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Stable Hovering Flight for a Small Unmanned Helicopter Using Fuzzy Control
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Stable hover flight control for small unmanned helicopter under light air turbulent environment is presented. Intelligent fuzzy logic is chosen because it is a nonlinear control technique based on expert knowledge and is capable of handling sensor created noise and contradictory inputs commonly encountered in flight control. The fuzzy nonlinear control utilizes these distinct qualities for attitude, height, and position control. These multiple controls are developed using two‐loop control structure by first designing an inner‐loop controller for attitude angles and height and then by establishing outer‐loop controller for helicopter position. The nonlinear small unmanned helicopter model used comes from X‐Plane simulator. A simulation platform consisting of MATLAB/Simulink and X‐Plane© flight simulator was introduced to implement the proposed controls. The main objective of this research is to design computationally intelligent control laws for hovering and to test and analyze this autopilot for small unmanned helicopter model on X‐Plane under ideal and mild turbulent condition. Proposed fuzzy flight controls are validated using an X‐Plane helicopter model before being embedded on actual helicopter. To show the effectiveness of the proposed fuzzy control method and its ability to cope with the external uncertainties, results are compared with a classical PD controller. Simulated results show that two‐loop fuzzy controllers have a good ability to establish stable hovering for a class of unmanned rotorcraft in the presence of light turbulent environment.
Title: Stable Hovering Flight for a Small Unmanned Helicopter Using Fuzzy Control
Description:
Stable hover flight control for small unmanned helicopter under light air turbulent environment is presented.
Intelligent fuzzy logic is chosen because it is a nonlinear control technique based on expert knowledge and is capable of handling sensor created noise and contradictory inputs commonly encountered in flight control.
The fuzzy nonlinear control utilizes these distinct qualities for attitude, height, and position control.
These multiple controls are developed using two‐loop control structure by first designing an inner‐loop controller for attitude angles and height and then by establishing outer‐loop controller for helicopter position.
The nonlinear small unmanned helicopter model used comes from X‐Plane simulator.
A simulation platform consisting of MATLAB/Simulink and X‐Plane© flight simulator was introduced to implement the proposed controls.
The main objective of this research is to design computationally intelligent control laws for hovering and to test and analyze this autopilot for small unmanned helicopter model on X‐Plane under ideal and mild turbulent condition.
Proposed fuzzy flight controls are validated using an X‐Plane helicopter model before being embedded on actual helicopter.
To show the effectiveness of the proposed fuzzy control method and its ability to cope with the external uncertainties, results are compared with a classical PD controller.
Simulated results show that two‐loop fuzzy controllers have a good ability to establish stable hovering for a class of unmanned rotorcraft in the presence of light turbulent environment.
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