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    DESIGN AND IMPLEMENTATION OF 32 BIT FLOATING POINT Search Results

    DESIGN AND IMPLEMENTATION OF 32 BIT FLOATING POINT Result Highlights (5)

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    DE6B3KJ151KA4BE01J Murata Manufacturing Co Ltd Safety Standard Certified Lead Type Disc Ceramic Capacitors for Automotive Visit Murata Manufacturing Co Ltd
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    DESIGN AND IMPLEMENTATION OF 32 BIT FLOATING POINT Datasheets Context Search

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    AN701

    Abstract: 3F80 0M22
    Text: MICROCONTROLLER PRODUCTS AN701 SP floating point math with XA Author: Santanu Roy Philips Semiconductors 1995 Jul 28 Philips Semiconductors Application note SP floating point math with XA AN701 Author: Santanu Roy, MCO Applications Group, Sunnyvale, California


    Original     		AN701 AN701 3F80 0M22 PDF

    AN701

    Abstract: ieee 32 bit floating point multiplier 3F80
    Text: MICROCONTROLLER PRODUCTS AN701 SP floating point math with XA Author: Santanu Roy Philips Semiconductors 1995 Jul 28 Philips Semiconductors Application note SP floating point math with XA AN701 Author: Santanu Roy, MCO Applications Group, Sunnyvale, California


    Original     		AN701 AN701 ieee 32 bit floating point multiplier 3F80 PDF

    MPC602

    Abstract: MPC620 cop interface The PowerPC Microprocessor Family MPC105 MPC106 MPC2604GA MPC601 MPC603 MPC604
    Text: The PowerPC RISC Family Microprocessors In Brief . . . Page PowerPC RISC Microprocessors . . . . . . . . . . . . . . . . 2.4–2 MPC601 RISC Microprocessor . . . . . . . . . . . . . . . . . . . 2.4–2 MPC602 RISC Microprocessor . . . . . . . . . . . . . . . . . . . 2.4–3


    Original     		MPC601 MPC602 MPC603 MPC603e MPC604 MPC604e MPC620 MPC105 MPC106 cop interface The PowerPC Microprocessor Family MPC2604GA PDF

    IEEE-1754

    Abstract: leon3 processor vhdl leon3 vhdl model sparc v8 floatingpoint addition vhdl VHDL code for floating point addition processor control unit vhdl code leon3 RTAX2000S RTAX2000S-1
    Text: IEEE-STD-754 Floating Point Unit GRFPU Lite / GRFPU-FT Lite CompanionCore Data Sheet GAISLER Features Description • IEEE Std 754 compliant, supporting all rounding modes and exceptions • Operations: add, subtract, multiply, divide, square-root, convert, compare, move, abs,


    Original     		IEEE-STD-754 64-bit IEEE-1754 leon3 processor vhdl leon3 vhdl model sparc v8 floatingpoint addition vhdl VHDL code for floating point addition processor control unit vhdl code leon3 RTAX2000S RTAX2000S-1 PDF

    test bench for 16 bit shifter

    Abstract: processor control unit vhdl code download verilog code for floating point unit SUBTRACTION verilog code for 8051 verilog code for floating point multiplication microcontroller using vhdl 80C51 DR8051 vhdl code for 8 bit floating point processor
    Text: Floating Point Arithmetic Unit ver 1.30 OVERVIEW DFPAU uses the specialized algorithms to compute arithmetic functions. It supports addition, subtraction, multiplication, division, square root, comparison, absolute value, and change sign of a number. The input numbers


    Original     		IEEE-754 32-bit test bench for 16 bit shifter processor control unit vhdl code download verilog code for floating point unit SUBTRACTION verilog code for 8051 verilog code for floating point multiplication microcontroller using vhdl 80C51 DR8051 vhdl code for 8 bit floating point processor PDF

    matrix circuit VHDL code

    Abstract: led matrix 32X32 vhdl code for cordic LU decomposition vhdl code for FFT 32 point 32x32 multiplier verilog code 64x64-bit ieee floating point multiplier verilog verilog code for matrix multiplication inverse trigonometric function vhdl code vhdl code for cordic multiplication
    Text: Achieving One TeraFLOPS with 28-nm FPGAs WP-01142-1.0 White Paper Due to recent technological developments, high-performance floating-point signal processing can, for the first time, be easily achieved using FPGAs. To date, virtually all FPGA-based signal processing has been implemented using fixed-point operations.


    Original     		28-nm WP-01142-1 28-nm matrix circuit VHDL code led matrix 32X32 vhdl code for cordic LU decomposition vhdl code for FFT 32 point 32x32 multiplier verilog code 64x64-bit ieee floating point multiplier verilog verilog code for matrix multiplication inverse trigonometric function vhdl code vhdl code for cordic multiplication PDF

    vhdl code for 16 BIT BINARY DIVIDER

    Abstract: UNSIGNED SERIAL DIVIDER using verilog vhdl code for simple radix-2 UNSIGNED SERIAL DIVIDER using vhdl vhdl code for N fraction Divider verilog code for floating point division verilog code for simple radix-2 verilog code for four bit binary divider DS530 IEEE754
    Text: v as in Divider v1.0 DS530 January 18, 2006 Product Specification Introduction LogiCORE Facts The LogiCORE™ Divider core creates a circuit for fixed-point or floating-point division based on radix-2 non-restoring division, or division by repeated multiplications, respectively. The Divider core supersedes


    Original     		DS530 vhdl code for 16 BIT BINARY DIVIDER UNSIGNED SERIAL DIVIDER using verilog vhdl code for simple radix-2 UNSIGNED SERIAL DIVIDER using vhdl vhdl code for N fraction Divider verilog code for floating point division verilog code for simple radix-2 verilog code for four bit binary divider IEEE754 PDF

    4x4 bit multipliers

    Abstract: parker 831-6 4x4 mimo beamforming lte Doppler radar dsp processor types of multipliers EP4SE230 EP4SE530 Transceiver mimo adaptive 500 gflops
    Text: White Paper Taking Advantage of Advances in FPGA Floating-Point IP Cores Recently available FPGA design tools and IP provide a substantial reduction in computational resources, as well as greatly easing the implementation effort in a floating-point datapath. Moreover, unlike digital signal processors, an


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    normal radar circuit

    Abstract: radar sensor specification EP4SE230 EP4SE530 IEEE754 Floating-Point Arithmetic
    Text: Paper ID# 900220 HIGH-PERFORMANCE FLOATING-POINT IMPLEMENTATION USING FPGAS Michael Parker Altera Corporation San Jose, Calif. ABSTRACT Traditionally, digital signal processing DSP is performed using fixed-point or integer arithmetic. The algorithm is carefully mapped into a limited dynamic


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    tms320c3x user manual

    Abstract: addressing modes of dsp processors dsp 32 c processor TMS320c3x ADSP-21061 ADSP-21061L ADSP-21065L TMS320C31 TMS320C32 interrupt Assembly sharc
    Text: Analog Devices ADSP-21065L and ADSP-21061L SHARC DSPs Vs. TI TMS320C3x Rich, powerful instruction sets, floating-point precision, and high-speed execution make floating-point Digital Signal Processing (DSPs) a popular choice for designers of computational


    Original     		ADSP-21065L ADSP-21061L TMS320C3x family-ADSP21065L ADSP-21061L-to TMS320C3x ADSP-21061L 32-bit ADSP21065L tms320c3x user manual addressing modes of dsp processors dsp 32 c processor ADSP-21061 TMS320C31 TMS320C32 interrupt Assembly sharc PDF

    vhdl code 64 bit FPU

    Abstract: vhdl code for march c algorithm vhdl code for pipelined matrix multiplication ieee floating point vhdl vhdl code for FFT 32 point ML403 UART ml403 vhdl code for matrix multiplication vhdl code for floating point matrix multiplication XILINX UART lite
    Text: APU Floating-Point Unit v3.1 March 11, 2008 Product Specification Introduction LogiCORE Facts The Xilinx Auxiliary Processor Unit APU Floating-Point Unit LogiCORETM is a single-precision floating-point unit designed for the PowerPCTM 405 embedded microprocessor of the VirtexTM-4 FX FPGA


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    F199 transistor

    Abstract: F46B F17E ST F445 d732 a9ca 34ba 8230C f451 F422
    Text: National Semiconductor Application Note 486 Ashok Krishnamurthy April 1987 INTRODUCTION This report describes the implementation of a Single Precision Floating Point Arithmetic package for the National Semiconductor HPC microcontroller The package is based


    Original     		PDF

    T801

    Abstract: speedo meter N10E inmos transputer T800 TIN30 T800 transputer T801-20 2AF3 w188
    Text: 127 IMS T801 transputer □ Preliminary Data FEATURES 32 bit architecture 33 ns internal cycle time 30 MIPS peak instruction rate 4.3 Mflops (peak) instruction rate Debugging support 64 bit on-chip floating point unit which conforms to IEEE 754 4 Kbytes on-chip static RAM


    OCR Scan     		MIL-STD-883C IMST801 T801-G20S T801-G25S T801-G30S T801-G20M T801 speedo meter N10E inmos transputer T800 TIN30 T800 transputer T801-20 2AF3 w188 PDF

    sense amplifier bitline memory device

    Abstract: VP12 Intel StrataFlash Memory double data rate Reliability VP12 "vlsi technology" abstract for basic vlsi with intel
    Text: Intel StrataFlashTM Memory Technology Development and Implementation Al Fazio, Flash Technology Development and Manufacturing, Santa Clara, CA. Intel Corp. Mark Bauer, Memory Components Division, Folsom, CA. Intel Corp. Index words: StrataFlash, MLC, flash, memory.


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    harvard architecture processor block diagram

    Abstract: 128 bit processor schematic ARM processor fundamentals NII51001-7 NII51002-7 NII51003-7 NII51004-7 Pie do C Builder
    Text: Section I. Nios II Processor This section provides information about the Nios II processor. This section includes the following chapters: Altera Corporation • Chapter 1, Introduction ■ Chapter 2, Processor Architecture ■ Chapter 3, Programming Model


    Original     		NII51001-7 harvard architecture processor block diagram 128 bit processor schematic ARM processor fundamentals NII51002-7 NII51003-7 NII51004-7 Pie do C Builder PDF

    verilog code for cordic

    Abstract: verilog code for logarithm intel 80387sx CORDIC divider intel 80c186 FPGA sinus math coprocessor verilog code for implementation of rom 80387 CORDIC in xilinx
    Text:  Implements ANSI/IEEE Stan- dard 754-1985 for binary floating point arithmetic C80187 Math Coprocessor Core  High-performance, 80-bit internal architecture provides faster processing  Fully compatible with instruc- tion set of 80387DX and 80387SX math coprocessors


    Original     		C80187 80-bit 80387DX 80387SX C80187 80C187. C80186XL 80C186 verilog code for cordic verilog code for logarithm intel 80387sx CORDIC divider intel 80c186 FPGA sinus math coprocessor verilog code for implementation of rom 80387 CORDIC in xilinx PDF

    MC88110

    Abstract: motorola 88000 MC88100 MC88410 MC88110RC MC88200 M88000 mc88204rc 88000 stream register cache coherency
    Text: The M88000 RISC Family In Brief . . . Page Architecture, Performance, and Software Compatibility . . . . . . . . . . . . . . . . . . . . . . 2.3–2 Microprocessors . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2.3–2 Cache/Memory Management Units . . . . . . . . . . . . . . . 2.3–3


    Original     		M88000 MC88204 MC88110 motorola 88000 MC88100 MC88410 MC88110RC MC88200 mc88204rc 88000 stream register cache coherency PDF

    DSP56200

    Abstract: adaptive FILTER implementation in c language fixed point goertzel GOERTZEL ALGORITHM SOURCE CODE DSP56K IIR FILTER implementation in c language GOERTZEL ALGORITHM SOURCE CODE for dtmf in c iir adaptive Filter using of lms algorithm Motorola DSP56200 LMS adaptive filter
    Text: SECTION 11 ADDITIONAL SUPPORT Motorola ola DSP Audio: Codec Routines: DTMF Routines: Fast Fourier Transforms: Filters: Floating-Point Routines: Functions: Lattice Filters: Matrix Operations: Reed-Solomon Encoder: Sorting Routines: Speech: Standard I/O Equates:


    Original     		DSP56000CLASx DSP56000ADSx 891-3098wrence DSP56200 adaptive FILTER implementation in c language fixed point goertzel GOERTZEL ALGORITHM SOURCE CODE DSP56K IIR FILTER implementation in c language GOERTZEL ALGORITHM SOURCE CODE for dtmf in c iir adaptive Filter using of lms algorithm Motorola DSP56200 LMS adaptive filter PDF

    TC1130

    Abstract: No abstract text available
    Text: Product Brief TC1130 32-bit Superscalar Tr i Co r e TM A r ch i t e c t u r e T C 1 1 3 0 i s a h i g h l y i n t e g r a t e d c o n t r o l l e r combining a Memory Management Unit MMU and a Floating Point Unit (FPU) on one chip. Thanks to the powerful MMU, this member of the 32-bit


    Original     		TC1130 32-bit 32-bit B158-H8376-X-X-7600 TC1130 PDF

    2-bit half adder

    Abstract: FPGA based implementation of fixed point IIR Filter XC4025 xilinx FPGA implementation of IIR Filter digital FIR Filter using distributed arithmetic
    Text: The Role of Distributed Arithmetic in FPGA-based Signal Processing Introduction Distributed Arithmetic DA plays a key role in embedding DSP functions in the Xilinx 4000 family of FPGA devices. In this document the DA algorithm is derived and examples are offered that illustrate its


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    DSP56200

    Abstract: MOTOROLA CATALOG AM STEREO CQUAM goertzel DSP56000 DSP56001 DSP56100 DSP56116 DSP56ADC16 DSP96002
    Text: Freescale Semiconductor, Inc. ADDITIONAL SUPPORT Dr. BuB Electronic Bulletin Board Motorola ola DSP Audio Codec Routines DTMF Routines Fast Fourier Transforms Filters Floating-Point Routines Functions Lattice Filters Matrix Operations Reed-Solomon Encoder


    Original     		DSP56100CLASx DSP56156ADSx DSP56200 MOTOROLA CATALOG AM STEREO CQUAM goertzel DSP56000 DSP56001 DSP56100 DSP56116 DSP56ADC16 DSP96002 PDF

    DSP56200

    Abstract: GOERTZEL ALGORITHM SOURCE CODE for dtmf in c adaptive FILTER implementation in c language eprom 2904 motorola 1031 IIR FILTER implementation in c language Motorola DSP56200 motorola handbook c code iir filter design fixed point goertzel
    Text: SECTION 12 ADDITIONAL SUPPORT Motorola ola DSP Audio Codec Routines DTMF Routines Fast Fourier Transforms Filters Floating-Point Routines Functions Lattice Filters Matrix Operations Reed-Solomon Encoder Sorting Routines Speech Standard I/O Equates Tools and Utilities


    Original     		DSP56100CLASx DSP56156ADSx DSP56200 GOERTZEL ALGORITHM SOURCE CODE for dtmf in c adaptive FILTER implementation in c language eprom 2904 motorola 1031 IIR FILTER implementation in c language Motorola DSP56200 motorola handbook c code iir filter design fixed point goertzel PDF

    CW doppler ultrasound

    Abstract: PREAMPLIFIER ultrasound transducer cw doppler ultrasound transducer analog front end doppler Doppler transducer AD9276 "blood flow" DOPPLER circuit mems ultrasound transducers
    Text: SHARC 2147x Series Processors: Floating Point Precision Powers Portable Continuous Wave Doppler Processing Low Cost, Low Power Floating Point Digital Signal Processors Bring Exceptional Medical Image Quality to the Field


    Original     		2147x CW doppler ultrasound PREAMPLIFIER ultrasound transducer cw doppler ultrasound transducer analog front end doppler Doppler transducer AD9276 "blood flow" DOPPLER circuit mems ultrasound transducers PDF

    64 point FFT radix-4 VHDL documentation

    Abstract: matlab code for half adder FSK matlab CORDIC to generate sine wave fpga simulink 3 phase inverter vhdl code for ofdm verilog code for fir filter using DA fft algorithm verilog 16-point radix-4 advantages vhdl code for radix-4 fft lfsr galois
    Text: DSP Guide for FPGAs Lattice Semiconductor Corporation 5555 NE Moore Court Hillsboro, OR 97124 503 268-8000 September 2009 Copyright Copyright 2009 Lattice Semiconductor Corporation. This document may not, in whole or part, be copied, photocopied, reproduced, translated, or reduced to any electronic medium or machinereadable form without prior written consent from Lattice Semiconductor


    Original     		PDF