The vibrational behavior of cantilevered aircraft wings modeled as thin-walled beams and incorporating piezoelectric effects is studied. Based on the converse piezoelectric effect, the system of piezoelectric actuators conveniently located on the wing yield the control of its associated vertical and lateral bending eigenfrequencies. The possibility revealed by this study enabling one to increase adaptively the eigenfrequencies of thin-walled cantilevered beams could play a significant role in the control of the dynamic response and flutter of wing and rotor blade structures
Purpose – The purpose of the research activity is to identify the best configuration of piezoelectri...
Smart materials and structures systems are increasingly being developed to handle more complex probl...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/77134/1/AIAA-2004-2038-697.pd
A geometrical nonlinear model of thin-walled beams with fiber-reinforced and piezo-composite is deve...
The objective of this research was to analytically and experimentally study the capabilities of adap...
In times when aircraft are becoming lighter and faster, the problem areas of aeroelasticity are also...
Aerospace structures require low weight and high performances. The interaction of these str...
Many of the mechanical systems exposed to undesired vibrations. These vibrations are removed by usin...
Active control of swept smart aircraft wings in an incompressible flow are examined. The wing struct...
The design of structural components with enhanced flexibility led to research new solutions to contr...
Flutter suppression concept is demonstrated by performin wind-tunnel tests in a low subsonic flow re...
Aeroelasticity is a major concern in structural control. It results from the interaction between the...
Theoretical and experimental investigations of the static and dynamic behaviour of thin-walled struc...
Smart materials modeling and their use in structural control applications on recent years have attra...
Czech Science Foundation project Aerodynamic bodies with actively controlled morphing, 19-16772S and...
Purpose – The purpose of the research activity is to identify the best configuration of piezoelectri...
Smart materials and structures systems are increasingly being developed to handle more complex probl...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/77134/1/AIAA-2004-2038-697.pd
A geometrical nonlinear model of thin-walled beams with fiber-reinforced and piezo-composite is deve...
The objective of this research was to analytically and experimentally study the capabilities of adap...
In times when aircraft are becoming lighter and faster, the problem areas of aeroelasticity are also...
Aerospace structures require low weight and high performances. The interaction of these str...
Many of the mechanical systems exposed to undesired vibrations. These vibrations are removed by usin...
Active control of swept smart aircraft wings in an incompressible flow are examined. The wing struct...
The design of structural components with enhanced flexibility led to research new solutions to contr...
Flutter suppression concept is demonstrated by performin wind-tunnel tests in a low subsonic flow re...
Aeroelasticity is a major concern in structural control. It results from the interaction between the...
Theoretical and experimental investigations of the static and dynamic behaviour of thin-walled struc...
Smart materials modeling and their use in structural control applications on recent years have attra...
Czech Science Foundation project Aerodynamic bodies with actively controlled morphing, 19-16772S and...
Purpose – The purpose of the research activity is to identify the best configuration of piezoelectri...
Smart materials and structures systems are increasingly being developed to handle more complex probl...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/77134/1/AIAA-2004-2038-697.pd