The Optimal Control by the Thrust Vector of Air-Breathing Electric Propulsion to Maximize the Apogee Altitude of Orbit with an Ultra-Low Perigee

被引:0
|
作者
Filatyev, A. S. [1 ,2 ]
Yanova, O. V. [2 ,3 ]
机构
[1] Moscow MV Lomonosov State Univ, Moscow 119991, Russia
[2] Moscow Inst Aviat Technol, Moscow 125080, Russia
[3] Zhukovsky Cent Aerohydrodynam Inst, Zhukovskii 140181, Moscow Oblast, Russia
基金
俄罗斯科学基金会;
关键词
SPACECRAFT; OPTIMIZATION; COEFFICIENTS; EARTH;
D O I
10.1134/S0010952522700137
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
The problem of changing the apogee altitude of orbits with ultralow perigee (altitude 120-250 km) is considered. To compensate for the aerodynamic drag of the spacecraft, an air-breathing electric propulsion (ABEP) is used, the fuel for which is the gases of the outboard atmosphere. The decrease in the efficiency of an ABEP with an increase in the angle of attack and the possibility of ABEP operation only at a sufficient gas concentration in the ionization chamber are taken into account. The problem is solved on the basis of the Pontryagin maximum principle under the assumption that the aerodynamic drag and thrust are small compared to the gravitational forces. The results of studies of optimal programs for controlling the thrust vector of an ABEP depending on the parameters of the orbit, the layout of the spacecraft, the engine, and the power of the energy source are presented.
引用
收藏
页码:172 / 184
页数:13
相关论文
共 17 条
  • [1] The Optimal Control by the Thrust Vector of Air-Breathing Electric Propulsion to Maximize the Apogee Altitude of Orbit with an Ultra-Low Perigee
    A. S. Filatyev
    O. V. Yanova
    Cosmic Research, 2023, 61 : 172 - 184
  • [2] Correction: Requirements for air-breathing electric propulsion in low-altitude orbits
    Adrian Woodley
    Ethan Horstman
    Michael Keidar
    Thomas C. Underwood
    Journal of Electric Propulsion, 4 (1):
  • [3] Deflagration thruster for air-breathing electric propulsion in very low Earth orbit
    Subhankar, Varanasi Sai
    Prathivadi, Keshav P.
    Underwood, Thomas C.
    ACTA ASTRONAUTICA, 2024, 216 : 91 - 101
  • [4] Maintenance Strategy for Elliptical Orbit Satellite With Air-Breathing Electric Propulsion
    Zuo, Xiaoyu
    Xu, Ming
    Huang, Meili
    Li, Ming
    Peng, Na
    IEEE TRANSACTIONS ON AEROSPACE AND ELECTRONIC SYSTEMS, 2023, 59 (05) : 6863 - 6877
  • [5] Elliptical Orbit Design Based on Air-Breathing Electric Propulsion Technology in Very-Low Earth Orbit Space
    Yue, Yuxian
    Geng, Jinyue
    Feng, Guanhua
    Li, Wenhao
    AEROSPACE, 2023, 10 (10)
  • [7] Requirements for air-breathing electric propulsion in low-altitude orbitsABEPA. Woodley et al.
    Adrian Woodley
    Ethan Horstman
    Michael Keidar
    Thomas C. Underwood
    Journal of Electric Propulsion, 3 (1):
  • [8] Air-Breathing Ramjet Electric Propulsion for Controlling Low-Orbit Spacecraft Motion to Compensate for Aerodynamic Drag
    Erofeev, A. I.
    Nikiforov, A. P.
    Popov, G. A.
    Suvorov, M. O.
    Syrin, S. A.
    Khartov, S. A.
    SOLAR SYSTEM RESEARCH, 2017, 51 (07) : 639 - 645
  • [9] Air-Breathing Ramjet Electric Propulsion for Controlling Low-Orbit Spacecraft Motion to Compensate for Aerodynamic Drag
    A. I. Erofeev
    A. P. Nikiforov
    G. A. Popov
    M. O. Suvorov
    S. A. Syrin
    S. A. Khartov
    Solar System Research, 2017, 51 : 639 - 645
  • [10] AIR-BREATHING RAMJET ELECTRIC PROPULSION THRUSTER FOR CONTROLLING LOW-ORBIT SPACECRAFT MOTION AND FOR COMPENSATING ITS AERODYNAMIC DRAG
    Popov, G. A.
    Suvorov, M. O.
    Syrin, S. A.
    Khartov, S. A.
    THIRD IAA CONFERENCE ON DYNAMICS AND CONTROL OF SPACE SYSTEMS 2017, 2017, 161 : 833 - 841