Robust and optimal control of helicopter systems
This thesis is concerned with controller design for helicopter systems. The emphasis will be focused on three parts: control of single helicopter; control of single helicopter with a hanging load; and control of multi-lift systems. First, we will investigate the application of a nonlinear decoupling...
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sg-ntu-dr.10356-196082023-07-04T15:50:49Z Robust and optimal control of helicopter systems Chen, Chang. Soh, Cheong Boon School of Electrical and Electronic Engineering DRNTU::Engineering::Electrical and electronic engineering::Control and instrumentation This thesis is concerned with controller design for helicopter systems. The emphasis will be focused on three parts: control of single helicopter; control of single helicopter with a hanging load; and control of multi-lift systems. First, we will investigate the application of a nonlinear decoupling method to synthesize flight-control laws for a hovering helicopter. Current practice of controller design for this application has several drawbacks since it needs more than one controller and requires gain scheduling and model switching schemes. Also, as the helicopter moves away from the design trim condition, the flight control system performance degrades rapidly. Using noidinear noninteracting control design will avoid these problems. In this thesis, we will apply a synthesis decoupling control design method to helicopter systems. Simulation results will demonstrate the robustness of the proposed decoupling algorithm. Master of Engineering 2009-12-14T06:17:51Z 2009-12-14T06:17:51Z 1996 1996 Thesis http://hdl.handle.net/10356/19608 en NANYANG TECHNOLOGICAL UNIVERSITY 115 p. application/pdf |
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DRNTU::Engineering::Electrical and electronic engineering::Control and instrumentation Chen, Chang. Robust and optimal control of helicopter systems |
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This thesis is concerned with controller design for helicopter systems. The emphasis will be focused on three parts: control of single helicopter; control of single helicopter with a hanging load; and control of multi-lift systems. First, we will investigate the application of a nonlinear decoupling method to synthesize flight-control laws for a hovering helicopter. Current practice of controller design for this application has several drawbacks since it needs more than one controller and requires gain scheduling and model switching schemes. Also, as the helicopter moves away from the design trim condition, the flight control system performance degrades rapidly. Using noidinear noninteracting control design will avoid these problems. In this thesis, we will apply a synthesis decoupling control design method to helicopter systems. Simulation results will demonstrate the robustness of the proposed decoupling algorithm. |
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Soh, Cheong Boon |
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Soh, Cheong Boon Chen, Chang. |
format |
Theses and Dissertations |
author |
Chen, Chang. |
author_sort |
Chen, Chang. |
title |
Robust and optimal control of helicopter systems |
title_short |
Robust and optimal control of helicopter systems |
title_full |
Robust and optimal control of helicopter systems |
title_fullStr |
Robust and optimal control of helicopter systems |
title_full_unstemmed |
Robust and optimal control of helicopter systems |
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robust and optimal control of helicopter systems |
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2009 |
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http://hdl.handle.net/10356/19608 |
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1772827561075671040 |