Theory of Adaptive Fiber Composites [electronic resource] : From Piezoelectric Material Behavior to Dynamics of Rotating Structures /
Brockmann, T. H.author.
Adaptive structural systems in conjunction with multifunctional materials facilitate technical solutions with a wide spectrum of applications and a high degree of integration. By virtue of combining the actuation and sensing capabilities of piezoelectric materials with the advantages of fiber composites, the anisotropic constitutive properties may be tailored according to requirements and the failure behavior can be improved. Such adaptive fiber composites are very well-suited for the task of noise and vibration reduction. In this respect, the helicopter rotor system represents a very interesting and widely perceptible field of application. The occurring oscillations can be reduced with the aid of aerodynamic couplings via fast manipulation of the angle of attack, being induced by twist actuation of the rotor blade. On the one hand, the sensing properties may be used to determine the current state of deformation, while, on the other hand, the actuation properties may be used to attain the required state of deformation. The implementation of such concepts requires comprehensive knowledge of the theoretical context, which is illuminated in this work from the examination of the material behavior to the simulation of the rotating structure.
Description based upon print version of record.
Includes bibliographical references and index.
Helicopter Applications -- Fundamental Considerations -- Piezoelectric Materials -- Piezoelectric Composites -- Adaptive Laminated Composite Shells -- Adaptive Thin-Walled Beams -- Virtual Work Statements -- Solution Variants -- Demonstration and Validation -- Conclusion.
Adaptive structural systems in conjunction with multifunctional materials facilitate technical solutions with a wide spectrum of applications and a high degree of integration. By virtue of combining the actuation and sensing capabilities of piezoelectric materials with the advantages of fiber composites, the anisotropic constitutive properties may be tailored according to requirements and the failure behavior can be improved. Such adaptive fiber composites are very well-suited for the task of noise and vibration reduction. In this respect, the helicopter rotor system represents a very interesting and widely perceptible field of application. The occurring oscillations can be reduced with the aid of aerodynamic couplings via fast manipulation of the angle of attack, being induced by twist actuation of the rotor blade. On the one hand, the sensing properties may be used to determine the current state of deformation, while, on the other hand, the actuation properties may be used to attain the required state of deformation. The implementation of such concepts requires comprehensive knowledge of the theoretical context, which is illuminated in this work from the examination of the material behavior to the simulation of the rotating structure.
Industrial engineering.
Production engineering.
Mechanics.
Vibration.
Dynamical systems.
Dynamics.
Ceramics.
Glass.
Composites (Materials).
Composite materials.
Mechanics, Applied.
Computational intelligence.
Industrial and Production Engineering.
Classical Mechanics.
Vibration, Dynamical Systems, Control.
Ceramics, Glass, Composites, Natural Materials.
Solid Mechanics.
Computational Intelligence.
Solid mechanics and its applications