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首页> 外文期刊>Journal of computational and theoretical nanoscience >Analysis of 32 χ 32-Bit Parallel Pipeline Multiplier Using In-Built Register Transfer Level Testing Approach
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Analysis of 32 χ 32-Bit Parallel Pipeline Multiplier Using In-Built Register Transfer Level Testing Approach

机译:使用内置寄存器传输水平测试方法分析32°32位并行管道乘数

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摘要

This paper presents a design and implementation of Fixed Point Ultra High Throughput Multiplier (UHTM) using parallel pipeline architecture for both signed and unsigned numbers to improve the throughput of the VLSI SoC design. Here backend issues are addressed in the front end RTL design itself hence this reduces the testing time by detecting all possible defects. In this paper RTL coding style is realized with respect to FPGA design. In an FPGA design inbuilt DSP blocks is used for arithmetic (multiplication) operations which will achieve the higher frequency of operation. In addition power and timing optimization techniques are also addressed to reduce dynamic power. The multiplier hardware design of 32 × 32 bit UHTM is synthesized in FPGA and compared with the previous works. As a result of this, 32 × 32 multiplier achieves the throughput of 15552 Mbps at 243 MHz, 64 bits per clock cycle output in FPGA and 32 Gbps at 1.2 GHz, 64 bits per clock cycle in ASIC, obtains the best hardware efficiency in terms of area in the FPGA area utilization of 1264 ALUTs, 2811 FFs in the Cyclone V5CSXFC6D6F3117 device with First in First out latency of ten clock cycles at the rate of 243 MHz clock frequency. The Structural realization and analysis pertaining to timing, area and power are implemented in Cyclone V 5CSXFC6D6F3117 FPGA and ASIC 28 nm technology.
机译:本文介绍了使用并行管道架构的固定点超高吞吐量乘数(UHTM)的设计和实现,用于签名和无符号数字,以提高VLSI SoC设计的吞吐量。这里的后端问题在前端RTL设计中解决了本身,因此这通过检测所有可能的缺陷来降低测试时间。在本文中,RTL编码样式是关于FPGA设计实现的。在FPGA设计中,内置DSP块用于算术(乘法)操作,该操作将实现较高的操作频率。此外,还可以解决电力和定时优化技术以降低动态功率。在FPGA中合成32×32位UHTM的乘数硬件设计,并与以前的作品相比。结果,32×32倍增器在243 MHz中实现了15552 Mbps的吞吐量,在FPGA中输出的64位,在1.2GHz的32 Gbps,在ASIC中为每个时钟周期64位,获得最佳的硬件效率在FPGA区域的区域利用1264 ALUT,在旋风V5CSXFC6D6D6F3117装置中的2811 FF,首先在速度为10个时钟循环的延迟,以243 MHz时钟频率的速度。与时序,面积和功率有关的结构实现和分析是在Cyclone V 5CSXFC6D6F3117 FPGA和ASIC 28 NM技术中实现的。

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