ДВ

Д. В. Гламазда

Ural Federal University

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ЭД

Э. Д. Кузнецов

Ural Federal University

G. Kaiser

Ural Federal University

V. Krushinsky

Ural Federal University

A. S. Perminov

Ural Federal University

A. Popov

Siberian State Aerospace University

A. I. Shagabutdinov

Ural Federal University

A. A. Shagabutdinov

Ural Federal University

SА

S. А. Naroenkov

Institute of Astronomy

M. S. Kryuchkov

Institute of Astronomy

Stanislav O. Kudryavtsev

Ural Federal University

Cooperative Institutions

Ural Federal University

Czech Academy of Sciences, Astronomical Institute

Astronomical Observatory

University of Puerto Rico at Arecibo

University of Central Florida

Charles University

Cornell University

Institute of Astronomy

The University of Tokyo

National Astronomical Observatory of Japan

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Основные алгоритмы для управления камерой SBG Коуровской обсерватории

Астрофизический бюллетень (2012)

Д. В. Гламазда

We report the algorithms used in the software of the upgraded SBG camera. Fast-moving satellites are observed in the “rotated” coordinate system where one of the axes points towards the pole of the object’s orbit. The ephemeris for this coordinate system is computed based on the ephemeris for the equatorial coordinate system using special transition matrices. The parameters of the matrices are the coordinates of the orbital pole, which are found by averaging the vector products of the radius vectors of the consecutive positions of the satellite. The position angle of the image is computed as the difference between the hour angles of the orbital and celestial poles in the coordinate system, the pole of which coincides with the optical center of the frame. The speed of object tracking is computed via quadratic interpolation of the ephemeris in the “rotated” coordinate system.

Ephemeris

Orbit (dynamics)

Position (finance)

Geographic coordinate conversion

Interpolation

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NEO observations at the SBG telescope of the Kourovka Astronomical Observatory

Э. Д. Кузнецов Д. В. Гламазда G. Kaiser Yulia Vibe

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The changing rotation period of 3200 Phaethon

HAL (Le Centre pour la Communication Scientifique Directe) (2023)

S. Marshall Maxime Devogèle Patrick Taylor C. Magri Jin Beniyama

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SBG camera of Kourovka Astronomical observatory

Astrophysical Bulletin (2012)

Д. В. Гламазда

Field of view

10.1134/s1990341312020101

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Cosmic Research (2002)

Э. Д. Кузнецов V. E. Berland Yu. S. Wiebe Д. В. Гламазда G. T. Kajzer

Geopotential

Gravitational potential

Variation (astronomy)

10.1023/a:1015985206275

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Dynamical evolution of asteroid pairs on close orbits

Proceedings of the International Astronomical Union (2018)

Э. Д. Кузнецов Д. В. Гламазда G. Kaiser V. Krushinsky A. Popov

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Content (measure theory)

10.1017/s1743921319003260

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Optical Observations of Space Debris at the Kourovka Astronomical Observatory of the Ura l Federa l University

Э. Д. Кузнецов Yu. Z. Vibe Д. В. Гламазда G. Kaiser A. Popov

Space observatory

10.21046/spacedebris2019-84-89

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Citations (1)

Results of the observations of geosynchronous satellites with the SBG camera of the Astronomical Observatory of the Ural State University

Kinematika i Fizika Nebesnykh Tel Supplement (2003)

G. Kaiser Э. Д. Кузнецов G. S. Romashin Д. В. Гламазда J. Z. Wiebe

Space observatory

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Камера SBG Коуровской астрономической обсерватории

Астрофизический бюллетень (2012)

Д. В. Гламазда

The set-up and principle of operation of the systems of the SBG telescope, which was upgraded in 2005—2006 at the Kourovka Astronomical observatory, are described in detail. The reduction of the field of view (photographic plates replaced by a CCD) is compensated by an increased operation speed, achieved by automating both the telescope drives and image processing procedure.

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Light pressure effect on the orbital evolution of objects moving in the neighborhood of low-order resonances

Solar System Research (2012)

Э. Д. Кузнецов P. E. Zakharova Д. В. Гламазда A. I. Shagabutdinov Stanislav O. Kudryavtsev

Mass ratio

Orbit (dynamics)

Low Mass

10.1134/s0038094612050073

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Citations (17)