METHOD OF INCREASE IN OPERATIONAL CHARACTERISTICS OF GNSS WITH USE OF GBAS BY THE ACCOUNTING OF PROPERTIES OF DISTRIBUTION OF RADIO SIGNALS IN THE ATMOSPHERE
Abstract
A method of improving the navigation system performance parameters with the use of ground functional add-ins in respect of radio signal extension properties in the air is considered in the article. The total electron content values broadcast, determined by double-frequency measurements allows to transmit correction data by all available types of GLONASS and GPS navigation signals, keeping within standard information transmitted content, regulated by ICAO, that would have been impossible with the use of standard methods of correcting information broadcast. Due to the increased number of the used navigation signals operating availability of GBAS improves. It is possible to use corrections, measured by a ground station for a pair of signals in different frequency bands (for example L1OF and L2OF) for more accurate positioning on other navigation signals (L2OC). It is also possible to broadcast the differential corrections for all available types of navigation signals GLONASS and GPS and remain in a standard volume of transmitted information, which is regulated by the International Civil Aviation Organization.
About the Authors
G. V. Krinitsky
Moscow Design Bureau Compas
Russian Federation
Moscow
Russian Federation
Moscow
M. D. Leonova
Moscow Design Bureau Compas
Russian Federation
Moscow
Russian Federation
Moscow
E. N. Urasova
Moscow Design Bureau Compas
Russian Federation
Moscow
Russian Federation
Moscow
References
1. Interface Control Document: NAVSTAR GPS Space Segment. Navigation User Interfaces (ICD-GPS-200).
2. Interface Control Document. Global'naja navigacionnaja sputnikovaja sistema GLONASS [Global navigation satellite system GLONASS]. Revision 5.0, 2002. (in Russian).
3. KA GLONASS-K2. Struktura cifrovoj informaci i radiosignalov s kodovym razdeleniem chastotnyh diapazonov L1, L2, L3 [GLONASS-K2. Structure of digital information of radio signals with code division of frequency ranges L1, L2, L3]. Revision 2, 2015. (in Russian).
4. Perov A.I., Harisov V.N. GLONASS principy postroenija I funkcionirovanija [GLONASS principles of construction and functioning]. Izdatel'stvo Radiotehnika. Moscow, 2010, 800 p. (in Russian)
5. ICAO. International standards and recommended practices. Aeronautical telecommunications. Annex 10 to the convention on international civil aviation. Vol. I (Radionavigation aids). Sixth Edition, 2006.
6. Kaplan E.D., Hegarty C.J. Understanding GPS. Principles and Applications. ARTECH HOUSE, 2006, 723 p.
7. Chukin V.V., Aldoshkina E.S., Vahnin A.V., Mostamandi S.V., Nguen T.T., Obrezkova I.V. Monitoring vlagosoderzhanija atmosfery s pomoshh'ju sistemy GLONASS/GPS [Monitoring of the atmosphere hymidity by means of the GLONASS/GPS system]. Regional'naja jekologija. 2010, № 3 (29), pp. 122–126. (in Russian)
8. Vovasov V.E., Ipkaev N.B., Gerko S.A. Estimation ionospheric and tropospheric signal delay for single-frequency SRNS receiver. Bulletin of the South Ural State University. Series: Сomputer technologies, automatic control, radio electronics, 2015, Vol. 15, no. 1.
9. Korshunov D.E. Primenenie sputnikovyh radionavigacionnyh system v zagorizontnoj lokacii [Use of satellite radionavigational systems in a nover-the-horizon location]. Available at: http://conf.sfu-kras.ru/sites/mn 2013/section111.html (accessed 28.04.2015). (in Russian)
10. Vlasov A.A., Kuz'minyh E.V., Chukin V.V. Ocenka sposobov opredelenija PJeS v ionosphere [Evaluation of ways of definition of TEC in an ionosphere]. Vserossijskie radiofizicheski nauchnye chtenija-konferencija pamjati N.A. Armanda, Murom, 2010. (in Russian)
Review
For citations:
Krinitsky G.V., Leonova M.D., Urasova E.N. METHOD OF INCREASE IN OPERATIONAL CHARACTERISTICS OF GNSS WITH USE OF GBAS BY THE ACCOUNTING OF PROPERTIES OF DISTRIBUTION OF RADIO SIGNALS IN THE ATMOSPHERE. Civil Aviation High Technologies. 2016;19(5):179-185. (In Russ.)
Views:
516
Email this article 
