On Multi-User Deep-Learning-Based Non-Coherent DPSK Multiple-Symbol Differential Detection in Massive MIMO Systems

In view of reducing the complexity of signal detection in massive multiple-input multiple-output (MIMO) receivers, the use of non-coherent detection is favored over usual coherent techniques that require complex channel estimation. In this paper, a deep-learning approach to implement non-coherent mu...

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Autores principales: Omnia Mahmoud, Ahmed El-Sayed El-Mahdy, Robert F. H. Fischer
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Publicado: IEEE 2021
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spelling oai:doaj.org-article:076884676cff42f6af42902f0fa5a6442021-11-18T00:04:22ZOn Multi-User Deep-Learning-Based Non-Coherent DPSK Multiple-Symbol Differential Detection in Massive MIMO Systems2169-353610.1109/ACCESS.2021.3124863https://doaj.org/article/076884676cff42f6af42902f0fa5a6442021-01-01T00:00:00Zhttps://ieeexplore.ieee.org/document/9598851/https://doaj.org/toc/2169-3536In view of reducing the complexity of signal detection in massive multiple-input multiple-output (MIMO) receivers, the use of non-coherent detection is favored over usual coherent techniques that require complex channel estimation. In this paper, a deep-learning approach to implement non-coherent multiple-symbol detection for differential phase-shift keying (DPSK) multi-user massive MIMO systems is proposed. The proposed deep-learning implementation reduces the high computational complexity required in conventional DPSK detection techniques. Two deep-learning-based multiple-symbol differential detection receiver designs are proposed and compared with decision-feedback differential detection (DFDD), and conventional multiple-symbol differential detection (MSDD) for the same system parameters. Multiple-symbol differential sphere detection (MSDSD) is used to implement conventional MSDD. The results show that the proposed deep-learning-based multiple-symbol differential detection implementation outperforms decision-feedback differential detection and achieves an optimal performance compared to conventional multiple-symbol differential detection implemented by multiple-symbol differential sphere detection for single-user and multi-user scenarios.Omnia MahmoudAhmed El-Sayed El-MahdyRobert F. H. FischerIEEEarticleDeep-learningdifferential detectioninterference cancellationneural networksnon-coherent detectionmassive MIMOElectrical engineering. Electronics. Nuclear engineeringTK1-9971ENIEEE Access, Vol 9, Pp 148339-148352 (2021)
institution DOAJ
collection DOAJ
language EN
topic Deep-learning
differential detection
interference cancellation
neural networks
non-coherent detection
massive MIMO
Electrical engineering. Electronics. Nuclear engineering
TK1-9971
spellingShingle Deep-learning
differential detection
interference cancellation
neural networks
non-coherent detection
massive MIMO
Electrical engineering. Electronics. Nuclear engineering
TK1-9971
Omnia Mahmoud
Ahmed El-Sayed El-Mahdy
Robert F. H. Fischer
On Multi-User Deep-Learning-Based Non-Coherent DPSK Multiple-Symbol Differential Detection in Massive MIMO Systems
description In view of reducing the complexity of signal detection in massive multiple-input multiple-output (MIMO) receivers, the use of non-coherent detection is favored over usual coherent techniques that require complex channel estimation. In this paper, a deep-learning approach to implement non-coherent multiple-symbol detection for differential phase-shift keying (DPSK) multi-user massive MIMO systems is proposed. The proposed deep-learning implementation reduces the high computational complexity required in conventional DPSK detection techniques. Two deep-learning-based multiple-symbol differential detection receiver designs are proposed and compared with decision-feedback differential detection (DFDD), and conventional multiple-symbol differential detection (MSDD) for the same system parameters. Multiple-symbol differential sphere detection (MSDSD) is used to implement conventional MSDD. The results show that the proposed deep-learning-based multiple-symbol differential detection implementation outperforms decision-feedback differential detection and achieves an optimal performance compared to conventional multiple-symbol differential detection implemented by multiple-symbol differential sphere detection for single-user and multi-user scenarios.
format article
author Omnia Mahmoud
Ahmed El-Sayed El-Mahdy
Robert F. H. Fischer
author_facet Omnia Mahmoud
Ahmed El-Sayed El-Mahdy
Robert F. H. Fischer
author_sort Omnia Mahmoud
title On Multi-User Deep-Learning-Based Non-Coherent DPSK Multiple-Symbol Differential Detection in Massive MIMO Systems
title_short On Multi-User Deep-Learning-Based Non-Coherent DPSK Multiple-Symbol Differential Detection in Massive MIMO Systems
title_full On Multi-User Deep-Learning-Based Non-Coherent DPSK Multiple-Symbol Differential Detection in Massive MIMO Systems
title_fullStr On Multi-User Deep-Learning-Based Non-Coherent DPSK Multiple-Symbol Differential Detection in Massive MIMO Systems
title_full_unstemmed On Multi-User Deep-Learning-Based Non-Coherent DPSK Multiple-Symbol Differential Detection in Massive MIMO Systems
title_sort on multi-user deep-learning-based non-coherent dpsk multiple-symbol differential detection in massive mimo systems
publisher IEEE
publishDate 2021
url https://doaj.org/article/076884676cff42f6af42902f0fa5a644
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AT ahmedelsayedelmahdy onmultiuserdeeplearningbasednoncoherentdpskmultiplesymboldifferentialdetectioninmassivemimosystems
AT robertfhfischer onmultiuserdeeplearningbasednoncoherentdpskmultiplesymboldifferentialdetectioninmassivemimosystems
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