Dynamic Service Migration in Mobile Edge Computing Based on Markov Decision Process
Shiqiang Wang, Rahul Urgaonkar, Murtaza Zafer, Ting He, Kevin Chan,, Kin K. Leung

TL;DR
This paper formulates the service migration problem in mobile edge computing as a Markov Decision Process, providing an optimal policy approximation that improves migration decisions amid user mobility.
Contribution
It introduces a novel MDP-based framework for optimal service migration, including a new algorithm for faster computation and practical evaluation with real-world mobility data.
Findings
MDP formulation effectively models migration decisions.
Proposed algorithm significantly reduces computation time.
Solution outperforms baseline methods in real-world scenarios.
Abstract
In mobile edge computing, local edge servers can host cloud-based services, which reduces network overhead and latency but requires service migrations as users move to new locations. It is challenging to make migration decisions optimally because of the uncertainty in such a dynamic cloud environment. In this paper, we formulate the service migration problem as a Markov Decision Process (MDP). Our formulation captures general cost models and provides a mathematical framework to design optimal service migration policies. In order to overcome the complexity associated with computing the optimal policy, we approximate the underlying state space by the distance between the user and service locations. We show that the resulting MDP is exact for uniform one-dimensional user mobility while it provides a close approximation for uniform two-dimensional mobility with a constant additive error. We…
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Taxonomy
TopicsIoT and Edge/Fog Computing · Age of Information Optimization · Caching and Content Delivery
