Enhancing VLSI Performance: An Innovative Approach to 3-Parallel Polyphase Odd-Length FIR Filtering with Kogge-Stone Adder and Booth Multiplier

This paper proposes a novel technique towards enhancing VLSI performance as 3-Parallel Polyphase Odd-Length FIR Filtering. Here, the design primarily consists of Kogge-Stone Adder integrated with Booth Multiplier to increase the speed and efficiency of the Kogge-Stone Adder. Traditional FIR filtering has its limitations on power consumption and area optimization. To address the issues, we make use of the architectural features of Kogge-Stone Adder and the computational efficiency of Booth Multiplier by introducing the 3-Parallel Polyphase composition to overcome the issues by increasing the processing speed while maintaining low-power constraints and a small chip area, both of which are critical factors in today’s VLSI applications.

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Published
2024-08-29
DOI
https://doi.org/10.1109/iceect61758.2024.10739232
Primary Topic
Digital Filter Design and Implementation
Type
article
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article

Enhancing VLSI Performance: An Innovative Approach to 3-Parallel Polyphase Odd-Length FIR Filtering with Kogge-Stone Adder and Booth Multiplier

N. Shyam Sunder Sagar, Baindla Harshitha, S. V. S. Prasad, M V N Nithya Pushkala et al.
Digital Filter Design and Implementation
article

Enhancing VLSI Performance: An Innovative Approach to 3-Parallel Polyphase Odd-Length FIR Filtering with Kogge-Stone Adder and Booth Multiplier

N. Shyam Sunder Sagar, Baindla Harshitha, S. V. S. Prasad, M V N Nithya Pushkala, Siddartha Silveri, Sreeja Chenna
article en

Abstract

This paper proposes a novel technique towards enhancing VLSI performance as 3-Parallel Polyphase Odd-Length FIR Filtering. Here, the design primarily consists of Kogge-Stone Adder integrated with Booth Multiplier to increase the speed and efficiency of the Kogge-Stone Adder. Traditional FIR filtering has its limitations on power consumption and area optimization. To address the issues, we make use of the architectural features of Kogge-Stone Adder and the computational efficiency of Booth Multiplier by introducing the 3-Parallel Polyphase composition to overcome the issues by increasing the processing speed while maintaining low-power constraints and a small chip area, both of which are critical factors in today’s VLSI applications.

GITAM University (IN)
Openalex Percentile: Top 78%
Digital Filter Design and Implementation
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