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引用次数: 6
摘要
浮点乘法已经成为信号处理、图像处理、滤波器和实时数据处理等数字电路中常用的元素。这个元素以面积和功率的形式高度影响整个设计的性能。本文提出了一种异步可重构的方法,用于ieee754双精度或两个单精度数并行设计浮点乘法器。该设计在面积和功率效率方面是一个更好的解决方案。该设计在Xilinx ISE工具的XST上进行合成,并在ModelSim上进行仿真。所建议的乘法器由两个单元组成(i)乘加单元和(ii)对齐归一化单元。本设计工作频率高达229.106 MHz,使用1369片Virtex 2 Pro FPGA。关键词:组件,异步,可重构,浮点,FPGA,流水线和并行架构。
Clock-less Design for Reconfigurable Floating Point Multiplier
Floating point multiplication has became a common element in signal processing, image processing, filters and real time data processing digital circuits. This element highly influence the performance of the whole design in the form of area and power used. This paper presents a asynchronous reconfigurable approach to design a floating point multiplier for IEEE 754 double precision or two single precision numbers in parallel. The proposed design is a better solution in terms of area and power efficiency. The design is synthesized on XST of Xilinx ISE tool for vertex 2pro FPGA board and simulated on ModelSim. The proposed multiplier comprises of two units (i) Multiply-Add unit and (ii) Aligner-normalizing unit. This design can work up to 229.106 MHz and uses 1369 Slices of Virtex 2 Pro FPGA. Keywords-component, Asynchronous, Reconfigurable, Floating point, FPGA, pipelining and parallel Architecture.