Ensemble sinusoidal differential covariance matrix adaptation with Euclidean neighborhood for solving CEC2017 benchmark problems

Noor H. Awad, Mostafa Z. Ali, P. N. Suganthan
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引用次数: 238

Abstract

Many Differential Evolution algorithms are introduced in the literature to solve optimization problems with diverse set of characteristics. In this paper, we propose an extension of the previously published paper LSHADE-EpSin that was ranked as the joint winner in the real-parameter single objective optimization competition, CEC 2016. The contribution of this work constitutes two major modifications that have been added to enhance the performance: ensemble of sinusoidal approaches based on performance adaptation and covariance matrix learning for the crossover operator. Two sinusoidal waves have been used to adapt the scaling factor: non-adaptive sinusoidal decreasing adjustment and an adaptive sinusoidal increasing adjustment. Instead of choosing one of the sinusoidal waves randomly, a performance adaptation scheme based on earlier success is used in this work. Moreover, covariance matrix learning with Euclidean neighborhood is used for the crossover operator to establish a suitable coordinate system, and to enhance the capability of LSHADE-EpSin to tackle problems with high correlation between the variables. The proposed algorithm, namely LSHADE-cnEpSin, is tested on the IEEE CEC2017 problems used in the Special Session and Competitions on Single Objective Bound Constrained Real-Parameter Single Objective Optimization. The results statistically affirm the efficiency of the proposed approach to obtain better results compared to other state-of-the-art algorithms.
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基于欧几里得邻域的集成正弦微分协方差矩阵自适应求解CEC2017基准问题
文献中引入了许多差分进化算法来解决具有不同特征集的优化问题。在本文中,我们提出了先前发表的论文LSHADE-EpSin的扩展,该论文在CEC 2016实参数单目标优化竞赛中被评为联合获胜者。这项工作的贡献包括为提高性能而增加的两个主要修改:基于性能自适应的正弦方法集成和交叉算子的协方差矩阵学习。采用两种正弦波来调整比例因子:非自适应正弦减小调整和自适应正弦增大调整。在这项工作中,采用了一种基于早期成功的性能自适应方案,而不是随机选择一个正弦波。此外,交叉算子采用欧几里得邻域协方差矩阵学习,建立合适的坐标系,增强LSHADE-EpSin处理变量间高度相关问题的能力。提出的LSHADE-cnEpSin算法在IEEE CEC2017单目标有界约束实参数单目标优化特别会议和竞赛问题上进行了测试。统计结果证实了该方法的有效性,与其他最先进的算法相比,该方法可以获得更好的结果。
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