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SN65HVD267DR Texas Instruments ''Turbo'' CAN Transceiver for CAN FD (Flexible Data Rate) with Redundancy 8-SOIC -40 to 125
SN65HVD267D Texas Instruments ''Turbo'' CAN Transceiver for CAN FD (Flexible Data Rate) with Redundancy 8-SOIC -40 to 125
TPS2350DG4 Texas Instruments Hot Swap Power Manager For Redundant -48V Supplies 14-SOIC -40 to 85
TPS2350DR Texas Instruments Hot Swap Power Manager For Redundant -48V Supplies 14-SOIC -40 to 85
TPS2350DRG4 Texas Instruments Hot Swap Power Manager For Redundant -48V Supplies 14-SOIC -40 to 85
TLK10081CTR Texas Instruments 10Gbps 1-8 Channel Multi-Rate Redundant Link Aggregator 144-FCBGA -40 to 85

"cyclic redundancy check" data transmission

Catalog Datasheet MFG & Type PDF Document Tags
Abstract: Application Note: Virtex Series and Virtex-II Family R IEEE 802.3 Cyclic Redundancy Check Author: Chris Borrelli XAPP209 (v1.0) March 23, 2001 Summary Cyclic Redundancy Check (CRC) is an error-checking code that is widely used in data communication systems and other serial data transmission systems , detection scheme in serial data transmission applications. This code is based on polynomial arithmetic , Redundancy Check standards are CRC-8, CRC-12, CRC-16, CRC-32, and CRC-CCIT. This application note discusses Xilinx
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crc verilog code 16 bit CRC-16 and CRC-32 Ethernet verilog code CRC8 CRC-32 LFSR cyclic redundancy check verilog source 802.3 CRC32 XC2V40-FG256
Abstract: ideally suited to perform cyclic redundancy checking on data transmissions with minimal additional , Redundancy Checking Error detection is important, whenever there is a chance of data getting corrupted. Whether it's a piece of stored code or a data transmission, you can add a piece of redundant information , , which is commonly used to detect errors either in data transmission or data storage. Whilst it is not , of cyclic redundancy calculations, the polynomial A would be the binary message string or data and Freescale Semiconductor
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AN3795 CRC16-CCITT CRC-16-CCITT CCITT v.41 transistor AC128 AC128 transistor MC9S08AC128
Abstract: voice channel data. An optional CRC mode generates CRC multiframe alignment and a cyclic redundancy , converts the incoming NRZ data on its D input pin into HDB3 pseudo-ternary form for transmission over a , the Timeslot Zero Transmitter. The output data from the transmission multiplexer is also input to , transmission code, ensuring adequate clock recovery at the receiver. This data is output on the TXD1 and TXD2 , . The Timeslot Zero data is used as one of the inputs to the transmission multiplexer. The Timeslot Zarlink Semiconductor
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MV1403 CLA60000 FRS13 FRS15 704 mfd DS3046-2 FRS13RZ
Abstract: redundancy check is carried out on the incoming data. In addition receive demonstration mode generates , data is used as one of the inputs to the transmission multiplexer. The Timeslot Sixteen transmitter , timeslot 16. This data along with the TS16 frame marker are also used as inputs to the transmission multiplexer, TMUX. The transmission multiplexer forms a single PCM data stream at its Q output by multiplexing , output of the Timeslot Zero Transmitter. The output data from the transmission multiplexer is also input Zarlink Semiconductor
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TXTS16 RXTS16
Abstract: redundancy check is carried out on the incoming data. In addition receive demonstration mode generates , data is used as one of the inputs to the transmission multiplexer. The Timeslot Sixteen transmitter , timeslot 16. This data along with the TS16 frame marker are also used as inputs to the transmission multiplexer, TMUX. The transmission multiplexer forms a single PCM data stream at its Q output by multiplexing , output of the Timeslot Zero Transmitter. The output data from the transmission multiplexer is also input Zarlink Semiconductor
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rx2 208
Abstract: redundancy check is carried out on the incoming data. In addition receive demonstration mode generates , data is used as one of the inputs to the transmission multiplexer. The Timeslot Sixteen transmitter , timeslot 16. This data along with the TS16 frame marker are also used as inputs to the transmission multiplexer, TMUX. The transmission multiplexer forms a single PCM data stream at its Q output by multiplexing , output of the Timeslot Zero Transmitter. The output data from the transmission multiplexer is also input Zarlink Semiconductor
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Abstract: redundancy check is carried out on the incoming data. In addition receive demonstration mode generates , data is used as one of the inputs to the transmission multiplexer. The Timeslot Sixteen transmitter , timeslot 16. This data along with the TS16 frame marker are also used as inputs to the transmission multiplexer, TMUX. The transmission multiplexer forms a single PCM data stream at its Q output by multiplexing , output of the Timeslot Zero Transmitter. The output data from the transmission multiplexer is also input Zarlink Semiconductor
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DS3046
Abstract: redundancy check is carried out on the incoming data. In addition receive demonstration mode generates , data is used as one of the inputs to the transmission multiplexer. The Timeslot Sixteen transmitter , timeslot 16. This data along with the TS16 frame marker are also used as inputs to the transmission multiplexer, TMUX. The transmission multiplexer forms a single PCM data stream at its Q output by multiplexing , output of the Timeslot Zero Transmitter. The output data from the transmission multiplexer is also input Zarlink Semiconductor
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Abstract: CRC multiframe alignment and a cyclic redundancy check is carried out on the incoming data. In , macrocell converts the incoming NRZ data on its D input pin into HDB3 pseudo-ternary form for transmission , inputs. The Timeslot Zero data is used as one of the inputs to the transmission multiplexer. The Timeslot , transmission multiplexer, TMUX. The transmission multiplexer forms a single PCM data stream at its Q output by , output of the Timeslot Zero Transmitter. The output data from the transmission multiplexer is also input Zarlink Semiconductor
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Abstract: CRC multiframe alignment and a cyclic redundancy check is carried out on the incoming data. In , converts the incoming NRZ data on its D input pin into HDB3 pseudo-ternary form for transmission over a , the Timeslot Zero Transmitter. The output data from the transmission multiplexer is also input to , transmission code, ensuring adequate clock recovery at the receiver. This data is output on the TXD1 and TXD2 , . The Timeslot Zero data is used as one of the inputs to the transmission multiplexer. The Timeslot Zarlink Semiconductor
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HDB3 HDB3 to nrz nrz to hdb3 Hp TX2 HDB-3 FRS Receiver
Abstract: redundancy check is carried out on the incoming data. In addition receive demonstration mode generates , data is used as one of the inputs to the transmission multiplexer. The Timeslot Sixteen transmitter , timeslot 16. This data along with the TS16 frame marker are also used as inputs to the transmission multiplexer, TMUX. The transmission multiplexer forms a single PCM data stream at its Q output by multiplexing , output of the Timeslot Zero Transmitter. The output data from the transmission multiplexer is also input Zarlink Semiconductor
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G703
Abstract: Application Report SPRA530 Cyclic Redundancy Check Computation: An Implementation Using the TMS320C54x Patrick Geremia C5000 Abstract Cyclic redundancy check (CRC) code provides a simple, yet powerful, method for the detection of burst errors during digital data transmission and storage. CRC , . They both introduce redundancy by adding parity symbols to the message data. Cyclic redundancy check , .11 Cyclic Redundancy Check Computation: An Implementation Using the TMS320C54x 2 Application Report Texas Instruments
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cyclic codes TMS320C54x, instruction set cyclic redundancy check lfsr galois Cyclic Redundancy Check simulation 0828c TMS320C54
Abstract: Application Report SPRA530 Cyclic Redundancy Check Computation: An Implementation Using the TMS320C54x Patrick Geremia C5000 Abstract Cyclic redundancy check (CRC) code provides a simple, yet powerful, method for the detection of burst errors during digital data transmission and storage. CRC , . They both introduce redundancy by adding parity symbols to the message data. Cyclic redundancy check , .11 Cyclic Redundancy Check Computation: An Implementation Using the TMS320C54x 2 Application Report Texas Instruments
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TMS320C54x SPEECH PROCESSING TMS320C54x Architecture of TMS320C54X galois field theory 04c11db7 CRC-16 and CRC-32
Abstract: word, than parity. For transmission of data on high-speed serial channels, the most prevalent errors , Associated Application Notes: AN1274 Parallel Cyclic Redundancy Check (CRC) for HOTLink® Abstract AN1089 discusses using CRC codes to insure data integrity over high-speed serial links, such as Fibre , ensure data integrity over high-speed serial links, such as Fibre Channel, ESCONTM and other interfaces , detect data errors. Parity is often used with parallel forms of data, on buses or memories, to detect Cypress Semiconductor
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CY7B923 CY7B933 crc32 lfsr 32 bit lfsr CY7B923/CY7B933
Abstract: default CRC component as a checksum to detect alteration of data during transmission or storage. CRCs are , PSoC® CreatorTM Component Datasheet Cyclic Redundancy Check (CRC) 2.40 Features 1 to 64 bits Time Division Multiplexing mode Requires clock and data for serial bit stream input Serial data , General Description The default use of the Cyclic Redundancy Check (CRC) component is to compute the CRC from a serial bit stream of any length. The input data is sampled on the rising edge of the data clock Cypress Semiconductor
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CRC-15-CAN bluetooth usb CRC 8 CRC-16 v.41 CRC-16-CCIT CRC-8 ccitt
Abstract: default CRC component as a checksum to detect alteration of data during transmission or storage. CRCs are , PSoC® CreatorTM Component Datasheet Cyclic Redundancy Check (CRC) Features 1 to 64 bits Time Division Multiplexing mode Requires clock and data for serial bit stream input Serial data in, parallel , Description 2.20 The default use of the Cyclic Redundancy Check (CRC) component is to compute the CRC from a serial bit stream of any length. The input data is sampled on the rising edge of the data clock Cypress Semiconductor
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crc8 1wire code 4 bit LFSR CRC-16 ccitt CRC-64-ISO ECMA-182
Abstract: default CRC component as a checksum to detect alteration of data during transmission or storage. CRCs are , PSoC® CreatorTM Component Datasheet Cyclic Redundancy Check (CRC) 2.30 Features 1 to 64 bits Time Division Multiplexing mode Requires clock and data for serial bit stream input Serial data , General Description The default use of the Cyclic Redundancy Check (CRC) component is to compute the CRC from a serial bit stream of any length. The input data is sampled on the rising edge of the data clock Cypress Semiconductor
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Abstract: device used to process Optical Sensor data of mouse movement, button status, and handle RF transmission , packet received by SC9164 receiver module, those two bytes are used to check the transmission data , :.4 RF Transmission Protocol Logic , ):.4 Cyclic Redundancy Check (CRC) Code , Byte of random generated ID code Transmit baud rate 4800bps One bytes of Cyclic Redundancy Check (CRC Tenx Technology
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SC9163 TP66P01 PAN301BSI
Abstract: PSoC® CreatorTM Component Data Sheet Cyclic Redundancy Check (CRC) 2.0 Features · · · · · · , default CRC component can be used as a checksum to detect alteration of data during transmission or , PSoC® CreatorTM Component Data Sheet Cyclic Redundancy Check (CRC) Parameters and Settings Drag , : 001-62889 Rev. *A Page 3 of 29 Cyclic Redundancy Check (CRC) PSoC® CreatorTM Component Data Sheet , ® CreatorTM Component Data Sheet Cyclic Redundancy Check (CRC) Polynomial Representation Displays the Cypress Semiconductor
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Abstract: default CRC component as a checksum to detect alteration of data during transmission or storage. CRCs are , characterization data. Document Number: 001-73569 Rev. * Page 15 of 29 Cyclic Redundancy Check (CRC , PSoC CreatorTM Component Datasheet ® Cyclic Redundancy Check (CRC) 2.10 Features 1 to 64 bits Time Division Multiplexing mode Requires clock and data for serial bit stream input Serial data , General Description The default use of the Cyclic Redundancy Check (CRC) component is to compute the CRC Cypress Semiconductor
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crc 64 CRC32-C CRC32C
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