A Multi-objective Evolutionary Algorithm with Dynamic Topology and its Application to Network-Wide Flight Trajectory Planning

Although conventional multi-objective evolutionary optimization algorithms (MOEAs) are proven to be effective in general, they are less superior when applied to solve a large-scale combinational real-world optimization problem with tightly coupled decision variables. For the purpose to enhance the c...

Full description

Bibliographic Details
Main Authors: Su Yan, Kaiquan Cai, Majed Swaid
Format: Article
Language:English
Published: Atlantis Press 2017-01-01
Series:International Journal of Computational Intelligence Systems
Subjects:
Online Access:https://www.atlantis-press.com/article/25883597/view
id doaj-25d8eba74076447b841ad02153a62c02
record_format Article
spelling doaj-25d8eba74076447b841ad02153a62c022020-11-25T01:38:05ZengAtlantis PressInternational Journal of Computational Intelligence Systems 1875-68832017-01-0110110.2991/ijcis.10.1.95A Multi-objective Evolutionary Algorithm with Dynamic Topology and its Application to Network-Wide Flight Trajectory PlanningSu YanKaiquan CaiMajed SwaidAlthough conventional multi-objective evolutionary optimization algorithms (MOEAs) are proven to be effective in general, they are less superior when applied to solve a large-scale combinational real-world optimization problem with tightly coupled decision variables. For the purpose to enhance the capability of MOEAs in such scenarios, one may consider the importance of interaction topology in information exchange among individuals of MOEAs. From this standpoint, this article proposes a non-dominated sorting genetic algorithm II with dynamic topology (DTNSGAII), which applies a dynamic individual interaction network topology to improve the crossover operation. The dynamic topology and inter-individual interaction are determined by the solution spread criterion in the objective space as well as the solution relationships and similarities in the decision space. The combination of two aspects contributes to the balance of the exploitation and exploration capability of the algorithm. Finally, as an example to real-world applications, the DTNSGAII is used to solve a network-wide flight trajectory planning problem, which demonstrates that the application of dynamic topology can improve the performance of the NSGA-II.https://www.atlantis-press.com/article/25883597/viewMulti-objective evolutionary algorithmcomplex networkflight trajectory planning
collection DOAJ
language English
format Article
sources DOAJ
author Su Yan
Kaiquan Cai
Majed Swaid
spellingShingle Su Yan
Kaiquan Cai
Majed Swaid
A Multi-objective Evolutionary Algorithm with Dynamic Topology and its Application to Network-Wide Flight Trajectory Planning
International Journal of Computational Intelligence Systems
Multi-objective evolutionary algorithm
complex network
flight trajectory planning
author_facet Su Yan
Kaiquan Cai
Majed Swaid
author_sort Su Yan
title A Multi-objective Evolutionary Algorithm with Dynamic Topology and its Application to Network-Wide Flight Trajectory Planning
title_short A Multi-objective Evolutionary Algorithm with Dynamic Topology and its Application to Network-Wide Flight Trajectory Planning
title_full A Multi-objective Evolutionary Algorithm with Dynamic Topology and its Application to Network-Wide Flight Trajectory Planning
title_fullStr A Multi-objective Evolutionary Algorithm with Dynamic Topology and its Application to Network-Wide Flight Trajectory Planning
title_full_unstemmed A Multi-objective Evolutionary Algorithm with Dynamic Topology and its Application to Network-Wide Flight Trajectory Planning
title_sort multi-objective evolutionary algorithm with dynamic topology and its application to network-wide flight trajectory planning
publisher Atlantis Press
series International Journal of Computational Intelligence Systems
issn 1875-6883
publishDate 2017-01-01
description Although conventional multi-objective evolutionary optimization algorithms (MOEAs) are proven to be effective in general, they are less superior when applied to solve a large-scale combinational real-world optimization problem with tightly coupled decision variables. For the purpose to enhance the capability of MOEAs in such scenarios, one may consider the importance of interaction topology in information exchange among individuals of MOEAs. From this standpoint, this article proposes a non-dominated sorting genetic algorithm II with dynamic topology (DTNSGAII), which applies a dynamic individual interaction network topology to improve the crossover operation. The dynamic topology and inter-individual interaction are determined by the solution spread criterion in the objective space as well as the solution relationships and similarities in the decision space. The combination of two aspects contributes to the balance of the exploitation and exploration capability of the algorithm. Finally, as an example to real-world applications, the DTNSGAII is used to solve a network-wide flight trajectory planning problem, which demonstrates that the application of dynamic topology can improve the performance of the NSGA-II.
topic Multi-objective evolutionary algorithm
complex network
flight trajectory planning
url https://www.atlantis-press.com/article/25883597/view
work_keys_str_mv AT suyan amultiobjectiveevolutionaryalgorithmwithdynamictopologyanditsapplicationtonetworkwideflighttrajectoryplanning
AT kaiquancai amultiobjectiveevolutionaryalgorithmwithdynamictopologyanditsapplicationtonetworkwideflighttrajectoryplanning
AT majedswaid amultiobjectiveevolutionaryalgorithmwithdynamictopologyanditsapplicationtonetworkwideflighttrajectoryplanning
AT suyan multiobjectiveevolutionaryalgorithmwithdynamictopologyanditsapplicationtonetworkwideflighttrajectoryplanning
AT kaiquancai multiobjectiveevolutionaryalgorithmwithdynamictopologyanditsapplicationtonetworkwideflighttrajectoryplanning
AT majedswaid multiobjectiveevolutionaryalgorithmwithdynamictopologyanditsapplicationtonetworkwideflighttrajectoryplanning
_version_ 1725055268941725696