TY - JOUR
T1 - DYNAMIC GAME-BASED OPTIMISATION OF CLOUD RESOURCE SCHEDULING IN MACAU’S LOCAL AVIATION SECTOR
AU - Zhong, Jiehua
AU - Siu, Ka Meng
AU - Kan, Ho Yin
AU - Pang, Patrick Cheong Iao
N1 - Publisher Copyright:
© 2025, Scibulcom Ltd.. All rights reserved.
PY - 2025
Y1 - 2025
N2 - Efficient and fair scheduling has become increasingly critical in regional civil aviation systems, particularly in congested airspaces such as Macau. Existing scheduling approaches often overlook the strategic behaviour of stakeholders and fail to incorporate energy efficiency or real-time constraints. To address these gaps, this paper proposes a dynamic game-theoretic cloud scheduling model tailored for Macau’s civil aviation environment. The model captures the interactions among air traffic controllers (ATC), airport operation centres (AOC), and airline operators (AO) in a Stackelberg framework. A multi-objective optimisation algorithm based on a genetically-modified particle swarm optimisation (GMOPSO) is employed to balance flight delay, energy consumption, and fairness in cloud task scheduling. Simulation experiments using 2023 operational data from Macau International Airport show that our approach reduces average task completion time by 16.7%, improves Virtual Machine (VM) utilisation by 15%, and significantly enhances stakeholder fairness compared to conventional scheduling strategies.
AB - Efficient and fair scheduling has become increasingly critical in regional civil aviation systems, particularly in congested airspaces such as Macau. Existing scheduling approaches often overlook the strategic behaviour of stakeholders and fail to incorporate energy efficiency or real-time constraints. To address these gaps, this paper proposes a dynamic game-theoretic cloud scheduling model tailored for Macau’s civil aviation environment. The model captures the interactions among air traffic controllers (ATC), airport operation centres (AOC), and airline operators (AO) in a Stackelberg framework. A multi-objective optimisation algorithm based on a genetically-modified particle swarm optimisation (GMOPSO) is employed to balance flight delay, energy consumption, and fairness in cloud task scheduling. Simulation experiments using 2023 operational data from Macau International Airport show that our approach reduces average task completion time by 16.7%, improves Virtual Machine (VM) utilisation by 15%, and significantly enhances stakeholder fairness compared to conventional scheduling strategies.
KW - aviation cloud systems
KW - energy-aware scheduling
KW - game-theoretic scheduling
KW - Macau case study
UR - http://www.scopus.com/inward/record.url?scp=105009362068&partnerID=8YFLogxK
M3 - Article
AN - SCOPUS:105009362068
SN - 1311-5065
VL - 26
SP - 980
EP - 990
JO - Journal of Environmental Protection and Ecology
JF - Journal of Environmental Protection and Ecology
IS - 3
ER -