The increasing demand for satellite communication capacity poses challenges in efficiently managing the limited frequency spectrum. This study explores dynamic resource allocation strategies for multi-beam satellite communication systems, focusing on optimizing communication delay, packet loss, and power consumption. We conduct a detailed comparative analysis of various Genetic Algorithm (GA) variants, such as NSGA-II and SPEA2, to address the multi-objective optimization problem inherent in resource allocation. Experiments demonstrate NSGA-II’s superior ability to reduce delay and packet loss. In contrast, SPEA2 shows greater power efficiency, which is critical for satellite lifespan. This research advances multi-beam satellite resource management, offering an adaptable optimization technique balancing key performance factors like latency, loss, and power usage.

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Optimizing Resource Allocation for Multi-beam Satellites Using Genetic Algorithm Variations

  • Phuc Hao Do,
  • Tran Duc Le,
  • Aleksandr Berezkin,
  • Ruslan Kirichek

摘要

The increasing demand for satellite communication capacity poses challenges in efficiently managing the limited frequency spectrum. This study explores dynamic resource allocation strategies for multi-beam satellite communication systems, focusing on optimizing communication delay, packet loss, and power consumption. We conduct a detailed comparative analysis of various Genetic Algorithm (GA) variants, such as NSGA-II and SPEA2, to address the multi-objective optimization problem inherent in resource allocation. Experiments demonstrate NSGA-II’s superior ability to reduce delay and packet loss. In contrast, SPEA2 shows greater power efficiency, which is critical for satellite lifespan. This research advances multi-beam satellite resource management, offering an adaptable optimization technique balancing key performance factors like latency, loss, and power usage.