location: Current position: Li Zheng >> Scientific Research >> Paper Publications

A modified hypervolume based expected improvement for multi-objective efficient global optimization method

Hits:

Indexed by:期刊论文

First Author:Li, Zheng

Correspondence Author:Ruan, SL (reprint author), Dalian Univ Technol, Dept Engn Mech, State Key Lab Struct Anal Ind Equipment, Dalian, Liaoning, Peoples R China.; Ruan, SL (reprint author), Dalian Univ Technol, Int Res Ctr Computat Mech, Dalian, Liaoning, Peoples R China.

Co-author:Wang, Xinyu,Ruan, Shilun,Li, Zhaojun,Shen, Changyu,Zeng, Yan

Date of Publication:2018-11-01

Journal:STRUCTURAL AND MULTIDISCIPLINARY OPTIMIZATION

Included Journals:SCIE

Volume:58

Issue:5

Page Number:1961-1979

ISSN No.:1615-147X

Key Words:Multi-objective; Efficient global optimization; Pareto points; Hypervolume indicator

Abstract:The hypervolume indicator has been proved as an outstanding metric for the distribution of Pareto points, and the derived hypervolume based expected improvement (HVEI) has received a particular attention in the multi-objective efficient global optimization (EGO) method. However, the high computational cost has become the bottle neck which limits the application of HVEI on many objective optimization. Aiming at this problem, a modified version of HVEI (MHVEI) is proposed in this paper, which is easier to implement, maintains all the desired properties, and has a much lower computational cost. The theoretical study shows that the new criterion can be considered as a weighted integral form of HVEI, and it prefers the new point with a higher uncertainty compared with HVEI. The numerical tests show that the MHVEI performs similar as HVEI on the lower dimensional problem, and the advantage of MHVEI becomes more obvious as the dimension grows.

Pre One:Topology optimization of thermal-fluid problem using the MMC-based approach

Next One:A novel crystallization kinetics model of transcrystalline used for crystallization behavior simulation of short carbon fiber-reinforced polymer composites