Pod-Orchestrated Dual Cluster Framework for Intelligent Task Offloading in Satellite-Ground Edge Networks

This paper proposes a Kubernetes-based dualcluster framework for intelligent task offloading in satelliteground edge networks. The system integrates 12 ground stations and 66 satellite nodes, leveraging containerized pods and realtime monitoring to optimize task placement based on CPU usage, network load, and line-of-sight availability. A custom Python controller dynamically enforces offloading and migration policies, while Prometheus and Grafana facilitate continuous performance tracking. Simulation results show that the framework reduces end-to-end latency by up to $35 \%$, decreases CPU utilization on overloaded ground nodes by $43 \%$, and improves task success rates to over $90 \%$ within the optimal offloading range. These outcomes validate the framework’s scalability and resilience in managing dynamic workloads across heterogeneous terrestrial and non-terrestrial infrastructures.

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Publication Details

Published
2025-09-22
DOI
https://doi.org/10.23919/apnoms67058.2025.11181236
Primary Topic
Satellite Communication Systems
Type
article
Field-Weighted Citation Impact
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article

Pod-Orchestrated Dual Cluster Framework for Intelligent Task Offloading in Satellite-Ground Edge Networks

Sara Jamal, Muhammad Asif, Umar Mahmood, Wang‐Cheol Song
Satellite Communication Systems
article

Pod-Orchestrated Dual Cluster Framework for Intelligent Task Offloading in Satellite-Ground Edge Networks

Sara Jamal, Muhammad Asif, Umar Mahmood, Wang‐Cheol Song
article en

Abstract

This paper proposes a Kubernetes-based dualcluster framework for intelligent task offloading in satelliteground edge networks. The system integrates 12 ground stations and 66 satellite nodes, leveraging containerized pods and realtime monitoring to optimize task placement based on CPU usage, network load, and line-of-sight availability. A custom Python controller dynamically enforces offloading and migration policies, while Prometheus and Grafana facilitate continuous performance tracking. Simulation results show that the framework reduces end-to-end latency by up to $35 \%$, decreases CPU utilization on overloaded ground nodes by $43 \%$, and improves task success rates to over $90 \%$ within the optimal offloading range. These outcomes validate the framework’s scalability and resilience in managing dynamic workloads across heterogeneous terrestrial and non-terrestrial infrastructures.

Jeju National University (KR)
Openalex Percentile: Top 63%
Satellite Communication Systems
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