Jinhua Jiang
ABSTRACT
In order to achieve high-precision vibration control of beam and plate structures, the actuators need to be selected and installed according to the controlled structures. MFC (Macro Fiber Composite) is a thin slice piezoelectric composite material with large displacement output and fast response, which can be sticked or embedded in structures easily, so the research on vibration control of beam and plate structures using MFC actuators is still very active. This article introduces the theoretical basis of MFC firstly, and where includes the classification of MFC, internal structure, constitutive equations and common modeling methods. Then, introducing the applications in vibration control of beam and plate structures using MFC actuators and the controlling strategy used to solve the nonlinear problems in these applications. Finally, extends the applications of MFC actuators in complex structures, and the problems of nonlinear hysteresis behavior are summarized which existing in vibration control using MFC. For higher precision control of MFC, this feature can be researched in depth.
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Index Terms
- A Review of Using MFC Actuators for Vibration Control of Beam and Plate Structures
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