Advanced Cat Swarm Optimization for Sidelobe Reduction in Unequally Spaced Linear Antenna Arrays

This study introduces the Modified Cat Swarm Optimization (MCSO) algorithm, an advanced version of the traditional Cat Swarm Optimization (CSO) enhanced with Gaussian mutation. The Gaussian mutation facilitates a broader and more effective global search, mitigating issues of premature convergence and local optima that commonly affect the traditional CSO. The performance of MCSO was evaluated using standard benchmark mathematical problems, demonstrating superior accuracy and faster convergence compared to existing methods. Additionally, the MCSO was applied to the synthesis of linear aperiodic antenna arrays, optimizing element positions to minimize peak sidelobe levels. Results show that MCSO outperforms conventional algorithms in achieving lower sidelobe levels and faster convergence, highlighting its potential for applications in wireless communications and other engineering optimization problems.

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Publication Details

Published
2024-12-20
DOI
https://doi.org/10.1109/ariia63345.2024.11051639
Primary Topic
Antenna Design and Optimization
Type
article
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article

Advanced Cat Swarm Optimization for Sidelobe Reduction in Unequally Spaced Linear Antenna Arrays

Sarah Salah Jalal, Taha Raad Al-Shaikhli, Syed Siddiq, M. Dinesh et al.
Antenna Design and Optimization
article

Advanced Cat Swarm Optimization for Sidelobe Reduction in Unequally Spaced Linear Antenna Arrays

Sarah Salah Jalal, Taha Raad Al-Shaikhli, Syed Siddiq, M. Dinesh, M. S. Reddy, K. Prasanna Kumar
article en

Abstract

This study introduces the Modified Cat Swarm Optimization (MCSO) algorithm, an advanced version of the traditional Cat Swarm Optimization (CSO) enhanced with Gaussian mutation. The Gaussian mutation facilitates a broader and more effective global search, mitigating issues of premature convergence and local optima that commonly affect the traditional CSO. The performance of MCSO was evaluated using standard benchmark mathematical problems, demonstrating superior accuracy and faster convergence compared to existing methods. Additionally, the MCSO was applied to the synthesis of linear aperiodic antenna arrays, optimizing element positions to minimize peak sidelobe levels. Results show that MCSO outperforms conventional algorithms in achieving lower sidelobe levels and faster convergence, highlighting its potential for applications in wireless communications and other engineering optimization problems.

Thi Qar University (IQ), Al-Nisour University College (IQ)
Affordable and clean energy
Openalex Percentile: Top 49%
Antenna Design and Optimization
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