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Journal Radioengineering №7 for 2009 г.
Article in number:
Cosine-phased Meander Pseudorandom Signals (CosBOC Modulated Signals) for Next Generation of Satellite Radionavigation Systems
Authors:
M.S. Yarlykov
Abstract:
A class of cosine-phased meander pseudorandom signals (CosBOC modulated signals) for next generation of satellite radionavigation systems (specifically Galileo and modernized GPS) is outlined. Analysis of essential spectral characteristics of cosine-phased meander a pseudorandom noise code sequences is executed. The spectral density functions and the power spectral density of a cosine-phased meander symbols for CosBOC(1,1), CosBOC(15,10), CosBOC(10,5) and CosBOC(15,2.5) modulated signals are obtained.
Pages: 20-32
References
  1. Betz J.W. The Offset Carrier Modulation for GPS Modernization // Proceeding of the National Technical Meeting of the Institute of Navigation (ION - NTM-99). January 1999. P. 639.
  2. Betz J.W. Binary Offset Carrier Modulations for Radionavigation // Navigation, Journal of ION. V. 48. № 4. Winter 2001 - 2002. P. 227.
  3. Ярлыков М. С. Меандровые шумоподобные сигналы (BOC - сигналы) в новых спутниковых радионавигационных системах // Радиотехника. 2007. № 8. C. 3.
  4. Betz J. W., Blanco M. A., Cahn Ch. R.et al. Description of the L1C Signal // Proceedings of the 19th International Technical Meeting of the Satellite Division of the Institute of Navigation (ION GNSS 2006). September 2006. P. 2080.
  5. Avila - Rodriguez J. - A., Hein G.W., Wallner S. et al. The MBOC Modulation. A Final Touch for the Galileo Frequency and Signal Plan // Inside GNSS, September/October 2007. V. 2. № 5. P. 43.
  6. Gao G. X., Akos D. M., Walter T., Enge P. GIOVE-B on the air. Understanding Galileơs New Signals // Inside GNSS. May/June 2008. V. 3. № 4. P. 34.
  7. Kogure S., Sawabe M., Kishimoto M. Status of QZSS Navigation System in Japan // Proceedings of the International Technical Meeting of the Institute of Navigation (ION GNSS 2006). September 2006. P. 2092.
  8. Ries L., Lestarquit L., Erhard P. et al. A Software Simulation Tool for GNSS 2 BOC-signal Analysis // Proceedings of the Institute of Navigation (ION GPS 2002), Portland, USA. September 2002. P. 2225.
  9. Hein G.W., Godet J., Issler J.-L. et al. Status of Galileo Frequency and Signal Design // Proceedings of the Institute of Navigation, (ION GPS 2002), Portland, USA. September 2002. P. 266.
  10. Hein G.W., Irsigler M., Avila-Rodriguez J.-A., Pany T. Performance of Galileo L1 Signal Candidates // Proceedings of the 8th European Navigation Conference GNSS, Rotterdam, the Netherlands. May 2004, inCDROM.
  11. Ярлыков М.С. Меандровые радиосигналы (BOC - сигналы) в спутниковых радионавигационных системах нового поколения // Новости навигации. 2007. № 3. C. 12.
  12. Lohan E. S., Lakhzouri A., Renfors M. Benefits of Using Lower Chip Rates for Galileo OS and PRS Signals //Proceedings of the European Navigation Conference GNSS - 2005, Munich. July 2005, in CDROM.
  13. Lachapelle G., Petovello M. GNSS Solutions: New GNSS Frequencies, Advantages of M-Code, and Benefits of a Solitary Galileo Satellite // Inside GNS. May/June 2006. V. 1. № 4. P.22.
  14. Тузов Г.И. Статистическая теория приема сложных сигналов. - М.: Сов. радио. 1977.
  15. Варакин Л.Е. Системы связи с шумоподобными сигналами. М.: Радио и связь. 1985.
  16. Шебшаевич В.С., Дмитриев П.П., Иванцевич Н.В. и др. Сетевые спутниковые радионавигационные системы. 2 - е изд. М.: Радиоисвязь. 1993.
  17. Hein G.W., Avila-Rodriguez J.A., Wallner S. et al. MBOC: The New Optimized Spreading Modulation Recommended for Galileo L1OS and GPS L1C // Proceedings of the Position, Location and Navigation Symposium of the Institute of Navigation (ION - PLANS 2006). April 2006. P.883.
  18. Lohan E. S., Lakhzouri A., Renfors M. Feedforward Delay Estimators in Adverse Multipath Propagation for Galileo and Modernized GPS Signals // EURASIP Journal on Applied Signal Processing. V. 2006, Article ID 50971. P.1.
  19. Seidl L. Experimental Galileo Receiver // In Radioelektronika 2006, Conference Proceedings, Slovak University of Technology, Bratislava. 2006. P. 156.
  20. Gerein N., Olynik M., Clayton M. Galileo BOC(1,1) Prototype Receiver Development // Proceedings of the Institute of Navigation (ION GNSS 2004). September 2004. P.2604.
  21. Ярлыков М. С. Характеристики меандровых сигналов (BOC - сигналов) в спутниковых радионавигационных системах нового поколения // Радиотехника. 2008. № 8. C. 61.
  22. Wu J., Dempster A.G. Symmetry Analysis of the «BOC-PRN» Delay Locked Loop Discriminator // The School of Surveying and Spatial Information Systems, University of New South Wales, Sydney, Australia, Submitted to GPS Solutions. 2008, inCDROM.
  23. Корн Г., Корн Т. Справочник по математике для научных работников и инженеров. М.: Наука. 1973.
  24. Каганов В.И. Радиотехнические цепи и сигналы. М.: ФОРУМ: ИНФРА - М. 2005.
  25. Варакин Л.Е. Теория сложных сигналов. М.: Сов. радио. 1970.
  26. Тихонов В.И. Статистическая радиотехника, 2-е изд. М.: Сов. радио. 1982.
  27. Adjrad M., Aguado L. E., Kemp A. Quantification of the Potential Threat to Galileo from Man-Made Noise Sources (QGN) // The CAA Institute of Satellite Navigation, The University of Leeds, UK; Lulea University of Technology, Sweden. November 2006, inCDROM.
  28. Алексеев А.И., Шереметьев А.Г., Тузов Г.И., Глазов Б.И. Теория и применение псевдослучайных сигналов. М.: Наука. 1969.
  29. Шумоподобные сигналы в системах передачи информации / под ред. В.Б. Пестрякова. М.: Сов. радио. 1973.