2026· IEEE Transactions on Network Science and Engineering· Vol 13, pp. 11061-11080· 0 citations· 96 references
Abstract
Edge cloud computing in the Industrial Internet of Things (IIoT) enables latency-sensitive tasks from IIoT terminals to be offloaded to distributed edge data centers (EDCs). This paper proposes an agentic artificial intelligence (AI)-assisted Stackelberg game framework to address the task offloading and resource allocation (TORA) problem. Our goal is to minimize the total processing delay of tasks while guaranteeing their delay thresholds. In this framework, LAN bandwidth and EDC computing capabilities are treated as commodities. Tasks act as non-cooperative Stackelberg followers, utilizing a Lagrange multiplier-based algorithm to achieve closed-form theoretically optimal bidding strategies under given commodity prices. Meanwhile, an agentic Stackelberg leader adopts a twin delayed deep deterministic policy gradient (TD3) algorithm to dynamically adjust these unit-prices for optimal system performance. Experimental results demonstrate that the proposed framework features extremely low computational complexity for online TORA problems, minimizes total processing delays, and significantly reduces the occurrence probability of events that at least one security-related task exceeds its delay threshold.
In Industrial Internet of Things systems, heterogeneous devices generate tasks with diversified quality-of-service (QoS), including latency-sensitive tasks and energy-sensitive tasks. However, most existing task offloading approaches optimize a single performance metric or convert multi-objective problem into weighted...
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For time-sensitive Industrial Internet of Things (IIoT) applications demanding ultra-reliable and low-latency communication (URLLC), it is critical to integrate the age of information (AoI) into computation offloading designs. This paper proposes a joint optimization of task offloading and resource allocation in the mo...
Unmanned aerial vehicle (UAV)-assisted mobile edge computing (MEC) provides flexible, real-time computing services to Internet of Things (IoT) devices at network edges. However, existing resource allocation schemes primarily rely on the physical parameters of tasks, while neglecting their semantic priorities. This may...
Xue-Wen He, Tian-Shun Wang, Si-Rui Wang et al.· 2026 IEEE/CIC International...· 0 citations
With the deployment of 5G NR-U (5th Generation New Radio in Unlicensed Spectrum) in unlicensed spectrum and the rise of sparse large-scale models (exemplified by Switch Transformers) in edge computing, edge-cloud collaborative training faces the dual challenges of dynamic spectrum contention and heterogeneous load...
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With the rapid increase in real-time computational demands from in-vehicle applications, traditional cloud computing is often unable to meet the millisecond-level response requirements of the Internet of Vehicles due to transmission delays. Vehicular fog computing, which integrates edge infrastructures and idle resourc...
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