Integrated recovery system with bidding‐based satisfaction: An adaptive multi‐objective approach

Author:

Zhong Huifen12ORCID,Lian Zhaotong1ORCID,Zhou Tianwei23ORCID,Niu Ben234ORCID,Xue Bowen2ORCID

Affiliation:

1. Faculty of Business Administration University of Macau Macau China

2. College of Management Shenzhen University Shenzhen China

3. Great Bay Area International Institute for Innovation Shenzhen University Shenzhen China

4. Institute of Big Data Intelligent Management and Decision Shenzhen University Shenzhen China

Abstract

AbstractEfficient management of aircraft and crew recovery system is crucial for cost savings and improving the satisfaction, which are related to the airline's reputation. However, most existing work considers only one objective of minimizing costs or maximizing satisfaction. In this study, we propose a new integrated multi‐objective recovery system that takes both cost and satisfaction into account simultaneously. To better capture crew satisfaction in the event of airport closure, a bidding mechanism for early off‐duty task is designed. To overcome the experience‐dependent and labour‐consuming problems associated with current manual or mathematical recoveries, we develop an intelligent optimizer based on multi‐swarm and MOPSO frameworks, termed adaptive seeking and tracking multi‐objective particle swarm optimization algorithm (ASTMOPSO). Specifically, during the evolutionary process, the sub‐swarm size undergoes adaptive internal transfer while executing more efficient evolutionary strategies to approach the global Pareto front. Additionally, five ad‐hoc repair procedures are designed to ensure feasibility for our aircraft and crew recovery system. The ASTMOPSO is applied to real‐world instances from Shenzhen Airlines with different sizes. Experimental results demonstrate the statistical superiority of our method over other popular peer algorithms. And the infeasible solution repair procedures significantly improve the feasibility rate by at least 40%, particularly for large‐scale instances.

Funder

National Natural Science Foundation of China

Ministry of Education of the People's Republic of China

Universidade de Macau

Basic and Applied Basic Research Foundation of Guangdong Province

Natural Science Foundation of Guangdong Province

Natural Science Foundation of Shenzhen City

Publisher

Wiley

Subject

Artificial Intelligence,Computational Theory and Mathematics,Theoretical Computer Science,Control and Systems Engineering

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