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Simulation-Based Design of an Electrostatically Driven Micro-Actuator for Fluid Transport in Mobile Applications

机译:基于仿真的移动应用中用于流体传输的静电驱动微执行器设计

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The emerging lab-on-chip technology for in-situ medical use and environmental surveillance brought with it the demand for new, micro-scale actuator designs specialized in energy-efficient fluid transport, supporting the development of lightweight and mobile systems. In this work, we present the simulation-based design of a novel, integrated micro-fluidic actuator intended for mobile applications. The design is laid-out to be compatible with standard semiconductor manufacturing processes in order to enable mass-production at low cost per unit. The development of the device is supported and accelerated by a dedicated fully energy-coupled finite element model (FEM). The FE model takes into account the fluid-solid interaction in addition to the electro-mechanical interrelations, therefore reproducing the full device behavior in reaction to electrical input signals. In the end, we discuss several design parameters exhibiting space for improvement compared to the chosen standard values, as identified by the FEM simulations.
机译:新兴的用于现场医疗和环境监测的芯片实验室技术带来了对新型微型执行器设计的需求,这些设计专门用于节能型流体传输,从而支持了轻便和移动系统的发展。在这项工作中,我们提出了一种针对移动应用的新型集成微流致动器的基于仿真的设计。设计布局与标准半导体制造工艺兼容,以便能够以较低的单位成本进行批量生产。专用的完全能量耦合有限元模型(FEM)支持并加速了该设备的开发。 FE模型除了考虑机电相互作用之外,还考虑了流体-固体相互作用,因此,在对电输入信号的反应中,可重现整个设备的行为。最后,我们讨论了几个设计参数,这些参数与FEM仿真确定的所选标准值相比有待改进。

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