Energy-Efficient RSMA-enabled Low-altitude MEC Optimization Via Generative AI-enhanced Deep Reinforcement Learning
Xudong Wang, Hongyang Du, Lei Feng, Kaibin Huang

TL;DR
This paper presents a novel AI-enhanced deep reinforcement learning framework for optimizing energy-efficient UAV-based low-altitude MEC systems with RSMA, effectively mitigating interference and improving performance.
Contribution
It introduces a diffusion model-embedded DRL approach for joint UAV trajectory, resource, and decoding optimization in interference-limited MEC environments.
Findings
Outperforms baseline optimization methods in simulations
Achieves higher energy efficiency in UAV MEC systems
Effectively mitigates uplink interference among ground terminals
Abstract
The growing demand for low-latency computing in 6G is driving the use of UAV-based low-altitude mobile edge computing (MEC) systems. However, limited spectrum often leads to severe uplink interference among ground terminals (GTs). In this paper, we investigate a rate-splitting multiple access (RSMA)-enabled low-altitude MEC system, where a UAV-based edge server assists multiple GTs in concurrently offloading their tasks over a shared uplink. We formulate a joint optimization problem involving the UAV 3D trajectory, RSMA decoding order, task offloading decisions, and resource allocation, aiming to mitigate multi-user interference and maximize energy efficiency. Given the high dimensionality, non-convex nature, and dynamic characteristics of this optimization problem, we propose a generative AI-enhanced deep reinforcement learning (DRL) framework to solve it efficiently. Specifically, we…
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Taxonomy
TopicsCCD and CMOS Imaging Sensors · Robotic Path Planning Algorithms
