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    Enhanced deep soft interference cancellation for multiuser symbol detection

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    https://www.riss.kr/link?id=A108872987

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    The detection of all the symbols transmitted simultaneously in multiuser systems using limited wireless resources is challenging. Traditional model-based methods show high performance with perfect channel state information (CSI); however, severe performance degradation will occur if perfect CSI cannot be acquired. In contrast, data-driven methods perform slightly worse than model-based methods in terms of symbol error ratio performance in perfect CSI states; however, they are also able to overcome extreme performance degradation in imperfect CSI states. This study proposes a novel deep learning-based method by improving a state-of-the-art data-driven technique called deep soft interference cancellation (DSIC). The enhanced DSIC (EDSIC) method detects multiuser symbols in a fully sequential manner and ses an efficient neural network structure to ensure high performance. Additionally, error-propagation mitigation techniques are used to ensure robustness against channel uncertainty. The EDSIC guarantees a performance that is very close to the optimal performance of the existing model-based methods in perfect CSI environments and the best performance in imperfect CSI environments.
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    The detection of all the symbols transmitted simultaneously in multiuser systems using limited wireless resources is challenging. Traditional model-based methods show high performance with perfect channel state information (CSI); however, severe perfo...

    The detection of all the symbols transmitted simultaneously in multiuser systems using limited wireless resources is challenging. Traditional model-based methods show high performance with perfect channel state information (CSI); however, severe performance degradation will occur if perfect CSI cannot be acquired. In contrast, data-driven methods perform slightly worse than model-based methods in terms of symbol error ratio performance in perfect CSI states; however, they are also able to overcome extreme performance degradation in imperfect CSI states. This study proposes a novel deep learning-based method by improving a state-of-the-art data-driven technique called deep soft interference cancellation (DSIC). The enhanced DSIC (EDSIC) method detects multiuser symbols in a fully sequential manner and ses an efficient neural network structure to ensure high performance. Additionally, error-propagation mitigation techniques are used to ensure robustness against channel uncertainty. The EDSIC guarantees a performance that is very close to the optimal performance of the existing model-based methods in perfect CSI environments and the best performance in imperfect CSI environments.

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    참고문헌 (Reference)

    1 F. Liang, "Towards optimal power control via ensembling deep neural networks" 68 (68): 1760-1776, 2020

    2 Lee, Howon ; Lee, Byungju ; Yang, Heecheol ; Kim, Junghyun ; Kim, Seungnyun ; Shin, Wonjae ; Shim, Byonghyo ; Poor, H. Vincent, "Towards 6G Hyper-Connectivity: Vision, Challenges, and Key Enabling Technologies" 한국통신학회 25 (25): 344-354, 2023

    3 H. Kim, "Physical layer communication via deep learning" 1 (1): 5-18, 2020

    4 X. Chen, "On the design of massive nonorthogonal multiple access with imperfect successive interference cancellation" 67 (67): 2539-2551, 2019

    5 D. Silver, "Mastering the game of Go without human knowledge" 550 (550): 354-359, 2017

    6 D. Gündüz, "Machine learning in the air" 37 (37): 2184-2199, 2019

    7 H. Sun, "Learning to optimize : training deep neural networks for interference management" 66 (66): 5438-5453, 2018

    8 S. Zhang, "Learn codes : inventing lowlatency codes via recurrent neural networks" 1 (1): 207-216, 2020

    9 W. -J. Choi, "Iterative soft interference cancellation for multiple antenna systems" 304-309, 2000

    10 N. Shlezinger, "Hybrid beamforming based on an unsupervised deep learning network for downlink channels with imperfect CSI" 11 (11): 1543-1547, 2022

    1 F. Liang, "Towards optimal power control via ensembling deep neural networks" 68 (68): 1760-1776, 2020

    2 Lee, Howon ; Lee, Byungju ; Yang, Heecheol ; Kim, Junghyun ; Kim, Seungnyun ; Shin, Wonjae ; Shim, Byonghyo ; Poor, H. Vincent, "Towards 6G Hyper-Connectivity: Vision, Challenges, and Key Enabling Technologies" 한국통신학회 25 (25): 344-354, 2023

    3 H. Kim, "Physical layer communication via deep learning" 1 (1): 5-18, 2020

    4 X. Chen, "On the design of massive nonorthogonal multiple access with imperfect successive interference cancellation" 67 (67): 2539-2551, 2019

    5 D. Silver, "Mastering the game of Go without human knowledge" 550 (550): 354-359, 2017

    6 D. Gündüz, "Machine learning in the air" 37 (37): 2184-2199, 2019

    7 H. Sun, "Learning to optimize : training deep neural networks for interference management" 66 (66): 5438-5453, 2018

    8 S. Zhang, "Learn codes : inventing lowlatency codes via recurrent neural networks" 1 (1): 207-216, 2020

    9 W. -J. Choi, "Iterative soft interference cancellation for multiple antenna systems" 304-309, 2000

    10 N. Shlezinger, "Hybrid beamforming based on an unsupervised deep learning network for downlink channels with imperfect CSI" 11 (11): 1543-1547, 2022

    11 Y. Shen, "Graph neural networks for scalable radio resource management : architecture design and theoretical analysis" 39 (39): 101-115, 2021

    12 O. Vinyals, "Grandmaster level in Starcraft II using multi-agent reinforcement learning" 575 (575): 350-354, 2019

    13 N. Shlezinger, "DeepSIC : deep soft interference cancellation for multiuser MIMO detection" 20 (20): 1349-1362, 2021

    14 M. Honkala, "DeepRx : fully convolutional deep learning receiver" 20 (20): 3925-3940, 2021

    15 W. Lee, "Deep-learning-assisted wireless-powered secure communications with imperfect channel state information" 9 (9): 11464-11476, 2022

    16 W. Lee, "Deep power control : transmit power control scheme based on convolutional neural network" 22 (22): 1276-1279, 2018

    17 J. Kim, "Deep learningassisted multi-dimensional modulation and resource mapping for advanced OFDM systems" 1-6, 2018

    18 H. Ye, "Deep learning-based end-to-end wireless communication systems with conditional gans as unknown channels" 19 (19): 3133-3143, 2020

    19 E. Nachmani, "Deep learning methods for improved decoding of linear codes" 12 (12): 119-131, 2018

    20 Q. Mao, "Deep learning for intelligent wireless networks : a comprehensive survey" 20 (20): 2595-2621, 2018

    21 T. V. Luong, "Deep learning based successive interference cancellation for the non-orthogonal downlink" 71 (71): 11876-11888, 2022

    22 S. Dörner, "Deep learning based communication over the air" 12 (12): 132-143, 2018

    23 Y. LeCun, "Deep learning" 521 (521): 436-444, 2015

    24 I. Goodfellow, "Deep learning" MIT Press 2016

    25 T. O’Shea, "An introduction to deep learning for the physical layer" 3 (3): 563-575, 2017

    26 S. Han, "A new design of channel denoiser using residual autoencoder" 59 (59): 1-3, 2023

    27 C. Lin, "A deep learning approach for MIMO-NOMA downlink signal detection" 19 (19): 1-22, 2021

    28 "3GPP, Technical Specification Group Radio Access Network;NR; multiplexing and channel coding; (Release 17), Technical Specification (TS) 38.212, 3rd Generation Partnership Project (3GPP), version 17.4.0"

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