Design of A Novel Piezoelectric Actuated Two-Degree-of-freedom Compliant Stage

S. Huang, Xiubing Jing, Peng Shang, Fujun Wang
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Abstract

this paper proposes a novel piezoelectric actuated (PEA) two-degree-of-freedom (2-DOF) compliant stage. Firstly, the stage’s structure is introduced. The stage have mirror symmetry about the YZ-plane. It mainly consists of a Scott-Russell (SR) mechanism, a leverage mechanism, and a U-shaped flexure hinge (UFH) mechanism. The input end of the UFH mechanism can be guided by the parallelogram guidance mechanism. And a rotational constraint of the UFH mechanism can be obtained. Hence the undesirable parasitic rotational motions and the coupling motion of UFH mechanism can be eliminated. Secondly, the analytical model of the compliant stage is established by considering all the connecting linkages as flexible components. Finally, by finite element analysis (FEA), the amplification ratio and the natural frequencies of the stage are estimated. The FEA results show that the stage has good performance.
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一种新型压电驱动二自由度柔性工作台的设计
提出了一种新型压电驱动二自由度柔性工作台。首先,介绍了舞台的结构。舞台在yz平面上具有镜面对称。它主要由斯科特-罗素(SR)机构、杠杆机构和u型柔性铰链(UFH)机构组成。并联四边形制导机构可对超高频机构的输入端进行制导。得到了该机构的旋转约束。从而消除了超高频机构的寄生旋转运动和耦合运动。其次,将所有连杆机构视为柔性构件,建立了柔性阶段的分析模型;最后,通过有限元分析,估算了舞台的放大比和固有频率。有限元分析结果表明,该平台具有良好的性能。
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