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A review of various actuation methods in micropumps for drug delivery appliactions

机译:用于药物递送应用的微泵各种致动方法的综述

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Microelectromechanical systems (MEMS) have been used in diverse applications, from display technologies to sensor systems to optical networks and in medical fields for micropumps in drug delivery systems. MEMS are attractive for many applications because of their small size and weight, which allow systems to be miniaturized. On-chip actuation of microsystems has been a particularly challenging aspect of MEMS development. Common macro-level actuation approaches, such as hydraulics, pneumatics, electric motors, internal combustion engines and turbines, are either too difficult to fabricate at the micro level or do not work well at that scale. Electrostatic attraction is one approach that has been widely used for actuation of microsystems. While electrostatic actuation is suitable for many applications, some systems require either lower voltages or higher output forces. In this paper a comparison of some commonly used MEMS actuation mechanisms for micropumps in drug delivery systems are compared. After the comparison it is proven that electrostatic actuation has been commonly adopted due to the enormous advantages it possesses over the other actuation mechanisms. Electrostatic actuation is more popular in micropump application than others due to its high compatibility with micro-fabrication processes, low power consumption, simple structure and quick response.
机译:微机电系统(MEMS)已在不同的应用中,从显示技术到传感器系统到光网络以及药物输送系统中微泵的医疗领域。由于它们的尺寸和重量小,MEMS对许多应用具有吸引力,这使得系统允许小型化。微系统的片上致动是MEMS发育的特别具有挑战性的方面。常见的宏观级致动方法,如液压,气动,电动机,内燃机和涡轮机,无论是在微观水平的情况下都难以制造,也可以在该规模处工作。静电吸引力是一种方法,它已被广泛用于致动微系统。虽然静电致动适用于许多应用,但是一些系统需要较低的电压或更高的输出力。在本文中,比较了一些常用的MEMS致动机制对药物输送系统中的微泵的一些常用MEMS致动机制的比较。比较之后,证明静电驱动通常是由于其在其他致动机构上具有巨大优势而采用的。由于其与微制造工艺的高兼容性,低功耗,结构简单和快速响应,静电致动比其他产品在微泵应用中更受欢迎。

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