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A competitive learning-based Grey wolf Optimizer for engineering problems and its application to multi-layer
Vamsi Krishna Reddy Aala Kalananda1, Venkata Lakshmi Narayana Komanapalli1
1School of Electrical Engineering, Vellore Institute of Technology, Vellore, Tamil Nadu 632014 India.
A new Competitive Learning-based Grey Wolf Optimizer (Clb-GWO) enhances exploration and exploitation balance. This robust algorithm shows excellent performance in benchmarking tests and training multi-layer perceptrons, outperforming existing methods.
Area of Science:
- Optimization Algorithms
- Artificial Intelligence
- Machine Learning
Background:
- The Grey Wolf Optimizer (GWO) is a popular meta-heuristic algorithm inspired by wolf pack behavior.
- Existing GWO variants often struggle to balance exploration and exploitation, limiting performance on complex problems.
- Population diversity is crucial for meta-heuristics to avoid premature convergence and enhance global search capabilities.
Purpose of the Study:
- To introduce a novel Competitive Learning-based Grey Wolf Optimizer (Clb-GWO) to improve the exploration-exploitation trade-off.
- To enhance population diversity and search efficiency through competitive learning strategies and a dual search system.
- To validate the effectiveness of Clb-GWO on standard benchmarking functions and real-world machine learning tasks.
Main Methods:
- Developed Clb-GWO by integrating competitive learning strategies into the standard GWO framework.
- Incorporated population sub-division into majority and minority groups with a selective complementary dual search system.
- Utilized difference vectors to promote population diversity and a better balance between exploration and exploitation.
Main Results:
- Clb-GWO demonstrated superior performance on CEC2020 and CEC2019 benchmarking suites compared to standard GWO and its variants.
- The algorithm achieved excellent results in training Multi-Layer Perceptrons (MLPs) on classification and function approximation datasets.
- Clb-GWO exhibited statistically significant improvements, lower error rates, and reduced standard deviation compared to competing methods.
Conclusions:
- The proposed Clb-GWO effectively balances exploration and exploitation, leading to enhanced optimization performance.
- The competitive learning approach and population sub-division significantly improve population diversity and search capabilities.
- Clb-GWO proves to be a robust and highly competitive meta-heuristic for both theoretical benchmarking and practical machine learning applications.
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