Message-Passing Receiver for OCDM in Vehicular Communications and Networks

As a new candidate waveform for the next generation of mobile communications, orthogonal chirp division multiplexing (OCDM) has attracted growing attention for its high spectrum efficiency and robustness to narrow-band interference or impulsive noise. Under vehicular communication channels with mult...

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Veröffentlicht in:IEEE internet of things journal 2024-07, Vol.11 (14), p.24903-24917
Hauptverfasser: Liu, Yun, Ji, Fei, Wen, Miaowen, Qing, Hua, Wan, Dehuan, Hu, Zeng
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container_end_page 24917
container_issue 14
container_start_page 24903
container_title IEEE internet of things journal
container_volume 11
creator Liu, Yun
Ji, Fei
Wen, Miaowen
Qing, Hua
Wan, Dehuan
Hu, Zeng
description As a new candidate waveform for the next generation of mobile communications, orthogonal chirp division multiplexing (OCDM) has attracted growing attention for its high spectrum efficiency and robustness to narrow-band interference or impulsive noise. Under vehicular communication channels with multiple lags and multiple Doppler shifts (MLMDs), the signal suffers doubly selective (DS) fadings in the time and frequency domain, and data symbols modulated on orthogonal chirps interfere with each other. To address the problem of symbol detection of OCDM over MLMD channels, under the assumption that path attenuation factors, delays, and Doppler shifts of the channel are available, we first derive the closed-form channel matrix in the Fresnel domain and then propose a low-complexity method to approximate it as a sparse matrix. Based on the approximated Fresnel-domain channel, we propose a message-passing (MP)-based detector to estimate the transmit symbols iteratively. Finally, under two MLMD channels (an underspread channel for terrestrial vehicular communications and an overspread channel for narrow-band underwater acoustic communications), Monte Carlo simulation results and analyses are provided to validate its advantages as a promising detector for OCDM.
doi_str_mv 10.1109/JIOT.2024.3387887
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Under vehicular communication channels with multiple lags and multiple Doppler shifts (MLMDs), the signal suffers doubly selective (DS) fadings in the time and frequency domain, and data symbols modulated on orthogonal chirps interfere with each other. To address the problem of symbol detection of OCDM over MLMD channels, under the assumption that path attenuation factors, delays, and Doppler shifts of the channel are available, we first derive the closed-form channel matrix in the Fresnel domain and then propose a low-complexity method to approximate it as a sparse matrix. Based on the approximated Fresnel-domain channel, we propose a message-passing (MP)-based detector to estimate the transmit symbols iteratively. 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subjects Channels
Chirp
Code division multiplexing
Doubly selective (DS)
Message passing
Monte Carlo simulation
multiple lags and multiple Doppler shifts (MLMDs)
Multiplexing
OFDM
orthogonal chirp division multiplexing (OCDM)
overspread
Receivers
Sparse matrices
Symbols
time varying
under spread
underwater acoustic (UWA) communications
Underwater acoustics
Vectors
vehicular communications
Waveforms
title Message-Passing Receiver for OCDM in Vehicular Communications and Networks
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