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Comparative study of regression vs pairwise models for surrogate-based heuristic optimisation

arXiv 2410.03409 ↗First posted 4 Oct 2024cs.NE cs.AIcited by 0

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Abstract (arXiv)

Heuristic optimisation algorithms explore the search space by sampling solutions, evaluating their fitness, and biasing the search in the direction of promising solutions. However, in many cases, this fitness function involves executing expensive computational calculations, drastically reducing the reasonable number of evaluations. In this context, surrogate models have emerged as an excellent alternative to alleviate these computational problems. This paper addresses the formulation of surrogate problems as both regression models that approximate fitness (surface surrogate models) and a novel way to connect classification models (pairwise surrogate models). The pairwise approach can be directly exploited by some algorithms, such as Differential Evolution, in which the fitness value is not actually needed to drive the search, and it is sufficient to know whether a solution is better than another one or not. Based on these modelling approaches, we have conducted a multidimensional analysis of surrogate models under different configurations: different machine learning algorithms (regularised regression, neural networks, decision trees, boosting methods, and random forests), different surrogate strategies (encouraging diversity or relaxing prediction thresholds), and compare them for both surface and pairwise surrogate models. The experimental part of the article includes the benchmark problems already proposed for the SOCO2011 competition in continuous optimisation and a simulation problem included in the recent GECCO2021 Industrial Challenge. This paper shows that the performance of the overall search, when using online machine learning-based surrogate models, depends not only on the accuracy of the predictive model but also on both the kind of bias towards positive or negative cases and how the optimisation uses those predictions to decide whether to execute the actual fitness function.

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References · 5

  1. 2014Adam: A Method for Stochastic Optimizationcited by 37,240
  2. 2016XGBoost: A Scalable Tree Boosting Systemcited by 5,166
  3. 2021Designing Air Flow with Surrogate-assisted Phenotypic Nichingcited by 11
  4. 2020Hospital Capacity Planning Using Discrete Event Simulation Under Special Consideration of the COVID-19 Pandemiccited by 3
  5. 2024Model calibration using a parallel differential evolution algorithm in computational neuroscience: simulation of stretch induced nerve deficitcited by 1

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