Multitask Routing Design for Load-Balancing Satellite Networks

The benefit of low latency has led to growing interests in Space-Air-Ground (SAG) integrated networks. To provide better service, we need to consider how to schedule paths for many communication tasks concurrently, thus resulting in a complex optimization problem. Considering the potential benefits of evolutionary multitasking, a new routing framework is designed to draw upon excellent evolutionary experience and enhance the routing performance. In the proposed framework, the population of each task is divided into better-performing and worse-performing sub-populations. A random exchange strategy is designed for the former, while an inter-task knowledge transfer strategy is proposed for the latter with the aim for improving the population diversity. A series of results demonstrate that the proposed framework is an effective routing solution strategy. Moreover, it significantly outperforms baseline solvers and the shortest path strategy.

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Publication Details

Published
2024-10-06
DOI
https://doi.org/10.1109/smc54092.2024.10831415
Citations
1
Primary Topic
Satellite Communication Systems
Type
article
Field-Weighted Citation Impact
1.30
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Multitask Routing Design for Load-Balancing Satellite Networks

Qi Kang, Xiao Bo Dou, Zheng Fan, Xiaoling Wang et al.
1 citations
Satellite Communication Systems
1.30
article

Multitask Routing Design for Load-Balancing Satellite Networks

Qi Kang, Xiao Bo Dou, Zheng Fan, Xiaoling Wang, Qi Deng, Shengwei Zhao
article en
1 citations

Abstract

The benefit of low latency has led to growing interests in Space-Air-Ground (SAG) integrated networks. To provide better service, we need to consider how to schedule paths for many communication tasks concurrently, thus resulting in a complex optimization problem. Considering the potential benefits of evolutionary multitasking, a new routing framework is designed to draw upon excellent evolutionary experience and enhance the routing performance. In the proposed framework, the population of each task is divided into better-performing and worse-performing sub-populations. A random exchange strategy is designed for the former, while an inter-task knowledge transfer strategy is proposed for the latter with the aim for improving the population diversity. A series of results demonstrate that the proposed framework is an effective routing solution strategy. Moreover, it significantly outperforms baseline solvers and the shortest path strategy.

Tongji University (CN)
Affordable and clean energy
Openalex Percentile: Top 11%
Satellite Communication Systems
1.30
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