NEW DATABASE - 350 MILLION DATASHEETS FROM 8500 MANUFACTURERS
NEW DATABASE - 350 MILLION DATASHEETS FROM 8500 MANUFACTURERS
| Catalog Datasheet Results | Type | Document Tags |
| Abstract: of storage bits, the SRAM cell and D flip-flop performed similarly. Both the SRAM and D flip-flop , section around 1.0E-9 cm2/bit. Note the LET values of the SRAM and D flip-flop begin to roll-off at a LET of 40 MeV-cm2/mg while the "first-event" observed within a "hard" flip-flop did Page 2 of 6 , Description (October 1992) for examples of obtaining error rates. While the SRAM cell and the D flip-flop , , dual-path "hard" flip-flop cell, and a static memory cell. The test device consisted of three circuits ... | Original |
6 pages, |
Upset "radhard" overview Structure of D flip-flop datasheet abstract |
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| Abstract: binary ripple counter. This means that only one flip-flop in the FPGA must toggle at the incoming frequency. This flip-flop is carefully placed near the input pin and near the clock input. The use of a , operation. Conclusion By paying close attention to the requirements and the structure of your system, you , counter with a maximum frequency input of 400 MHz. When the input frequency is below 10 MHz, current , between digits. This takes advantage of the 4-input look-up-table architecture, while also minimizing ... | Original |
1 pages, |
Xilinx lcd XC4002XL XC4000XL Structure of D flip-flop 6-DIGIT RIPPLE COUNTER 4 digit lcd display for watch 4 Digit counter MHz frequency counter XC4002XL abstract |
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| Abstract: 3.5 tPHL 1.5 1.8 2.1 2.4 3 FIId-FIops DFBTNN D Flip-Flop (Clock - Q) tPLH 2.9 3.3 3.6 4 4.7 tPHL 4.2 4.6 5 5.4 6.3 ts 2.5 2.5 2.5 2.5 2.5 tH 0 0 0 0 0 DFBTNB D Flip-Flop with Set , Flip-Flop with Clear D Flip-Flop with Clear, Preset, Buffered Clock Buffered D Flip-Flop with Clear, Preset Buffered D Flip-Flop with Clear, Preset, 3-State Output D Flip-Flop with Clear, Buffered Clock Buffered D Flip-Flop with Clear Buffered D Flip-Flop with Clear, 3-State Output D Flip-Flop with Buffered ... | OCR Scan |
6 pages, |
A10-024 A10-084 full subtractor circuit using and gates full subtractor circuit nand gates d flip flop CGA10-037 synchronous counter using 4 flip flip Flip flop JK cmos preset resistor 10k 1-Bit full adder CGA10 CGA10 abstract |
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| Abstract: 9926 JK FLIP-FLOP ELEMENT TEMPERATURE RANGES -55°C TO +125°C (FÜLL RANGE) 0°C TO +100°C (MID RANGE) FAIRCHILD PLANAR* EP!TAX!AL MICROLOG IC® INTEGRATED CIRCUITS JK FLIP-FLOP DESCRIPTION The Fairchild JK Flip-Flop is a complete, general purpose, storage element suitable for use in shift registers, counters or any type of control function. The JK Flip-Flop differs from ordinary RS Flip-Flops in that no , operation of the JK Flip-Flop in binary counters, as no external feedback connections are required. The ... | OCR Scan |
6 pages, |
nixie clock ML9926 Flip-Flop on off 9926 2N2368 2N1990 FD600 fairchild micrologic COUNTER MODULO 504 datasheet abstract |
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| Abstract: A FACT PROGRAM PRODUCT • SEPTEMBER 1965 • SL-72 SL-72 ID r>o en u * O â- D Fl I- m m z 926 JK FLIP-FLOP , state to toggle (reverse). This feature enhances the operation of the JK Flip-Flop in binary counters , before the CP transition. I fiSSTRtCJ~£D *"* O 3.00 V SENSE 4 Mc 2 FAIRCHILD MICROLOGIC 926 JK FLIP-FLOP , EPITAXIAL MICROLOGIC JK FLIP-FLOP DESCRIPTION The Fairchild JK Flip-Flop is a complete, general purpose , Flip-Flop differs from ordinary RS Flip-Flops in that no ambiguous output state can result from simultaneous ... | OCR Scan |
6 pages, |
JIL926 epitaxial micrologic FD600 fairchild micrologic COUNTER MODULO 504 ML900 micrologic camera MC 900 SL-72 SL-72 abstract |
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| Abstract: allows the designer to modify the placement of the flip-flop macro, thus determining which of the C-C , create a schematic of the design block, edit the drawing by replacing flip-flop macros as required, and , shows an implementation of a D-type flip-flop using TMR. Three D-type flip-flops are connected in , flip-flop disagrees, the output of the error MUX will go high. The high degree of data protection using , feedback loop. Each of the three 4:1 MUX and flip-flop pairs will map into one S-Module using the SFF. ... | Original |
8 pages, |
RH1280 Actel a1280 A1280 A1020 8 shift register by using D flip-flop three d flipflop chip shift register by using D flip-flop RH1020 MIL-PRF-38535 RH1280 abstract |
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| Abstract: allows the designer to modify the placement of the flip-flop macro, thus determining which of the C-C , create a schematic of the design block, edit the drawing by replacing flip-flop macros as required, and , shows an implementation of a D-type flip-flop using TMR. Three D-type flip-flops are connected in , flip-flop disagrees, the output of the error MUX will go high. The high degree of data protection using , feedback loop. Each of the three 4:1 MUX and flip-flop pairs will map into one S-Module using the SFF. ... | Original |
8 pages, |
35542 A1020 RH1280 RH1020 datasheet ac128 A1280 voter AC128 Actel A1020 ac128 datasheet A1020 Y shift register by using D flip-flop AC128 EQUIVALENT transistor AC128 AC128 abstract |
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| Abstract: of detecting all ones, a value is detected one count earlier, and a flip-flop is set during the all , passed from bit to bit through a chain of AND gates. While this structure can be exploited to obtain , flip-flop is provided with a Reset. This is intended for use immediately after power-up. It eliminates the , bit 1. This inversion is absorbed into the counter cell. The irregular structure of the counter , gates. However, this technique must be used cautiously. If the flip-flop is reset when the count is ... | Original |
3 pages, |
XAPP003V XAPP003O XAPP Presettable Counter datasheet abstract |
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| Abstract: Flip-Flop with Clear D Flip-Flop with Clock Buffered D Flip-Buffered D FlipS-State Output D Flip-Flop with Buffered D Flip-Buffered D FlipS-State Output D Flip-Flop with Buffered D Flip-Buffered D Flip D Flip-Flop with Buffered D Flip-I Buffered D Flip-! Output JK Flip-Flop with Clear, Preset, Buffered Clock , Flip-Flop tPLH 2.5 2.65 2.8 2.95 3.25 (Clock -Q) tpHL 3 3.1 3.2 3.3 3.55 ts 1.5 1.5 1.5 1.5 , transistor array and I/O cell structure. The power busing structure of the CGA100 CGA100 Series can isolate the I/O ... | OCR Scan |
6 pages, |
XN02D1 A005D AD01D1 CGA100 CGA100-121 CGA100-160 CGA100-397 CGA100-528 full subtractor circuit using and gates nr04d1 PC7001 RS FLIP FLOP LAYOUT synchronous counter using 4 flip flip 2-bit adder layout CGA100 abstract |
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| Abstract: elements in their library . More specifically, there may be a very small selection of multibit flip-flop , , you could introduce a gated clock as an integral part of the flip-flop design. This would mean that , Synopsys? 1. A library compiler license (ea$y to get.) 2. A description of your multibit flip-flop A , between a single and multibit flip-flop is the usage of "ff_bank" instead of "ff" to define its function. , lead to area savings of up to 15% in chip area. Tight control over the structure of the multibit ... | Original |
13 pages, |
verilog code power gating datasheet abstract |
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| SY100EL29V SY100EL29V SY100EL29V SY100EL29V DUAL DIFFERENTIAL DATA AND CLOCK D FLIP-FLOP WITH SET AND RESET SY100EL29V SY100EL29V SY100EL29V SY100EL29V DUAL DIFFERENTIAL DATA AND CLOCK D FLIP-FLOP WITH SET AND RESET . Because of the edge-triggered flip-flop nature of the devices, simultaneously opening both the clock and differential input structures are clamped so that the inputs of unused registers can be left open without upsetting the bias network of the devices. The clamping action will assert the /D and the /CLK sides of the www.datasheetarchive.com/files/micrel/products/products/sy100el29v.html |
Micrel | 26/06/2002 | 6.64 Kb | HTML | sy100el29v.html |
| -bit bus-interface D-type flip-flop with reset and enable with 30 Ohm termination resistors (3-State positive edge-triggered D-type flip-flops 5V I/O Compatible Ideal where high speedlight loadingor Propagation delay(ns) Voltage 74ALVT162823DGG 74ALVT162823DGG 74ALVT162823DGG 74ALVT162823DGG D-type flip-flops 2.5/3.3V 18-Bit D-Type Flip-Flop -1 (TSSOP56 TSSOP56 TSSOP56 TSSOP56) None 4~6 Low 74ALVT162823DL 74ALVT162823DL 74ALVT162823DL 74ALVT162823DL D-type flip-flops 2.5/3.3V 18-Bit D-Type Flip-Flop -interface D-type flip-flop with reset and enable with 30 Ohm termination resistors (3-State) 27-aug-98 www.datasheetarchive.com/files/philips/pip/74alvt162823_1.html |
Philips | 23/04/2003 | 7.82 Kb | HTML | 74alvt162823_1.html |
| /transmitters. Two sets of high speed parallel registers with positive edge-triggered D-type flip-flops 5V I _1 74ALVT162823 74ALVT162823 74ALVT162823 74ALVT162823 18-bit bus-interface D-type flip-flop with reset and enable with 30 W ) 74ALVT162823 74ALVT162823 74ALVT162823 74ALVT162823 18-bit bus-interface D-type flip-flop with reset and enable with 30 W registers are fully edge-triggered. The state of each D input, one set-up time before the Low-to-High clock transition is transferred to the corresponding flip-flopÂ's Q output. The 74ALVT162823 74ALVT162823 74ALVT162823 74ALVT162823 is designed with www.datasheetarchive.com/files/philips/pip/74alvt162823_1-v1.html |
Philips | 14/02/2002 | 12.79 Kb | HTML | 74alvt162823_1-v1.html |
| counter and to feed them back through an XOR or an XNOR gate into the data input of the LSB flip-flop . Thus, the structure for this LFSR is three flip-flops, Q2-Q0, with a two input XOR feeding into the data input of flip-flop Q0. The inputs to the XOR gate is Q2 and !Q0. The output given in "the : > lfsr u 7 6 5 4 3 2 number of flip flops required will be 3 xors = 00000005 inverts = 00000001 mask follows: > lfsr u 12 11 10 9 8 7 6 5 4 3 2 number of flip flops required will be 4 xors = 00000009 www.datasheetarchive.com/download/33580488-987316ZC/wcd02f90.zip (readme.txt) |
Xilinx | 13/07/1998 | 12.94 Kb | ZIP | wcd02f90.zip |
| counter and to feed them back through an XOR or an XNOR gate into the data input of the LSB flip-flop . Thus, the structure for this LFSR is three flip-flops, Q2-Q0, with a two input XOR feeding into the data input of flip-flop Q0. The inputs to the XOR gate is Q2 and !Q0. The output given in "the : > lfsr u 7 6 5 4 3 2 number of flip flops required will be 3 xors = 00000005 inverts = 00000001 mask follows: > lfsr u 12 11 10 9 8 7 6 5 4 3 2 number of flip flops required will be 4 xors = 00000009 www.datasheetarchive.com/download/73102838-988402ZC/wcd03733.zip (readme.txt) |
Xilinx | 12/02/1999 | 36.99 Kb | ZIP | wcd03733.zip |
| counter and to feed them back through an XOR or an XNOR gate into the data input of the LSB flip-flop . Thus, the structure for this LFSR is three flip-flops, Q2-Q0, with a two input XOR feeding into the data input of flip-flop Q0. The inputs to the XOR gate is Q2 and !Q0. The output given in "the : > lfsr u 7 6 5 4 3 2 number of flip flops required will be 3 xors = 00000005 inverts = 00000001 mask follows: > lfsr u 12 11 10 9 8 7 6 5 4 3 2 number of flip flops required will be 4 xors = 00000009 www.datasheetarchive.com/download/28571677-988403ZC/wcd03734.zip (readme.txt) |
Xilinx | 12/02/1999 | 12.94 Kb | ZIP | wcd03734.zip |
| counter and to feed them back through an XOR or an XNOR gate into the data input of the LSB flip-flop . Thus, the structure for this LFSR is three flip-flops, Q2-Q0, with a two input XOR feeding into the data input of flip-flop Q0. The inputs to the XOR gate is Q2 and !Q0. The output given in "the : > lfsr u 7 6 5 4 3 2 number of flip flops required will be 3 xors = 00000005 inverts = 00000001 mask follows: > lfsr u 12 11 10 9 8 7 6 5 4 3 2 number of flip flops required will be 4 xors = 00000009 www.datasheetarchive.com/download/46170783-987315ZC/wcd02f8f.zip (readme.txt) |
Xilinx | 13/07/1998 | 36.99 Kb | ZIP | wcd02f8f.zip |
| counter and to feed them back through an XOR or an XNOR gate into the data input of the LSB flip-flop . Thus, the structure for this LFSR is three flip-flops, Q2-Q0, with a two input XOR feeding into the data input of flip-flop Q0. The inputs to the XOR gate is Q2 and !Q0. The output given in "the : > lfsr u 7 6 5 4 3 2 number of flip flops required will be 3 xors = 00000005 inverts = 00000001 mask follows: > lfsr u 12 11 10 9 8 7 6 5 4 3 2 number of flip flops required will be 4 xors = 00000009 www.datasheetarchive.com/download/82451975-960505ZC/lfsr.zip (READ.ME) |
Xilinx | 05/09/1996 | 36.7 Kb | ZIP | lfsr.zip |
| counter and to feed them back through an XOR or an XNOR gate into the data input of the LSB flip-flop . Thus, the structure for this LFSR is three flip-flops, Q2-Q0, with a two input XOR feeding into the data input of flip-flop Q0. The inputs to the XOR gate is Q2 and !Q0. The output given in "the : > lfsr u 7 6 5 4 3 2 number of flip flops required will be 3 xors = 00000005 inverts = 00000001 mask follows: > lfsr u 12 11 10 9 8 7 6 5 4 3 2 number of flip flops required will be 4 xors = 00000009 www.datasheetarchive.com/files/xilinx/bbs/utils/fpga/read.me |
Xilinx | 12/07/1995 | 4.61 Kb | ME | read.me |
| counter and to feed them back through an XOR or an XNOR gate into the data input of the LSB flip-flop . Thus, the structure for this LFSR is three flip-flops, Q2-Q0, with a two input XOR feeding into the data input of flip-flop Q0. The inputs to the XOR gate is Q2 and !Q0. The output given in "the : > lfsr u 7 6 5 4 3 2 number of flip flops required will be 3 xors = 00000005 inverts = 00000001 mask follows: > lfsr u 12 11 10 9 8 7 6 5 4 3 2 number of flip flops required will be 4 xors = 00000009 www.datasheetarchive.com/download/53264028-996642ZC/lfsr.zip (READ.ME) |
Xilinx | 09/04/1997 | 36.7 Kb | ZIP | lfsr.zip |