver
MC10H116FNR20NN/a500avaiTriple Line Receiver
MC10H116MELMOTOROLAN/a2000avaiTriple Line Receiver
MC10H117FNR2MOTN/a500avaiDual 2-Wide 2-3-Input OR-AND/OR-AND-Invert Gate
MC10H123FNR2MOTON/a1000avaiTriple 4-3-3-Input Bus Driver
MC10H124ON ?N/a15avaiQuad TTL to ECL Translator
MC10H125MELONN/a836avaiQuad ECL to TTL Translator
MC10H125PONN/a13000avaiQuad ECL to TTL Translator
MC10H130FNONN/a201avaiDual Latch
MC10H131FNR2ONN/a96avaiDual Type D Master-Slave Flip-Flop
MC10H136N/a5avaiUniversal Hexidecimal Counter
MC10H141MOTN/a67avai4-Bit Universal Shift Register
MC10H141FNONN/a3avai4-Bit Universal Shift Register
MC10H141PON N/a190avai4-Bit Universal Shift Register
MC10H158FNONN/a3148avaiQuad 2-Input Multiplexer (Non-Inverting)
MC10H158MMOTN/a4avaiQuad 2-Input Multiplexer (Non-Inverting)
MC10H158MONN/a1750avaiQuad 2-Input Multiplexer (Non-Inverting)
MC10H158PONN/a20avaiQuad 2-Input Multiplexer (Non-Inverting)
MC10H159PONN/a3950avaiQuad 2-Input Multiplexer (Inverting)
MC10H162MMOTON/a100avaiBinary to 1-8 Decoder (High)
MC10H162MELMOTN/a1240avaiBinary to 1-8 Decoder (High)
MC10H164FNR2MOTN/a1000avai8-Line Multiplexer
MC10H171ONN/a11avaiDual Binary 1-4 Decoder (Low)
MC10H174ONN/a76avaiDual 4:1 Multiplexer
MC10H186FNR2MOTON/a5500avaiHex D Master-Slave Flip-Flop with Reset
MC10H211MOTN/a13avaiDual 3-Input 3-Output NOR Gate
MC10H330FNR2ONN/a500avaiQuad MSTR
MC10H330FNR2MOTOROLAN/a2000avaiQuad MSTR
MC10H334FNONN/a182avaiQuad Bus Driver/Receiver Translator
MC10H350MOTON/a40avaiPECL To TTL Translator
MC10H350FNR2MOTN/a436avaiPECL To TTL Translator
MC10H424FNR2MOTOROLAN/a1500avaiQuad TTL-ECL Translator
MC10H604FNONN/a110avaiRegistered Hex TTL/ECL Translator
MC10H604FNR2ONN/a6990avaiRegistered Hex TTL/ECL Translator
MC10H640MOTOROLAN/a1avaiECL/TTL Clock Driver
MC10H640ONN/a126avaiECL/TTL Clock Driver
MC10H641FNR2MOTN/a727avai1:9 Clock Driver
MC10H645MOTOROLAN/a3avai1:9 TTL Clock Driver
MC10H646FNONN/a333avaiPECL/TTL-TTL 1:8 Distribution Chip
MC10H680FNN/a142avai4-Bit Differential ECL Bus/TTL Bus Transceiver
MC10LVEP11DR2ONN/a2179avai2.5V / 3.3V ECL 1:2 Differential Fanout Buffer


MC10H101MEL ,Quad OR/NOR Gate2AN1406/Dreduced while maintaining acceptable manufacturing design. After all the inclusion of ECL ..
MC10H101MELG , Quad OR/NOR Gate
MC10H101ML1 ,Quad OR/NOR GateMAXIMUM RATINGSPLCCCASE 775–02Characteristic Symbol Rating UnitPower Supply (V = 0) V –8.0 to 0 Vdc ..
MC10H101ML1 ,Quad OR/NOR Gate**SEMICONDUCTOR TECHNICAL DATA* The MC10H101 is a quad 2–input OR/NOR gate with one input from eac ..
MC10H101ML1 ,Quad OR/NOR GateLOGIC DIAGRAM— Surge 1004 2Operating Temperature Range T 0 to +75 °CA5Storage Temperature Range — P ..
MC10H102 ,Quad 2-Input NOR GateAN1672/DThe ECL Translator GuidePECL • LVPECL • NECL • TTL •LVTTL/LVCMOS • CMOS
MC34072ADR2 ,Single Supply 3V to 44V, Low Input Offset Voltage, Dual Op AmpFeatures SOIC−14D SUFFIX14• Wide Bandwidth: 4.5 MHzCASE 751A1• High Slew Rate: 13 V/s• Fast Settli ..
MC34072ADR2G , Single Supply 3.0 V to 44 V Operational Amplifiers
MC34072ADR2G , Single Supply 3.0 V to 44 V Operational Amplifiers
MC34072AP ,HIGH BANDWIDTH SINGLE SUPPLY OPERATIONAL AMPLIFIERSOrder this document by MC34071/D " ** ** **"** ** *!#HIGH BANDWIDTH** ** *SINGLE SUPPLYQuality bip ..
MC34072D ,Single Supply 3V to 44V, Dual Op AmpMAXIMUM RATINGSRating Symbol Value UnitSupply Voltage (from V to V ) V +44 VEE CC SInput Differenti ..
MC34072DG , Single Supply 3.0 V to 44 V Operational Amplifiers


MC100E116FN-MC100E122FN-MC100E136FN-MC100E142FN-MC100E156FN-MC100E158FN-MC100E310FNR2-MC100E404FN-MC100E431FN-MC100E451FNR2-MC100E452FNR2-MC100EL01D-MC100EL01DT-MC100EL04D-MC100EL11DT-mc100EL14DW-MC100EL33-MC100EL34DR2-MC100EL38DWR2-MC100EL52DR2-MC100EL57-MC
Hex Buffer with Enable
-----The High Speed Solution for the
CMOS/TTL Designer

Prepared by
Cleon Petty
Todd Pearson

ECL Applications Engineering
This application note provides detailed information on designing with Positive Emitter Coupled Logic (PECL) devices.
Introduction

PECL, or Positive Emitter Coupled Logic, is nothing
more than standard ECL devices run off of a positive power
supply. Because ECL, and therefore PECL, has long been
the “black magic” of the logic world many misconceptions
and falsehoods have arisen concerning its use. However,
many system problems which are difficult to address with
TTL or CMOS technologies are ideally suited to the
strengths of ECL. By breaking through the wall of
misinformation concerning the use of ECL, the TTL and
CMOS designers can arm themselves with a powerful
weapon to attack the most difficult of high speed problems.
It has long been accepted that ECL devices provide the
ultimate in logic speed; it is equally well known that the
price for this speed is a greater need for attention to detail in
the design and layout of the system PC boards. Because this
requirement stems only from the speed performance aspect
of ECL devices, as the speed performance of any logic
technology increases these same requirements will hold. As
can be seen in Table 1 the current state–of–the–art TTL and
CMOS logic families have attained performance levels
which require controlled impedance interconnect for even
relatively short distances between source and load. As a
result system designers who are using state–of–the–art TTL
or CMOS logic are already forced to deal with the special
requirements of high speed logic; thus it is a relatively small
step to extend their thinking from a TTL and CMOS bias to
include ECL devices where their special characteristics will
simplify the design task.
Table 1. Relative Logic Speeds
System Advantages of ECL

The most obvious area to incorporate ECL into an
otherwise CMOS/TTL design would be for a subsystem
which requires very fast data or signal processing. Although
this is the most obvious it may also be the least common.
Because of the need for translation between ECL and
CMOS/TTL technologies the performance gain must be
greater than the overhead required to translate back and forth
between technologies. With typical delays of six to seven
nanoseconds for translating between technologies, a
significant portion of the logic would need to be realized
using ECL for the overall system performance to improve.
However, for very high speed subsystem requirements ECL
may very well provide the best system solution.
Transmission Line Driving

Many of the inherent features of an ECL device make it
ideal for driving long, controlled impedance lines. The low
impedance of the open emitter outputs and high input
impedance of any standard ECL device make it ideally
suited for driving controlled impedance lines. Although
designed to drive 50Ω lines an ECL device is equally adept
at driving lines of impedances of up to 130Ω without
significant changes in the AC characteristics of the device.
Although some of the newer CMOS/TTL families have the
ability to drive 50Ω lines many require special driver circuits
to supply the necessary currents to drive low impedance
transmission interconnect. In addition the large output
swings and relatively fast output slew rates of today’s high
performance CMOS/TTL devices exacerbate the problems
of crosstalk and EMI radiation. The problems of crosstalk
and EMI radiation, along with common mode noise and
signal amplitude losses, can be alleviated to a great degree
with the use of differential interconnect. Because of their
architectures, neither CMOS nor TTL devices are capable of
differential communication. The differential amplifier input
structure and complimentary outputs of ECL devices make
them perfectly suited for differential
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