An Electret-Based Self-Sensing Micro-Vibration Absorber and the Modeling Based on Support Vector Regression Algorithm

IF 1.3 4区 工程技术 Q2 ENGINEERING, AEROSPACE Microgravity Science and Technology Pub Date : 2023-08-18 DOI:10.1007/s12217-023-10069-6
Guoping Liu, Zhaoshu Yang, Zhongbo He, Kai Tao, Jingtao Zhou, Sen Li, Wei Hu, Minzheng Sun
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Abstract

In this paper, we developed a lightweight, self-sensing electret-based dynamic vibration absorber (ESDVA) for micro-vibration suppressions. We modeled the electromechanical coupling procedure of the ESDVA based on the first principles and proposed a sensing model based on support vector regression machine (SVR). The SVR algorithm helps to linearize the original voltage generated by the electret for precise vibration sensing. A prototype of the ESDVA is fabricated, and the theoretical model and SVR algorithms are verified by experiments. According to experimental results, the ESDVA successfully reduced primary structure vibration amplitudes by up to 50% with a mass burden of 1.4% of the primary structure. The proposed sensing model achieve an accuracy rate of over 93.5% for vibration sensing and the robustness of the model was also assessed. Moreover, the advantages of the proposed electret-based sensing method over classical methods are discussed.

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一种基于驻极体的自感知微振减振器及基于支持向量回归算法的建模
在本文中,我们开发了一种轻量化,自传感的基于驻极体的动态吸振器(ESDVA),用于微振动抑制。基于第一原理对ESDVA机电耦合过程进行建模,提出了一种基于支持向量回归机(SVR)的感知模型。支持向量回归算法将驻极体产生的原始电压线性化,实现精确的振动感知。制作了ESDVA的原型机,并通过实验验证了理论模型和支持向量回归算法。实验结果表明,ESDVA在原结构质量负担为1.4%的情况下,成功地将原结构振动幅值降低了50%。该模型的振动感知准确率达到93.5%以上,并对模型的鲁棒性进行了评价。此外,本文还讨论了基于驻极体的传感方法相对于传统方法的优点。
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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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