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Convergence Properties of the (μ/μI, λ)-ES on the Rastrigin Function
Amir Omeradzic1, Hans-Georg Beyer1
1Vorarlberg University of Applied Sciences, Research Center Business Informatics, Dornbirn, Austria.
This study introduces a new measure to analyze the Rastrigin function, revealing how mutation strength and population size impact optimization. Increasing population size is key for high global convergence rates in complex optimization problems.
Area of Science:
- Computational Intelligence
- Optimization Algorithms
- Mathematical Analysis
Background:
- The Rastrigin function is a highly multimodal benchmark for global optimization.
- Understanding convergence properties is crucial for effective optimization strategies.
Purpose of the Study:
- To derive a novel aggregated progress rate measure for analyzing the Rastrigin function.
- To investigate convergence properties related to mutation strength and population size.
Main Methods:
- Derivation of an aggregated progress rate measure based on residual distance and normally distributed coordinates.
- Analysis of Rastrigin noise floor for moderate mutation strengths.
- Investigation of local attraction and escape conditions for small mutation strengths.
Main Results:
- A characteristic distance-dependent Rastrigin noise floor was derived for moderate mutation strengths.
- An escape condition was established for small mutation strengths, highlighting optimization challenges.
- A population scaling relation was derived, showing good agreement with experimental data for high global convergence rates.
Conclusions:
- The derived measure facilitates deeper insights into Rastrigin function convergence.
- Optimizing the Rastrigin function requires careful consideration of mutation strength and population size.
- Increasing population size is essential for achieving high global convergence rates.
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