Policy Optimization for Content Push via Energy Harvesting Small Cells in Heterogeneous Networks

Motivated by the rapid development of energy harvesting technology and content-aware communication in access networks, this paper considers the push mechanism design in small-cell base stations (SBSs) powered by renewable energy. A user request can be satisfied by either push or unicast from the SBS...

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Veröffentlicht in:IEEE transactions on wireless communications 2017-02, Vol.16 (2), p.717-729
Hauptverfasser: Gong, Jie, Zhou, Sheng, Zhou, Zhenyu, Niu, Zhisheng
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Zhou, Sheng
Zhou, Zhenyu
Niu, Zhisheng
description Motivated by the rapid development of energy harvesting technology and content-aware communication in access networks, this paper considers the push mechanism design in small-cell base stations (SBSs) powered by renewable energy. A user request can be satisfied by either push or unicast from the SBS. If the SBS cannot handle the request, the user is blocked by the SBS and is served by the macro-cell BS instead, which typically consumes more energy. We aim to minimize the ratio of user requests blocked by the SBS to total number of user requests. With finite battery capacity, Markov decision process-based problem is formulated, and the optimal policy is found by dynamic programming (DP). Two threshold-based policies are proposed: the push-only threshold-based policy and the energy-efficient threshold-based policy, and the closed-form blocking probabilities with infinite battery capacity are derived. Numerical results show that the proposed policies outperform the conventional non-push policy if the content popularity changes slowly or the content request generating rate is high, and can achieve the performance of the greedy optimal threshold-based policy. In addition, the performance gap between the threshold-based policies and the DP optimal policy is small when the energy arrival rate is low or the request generating rate is high.
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subjects Base stations
Batteries
Cellular networks
Content caching and push
dynamic programming
Energy consumption
Energy harvesting
heterogeneous networks
Renewable energy
Renewable energy sources
small cell
Wireless communication
title Policy Optimization for Content Push via Energy Harvesting Small Cells in Heterogeneous Networks
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