Joint Service Caching and Computing Resource Allocation for Edge Computing-Enabled Networks
Mingun Kim, Hewon Cho, Ying Cui, and Jemin Lee

TL;DR
This paper proposes a joint service caching and resource allocation framework for edge computing networks, optimizing service success probability with novel algorithms and analyzing the impact of system parameters.
Contribution
It introduces a random service caching scheme, formulates an SSP maximization problem, and develops algorithms for near-optimal solutions with reduced complexity.
Findings
Proposed solutions outperform baseline schemes in SSP.
Near-optimal algorithm performs reliably in high computing regions.
System parameters significantly influence service success probability.
Abstract
In this paper, we consider the service caching and the computing resource allocation in edge computing (EC) enabled networks. We introduce a random service caching design considering multiple types of latency sensitive services and the base stations (BSs)' service caching storage. We then derive a successful service probability (SSP). We also formulate a SSP maximization problem subject to the service caching distribution and the computing resource allocation. Then, we show that the optimization problem is nonconvex and develop a novel algorithm to obtain the stationary point of the SSP maximization problem by adopting the parallel successive convex approximation (SCA). Moreover, to further reduce the computational complexity, we also provide a low complex algorithm that can obtain the near-optimal solution of the SSP maximization problem in high computing capability region. Finally,…
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Taxonomy
TopicsCaching and Content Delivery · Cooperative Communication and Network Coding · IoT and Edge/Fog Computing
