分解
分类
进化算法
帕累托原理
优势(遗传学)
数学优化
计算机科学
集合(抽象数据类型)
抓住
最优化问题
多目标优化
水准点(测量)
数学
算法
生物
生态学
生物化学
化学
大地测量学
基因
程序设计语言
地理
作者
Maha Elarbi,Slim Bechikh,Abhishek Gupta,Lamjed Ben Saïd,Yew-Soon Ong
标识
DOI:10.1109/tsmc.2017.2654301
摘要
Multiobjective evolutionary algorithms (MOEAs) have proven their effectiveness and efficiency in solving problems with two or three objectives. However, recent studies show that MOEAs face many difficulties when tackling problems involving a larger number of objectives as their behavior becomes similar to a random walk in the search space since most individuals are nondominated with respect to each other. Motivated by the interesting results of decomposition-based approaches and preference-based ones, we propose in this paper a new decomposition-based dominance relation to deal with many-objective optimization problems and a new diversity factor based on the penalty-based boundary intersection method. Our reference point-based dominance (RP-dominance), has the ability to create a strict partial order on the set of nondominated solutions using a set of well-distributed reference points. The RP-dominance is subsequently used to substitute the Pareto dominance in nondominated sorting genetic algorithm-II (NSGA-II). The augmented MOEA, labeled as RP-dominance-based NSGA-II, has been statistically demonstrated to provide competitive and oftentimes better results when compared against four recently proposed decomposition-based MOEAs on commonly-used benchmark problems involving up to 20 objectives. In addition, the efficacy of the algorithm on a realistic water management problem is showcased.
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