Knowledge Transfer-based Large-scale Routing Scheduling Framework for Satellite Networks

The integration of space-air-ground networks represents a cutting-edge approach to delivering long-range data transmission services. As the volume of communication demands continues to surge, the allocation of resources and the design of routing strategies in satellite networks face escalating complexity. This is due to the need to manage a vast array of communication tasks. Traditional routing methods struggle to identify optimal solutions due to the dimensionality curse. To enhance service quality, this study introduces a scalable routing framework leveraging swarm intelligence. Initially, a variable grouping technique is employed to partition the initial population into smaller sub-populations, each handling lower-dimensional variables. The framework incorporates random exchange and hybrid knowledge transfer mechanisms to facilitate the generation of offspring solutions. By extracting and leveraging the rich knowledge embedded across multiple routing processes, the proposed framework significantly boosts solution efficiency. Empirical results demonstrate that the framework adeptly manages large-scale satellite routing challenges and optimally allocates network resources, outperforming existing methodologies.

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Publication Details

Published
2025-05-20
DOI
https://doi.org/10.1109/wocc63563.2025.11082174
Primary Topic
Satellite Communication Systems
Type
article
Field-Weighted Citation Impact
0.00

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article

Knowledge Transfer-based Large-scale Routing Scheduling Framework for Satellite Networks

Qi Kang, Xiao Bo Dou, Lihua Shi, Siqi Wu et al.
Satellite Communication Systems
article

Knowledge Transfer-based Large-scale Routing Scheduling Framework for Satellite Networks

Qi Kang, Xiao Bo Dou, Lihua Shi, Siqi Wu, Xiaoling Wang, Gao Cheng
article en

Abstract

The integration of space-air-ground networks represents a cutting-edge approach to delivering long-range data transmission services. As the volume of communication demands continues to surge, the allocation of resources and the design of routing strategies in satellite networks face escalating complexity. This is due to the need to manage a vast array of communication tasks. Traditional routing methods struggle to identify optimal solutions due to the dimensionality curse. To enhance service quality, this study introduces a scalable routing framework leveraging swarm intelligence. Initially, a variable grouping technique is employed to partition the initial population into smaller sub-populations, each handling lower-dimensional variables. The framework incorporates random exchange and hybrid knowledge transfer mechanisms to facilitate the generation of offspring solutions. By extracting and leveraging the rich knowledge embedded across multiple routing processes, the proposed framework significantly boosts solution efficiency. Empirical results demonstrate that the framework adeptly manages large-scale satellite routing challenges and optimally allocates network resources, outperforming existing methodologies.

Tongji University (CN)
Natural Science Foundation of Shanghai
Openalex Percentile: Top 76%
Satellite Communication Systems
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Knowledge Transfer-based Large-scale Routing Scheduling Framework for Satellite Networks — Qi Kang, Xiao Bo Dou, et al. · (2025) | TGRS Research Map | TGRS