This paper proposes an efficient solution selection method in a surrogate-assisted asynchronous multi-objective evolutionary algorithm. Our previous research proposed a novel multi-objective evolutionary algorithm that integrates a surrogate evaluation model with asynchronous approach, named as AELMOEA/D. AELMOEA/D constructs a surrogate model with extreme learning machine (ELM) and generates a promising solution by MOEA/D with a constructed ELM model. A generated promising solution is selected in the order of the indexes of the weighted vector of MOEA/D, and is evaluated asynchronously. In contrast to the previous method, the proposed method considers degree of search progress of each weight vector and selects a promising solution in a region where the search progress is insufficient. To evaluate the degree of the search progress, this study employs crowding distance, which is basically used in NSGA-II. To investigate the effectiveness of the proposed method, we conduct the experiment on a multi-objective optimization benchmark problem. The experimental result revealed that the proposed method can accelerate the convergence speed of the optimization without deteriorating the performance compared with the previous method.
[1]
Csaba Szepesvári,et al.
Bandit Based Monte-Carlo Planning
,
2006,
ECML.
[2]
Carolina P. de Almeida,et al.
Extreme Learning Surrogate Models in Multi-objective Optimization based on Decomposition
,
2016,
Neurocomputing.
[3]
Ruck Thawonmas,et al.
Integrating surrogate evaluation model and asynchronous evolution in multi-objective evolutionary algorithm for expensive and different evaluation time
,
2017,
GECCO.
[4]
Hiroyuki Sato,et al.
Multi-objetive optimization problem mapping based on algorithmic parameter rankings
,
2017,
2017 IEEE Symposium Series on Computational Intelligence (SSCI).
[5]
Keiki Takadama,et al.
Asynchronously evolving solutions with excessively different evaluation time by reference-based evaluation
,
2014,
GECCO.
[6]
Edwin Lughofer,et al.
Performance comparison of generational and steady-state asynchronous multi-objective evolutionary algorithms for computationally-intensive problems
,
2015,
Knowl. Based Syst..