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2022 | OriginalPaper | Chapter

2. GNSS Overview

Author : Vladislav Demyanov

Published in: Space Weather Impact on GNSS Performance

Publisher: Springer International Publishing

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Abstract

The general structure of Global Positioning Systems and features of GPS, GLONASS, Galileo and BeiDou segments are considered. GNSS performance is discussed in both standalone and differential modes at the standpoint its reliability and quality depending on a navigation receiver software and hardware features. Sources of code- and phase- ranging errors and their correlation characteristics are analyzed. Special focus made on the locally-dependent ranging errors such as ionospheric, tropospheric and multipath errors. Main problems and trends in up-to-date modernization of Global Positioning Systems are discussed.

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Literature
go back to reference Afraimovich EL, Perevalova NP (2006) GPS—monitoring of the earth’s upper atmosphere. Irkutsk, GU NC RVH VSNC SO RAMN, p 480. ISBN 5-98277-033-7 (in Russian) Afraimovich EL, Perevalova NP (2006) GPS—monitoring of the earth’s upper atmosphere. Irkutsk, GU NC RVH VSNC SO RAMN, p 480. ISBN 5-98277-033-7 (in Russian)
go back to reference Akasofu SI, Chapman S (1972) Solar-terrestrial physics. Chapter 2. Oxford University Press, p 901 Akasofu SI, Chapman S (1972) Solar-terrestrial physics. Chapter 2. Oxford University Press, p 901
go back to reference BeiDou navigation satellite system ground-based augmentation service interface control document (version 1.0) (2020–07a) BDS-SIS-ICD-GAS-1.0. China Satellite Navigation Office BeiDou navigation satellite system ground-based augmentation service interface control document (version 1.0) (2020–07a) BDS-SIS-ICD-GAS-1.0. China Satellite Navigation Office
go back to reference BeiDou navigation satellite system signal in space interface control document (2020–07b) Precise point positioning service signal PPP-B2b (version 1.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-PPP-B2b-1.0 BeiDou navigation satellite system signal in space interface control document (2020–07b) Precise point positioning service signal PPP-B2b (version 1.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-PPP-B2b-1.0
go back to reference BeiDou navigation satellite system signal in space interface control document (2017–12) Open service signal B2a (version 1.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-B2a-1.0 BeiDou navigation satellite system signal in space interface control document (2017–12) Open service signal B2a (version 1.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-B2a-1.0
go back to reference BeiDou navigation satellite system signal in space interface control document (2017–12) Open service signal B1C (version 1.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-B1C-1.0 BeiDou navigation satellite system signal in space interface control document (2017–12) Open service signal B1C (version 1.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-B1C-1.0
go back to reference BeiDou navigation satellite system signal in space interface control document (2018–02) Open service signal B3I (version 1.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-B3I-1.0 BeiDou navigation satellite system signal in space interface control document (2018–02) Open service signal B3I (version 1.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-B3I-1.0
go back to reference BeiDou navigation satellite system signal in space interface control document (2019–02) Open service signal B1I (version 3.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-B1I-3.0 BeiDou navigation satellite system signal in space interface control document (2019–02) Open service signal B1I (version 3.0). China satellite navigation office, 02.2019. BDS-SIS-ICD-B1I-3.0
go back to reference Brunner F, Welsch W (1993) Effect of the troposphere on GPS measurements (1993). GPS World Mag 4(1) Brunner F, Welsch W (1993) Effect of the troposphere on GPS measurements (1993). GPS World Mag 4(1)
go back to reference Demyanov VV, Konuyshkin GY, Khlyzova IV (2010) Systematic changing in positioning errors for GNSS users in different latitudes. Aviakosmicheskoye Priborostroenie. 7:9–16. (in Russian) Demyanov VV, Konuyshkin GY, Khlyzova IV (2010) Systematic changing in positioning errors for GNSS users in different latitudes. Aviakosmicheskoye Priborostroenie. 7:9–16. (in Russian)
go back to reference European GNSS (GALILEO) open service signal in space interface control document (2021) Issue 2.0. OS SIS ICD. European GNSS agency European GNSS (GALILEO) open service signal in space interface control document (2021) Issue 2.0. OS SIS ICD. European GNSS agency
go back to reference Exertier P, Belli A, Samain E, Meng W, Zhang H, Tang K, Schlicht A, Schreiber U, Hugentobler U, Prochàzka I, Sun X, McGarry JF, Mao D, Neumann A (2018) Time and laser ranging: a window of opportunity for geodesy, navigation, and metrology. J Geodesy. https://doi.org/10.1007/s00190-018-1173-8 Exertier P, Belli A, Samain E, Meng W, Zhang H, Tang K, Schlicht A, Schreiber U, Hugentobler U, Prochàzka I, Sun X, McGarry JF, Mao D, Neumann A (2018) Time and laser ranging: a window of opportunity for geodesy, navigation, and metrology. J Geodesy. https://​doi.​org/​10.​1007/​s00190-018-1173-8
go back to reference Federal Radionavigation Plan (2019) DOT-VNTSC-OST-R-15-01. Springfield, Virginia Federal Radionavigation Plan (2019) DOT-VNTSC-OST-R-15-01. Springfield, Virginia
go back to reference Global Navigation Satellite System GLONASS (2002) Interface control document: ICD GLONASS. 5th edn. Russian Space Systems. (in Russian) Global Navigation Satellite System GLONASS (2002) Interface control document: ICD GLONASS. 5th edn. Russian Space Systems. (in Russian)
go back to reference Global Navigation Satellite System GLONASS (2016) Interface control document. Code division multiple access service navigation signal in L1 frequency band. ICD GLONASS CDMA L1, 1 edn Global Navigation Satellite System GLONASS (2016) Interface control document. Code division multiple access service navigation signal in L1 frequency band. ICD GLONASS CDMA L1, 1 edn
go back to reference Global Navigation Satellite System GLONASS (2016) Interface control document. Code division multiple access service navigation signal in L3 frequency band. ICD GLONASS CDMA L3, 1 edn Global Navigation Satellite System GLONASS (2016) Interface control document. Code division multiple access service navigation signal in L3 frequency band. ICD GLONASS CDMA L3, 1 edn
go back to reference Global Navigation Satellite System GLONASS (2016) Interface control document. General description of code division multiple access signal system. ICD GLONASS CDMA general description, 1 edn Global Navigation Satellite System GLONASS (2016) Interface control document. General description of code division multiple access signal system. ICD GLONASS CDMA general description, 1 edn
go back to reference Global Positioning System Wing (GPSW) (2010–06) Systems engineering and integration interface specification. IS-GPS-705 A Global Positioning System Wing (GPSW) (2010–06) Systems engineering and integration interface specification. IS-GPS-705 A
go back to reference Global positioning systems directorate systems engineering and integration interface specification. IS-GPS-200 J Global positioning systems directorate systems engineering and integration interface specification. IS-GPS-200 J
go back to reference Gonorovsky IS (1986) Radio chains and signals. Moskow, Telecommunications, p 446 (in Russian) Gonorovsky IS (1986) Radio chains and signals. Moskow, Telecommunications, p 446 (in Russian)
go back to reference GPS-WAAS-PS (2008–10) Global positioning system wide area augmentation system (WAAS) performance standard. GPS WAAS PS GPS-WAAS-PS (2008–10) Global positioning system wide area augmentation system (WAAS) performance standard. GPS WAAS PS
go back to reference Jayachandran PT, Langley RB, MacDougall JW, Mushini SC, Pokhotelov D, Hamza AM, Mann IR, Milling DK, Kale ZC, Chadwick R, Kelly T, Danskin DW, Carrano CS (2009) Canadian high arctic ionospheric network (Chain). Radio Sci 44(1):RS0A03. https://doi.org/10.1029/2008RS004046 Jayachandran PT, Langley RB, MacDougall JW, Mushini SC, Pokhotelov D, Hamza AM, Mann IR, Milling DK, Kale ZC, Chadwick R, Kelly T, Danskin DW, Carrano CS (2009) Canadian high arctic ionospheric network (Chain). Radio Sci 44(1):RS0A03. https://​doi.​org/​10.​1029/​2008RS004046
go back to reference Kaplan ED (1996) Understanding GPS: principles and applications. Artech House Publisher, Boston, London, p 556 Kaplan ED (1996) Understanding GPS: principles and applications. Artech House Publisher, Boston, London, p 556
go back to reference Klobuchar JA, Kunches JM, Van Dierendonck AJ (1999) Eye on the ionosphere: potential solar radio burst effects on GPS signal to noise. GPS Solutions 3(2):69–71CrossRef Klobuchar JA, Kunches JM, Van Dierendonck AJ (1999) Eye on the ionosphere: potential solar radio burst effects on GPS signal to noise. GPS Solutions 3(2):69–71CrossRef
go back to reference Konno H, Pullen S, Luo M, Enge P (Jan 2005) Analysis of ionosphere gradient using Japan GEONET data. In: Proceedings ION-NTM-2005, institute of navigation, San Diego, CA, pp 1118–1129 Konno H, Pullen S, Luo M, Enge P (Jan 2005) Analysis of ionosphere gradient using Japan GEONET data. In: Proceedings ION-NTM-2005, institute of navigation, San Diego, CA, pp 1118–1129
go back to reference Linty N. Codeless tracking algorithms for GNSS software receivers: Tesi di Laurea Magistrale, N. Linty.—Torino, 2010. [Electronic resource]. [PDF] PDF–Positioning, Location And Navigation Group–Free Download PDF (nanopdf.com) Linty N. Codeless tracking algorithms for GNSS software receivers: Tesi di Laurea Magistrale, N. Linty.—Torino, 2010. [Electronic resource]. [PDF] PDF–Positioning, Location And Navigation Group–Free Download PDF (nanopdf.com)
go back to reference Minimum Operational Performance Standards for GPS/GLONASS/ABAS airborne equipment (Draft 2) (2014) MOPS GPS/GLONASS/ABAS Minimum Operational Performance Standards for GPS/GLONASS/ABAS airborne equipment (Draft 2) (2014) MOPS GPS/GLONASS/ABAS
go back to reference Navstar GPS space segment/navigation user interfaces. ICD-GPS-200 C.1993-10 Navstar GPS space segment/navigation user interfaces. ICD-GPS-200 C.1993-10
go back to reference Perov AI, Kharisov VN et al (2010) GLONASS: principles of the construction and functioning, 4th edn. Moscow, Radiotechnika, p 800. (in Russian) Perov AI, Kharisov VN et al (2010) GLONASS: principles of the construction and functioning, 4th edn. Moscow, Radiotechnika, p 800. (in Russian)
go back to reference Radio-navigation plan of Russian Federation. RNP RF. Moskow. 2019. (Microsoft Word - \320\315\317 \320\324 2019-2024_\317\360.3296) (internavigation.ru) Radio-navigation plan of Russian Federation. RNP RF. Moskow. 2019. (Microsoft Word - \320\315\317 \320\324 2019-2024_\317\360.3296) (internavigation.ru)
go back to reference Povalyaev AA (2008) Satellite radio-navigation systems: time, clock, measurements and relative positioning. Moscow, IPRZhR, p 328. (in Russian) Povalyaev AA (2008) Satellite radio-navigation systems: time, clock, measurements and relative positioning. Moscow, IPRZhR, p 328. (in Russian)
go back to reference Psiaki ML, Powell SP, Jung H, Kintner Jr PM (Sept 2003) Design and practical implementation of multi-frequency RF front ends using direct RF sampling. In: Proceedings of the 16th international technical meeting of the satellite division of the institute of navigation (ION GPS/GNSS 2003), Portland, pp 90–102 Psiaki ML, Powell SP, Jung H, Kintner Jr PM (Sept 2003) Design and practical implementation of multi-frequency RF front ends using direct RF sampling. In: Proceedings of the 16th international technical meeting of the satellite division of the institute of navigation (ION GPS/GNSS 2003), Portland, pp 90–102
go back to reference Ray JK (2000) Mitigation of GPS code and carrier phase multipath effects using a multi-antenna system. Calgary, Alberta, p 286 Ray JK (2000) Mitigation of GPS code and carrier phase multipath effects using a multi-antenna system. Calgary, Alberta, p 286
go back to reference Report C#337/13 evaluation of the standard ephemerides and time support of the global positioning systems (2013) Analytical center of central institute of the machinery production. Korolev city. (in Russian) Report C#337/13 evaluation of the standard ephemerides and time support of the global positioning systems (2013) Analytical center of central institute of the machinery production. Korolev city. (in Russian)
go back to reference Rizos C (2003) GNSS interoperability: future or fantasy? GPS World 14:24–25 Rizos C (2003) GNSS interoperability: future or fantasy? GPS World 14:24–25
go back to reference The System of Differential Correction and Monitoring (SDCM) (2011) Interface control document: ICD SDCM, 1st edn. Russian Space Systems (in Russian) The System of Differential Correction and Monitoring (SDCM) (2011) Interface control document: ICD SDCM, 1st edn. Russian Space Systems (in Russian)
go back to reference Teunissen PJG, Kleusberg A (1998) GPS for geodesy. Springer, p 650 Teunissen PJG, Kleusberg A (1998) GPS for geodesy. Springer, p 650
go back to reference Vdovin VS, Dvorkin VV, Karlik AP et al (2018) Problems and perspectives of the Russian active geodetic networks improvement and their integration into ITRF. Vestnik SGUGiT, vol 23. # 2., pp 6–27. (in Russian) Vdovin VS, Dvorkin VV, Karlik AP et al (2018) Problems and perspectives of the Russian active geodetic networks improvement and their integration into ITRF. Vestnik SGUGiT, vol 23. # 2., pp 6–27. (in Russian)
go back to reference Xu G (2007) GPS theory, algorithms and applications. 2nd edn. Springer Berlin Heidelberg, New York, p 354. ISBN 978-3-540-72714-9 Xu G (2007) GPS theory, algorithms and applications. 2nd edn. Springer Berlin Heidelberg, New York, p 354. ISBN 978-3-540-72714-9
go back to reference Yakovlev OI (1988) Space radio-physics. Voronezh, Science Book Ed, p 432. (in Russian) Yakovlev OI (1988) Space radio-physics. Voronezh, Science Book Ed, p 432. (in Russian)
go back to reference Yarlykov MS (1980) Aviation radio-navigation devises and systems. Moskow, N.E. Zhukovsky Military Aviation Engineering Academy, p 235. (in Russian) Yarlykov MS (1980) Aviation radio-navigation devises and systems. Moskow, N.E. Zhukovsky Military Aviation Engineering Academy, p 235. (in Russian)
go back to reference Yasyukevich Y, Mylnikova A, Vesnin A (2020) GNSS-based non-negative absolute ionosphere total electron content, its spatial gradients, time derivatives and differential code biases: bounded-variable least-squares and taylor series. Sensors 20(19):5702. https://doi.org/10.3390/s20195702CrossRef Yasyukevich Y, Mylnikova A, Vesnin A (2020) GNSS-based non-negative absolute ionosphere total electron content, its spatial gradients, time derivatives and differential code biases: bounded-variable least-squares and taylor series. Sensors 20(19):5702. https://​doi.​org/​10.​3390/​s20195702CrossRef
Metadata
Title
GNSS Overview
Author
Vladislav Demyanov
Copyright Year
2022
DOI
https://doi.org/10.1007/978-3-031-15874-2_2