Performance Evaluation of FFT through Adaptive Hold Logic (AHL) Booth Multiplier

Banisetti Venkata Mahesh, Talla Srivasarao
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Abstract

Multiplication is such a key operator in any kind of signal processing modules. Processor’s performance is potential, if the processing elements like multipliers or adders are efficient. One of the stringent multiplier is through Booth’s multiplication algorithm which takes 2’s complement notation of two signed binary numbers. It reduces the number of steps while doing addition when compared with normal multiplication. About radix-8 Booth multipliers’ fundamental design, this is tested on ASIC-based platforms. FPGA-based hardware accelerators cannot give the required performance gain. This can be achieved by using FPGAs and ASICs. For approximation 6-input Look Up Table (LUT) and carry chains of the FPGAs are used. In the existing method, it is possible to have data with 40% of error probability reduction and is not acceptable in logic design for signal processing or for data communications. To overcome this error in end product, instead of Booth multiplier, AHL (Adaptive Hold Logic) Booth multiplier is recommended. With the AHL booth multiplier, the error Probability is expected to reduce to a great extent. Means that100% of accurate data reception is possible at the output compared to existing approximate Booth multiplier. AHL Booth multiplier improves the operation speed and reduces the delay. To test its impact, FFT will be designed with and without AHL Booth multiplier and is simulated using Xilinx ISE. Area, delay and power dissipation parameters of FFT are compared for an effective logic realization.
基于自适应保持逻辑(AHL)展台乘法器的FFT性能评估
乘法运算在任何类型的信号处理模块中都是一个关键运算符。处理器的性能是潜在的,如果处理元素,如乘法器或加法器是有效的。其中一种严格的乘法器是通过Booth的乘法算法,该算法对两个有符号二进制数采用2的补数表示法。与普通乘法相比,它减少了加法的步骤数。关于基数-8展位乘法器的基本设计,在基于asic的平台上进行了测试。基于fpga的硬件加速器不能提供所需的性能增益。这可以通过使用fpga和asic来实现。对于近似6输入查找表(LUT)和fpga的进位链被使用。在现有的方法中,可以得到误差概率降低40%的数据,但在信号处理或数据通信的逻辑设计中是不可接受的。为了克服最终产品中的这个错误,建议使用AHL(自适应保持逻辑)展位乘法器而不是展位乘法器。有了AHL展位乘法器,误差概率有望在很大程度上降低。意味着与现有的近似布斯乘法器相比,在输出端可以100%准确地接收数据。AHL展台乘法器提高了操作速度,减少了延迟。为了测试其影响,FFT将设计有AHL Booth乘法器和没有AHL Booth乘法器,并使用赛灵思ISE进行模拟。对FFT的面积、延迟和功耗参数进行了比较,以实现有效的逻辑实现。
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