Optimization of space vehicle combined orbital plane change maneuver on the basis of the successive linearization method

The task of optimizing the space vehicle combined orbital plane change maneuver with the aim of maximizing its final mass is considered in the paper. Burst of power is used for the vehicles exit from the initial low earth orbit and subsequent re-entry. Starting from atmospheric entry till the end of...

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Main Authors: V. L. Balakin, S. A. Ishkov, A. A. Khramov
Format: Article
Language:English
Published: Samara National Research University 2018-07-01
Series:Вестник Самарского университета: Аэрокосмическая техника, технологии и машиностроение
Subjects:
Online Access:https://journals.ssau.ru/vestnik/article/viewFile/6216/6106
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spelling doaj-0ade091175464bcaacd9f9f1d6cc2b0a2021-08-25T09:12:05ZengSamara National Research UniversityВестник Самарского университета: Аэрокосмическая техника, технологии и машиностроение2542-04532541-75332018-07-01172233610.18287/2541-7533-2018-17-2-23-365885Optimization of space vehicle combined orbital plane change maneuver on the basis of the successive linearization methodV. L. Balakin0S. A. Ishkov1A. A. Khramov2Samara National Research UniversitySamara National Research UniversitySamara National Research UniversityThe task of optimizing the space vehicle combined orbital plane change maneuver with the aim of maximizing its final mass is considered in the paper. Burst of power is used for the vehicles exit from the initial low earth orbit and subsequent re-entry. Starting from atmospheric entry till the end of the orbital plane change with the entry in the final orbit the angle of attack, the air-path bank angle and the fuel-flow rate are used as controls. Limitations for the angle of attack, fuel-flow rate, adiabatic recovery temperature, longitudinal and vertical load factor are introduced. The successive linearization method is used to determine the optimal control programs. Solving the optimization task is exemplified by a hypothetical space vehicle. The results of modeling space vehicle motion are presented. The changes in the determined aerodynamic (angle of attack and air-path bank angle) and motion (fuel-flow rate) controls with increasing the angle of orbital plane change are discussed with and without account of the key limitation on the modes of motion maximum adiabatic recovery heating temperature.https://journals.ssau.ru/vestnik/article/viewFile/6216/6106space vehiclecombined orbital plane change maneuveroptimal controlangle of attackair-path bank anglefuel-flow ratelimitationsmethod of successive linearization
collection DOAJ
language English
format Article
sources DOAJ
author V. L. Balakin
S. A. Ishkov
A. A. Khramov
spellingShingle V. L. Balakin
S. A. Ishkov
A. A. Khramov
Optimization of space vehicle combined orbital plane change maneuver on the basis of the successive linearization method
Вестник Самарского университета: Аэрокосмическая техника, технологии и машиностроение
space vehicle
combined orbital plane change maneuver
optimal control
angle of attack
air-path bank angle
fuel-flow rate
limitations
method of successive linearization
author_facet V. L. Balakin
S. A. Ishkov
A. A. Khramov
author_sort V. L. Balakin
title Optimization of space vehicle combined orbital plane change maneuver on the basis of the successive linearization method
title_short Optimization of space vehicle combined orbital plane change maneuver on the basis of the successive linearization method
title_full Optimization of space vehicle combined orbital plane change maneuver on the basis of the successive linearization method
title_fullStr Optimization of space vehicle combined orbital plane change maneuver on the basis of the successive linearization method
title_full_unstemmed Optimization of space vehicle combined orbital plane change maneuver on the basis of the successive linearization method
title_sort optimization of space vehicle combined orbital plane change maneuver on the basis of the successive linearization method
publisher Samara National Research University
series Вестник Самарского университета: Аэрокосмическая техника, технологии и машиностроение
issn 2542-0453
2541-7533
publishDate 2018-07-01
description The task of optimizing the space vehicle combined orbital plane change maneuver with the aim of maximizing its final mass is considered in the paper. Burst of power is used for the vehicles exit from the initial low earth orbit and subsequent re-entry. Starting from atmospheric entry till the end of the orbital plane change with the entry in the final orbit the angle of attack, the air-path bank angle and the fuel-flow rate are used as controls. Limitations for the angle of attack, fuel-flow rate, adiabatic recovery temperature, longitudinal and vertical load factor are introduced. The successive linearization method is used to determine the optimal control programs. Solving the optimization task is exemplified by a hypothetical space vehicle. The results of modeling space vehicle motion are presented. The changes in the determined aerodynamic (angle of attack and air-path bank angle) and motion (fuel-flow rate) controls with increasing the angle of orbital plane change are discussed with and without account of the key limitation on the modes of motion maximum adiabatic recovery heating temperature.
topic space vehicle
combined orbital plane change maneuver
optimal control
angle of attack
air-path bank angle
fuel-flow rate
limitations
method of successive linearization
url https://journals.ssau.ru/vestnik/article/viewFile/6216/6106
work_keys_str_mv AT vlbalakin optimizationofspacevehiclecombinedorbitalplanechangemaneuveronthebasisofthesuccessivelinearizationmethod
AT saishkov optimizationofspacevehiclecombinedorbitalplanechangemaneuveronthebasisofthesuccessivelinearizationmethod
AT aakhramov optimizationofspacevehiclecombinedorbitalplanechangemaneuveronthebasisofthesuccessivelinearizationmethod
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