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A cyclic redundancy check‐based non‐coherent receiver for automatic identification system signals (English)

In: International journal of satellite communications and networking   ;  34 ,  2  ;  2016
  • ISSN:
    1542-0973
  • Article (Journal)  /  Print

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A non‐coherent receiver for automatic identification system (AIS) signals is proposed in this paper. The proposed receiver is based on the Viterbi algorithm with cyclic redundancy check (CRC) trellis. It takes bit stuffing into consideration and is designed to simultaneously demodulate decode and correct the received messages. The complexity of the proposed receiver has been reduced with state‐complexity reduction. Simulations prove that the proposed receiver outperforms those AIS receivers without CRC trellis error correction in terms of BER and packet error rate. Copyright © 2015 John Wiley & Sons, Ltd. We proposed a cyclic redundancy check (CRC)‐based non‐coherent receiver for automatic identification system (AIS) signals received by satellite. With the help of technology for state‐complexity reduction, the complexity of the proposed receiver is reduced. Simulation results proved that the performance of the proposed receiver has been improved compared with those AIS receivers without CRC trellis error correction.

Table of contents – Volume 34, Issue 2

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The tables of contents are generated automatically and are based on the data records of the individual contributions available in the index of the TIB portal. The display of the Tables of Contents may therefore be incomplete.

93
Issue Information ‐ TOC
| 2016
94
Issue Information ‐ JIP
| 2016
95
Communication satellite power amplifiers: current and future SSPA and TWTA technologies
Lohmeyer, Whitney Q. / Aniceto, Raichelle J. / Cahoy, Kerri L. et al. | 2016
115
Optimization and efficient detection of primary synchronization signal for multi‐beam satellite‐LTE systems
Wang, Haiming / Deng, Zhuming / Gao, Xiqi / You, Xiaohu et al. | 2016
131
Evolution of satellite communications: Integration of ETSI BSM and DVB‐RCS for future satellite terminals
de Cola, Tomaso / Marchese, Mario / Mongelli, Maurizio et al. | 2016
155
Experimental assessment of slant‐path rain attenuation variability in the Ka‐band
Garcia‐Rubia, Jose Miguel / Riera, José Manuel / Garcia‐del‐Pino, Pedro / Siles, Gustavo A. / Benarroch, Ana et al. | 2016
171
Bandwidth‐constrained digital pre‐compensation technique for multi‐carrier satellite communications
Kelly, N. / Allegue‐Martínez, M. / Arapoglou, P.‐D. / Zhu, A. et al. | 2016
195
Analysis of reactive jamming against satellite communications
Lichtman, Marc / Reed, Jeffrey H. et al. | 2016
211
Implementing polarization shift keying over satellite – system design and measurement results
Arend, Lionel / Sperber, Ray / Marso, Michel / Krause, Jens et al. | 2016
231
Sizing and optimization of high throughput radio‐frequency data down link of earth observation satellites
Jeannin, Nicolas / Dahman, Isabelle et al. | 2016
251
A cyclic redundancy check‐based non‐coherent receiver for automatic identification system signals
Zhou, H. / Ban, T. / Wang, J. et al. | 2016
263
Perfect match model‐based link assignment to design topology for satellite constellation system
Liu, Zhe / Guo, Wei / Deng, Changlin / Hu, Weisheng / Zhao, Yanbin et al. | 2016
277
Predictive relay‐selection cooperative diversity in land mobile satellite systems
Awoyemi, Babatunde / Walingo, Tom / Takawira, Fambirai et al. | 2016
295
Model‐based guidelines for user‐centric satellite control software development
Dori, Dov / Thipphayathetthana, Somwang et al. | 2016

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