Design and Simulation of High Flowrate Piezoelectric Pump based on Rhombic Piezoelectric Actuator

Yishan Zeng, Y. Hao, Jian Chen, Wenzhi Gao, Liangguo He
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引用次数: 1

Abstract

This paper utilizes displacement amplifying mechanism and resonance drive to improve the output performance of piezoelectric pump. A rhombic piezoelectric actuator is designed and simulated with a piezoelectric stack (10 mm×10 mm×18.2 mm) and a rhombic displacement amplifying mechanism. Modal analyses of the rhombic piezoelectric actuator are carried out under fixed-vibrating constraint and symmetric constraint. The simulation results show that the resonant frequencies of the actuator in bending vibrating mode under fixed-vibrating and symmetric constraints are 724.6 Hz and 3205.9 Hz respectively. Then piezoelectric pumps are designed with two types of rhombic piezoelectric actuators vibrating two diaphragm pumps simultaneously in a symmetric structure. High flowrates output of the presented piezoelectric pumps design can be expected.
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基于菱形压电驱动器的大流量压电泵设计与仿真
本文利用位移放大机构和谐振驱动来提高压电泵的输出性能。采用10 mm×10 mm×18.2 mm的压电堆和菱形位移放大机构,设计并仿真了一种菱形压电驱动器。在定振约束和对称约束下,对菱形压电驱动器进行了模态分析。仿真结果表明,在定振约束和对称约束下,执行器在弯曲振动模式下的谐振频率分别为724.6 Hz和3205.9 Hz。然后设计了两种菱形压电致动器以对称结构同时振动两台隔膜泵的压电泵。所设计的压电泵具有较高的输出流量。
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