Design of high throughput asynchronous FIR filter using gate level pipelined multipliers and adders

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2020

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John Wiley and Sons Ltd vgorayska@wiley.com Southern Gate Chichester, West Sussex PO19 8SQ

Abstract

This work presents the design of an asynchronous digital finite impulse response (FIR) filter suitable for high-performance partial response maximum likelihood (PRML) read channel ICs. A high throughput, low latency FIR filter is the basic requirement for the equalization process in read channels. To achieve the enhancement in speed and reduction in latency of the FIR filter, its computational units are deeply pipelined using high-capacity hybrid (HC-hybrid) logic pipeline method. The designed FIR filter has been simulated using UMC-180 nm and UMC-65 nm technologies. Simulation results show that the asynchronous digital FIR filter can operate up to a throughput of 1.17 Giga items/s in 180 nm and 2.3 Giga items/s in 65 nm technology yet with the latency in the order of ns. © 2020 John Wiley & Sons, Ltd.

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Keywords

Adders, Computation theory, Impulse response, Maximum likelihood, Nanotechnology, Pipe linings, Pipelines, Throughput, Asynchronous design, Computational units, Digital FIR filters, High throughput, Partial response maximum likelihood, Pipeline methods, Pipelined multipliers, Read channels, FIR filters

Citation

International Journal of Circuit Theory and Applications, 2020, 48, 8, pp. 1363-1370

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