MEMS高G惯性冲击传感器的设计与仿真

Y.P. Wang, R. Hsu, C.W. Wu
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引用次数: 1

摘要

传统的惯性冲击传感器通常使用悬臂梁或轴向弹簧等机构作为触发装置。这些传统的冲击传感器的反应时间要么太慢,要么在许多情况下无法完全用于高重力应用。在本研究中,提出了一种测量范围为8,000-21,000 G的MEMS高G惯性冲击传感器。触发机构为悬臂式与弹簧式组合结构。该机构的设计经过了一系列的分析。仿真结果表明,MEMS高G惯性冲击传感器的响应时间比采用悬臂梁或弹簧机构的传统G惯性冲击传感器更快。此外,MEMS高G惯性冲击传感器具有足够的鲁棒性,可以承受大多数传统G惯性冲击传感器无法承受的高G应用中遇到的冲击。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and simulation of a MEMS high G inertial impact sensor
Conventional inertial impact sensors typically use mechanisms such as cantilever beams or axial springs as triggering devices. Reaction time for these conventional impact sensors are either far too slow or, in many cases, fail to function completely for high G applications. In this study, a MEMS high G inertial impact sensor with a measurement range of 8,000-21,000 G is presented. The triggering mechanism is a combination of cantilever and spring structure. The design of the mechanism underwent a series of analyses. Simulation results indicated that a MEMS high G inertial impact sensor has a faster reaction time than conventional G inertial impact sensors that use a cantilever beam or spring mechanism. Furthermore, the MEMS high G inertial impact sensor is sufficiently robust to survive the impact encountered in high G application where most conventional G inertial impact sensors fail.
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