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Attitude control of spacecraft during propulsion of swing thruster 被引量:1

Attitude control of spacecraft during propulsion of swing thruster
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摘要 As for orbit transfer vehicle (OTV) with multiple satellites/payloads carried,the release of each payload will bring serious change to the mass center of OTV and the thrust produced by the swing thruster will form a rather large disturbance to the attitude of OTV. Steering the nozzle to track the estimated center of mass (ECM) of OTV can reduce but not remove the disturbance due to the difference between the ECM and the practical mass center (PCM) of OTV. The practical propelling direction will change with the internal motion during the propulsion process and attitude control system should be enabled to guarantee that the propelling direction is collinear with the command. Since the structural parameters have changed,which is due to internal motion and fuel consumption,the dynamic model have to be formulated to determine these time-varying parameters and the required attitude of OTV should be determined as well. Modulating attitude quaternion results in quasi Euler angles. Based on the resulting quasi Euler angles,a novel attitude switching control law is introduced to control the variable-mass OTV. Simulation results show that,even in the case of structural asymmetry,control torque matrix asymmetry,attitude disturbance and strong coupling between the channels,the attitude of OTV can be controlled perfectly,and the proposed attitude control law is effective for the variable-mass OTV with swing thruster. As for orbit transfer vehicle (OTV) with muhiple satellites/payloads carried, the release of each payload will bring serious change to the mass center of OTV and the thrust produced by the swing thruster will form a rather large disturbance to the attitude of OTV. Steering the nozzle to track the estimated center of mass (ECM) of OTV can reduce but not remove the disturbance due to the difference between the ECM and the practical mass center (PCM) of OTV. The practical propelling direction will change with the internal motion during the propulsion process and attitude control system should be enabled to guarantee that the propelling direction is collinear with the command. Since the structural parameters have changed, which is due to internal motion and fuel consumption, the dynamic model have to he formulated to determine these time-varying parameters and the required attitude of OTV should be determined as well. Modulating attitude quateruion results in quasi Euler angles. Based on the resulting quasi Euler angles, a novel attitude switching control law is introduced to control the variable-mass OTV. Simulation results show that, even in the case of structural asymmetry, control torque matrix asymmetry, attitude disturbance and strong coupling between the channels, the attitude of OTV can be controlled perfectly, and the proposed attitude control law is effective for the variable-mass OTV with swing thruster.
出处 《Journal of Harbin Institute of Technology(New Series)》 EI CAS 2012年第1期94-100,共7页 哈尔滨工业大学学报(英文版)
关键词 variable-mass spacecraft relative motion dynamic modeling quasi Euler angle attitude switching control law variable-mass spacecraft relative motion dynamic modeling quasi Euler angle attitude switchingcontrol law
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