5G for Future Wireless Networks. Second EAI International Conference, 5GWN 2019, Changsha, China, February 23-24, 2019, Proceedings

Research Article

Deep Learning Based Antenna Muting and Beamforming Optimization in Distributed Massive MIMO Systems

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  • @INPROCEEDINGS{10.1007/978-3-030-17513-9_2,
        author={Yu Chen and Kai Zhao and Jing-ya Zhao and Qing-hua Zhu and Yong Liu},
        title={Deep Learning Based Antenna Muting and Beamforming Optimization in Distributed Massive MIMO Systems},
        proceedings={5G for Future Wireless Networks. Second EAI International Conference, 5GWN 2019, Changsha, China, February 23-24, 2019, Proceedings},
        proceedings_a={5GWN},
        year={2019},
        month={4},
        keywords={Deep learning Distributed massive MIMO Deep Neural Network Antenna muting Beamforming},
        doi={10.1007/978-3-030-17513-9_2}
    }
    
  • Yu Chen
    Kai Zhao
    Jing-ya Zhao
    Qing-hua Zhu
    Yong Liu
    Year: 2019
    Deep Learning Based Antenna Muting and Beamforming Optimization in Distributed Massive MIMO Systems
    5GWN
    Springer
    DOI: 10.1007/978-3-030-17513-9_2
Yu Chen,*, Kai Zhao1, Jing-ya Zhao1, Qing-hua Zhu1, Yong Liu1
  • 1: Beijing Polytechnic
*Contact email: buptchen@163.com

Abstract

Inspired by the success of Deep Learning (DL) in solving complex control problems, a new DL-based approximation framework to solve the problems of antenna muting and beamforming optimization in distributed massive MIMO was proposed. The main purpose is to obtain a non-linear mapping from the raw observations of networks to the optimal antenna muting and beamforming pattern, using Deep Neural Network (DNN). Firstly, the antenna muting and beamforming optimization problem is modeled as a non-combination optimization problem, which is NP-hard. Then a DNN based framework is proposed to obtain the optimal solution to this complex optimization problem with low-complexity. Finally, the performance of the DNN-based framework is evaluated in detail. Simulation results show that the proposed DNN framework can achieve a fairly accurate approximation. Moreover, compared with the traditional algorithm, DNN can be reduced the computation time by several orders of magnitude.