Anti-Windup Control for an Air-Breathing Hypersonic Vehicle Model

An anti-windup controller modification is implemented in control system design for a model of the longitudinal dynamics of an air-breathing hypersonic vehicle. Anti-windup control allows the input constraints to be considered explicitly in the design of linear controllers to track a reference trajec...

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Hauptverfasser: Groves, Kevin P, Serrani, Andrea, Yurkovich, Stephen, Bolender, Michael A, Doman, David B
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Serrani, Andrea
Yurkovich, Stephen
Bolender, Michael A
Doman, David B
description An anti-windup controller modification is implemented in control system design for a model of the longitudinal dynamics of an air-breathing hypersonic vehicle. Anti-windup control allows the input constraints to be considered explicitly in the design of linear controllers to track a reference trajectory for the vehicle velocity, altitude, and angle of attack. The presence of anti-windup alleviates the need of keeping large penalties on the magnitude of the control input to avoid the occurrence of saturation. This, in turn, allows tighter tuning of the controller gains to obtain faster and more accurate trajectory tracking. The paper employs recent developments in anti-windup design to deal with the presence of exponentially unstable dynamics, which are typically encountered in air-breathing vehicle models. Simulation results on a fully nonlinear model are presented to validate the controller design. Submitted for publication in the proceedings of the 2006 AIAA Guidance, Navigation, and Control Conference, to be held in Keystone, CO, on 24 Aug 2006. Prepared in collaboration with Air Force Research Laboratory, Control Design and Analysis Branch (AFRL/VACA), Wright-Patterson AFB, OH.
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Anti-windup control allows the input constraints to be considered explicitly in the design of linear controllers to track a reference trajectory for the vehicle velocity, altitude, and angle of attack. The presence of anti-windup alleviates the need of keeping large penalties on the magnitude of the control input to avoid the occurrence of saturation. This, in turn, allows tighter tuning of the controller gains to obtain faster and more accurate trajectory tracking. The paper employs recent developments in anti-windup design to deal with the presence of exponentially unstable dynamics, which are typically encountered in air-breathing vehicle models. Simulation results on a fully nonlinear model are presented to validate the controller design. Submitted for publication in the proceedings of the 2006 AIAA Guidance, Navigation, and Control Conference, to be held in Keystone, CO, on 24 Aug 2006. 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subjects AIR BREATHING ENGINES
Air Breathing Engines(unconventional)
ANGLE OF ATTACK
ANTI-WINDUP
CONTROL THEORY
FLIGHT CONTROL SYSTEMS
HYPERSONIC AIRCRAFT
PE0601102F
PREPRINTS
Research and Experimental Aircraft
WUAFRLA02D0A
title Anti-Windup Control for an Air-Breathing Hypersonic Vehicle Model
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