|Table of Contents|

[1] Zhang Chaojie, Jin Xiaojun, Yu Faxin, Jin Zhonghe, et al. Performance analysis of a novel chip tracking loop usedfor regenerative pseudo-noise ranging clock recovery [J]. Journal of Southeast University (English Edition), 2007, 23 (2): 185-189. [doi:10.3969/j.issn.1003-7985.2007.02.007]
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Performance analysis of a novel chip tracking loop usedfor regenerative pseudo-noise ranging clock recovery()
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Journal of Southeast University (English Edition)[ISSN:1003-7985/CN:32-1325/N]

Volumn:
23
Issue:
2007 2
Page:
185-189
Research Field:
Information and Communication Engineering
Publishing date:
2007-06-30

Info

Title:
Performance analysis of a novel chip tracking loop usedfor regenerative pseudo-noise ranging clock recovery
Author(s):
Zhang Chaojie Jin Xiaojun Yu Faxin Jin Zhonghe
Department of Information Science and Electronics Engineering, Zhejiang University, Hangzhou 310027, China
Keywords:
clock recovery tracking loops pseudo-noise codes ranging data transition tracking loop chip tracking loop
PACS:
TN927
DOI:
10.3969/j.issn.1003-7985.2007.02.007
Abstract:
To improve the performance of composite pseudo-noise(PN)code clock recovery in a regenerative PN ranging system at a low symbol signal-to-noise ratio(SNR), a novel chip tracking loop(CTL)used for regenerative PN ranging clock recovery is adopted.The CTL is a modified data transition tracking loop(DTTL).The difference between them is that the Q channel output of the CTL is directly multiplied by a clock component, while that of the DTTL is multiplied by the I channel transition detector output.Under the condition of a quasi-squareware PN ranging code, the tracking(mean square timing jitter)performance of the CTL is analyzed.The tracking performances of the CTL and the DTTL are compared over a wide range of symbol SNRs.The result shows that the CTL and the DTTL have the same performance at a large symbol SNR, while at a low symbol SNR, the former offers a noticeable enhancement.

References:

[1] Sniffin R W.26 m subnet Doppler and ranging.DSMS telecommunications link design handbook [R].Pasadena, CA, USA:Jet Propulsion Laboratory, 2000.
[2] Sniffin R W.Sequential ranging.DSMS telecommunications link design handbook [R].Pasadena, CA, USA:Jet Propulsion Laboratory, 2000.
[3] Reynolds M K, Reinhart M J, Bokulic R S, et al.A two-way noncoherent ranging technique for deep space missions [C]//IEEE Aerospace Conference Proceedings.Big Sky, USA, 2002:1303-1312.
[4] Kinman P W, Berner J B.Two-way ranging during early mission phase [C]//IEEE Aerospace Conference Proceedings.Big Sky, USA, 2003:1441-1453.
[5] Kinman P W.Pseudo-noise and regenerative ranging.DSMS telecommunications link design handbook [R].Pasadena, CA, USA:Jet Propulsion Laboratory, 2004.
[6] Berner J B, Layland J M, Kinman P W, et al.Regenerative pseudo-noise ranging for deep-space applications.TMO progress report 42-137 [R].Pasadena, CA, USA:Jet Propulsion Laboratory, 1999.
[7] CCSDS Secretariat.Pseudo-noise ranging systems.CCSDS 4XX.1-W-1 white book [R].Washington DC, USA:NASA, 2005.
[8] Berner J B, Bryant S H.Operations comparison of deep space ranging types:sequential tone vs.pseudo-noise [C]//IEEE Aerospace Conference Proceedings.Big Sky, USA, 2002:1313-1326.
[9] Simone L, Comparini M C, Boscagli G.Deep space digital transponder for rosetta and mars express missions[C]//The 2nd ESA Workshop on Telemetry, Tracking and Command Systems for Space Applications.Noordwijk, Holland, 2001:170-176.
[10] Simone L, Comparini M C, Marchetti F, et al.Spacecraft transponder for deep space applications:design and performance[C]//IEEE Aerospace Conference Proceedings.Big Sky, USA, 2002:1337-1347.
[11] Simone L, Comparini M C.X/X/Ka transponder for deep space missions:architectural design and bread-boarding at ALENIA SPAZIO [C]//IEEE Aerospace Conference Proceedings.Big Sky, USA, 2003:1475-1485.
[12] Simone L, Gelfusa D, Cocchi S, et al.A novel digital platform for deep space transponders:the receiver side [C]//IEEE Aerospace Conference Proceedings.Big Sky, USA, 2004:1432-1445.
[13] Simone L, Gelfusa D, Comparini M C.On-board regenerative ranging channel:analysis, design and test results [C]//The 3rd ESA Workshop on Telemetry, Tracking and Command Systems for Space Applications.Noordwijk, Holland, 2004:456-466.
[14] Berner J B, Kayalar S, Perret J.The NASA spacecraft transponding modem [C]//IEEE Aerospace Conference Proceedings.Big Sky, USA, 2000:195-209.
[15] Cook B, Dennis M, Kayalar S, et al.Development of the advanced deep space transponder.IPN progress report 42-156 [R].Pasadena, CA, USA:Jet Propulsion Laboratory, 2004.
[16] Simon M K.An analysis of the steady-state phase noise performance of a digital data-transition tracking loop [C]//International Conference on Communications Record.Boulder, Colorado, USA, 1969:9-15.
[17] Lindsey W C, Simon M K.Telecommunication systems engineering [M].New Jersey:Prentice-Hall, 1973.
[18] Simon M K.The true performance of the simplified data transition tracking loop [J].IEEE Transactions on Communications, 2005, 53(6):939-944.
[19] Simon M K.A tracking performance comparison of the conventional data transition tracking loop with the linear data transition tracking loop.IPN progress report 42-162[R].Pasadena, CA, USA:Jet Propulsion Laboratory, 2005.
[20] Deng Jiyu, Lin Jiming.Synchronization theory and techniques [M].Beijing:Publishing House of Electronics Industry, 2003.(in Chinese)

Memo

Memo:
Biographies: Zhang Chaojie(1982—), male, graduate;Jin Zhonghe(corresponding author), male, doctor, professor, jinzh@zju.edu.cn.
Last Update: 2007-06-20