DOI 10.17586/0021-3454-2020-63-10-907-920
UDC 520.6.07
ESTIMATION OF PERTURBING ACCELERATIONS AFFECTING THE SPACE GRAVITATIONAL WAVE ANTENNA SOIGA-2
PhD; The All-Russian Research Institute for Physical-Technical and Radio-Technical Measurements, Research Department of the Development and Operation of Means of Metrological Assur-ance of Coordinate-Time and Navigation Systems; Senior Scientist;
R. A. Davlatov
All-Russian Scientific Research Institute of Physical-Technical and Radio-Technical Measurements; Junior Scientist
S. S. Donchenko
The All-Russian Research Institute for Physical-Technical and Radio-Technical Measurements, Research Department of the Development and Operation of Means of Metrological Assur-ance of Coordinate-Time and Navigation Systems;
Y. V. Gostev
The All-Russian Research Institute for Physical-Technical and Radio-Technical Measurements, Research Department of the Development and Operation of Means of Metrological Assurance of Coordinate-Time and Navigation Systems; Head of Laboratory;
D. A. Sokolov
The All-Russian Research Institute for Physical-Technical and Radio-Technical Measurements, Research Department of the Development and Operation of Means of Metrological Assurance of Coordinate-Time and Navigation Systems;
E. A. Lavrov
The All-Russian Research Institute for Physical-Technical and Radio-Technical Measurements, Research Department of the Development and Operation of Means of Metrological Assurance of Coordinate-Time and Navigation Systems;
P. G. Kharlamov
The All-Russian Research Institute for Physical-Technical and Radio-Technical Measurements, Research Department of the Development and Operation of Means of Metrological Assurance of Coordinate-Time and Navigation Systems;
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Abstract. Russian gravitational wave antenna SOIGA-2 is a cluster including four spacecrafts in each of GLONASS orbits located at the vertices of a square. An analysis of disturbing forces applied to the spacecraft SOIGA-2 is performed. An estimate of values of the gravitational and non-gravitational disturbing accelerations is presented. The allowable level of disturbing accelerations for detection of gravitational waves are listed. A method for compensation of non-gravitational forces using a drag-free satellite system is proposed as well as preliminary calculation of the forces of gravitational nature and their subsequent subtraction.
Keywords: GLONASS, orbit, gravitational and non-gravitational forces, gravitational waves, SOIGA-2
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