Modified Nelder-Mead self organizing migrating algorithm for function optimization and its application

被引:8
|
作者
Agrawal, Seema [1 ,2 ]
Singh, Dipti [1 ]
机构
[1] Gautam Buddha Univ, Dept Math, Greater Noida, India
[2] CCS Univ, Dept Math, SSV Coll, Meerut, Uttar Pradesh, India
关键词
Self organizing migrating algorithm; Nelder Mead crossover operator; Genetic algorithm; Particle swarm optimization; Function optimization; Hybridizationa; LEADER PSO ELPSO; GLOBAL OPTIMIZATION; CROSSOVER OPERATOR; GENETIC ALGORITHM; POWER-SYSTEMS; SIMPLEX; SEARCH;
D O I
10.1016/j.asoc.2016.11.043
中图分类号
TP18 [人工智能理论];
学科分类号
081104 ; 0812 ; 0835 ; 1405 ;
摘要
In this paper, a modified Nelder Mead Self Organizing Migrating Algorithm (mNM-SOMA) has been presented for solving unconstrained optimization problems. It is based on the hybridization of self organizing migrating algorithm (SOMA) with modified Nelder Mead (mNM) Crossover Operator. SOMA is a low population based technique that has good exploration and exploitation qualities, but sometimes converges premature to local optima solution due to lack of diversity preserve mechanism. In this paper an attempt has been made to improve the efficiency of SOMA using a modified NM crossover operator( mNM) for maintaining the diversity in the search space. mNM-SOMA has been tested on a set of 15 test problems, taken form literature and results are compared with the results obtained by self organizing migrating genetic algorithm (SOMGA), SOMA, genetic algorithm (GA) and particle swarm optimization( PSO). For better presentation, results are also analyzed graphically using a Performance Index. Besides this, mNM-SOMA has also been used to solve Frequency Modulation Sounds Parameter Identification Problem. Analysis of numerical results infers mNM-SOMA as a less expensive robust technique. (C) 2016 Elsevier B.V. All rights reserved.
引用
收藏
页码:341 / 350
页数:10
相关论文
共 50 条
  • [21] Globalized Nelder-Mead method for engineering optimization
    Luersen, MA
    Le Riche, R
    [J]. COMPUTERS & STRUCTURES, 2004, 82 (23-26) : 2251 - 2260
  • [22] Hybrid differential evolution and Nelder-Mead algorithm with re-optimization
    Gao, Zhenxiao
    Xiao, Tianyuan
    Fan, Wenhui
    [J]. SOFT COMPUTING, 2011, 15 (03) : 581 - 594
  • [23] Combination of a Particle Swarm Optimization and Nelder-Mead Algorithm in a Diffuser Shape Optimization
    Moravec, Prokop
    Rudolf, Pavel
    [J]. ADVANCES IN HYDROINFORMATICS: SIMHYDRO 2017 - CHOOSING THE RIGHT MODEL IN APPLIED HYDRAULICS, 2018, : 997 - 1012
  • [24] Hybridizing Differential Evolution and Nelder-Mead Simplex Algorithm for Global Optimization
    Lin, Hongwei
    [J]. PROCEEDINGS OF 2016 12TH INTERNATIONAL CONFERENCE ON COMPUTATIONAL INTELLIGENCE AND SECURITY (CIS), 2016, : 198 - 202
  • [25] Mesh-based Nelder-Mead algorithm for inequality constrained optimization
    Audet, Charles
    Tribes, Christophe
    [J]. COMPUTATIONAL OPTIMIZATION AND APPLICATIONS, 2018, 71 (02) : 331 - 352
  • [26] A Three-Level Parallelisation Scheme and Application to the Nelder-Mead algorithm
    Kriauziene, Rima
    Bugajev, Andrej
    Ciegis, Raimondas
    [J]. MATHEMATICAL MODELLING AND ANALYSIS, 2020, 25 (04) : 584 - 607
  • [27] NELDER-MEAD SIMPLEX PROCEDURE FOR FUNCTION MINIMIZATION
    OLSSON, DM
    NELSON, LS
    [J]. TECHNOMETRICS, 1975, 17 (01) : 45 - 51
  • [28] Integrating the Opposition Nelder-Mead Algorithm into the Selection Phase of the Genetic Algorithm for Enhanced Optimization
    Zitouni, Farouq
    Harous, Saad
    [J]. APPLIED SYSTEM INNOVATION, 2023, 6 (05)
  • [29] Optimization design of a fully variable valve system based on Nelder-Mead algorithm
    Zheng, Cong
    Liu, Liang
    Guo, He
    Xu, Zhaoping
    [J]. PROCEEDINGS OF THE INSTITUTION OF MECHANICAL ENGINEERS PART C-JOURNAL OF MECHANICAL ENGINEERING SCIENCE, 2022, 236 (11) : 5815 - 5825
  • [30] Windfarm Optimization using Nelder-Mead and Particle Swarm Optimization
    Bhardwaj, Bhavya
    Jaiharie, J.
    Dadhich, Sorabh R.
    Ahmed, Syed Ishtiyaq
    Ganesan, M.
    [J]. 2021 7TH INTERNATIONAL CONFERENCE ON ELECTRICAL ENERGY SYSTEMS (ICEES), 2021, : 524 - 529