Hybrid Intelligence: A Synergistic Metaheuristic for Advanced Numerical Optimization

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Autore principale: IJMSRT
Natura: Recurso digital
Pubblicazione: Zenodo 2025
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_version_ 1866901163669979136
author IJMSRT
author_facet IJMSRT
contents <p>This <br>study systematically evaluates and <br>enhances the performance of the Harris Hawks <br>Optimization (HHO) algorithm across twenty- <br>three benchmark functions. The primary <br>objective is to minimize solution errors and <br>optimize convergence by repeatedly testing <br>functions F1 to F23 in MATLAB, incorporating <br>AI-driven <br>code <br>improvements. <br>These <br>enhancements focus on dynamic parameter <br>adjustments and escape mechanisms to avoid <br>local optima, effectively mimicking HHO’s <br>cooperative hunting strategy. Preliminary results <br>reveal a 15–22% decrease in fitness values <br>compared to the basic HHO, particularly when <br>applied to multimodal functions such as F7 and <br>F15. This approach demonstrates the efficacy of <br>iterative testing and machine-learning-based <br>code optimizations in developing advanced</p> <p>metaheuristic <br>algorithms  for real-world optimization challenges. </p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_15589569
institution Zenodo
language
publishDate 2025
publisher Zenodo
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spellingShingle Hybrid Intelligence: A Synergistic Metaheuristic for Advanced Numerical Optimization
IJMSRT
<p>This <br>study systematically evaluates and <br>enhances the performance of the Harris Hawks <br>Optimization (HHO) algorithm across twenty- <br>three benchmark functions. The primary <br>objective is to minimize solution errors and <br>optimize convergence by repeatedly testing <br>functions F1 to F23 in MATLAB, incorporating <br>AI-driven <br>code <br>improvements. <br>These <br>enhancements focus on dynamic parameter <br>adjustments and escape mechanisms to avoid <br>local optima, effectively mimicking HHO’s <br>cooperative hunting strategy. Preliminary results <br>reveal a 15–22% decrease in fitness values <br>compared to the basic HHO, particularly when <br>applied to multimodal functions such as F7 and <br>F15. This approach demonstrates the efficacy of <br>iterative testing and machine-learning-based <br>code optimizations in developing advanced</p> <p>metaheuristic <br>algorithms  for real-world optimization challenges. </p>
title Hybrid Intelligence: A Synergistic Metaheuristic for Advanced Numerical Optimization
url https://doi.org/10.5281/zenodo.15589569