Fault-Tolerant Attitude Stabilization for Satellites Without Rate Sensor

A fault-tolerant control approach without rate sensors is presented for the attitude stabilization of a satellite being developed. External disturbances, reaction wheel faults, actuator saturation, and unavailable angular velocity are addressed. A sliding-mode observer is proposed by using attitude...

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Veröffentlicht in:IEEE transactions on industrial electronics (1982) 2015-11, Vol.62 (11), p.7191-7202
Hauptverfasser: Xiao, Bing, Huo, Mingyi, Yang, Xuebo, Zhang, Youmin
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Huo, Mingyi
Yang, Xuebo
Zhang, Youmin
description A fault-tolerant control approach without rate sensors is presented for the attitude stabilization of a satellite being developed. External disturbances, reaction wheel faults, actuator saturation, and unavailable angular velocity are addressed. A sliding-mode observer is proposed by using attitude feedback only, and the unavailable angular velocity is estimated by this observer in finite time. Using the attitude and the estimated velocity, another sliding-mode observer is proposed to reconstruct actuator faults and disturbances. It is proven that reconstruction with zero observer error is achieved in finite time. With the reconstructed value, a velocity-free controller is then developed to asymptotically stabilize the attitude. Simulation results are also provided to verify the effectiveness of the proposed approach.
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subjects Actuators
Angular velocity
Attitude control
Attitude stability
Attitude stabilization
Disturbances
fault reconstruction
Fault tolerance
fault tolerant control
Mathematical analysis
Observers
Satellites
Sensors
sliding mode observer
Torque
Wheels
title Fault-Tolerant Attitude Stabilization for Satellites Without Rate Sensor
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