An Electrically-Driven, Large-Deflection, High-Force, Micro Piston Hydraulic Actuator Array for Large-Scale Microfluidic Systems

Hanseup Kim, K. Najafi
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引用次数: 22

Abstract

This paper describes a proof-of-concept all-electrical individually-addressable micro piston actuator array that produces high displacement and force by utilizing hydraulic amplification and electrostatic control. This new class of actuator arrays can remove a critical hurdle, pneumatic control ports to lab-on-chips, and achieve fully-integrated, large-scale, and all-electrical microfluidic systems. The fabricated actuator consists of a 3×3 array of 2×2mm2 membranes and produces maximum deflections of 35, 23, and 11 ¿m when hydraulicallydriven by piezoelectric actuation at 100, 80, 60V, respectively. The corresponding hydraulic amplification ratios are 3.2, 3, and 2.5, respectively. The array functions up to a frequency of 2Hz without failing, while allowing control over individual actuators by utilizing electrostatic latching at 100V. The active device part measures as 8.4×8.4×0.65mm3.
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一种用于大型微流体系统的电驱动、大偏转、高力、微活塞液压执行器阵列
本文介绍了一种概念验证的全电动可寻址微型活塞执行器阵列,该阵列利用液压放大和静电控制产生高位移和力。这种新型的执行器阵列可以消除一个关键的障碍,气动控制端口到芯片上的实验室,并实现完全集成的,大规模的,全电微流体系统。制造的致动器由2×2mm2膜的3×3阵列组成,当在100,80,60v电压下由压电驱动时,分别产生35,23和11¿m的最大挠度。相应的水力放大比分别为3.2、3、2.5。该阵列的工作频率高达2Hz而不会发生故障,同时允许通过使用100V的静电闭锁来控制单个致动器。有源器件部分测量为8.4×8.4×0.65mm3。
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