Actuator and Sensor Positioning Optimization in Control Design for a Large BWB Passenger Aircraft
Author(s) -
Alexander Schirrer,
C. Westermayer,
M. Hemedi,
Martin Kozek
Publication year - 2011
Publication title -
isrn mechanical engineering
Language(s) - English
Resource type - Journals
eISSN - 2090-5130
pISSN - 2090-5122
DOI - 10.5402/2011/635815
Subject(s) - actuator , sizing , automotive engineering , engineering , control system , flight control surfaces , bandwidth (computing) , control theory (sociology) , control engineering , computer science , control (management) , aerospace engineering , aerodynamics , artificial intelligence , electrical engineering , visual arts , art , telecommunications
This paper states an approach to actuator and sensor positioning optimization and design in the control system design of a large blended wing body (BWB) passenger aircraft. Numerous objectives have to be achieved by the control system: loads alleviation, vibration attenuation, and the fulfillment of handling quality requirements. Exploiting the system structure and existing system knowledge (excitation, comfort, and load formulations), evaluation criteria are designed to assess actuator and sensor effectiveness and efficiency for the aircraft dynamic range of interest. The tasks of optimal actuator and sensor positioning, actuator sizing, and actuator bandwidth requirements are investigated, whereby solutions that are robust are sought with respect to parameter variations. The results are shown on a BWB passenger aircraft model and verified using a normalized closed-loop performance assessment approach.
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