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引用次数: 3
摘要
变换用于许多信号处理应用。提出了一种计算8点离散余弦变换和Haar小波变换的混合结构的VLSI实现方案。该体系结构采用新分布式算法(NEDA)开发,这是一种无需使用乘子和ROM实现内积的有效方法。该体系结构使用Verilog HDL进行编码,在ModelSim 6.4中进行仿真,并使用Xilinx ISE 14.7实现。此外,混合架构采用0.18μm CMOS技术,使用Cadence RTL编译器实现。与独立体系结构相比,所提出的体系结构在寄存器利用率方面节省了77.92%,在LUT利用率方面节省了41.80%,在加法器使用数量方面节省了27.55%。结果表明,与早期的体系结构相比,该体系结构在功耗、硬件资源和复杂性方面都有更好的表现。
Transforms are used in many signal processing applications. The VLSI implementation of a hybrid architecture to compute 8-point discrete cosine transform and Haar wavelet transform is proposed. The architecture is developed using NEw Distributed Arithmetic (NEDA) which is an efficient method for implementing inner products without using multipliers and ROM. The architecture developed is coded using Verilog HDL, simulated in ModelSim 6.4 and implemented using Xilinx ISE 14.7. Further, the hybrid architecture is implemented in 0.18μm CMOS technology using Cadence RTL compiler. Compared to standalone architectures, proposed architecture has 77.92% saving in register utilization, 41.80% savings in LUT utilization and 27.55% savings in number of adders used. The results show that the architecture is better in terms of power, hardware resources and complexity compared to earlier architectures.