Analysis of Reduction of Controllability of Spacecraft During Conducting of Active Control Over Microaccelerations
There is viewed the problem of reduction of controllability of spacecraft due to increase of inertia moment of spacecraft during conducting of active control over microacceleration level on the operational stage. Additional fuel stores, which are necessary for realization of spacecraft orbital orientation, are estimated. Recommendations to reduce influence of the phenomenon on effective running of system for orientation and control of spacecraft motion are given.
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A. V. Sedelnikov, Classification of microaccelerations according to methods of their control, Microgravity Science and Technology (2015), Vol. 27, No 3, 245–251.
A. I. Belousov, A.V. Sedelnikov, Problems in formation and control of a required microacceleration level at spacecraft design, tests, and operation, Russian Aeronautics, (2014) Vol. 57, No 2, 111–117.
A. N. Kirilin, R. N. Akhmetov, G. P. Anshakov, A. D. Storozh, N. R. Stratilatov, A New Step Towards Unique Technologies In Space: The Foton-M4 Spacecraft, Flight, (2015), No 2, 3–9.
A. V. Sedelnikov, K. I. Potienko, How to estimate microaccelerations for spacecraft with elliptical orbit, Microgravity Science and Technology, (2016), Vol. 28, No 1, P. 41–48.
A. V. Sedelnikov, The usage of fractal quality for microacceleration data recovery and for measuring equipment efficiency check, Microgravity Science and Technology, (2014), Vol. 26, No 5, P. 327–334.
D. E. Melnikov, V. Shevtsova, T. Yano, K. Nishino, Modeling of the experiments on the Marangoni convection in liquid bridges in weightlessness for a wide range of aspect ratios, International Journal of Heat and Mass Transfer, (2015), Vol. 87, 119–127.
W. R. Hu, J. F. Zhao, M. Long et al., Space Program SJ-10 of Microgravity Research, Microgravity Science and Technology, (2014), Vol. 26, No 3, 159–169.
J. Yu, Y. Liu, X. Pan et al., A review on InGaSb growth under microgravity and terrestrial conditions towards future crystal growth project using Chinese recovery satellite SJ-10, Microgravity Science and Technology, (2016), Vol. 28, No 2, 143–154.
Т. Beuselinck, C. Van Bavinchove, V. V. Sazonov et al., Reconstruction of spacecraft FOTON M-2 attitude motion by acceleration measurements, KIAM Preprint M.V. Keldysh RAS, (2008), No 57, 1–12.
V. Shevtsova, D. Melnikov, J. C. Legros, The Post Flight Study of Micro Asselerations On-Board of Russian Spacecraft FOTON-12, Report for ESA2002, ESTEC, Noordwijk, Netherlands, 135 p.
A. V. Sedelnikov, A. A. Serpukhova, Simulation of a Flexible Spacecraft Motion to Evaluate Microaccelerations, Russian Aeronautics, (2009), Vol. 52, No 4, 484–487.
Belousov, A., Sedelnikov, A., Potienko, K., Study of Effective Application of Electric Jet Engine as a Mean to Reduce Microacceleration Level, (2015) International Review of Aerospace Engineering (IREASE), 8 (4), pp. 157-160.
V. I. Abrashkin, Yu. Ya. Puzin, Selection of the parameters of monitoring and compensation devices for microaccelerations of the low-orbit space microgravity platform, Flight, (2011), No 2, 25–35.
A. V. Sedelnikov, D. P. Molyavko, A. A. Kireeva, Analysis of decrease in controllability of the spacecraft when carrying out active control of level of microaccelerations in the zone of placement of processing equipment, Instruments and Systems: Monitoring, Control, and Diagnostics, (2017), No 1, 29–35.
G. P. Anshakov, A. I. Belousov, A. V. Sedelnikov, The problem of estimate microaccelerations on the spacecraft “FOTON-M” № 4, Russian Aeronautics, (2017) Vol. 60, No 1, 83–89.
K. B. Alekseev, G. G. Bebenin, Control of spacecrafts, (Moscow: Publishing House «Mashinostroenie», 1974).
A. V. Sedelnikov, The Techniques to Control a Space Laboratory Orbital Motion During Conducting of Gravity-sensitive Processes on Its Board, American Journal of Aerospace Engineering, (2015). No 3 (1–1), 6–9.
A. V. Sedelnikov, A. A. Kireeva, Alternative solution to increase the duration of microgravity calm period on board the space laboratory, Acta Astronautica, (2011), Vol. 69, No 6-7, 480–484.
Sedelnikov, A., Molyavko, D., Potienko, K., Study of Over-assessment of Microaccelerations when Using a Beam-Model of Elastic Elements, (2016) International Review of Aerospace Engineering (IREASE), 9 (1), pp. 7-12.
A. N. Kirilin, R. N. Akhmetov, G. P.Anshakov et al., Bion Project - TsSKB-Progress Contribution Into Space Biology And Medicine, Flight, (2013), No 11, 3–16.
A. V. Doroshin, Heteroclinic chaos and its local suppression in attitude dynamics of an asymmetrical dual-spin spacecraft and gyrostat-satellites. The Part I-Main models and solutions, Communications in Nonlinear Science and Numerical Simulation, (2016), Vol. 31, No 1–3, 151–170.
A. V. Sedelnikov, D. P. Molyavko, K. I. Potienko, How Does Asymmetry of Solar Panels Influence Constructive Component of Microacceleration Field of Inner Environment of Space Laboratory, Microgravity Science and Technology, (2017), article in press.
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