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View all- Yang YLi Y(2022)Research and Implementation of Turbo Coding Technology in High-Speed Underwater Acoustic OFDM CommunicationJournal of Robotics10.1155/2022/25763032022Online publication date: 1-Jan-2022
MIMO GS OVSF/OFDM Based Underwater Acoustic Multimedia Communication Scheme
Pages 601 - 617
Abstract
An underwater acoustic multimedia communication (UWAMC) system is proposed with 2400 transmission modes according to time-varying multipath underwater acoustic (UWA) channel conditions. The orthogonal variable spreading factor (OVSF) scheme and Gold sequence (GS) scramble code are integrated into multi-input multi-output UWAMC system based on orthogonal frequency-division multiplexing to achieve the quality of service of multimedia transmission in the UWA channel. Binary phase shift keying (BPSK) and quadrature phase shift keying (QPSK) adaptive modulation, direct mapping (DM) or space---time block code (STBC) transmission strategies, convolution channel code with rate 1/2 and 1/3, and a power assignment mechanism were adopted in the proposed system. Simulation results show that the bit error rate (BER) and power saving ratio (PSR) performance of the STBC strategy with transmission diversity is superior to that of the DM strategy without transmission diversity, and the performance of the BERs and PSRs of the transmission scheme with the GS scramble code surpasses that of the scheme without the code. The performance of the BERs and PSRs of BPSK modulation with a channel code rate of 1/3 is better than that of BPSK modulation with a channel code rate of 1/2, and the performances of BERs and PSRs of BPSK modulation with a channel code rate of 1/3 are better than that of QPSK modulation with a channel code rate of 1/3. As the length of the OVSF codes increases, the UWAMC system's BERs decrease, and its PSRs increase. The UWAMC system can achieve either maximum transmission speed or maximum transmission power efficiency.
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- MIMO GS OVSF/OFDM Based Underwater Acoustic Multimedia Communication Scheme
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Published: 01 July 2018
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View all- Yang YLi Y(2022)Research and Implementation of Turbo Coding Technology in High-Speed Underwater Acoustic OFDM CommunicationJournal of Robotics10.1155/2022/25763032022Online publication date: 1-Jan-2022