空间应用轻型驻极体传感器自感微振动隔离系统的设计与建模

IF 1.3 4区 工程技术 Q2 ENGINEERING, AEROSPACE
Chao Dong, Zhaoshu Yang, Zhenkun Guo, Guoping Liu, Minzheng Sun
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引用次数: 0

摘要

在传统的航天器微振隔离器中嵌入一种体积小、重量轻的传感器一直是人们的期望。它有助于检测隔离器遇到的细微干扰,并警告潜在的危害。在这项工作中,我们开发了一种使用驻极体换能器的自感微振动隔离器。基于Hamilton原理建立了驻极体自感隔离器的理论模型,研究了系统的耦合动力学,并指导了基于模型的设计。通过有限元方法进行了仿真,验证和扩展了所提模型的有效性。结果表明,驻极体换能器是微隔振器嵌入式传感器的理想选择。通过适当的尺寸和适当的部署方式,驻极体传感器可以精确地检测非簧载的平移和旋转。
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 Modeling of a Self-Sensing Micro-Vibration Isolation System Utilizing a Lightweight Electret-Based Transducer for Space Applications

A compact and lightweight sensor is always expected to be embedded with the traditional micro-vibration isolator in spacecraft. It helps to detect the subtle disturbances the isolator encounters and alerts for potential harm. In this work, we developed a self-sensing micro-vibration isolator using an electret transducer. The theoretical models of the electret-based self-sensing isolator are derived from Hamilton's principle to investigate the coupled dynamics of the system and guide a model-based design. Simulations via the finite element method were also conducted to verify and extend the effectiveness of the proposed model. The results show that the electret transducer is an excellent candidate for the embedded sensor of the micro-vibration isolator. With the proper size and appropriate deployment pattern, the electret sensors can precisely detect the translation and rotation of the unsprung load.

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来源期刊
Microgravity Science and Technology
Microgravity Science and Technology 工程技术-工程:宇航
CiteScore
3.50
自引率
44.40%
发文量
96
期刊介绍: Microgravity Science and Technology – An International Journal for Microgravity and Space Exploration Related Research is a is a peer-reviewed scientific journal concerned with all topics, experimental as well as theoretical, related to research carried out under conditions of altered gravity. Microgravity Science and Technology publishes papers dealing with studies performed on and prepared for platforms that provide real microgravity conditions (such as drop towers, parabolic flights, sounding rockets, reentry capsules and orbiting platforms), and on ground-based facilities aiming to simulate microgravity conditions on earth (such as levitrons, clinostats, random positioning machines, bed rest facilities, and micro-scale or neutral buoyancy facilities) or providing artificial gravity conditions (such as centrifuges). Data from preparatory tests, hardware and instrumentation developments, lessons learnt as well as theoretical gravity-related considerations are welcome. Included science disciplines with gravity-related topics are: − materials science − fluid mechanics − process engineering − physics − chemistry − heat and mass transfer − gravitational biology − radiation biology − exobiology and astrobiology − human physiology
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