2016
DOI: 10.1007/s00500-016-2126-x
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Dynamic selection of evolutionary operators based on online learning and fitness landscape analysis

Abstract: Self-adaptive mechanisms for the identification of the most suitable variation operator in evolutionary algorithms rely almost exclusively on the measurement of the fitness of the offspring, which may not be sufficient to assess the optimality of an operator (e.g., in a landscape with an high degree of neutrality). This paper proposes a novel adaptive operator selection mechanism which uses a set of four fitness landscape analysis techniques and an online learning algorithm, dynamic weighted majority, to provi… Show more

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Cited by 20 publications
(3 citation statements)
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“…Landscapes have different characteristics and can reflect the internal properties of problems, so the required evolution operators are also different. Detecting the fitness landscape of a problem, the algorithm applied to it can be selected according to the landscape, so the landscape information can be considered and used to guide the design of evolution operators in CMOEAs [208].…”
Section: Future Directionsmentioning
confidence: 99%
“…Landscapes have different characteristics and can reflect the internal properties of problems, so the required evolution operators are also different. Detecting the fitness landscape of a problem, the algorithm applied to it can be selected according to the landscape, so the landscape information can be considered and used to guide the design of evolution operators in CMOEAs [208].…”
Section: Future Directionsmentioning
confidence: 99%
“…• genetic algorithms: using the fitness distance correlation landscape measure to dynamically adjust the migration period in a distributed genetic algorithm [119], selecting a crossover operator based on fitness landscape properties [120], using fitness landscape features to estimate the optimal population size [121]; • differential evolution algorithms: adapting the strategy and adjusting the control parameters based on detected landscape modality [122,123], adapting the mutation strategy based on landscape features [124,125], algorithm configuration based on exploratory landscape features with an empirical performance model [126]; • memetic algorithms: analysis of the separability of problems to automatically select operators [45] and the use of four fitness landscape analysis techniques to inform the most suitable crossover operator [127]; • selection of CMA-ES algorithm configuration using a trained model for predicting performance based on landscape features that was shown to outperform the default setting of CMA-ES [128]; • surrogate-assisted particle swarm optimisation, where fitness landscape analysis was used to select surrogate models [129]; and • decomposition-based multiobjective evolutionary algorithms (MOEA/D), where the addition of landscape information improved the behaviour of the adaptive operator selection mechanism [130].…”
Section: Automated Algorithm Selectionmentioning
confidence: 99%
“…In parameter control, self-adaptive parameter control, such as step-size control and covariance matrix adaptation in covariance matrix adaptation ES (CMA-ES) [23], is the stateof-the-art method for numerical parameter control. Adaptive operator selection (AOS) is a popular method to dynamically determine which operator(s) should be applied during the run of an optimization algorithm (i.e., categorical parameter control), based on its performance history of available operators [24]- [26]. More description and achievements in parameter control could be found in [27].…”
mentioning
confidence: 99%