Oct 2026· IEEE Transactions on Mobile Computing· Vol 25, pp. 16311-16327· 0 citations· 64 references
Abstract
Facing the rapid development of both user equipment (UE) and mobile applications, mobile edge computing (MEC) emerged as a new paradigm to furnish UE with satisfactory computational capability and task latency. Studies on MEC have put a great deal of focus on computation offloading, mainly involving multi-step task offloading and resource allocation (OffAll) which is mostly non-trivial. Concerning the heavy burden of online OffAll optimization on scalability and efficiency, offline learning-based OffAll approaches are of high popularity. However, most existing learning-based OffAll is still short of generalizability and adaptability across different MECs, thus difficult for general-purpose application. Inspired by the remarkable success of LLMs for their impressive generalization ability across different tasks by conditioning on instructions or prompts, this paper proposes a diffusion-based OffAll approach (termed DiffLoader) by utilizing the generative conditional-planning ability of diffusion models learned from multi-MEC OffAll experiences. Specifically, we leverage a few-shot trajectory of MEC states transitions as MEC-specific prompts, adopt diffusion to learn multi-MEC conditional OffAll distribution, and generate OffAll decisions via distribution-sampling during execution. We conduct extensive experiments to verify the advantages of DiffLoader over state-of-the-art learning-based multi-MEC OffAll approaches, and also show the compositive generating ability of DiffLoader even for unseen MEC.
The proliferation of Internet of Things (IoT) devices and resource-intensive applications has placed growing pressure on computation, storage, and network resources. Cloud computing helps, but its centralized nature adds latency that delay-sensitive services cannot tolerate, whereas Multi-Access Edge Computing (MEC), b...
M. El Hajji, Abdessamad Chaou, Oussama Lagnfdi et al.· International journal of Com...· 0 citations
Cloud computing (CC) and mobile edge computing (MEC) has become essential for augmenting computational capacity and minimizing latency by offloading tasks from user equipments (UEs) to servers. While deep reinforcement learning (DRL) is a powerful tool for optimizing offloading decisions and managing resource allocatio...
Yu-Hui Wang, Xing-Qi Wu, Junaid Farooq et al.· IEEE International Symposium...· 0 citations
The widespread adoption of Mixture-of-Experts (MoE) has created a growing need for deployment on heterogeneous platforms. However, it exposes a fundamental mismatch between the algorithmic demands of large-scale MoE and the disparate characteristics of hardware.Existing CPU-GPU hybrid inference systems fail to resolve...
Wen-Xun Wang, Li-Kai Ma, Zong-Le Huang et al.· 0 citations
Mobile edge computing (MEC) enables computation-intensive applications to be processed close to end users. In dynamic MEC environments, task-offloading decisions must account for changing communication conditions, heterogeneous computing resources, and dependencies among fine-grained subtasks. Conventional reinforcemen...
Nouhaila Moussammi, Mohamed El Ghmary· International Journal of Adv...· 0 citations
—Mobile Edge Computing (MEC) is a technology that enables mobile devices to transfer computationally demanding tasks to nearby servers. MEC significantly lowers the local processing load by allowing a variety of complicated mobile devices tasks to be transferred to the network system’s edge so that they can be executed...
S. Dash, Jibitesh Mishra, S. Dash et al.· Journal of Advances in Infor...· 0 citations
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