Sponsor:
This research work has been performed in the framework of the H2020-ICT-2014-2 project 5G NORMA (Grant Agreement No. 671584). The work of A. Banchs was partially supported
by the Spanish Ministry of Economy and Competitiveness under the THWART project (Grant TEC2015-70836-ERC).
Project:
info:eu-repo/grantAgreement/EC/H2020/671584 Gobierno de España. TEC-2010-21619-C04-01 Comunidad de Madrid. S2009/ESP-1691/MODELICO
Keywords:
Base stations
,
5G mobile communication
,
Algorithm design and analysis
,
Throughput
,
Ecosystems
,
Adaptation models
,
Mobile computing
In addition to providing substantial performance enhancements, future 5G networks will also change the mobile network ecosystem. Building on the network slicing concept, 5G allows to "slice" the network infrastructure into separate logical networks that may beIn addition to providing substantial performance enhancements, future 5G networks will also change the mobile network ecosystem. Building on the network slicing concept, 5G allows to "slice" the network infrastructure into separate logical networks that may be operated independently and targeted at specific services. This opens the market to new players: the infrastructure provider, which is the owner of the infrastructure, and the tenants, which may acquire a network slice from the infrastructure provider to deliver a specific service to their customers. In this new context, we need new algorithms for the allocation of network resources that consider these new players. In this paper, we address this issue by designing an algorithm for the admission and allocation of network slices requests that (i) maximises the infrastructure provider's revenue and (ii) ensures that the service guarantees provided to tenants are satisfied. Our key contributions include: (i) an analytical model for the admissibility region of a network slicing-capable 5G Network, (ii) the analysis of the system (modelled as a Semi-Markov Decision Process) and the optimisation of the infrastructure provider's revenue, and (iii) the design of an adaptive algorithm (based on Q-learning) that achieves close to optimal performance.[+][-]
Description:
Proceeding of: IEEE Conference on Computer Communications, INFOCOM 2017, Atlanta, Georgia, USA, 1-4 May 2017