Variable Range Resampling for Computationally Efficient Doppler Compensation in Underwater Acoustic Communication

In shallow-water acoustic communication, OFDM is used owing to robustness with highly selective frequency fading channels. As for the countermeasure of OFDM sensitivity to Doppler, resampling is known as one of effective approaches as Doppler compensation. Performance degradation occurs under non-un...

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Published in2018 OCEANS MTS IEEE Kobe Techno Oceans (OTO) pp. 1 - 4
Main Authors Yoshizawa, Shingo, Saito, Takashi, Mabuchi, Yusaku, Tsukui, Tomoya, Sawada, Shinichi
Format Conference Proceeding
LanguageEnglish
Japanese
Published IEEE 01.05.2018
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DOI10.1109/OCEANSKOBE.2018.8559418

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Abstract In shallow-water acoustic communication, OFDM is used owing to robustness with highly selective frequency fading channels. As for the countermeasure of OFDM sensitivity to Doppler, resampling is known as one of effective approaches as Doppler compensation. Performance degradation occurs under non-uniform Doppler shifts where the Doppler scaling factor is not constant. Our previous work presented parallel resampling with considering Doppler shift dispersion. It improved Doppler resilience, however required exhaustive computation. We study complexity reduction of parallel resampling receiver where the degree of parallelism is dynamically controlled on a frame-by-frame basis, This method can reduce complexity of resampling with keeping the same communication performance.
AbstractList In shallow-water acoustic communication, OFDM is used owing to robustness with highly selective frequency fading channels. As for the countermeasure of OFDM sensitivity to Doppler, resampling is known as one of effective approaches as Doppler compensation. Performance degradation occurs under non-uniform Doppler shifts where the Doppler scaling factor is not constant. Our previous work presented parallel resampling with considering Doppler shift dispersion. It improved Doppler resilience, however required exhaustive computation. We study complexity reduction of parallel resampling receiver where the degree of parallelism is dynamically controlled on a frame-by-frame basis, This method can reduce complexity of resampling with keeping the same communication performance.
Author Saito, Takashi
Yoshizawa, Shingo
Sawada, Shinichi
Mabuchi, Yusaku
Tsukui, Tomoya
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  organization: Kitami Institute of Technology, Kitami, Japan
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  givenname: Takashi
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  organization: Mitsubishi Electric TOKKI Systems Corporation, Kamakura, Japan
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  givenname: Yusaku
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  organization: Mitsubishi Electric TOKKI Systems Corporation, Kamakura, Japan
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  givenname: Tomoya
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  fullname: Tsukui, Tomoya
  organization: IHI Corporation, Yokohama, Japan
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  givenname: Shinichi
  surname: Sawada
  fullname: Sawada, Shinichi
  organization: IHI Corporation, Yokohama, Japan
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Snippet In shallow-water acoustic communication, OFDM is used owing to robustness with highly selective frequency fading channels. As for the countermeasure of OFDM...
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SubjectTerms Complexity theory
Doppler shift
Doppler shifts
OFDM
Parallel processing
Receivers
resampling
Underwater acoustic communication
Underwater acoustics
Title Variable Range Resampling for Computationally Efficient Doppler Compensation in Underwater Acoustic Communication
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