Implementation Of Fir Filter Based On Majority Logic Using Approximate Multiplier And Compressor Circuits.

Approximate computation works with error tolerance in the numerical phase as a modern model for nanoscale technology, to boost efficiency and decrease power consumption. Majority logic (ML) applies to several evolving nanotechnology; its general architecture holds widely utilized for the layout of t...

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Detalles Bibliográficos
Publicado en:Turkish Journal of Physiotherapy Rehabilitation Vol. 32; no. 2; pp. 175 - 183
Autores principales: Rajeswari, Malothu, Renuka, Manne
Formato: tables/charts Journal Article
Publicado: Turkish Journal of Physiotherapy & Rehabilitation 2021
Acceso en línea:Ver este registro en EBSCOhost
Descripción
Sumario:Approximate computation works with error tolerance in the numerical phase as a modern model for nanoscale technology, to boost efficiency and decrease power consumption. Majority logic (ML) applies to several evolving nanotechnology; its general architecture holds widely utilized for the layout of the digital circuits. In this article, FIR filter layouts by utilizing ML based approximate adders and multipliers. Area, power, and delay were the guiding variables in a digital signal processing system with an significant factor being the FIR - Finite Impulse Response filters. FIR filter architecture contains of units for multipliers, adder, and delay. The productivity of FIR filters is primarily supported by the adder and multiplier units. The implemented multipliers use approximate compressor with so-called complement bits and a reduction circuitry. In order to analyze effect of specific forms of complement bits based upon scale of multipliers, an impact factor is defined and analysed. The proposed designs show that when compared to other ML-based designs, designing FIR filter with ML-based adders and multipliers offers superior performance.