National Reference Systems of the RUSSIAN FEDERATION, used in GLONASS. including the user and fundamental segments

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National Reference Systems of the RUSSIAN FEDERATION, used in GLONASS. including the user and fundamental segments 8-th Meeting of the International Committee on Global Navigation Satellite Systems Dubai, United Arab Emirates, 2013 Authors: V. Vdovin (TSNIImash) Speaker: M. Vinogradova (TSNIImash) November 11, 2013 WG D Reference Frames, Timing and Applications

GLONASS Geodetic Basic Responsible organization for the GLONASS geodesy: Ministry of Defense of the Russian Federation creating, maintaining and developing the PZ-90 System creating and maintaining the GEOIK geodetic systems which are the engineering infrastructure of PZ-90 System implementation of the necessary PZ-90 System parameters in Ground Control and GLONASS ballistics software: Ministry of Defense Responsible organization for users of the GLONASS geodesy in the Russian Federation : Rosreestr creating, maintaining and developing of the SK-42/SK-95/GRS-2011 Geodetic Reference Systems (GRS) providing GLONASS users with GRS parameters and navigation maps software: Rosreestr and BERNESE (for GRS-2011) 2

Three versions of the PZ-90 System PZ-90 - established in 2000 PZ-90.02 - established in 2007 PZ-90.11 - established in 2012 The basic principles of creating the PZ-90.11 Satellite dynamic technique The generalized least squares Common terrestrial reference ellipsoid parameters and Earth s gravity field models remain unchanged Consistent with ITRF at epoch 2011.0 at the centimeter level 3

Development of GEOIK Space Geodetic Systems GEOIK-2 (2011 to the present) Architecture and Interaction of Elements GLONASS GEOIK-2 Calibration range Ground Site of Observations СССИ Specific Information Receiving Site ДС БДС ДЗС КОС Geodetic Information Processing Center GEOIK-2 goals: improvement of PZ-90 system and the Earth s gravity field parameters determining the ocean plumb line deviation 4

GEOIK-3 (Perspective ) System Architecture Ground Control Center Satellite Constellation Ground Specific Complex ЦОГИ ППСИ ЦУП СКА ЦУП НКА1 ЦУП НКА2 ДС БДС ПКВРВ НПН TT&C Site БЦ КОС ПКГГ Clock System Rocket Space Complex Launch Vehicles AFS БСУ СКА Sat-1 AFS Sat-2 AFS Satellite and Launch Vehicles Technological Complexes АФНВШ СС МГНС ГЛОНАСС Synchronization facilities 5

GRS-2011 Reference System GRS-2011 new national geodetic reference system (established December, 2012) Regional Geocentric Aligned to ITRF at epoch 2011.0 within few centimeters Basic software: BERNESE 5.1 Geodetic - to emphasize its "geodetic" appointment On basis of GSR-2011 the Russian geodetic infrastructure will be modernized by 2017 6

GRS-2011 Geodetic Networks Location of the existing and planned permanent sites 7

Comparison of PZ-90, GRS-2011 and ITRF PZ-90.11 and GRS-2011 Fundamental Geodetic Constants PZ-90.11, GRS-2011 and ITRS Reference Ellipsoid Parameters Name Geocentric gravity constant (including atmosphere) Angular velocity of Earth rotation Name Semi-major axis Flattening factor Symbol a α (alpha) Symbol fm ω Unit km 3 / 2 rsd/с Name Value PZ-90.11 (2010.0) 398600,4418 7,292115. 10-5 GRS-2011(2011.0) 398600,4415 7,292115. 10-5 Unit m - Name Value PZ-90.11 6378136 1/298,25784 GRS-2011 6378136,5 1/298,2564151 ITRS (GRS 80) 6 378 137 1/298,257222101 PZ-90.11 Transformation Parameters п/п From X, m Y, m Z, m Rx, mas Ry, mas Rz, mas m, 6 10 1 PZ-90 1,443 +0,156 +0,222 2,30 +3,54 134,21 0,228 2 PZ-90.02 0,373 +0,186 +0,202 2,30 +3,54 4,21 0,008 3 GRS-2011 0,000 +0,014-0,008 0,562 +0,019 +0,053 0,0006 4 WGS 84 (G1150) 0,013 +0,106 +0,022 2,30 +3,54 4,21 0,008 5 ITRF2008 +0,003 +0,001-0,000-0,019 +0,042-0,002 +0,000 8

Fundamental Base for unified of the Russian PNT Quasar VLBI Network (IAA RAS) Status of co-location sites in different networks Technique Network Svetloe Zelenchukska Badary ya VLBI IVS, EVN station (year) Sv, 7380 (2003) Zc, 7381 (2005) Bd, 7382 (2006) GNSS IGS, EPN SVTL (2004) ZECK (1997) BADG (2011) station (year) SLR ILRS station 1888 (2012) 1889 (2012) 1890 (2012) (year) DORIS IDS station (year) BADB (1992) All sites are the core station of the GGOS Network (2012) Consistency of VLBI-, GPS- and SLR-derived coordinates in ITRF with data obtained in co-location sites of local networks Co-location site [RT-32 - GNSS] (Epoch 2005.0) [SLR-32 - GNSS] (Epoch 2005.0) N, mm E, mm H, mm N, mm E, mm H, mm Svetloe 0 5 4-3 -5-17 Zelenchukskaya -2-12 -4-3 11-17 Badary 2-15 16 19 19 13 IAA RAS resources for GLONASS fundamental maintenance: Currently: Everyday determinations of UT1 for GLONASS from 1h sessions in e-vlbi mode (with 6 h delay since 2012) In future Global solutions for VLBI observations adjustment with simultaneous ICRF, ITRF and EOP corrections Fundamental ephemeris Solar system bodies (EPM) Software for VLBI, GNSS and SLR data processing and for combination of SINEX-files 9

Future Plans 1. In accordance with the Government Decree: PZ-90.11 will be used in GLONASS since January 1, 2014 Step-by-step transition of the surveying and mapping from SK- 42 / SK-95 systems to GRS-2011 will be implemented before 2017 Data on equipment and location of some sites of PZ-90.11 and GRS-2011 networks will be available for users 2. Fundamental base resources will be used for further improvements of PZ-90.11 and GRS-2011 systems 3. Expansion of the PZ-90.11 geodetic network is considered by deploying Roscosmos GLONASS stations in Antarctica and other territories 4. PZ-90.11 and GRS-2011 releases are planned every 3-5 years 10

Thank you for attention! 15