Dynamic Response Analysis of Microflow Electrochemical Sensors with Two Types of Elastic Membrane

The Molecular Electric Transducer (MET), widely applied for vibration measurement, has excellent sensitivity and dynamic response at low frequencies. The elastic membrane in the MET is a significant factor with an obvious effect on the performance of the MET in the low frequency domain and is the fo...

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Main Authors: Qiuzhan Zhou, Chunhui Wang, Yongzhi Chen, Shuozhang Chen, Jun Lin
Format: Article
Language:English
Published: MDPI AG 2016-05-01
Series:Sensors
Subjects:
Online Access:http://www.mdpi.com/1424-8220/16/5/657
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spelling doaj-9215a6e3ea9b4f19b58c6c4a1c5475992020-11-24T23:31:32ZengMDPI AGSensors1424-82202016-05-0116565710.3390/s16050657s16050657Dynamic Response Analysis of Microflow Electrochemical Sensors with Two Types of Elastic MembraneQiuzhan Zhou0Chunhui Wang1Yongzhi Chen2Shuozhang Chen3Jun Lin4State Key Laboratory of Automotive Simulation and Control, Jilin University, Changchun 130022, ChinaCollege of Communication Engineering, Jilin University, Changchun 130022, ChinaCollege of Communication Engineering, Jilin University, Changchun 130022, ChinaCollege of Communication Engineering, Jilin University, Changchun 130022, ChinaCollege of Instrumentation and Electrical Engineering, Jilin University, Changchun 130026, ChinaThe Molecular Electric Transducer (MET), widely applied for vibration measurement, has excellent sensitivity and dynamic response at low frequencies. The elastic membrane in the MET is a significant factor with an obvious effect on the performance of the MET in the low frequency domain and is the focus of this paper. In simulation experiments, the elastic membrane and the reaction cavity of the MET were analysed in a model based on the multiphysics finite element method. Meanwhile, the effects caused by the elastic membrane elements are verified in this paper. With the numerical simulation and practical experiments, a suitable elastic membrane can be designed for different cavity structures. Thus, the MET can exhibit the best dynamic response characteristics to measure the vibration signals. With the new method presented in this paper, it is possible to develop and optimize the characteristics of the MET effectively, and the dynamic characteristics of the MET can be improved in a thorough and systematic manner.http://www.mdpi.com/1424-8220/16/5/657microflow electrochemical sensorelastic membranemultiphysical field finite element
collection DOAJ
language English
format Article
sources DOAJ
author Qiuzhan Zhou
Chunhui Wang
Yongzhi Chen
Shuozhang Chen
Jun Lin
spellingShingle Qiuzhan Zhou
Chunhui Wang
Yongzhi Chen
Shuozhang Chen
Jun Lin
Dynamic Response Analysis of Microflow Electrochemical Sensors with Two Types of Elastic Membrane
Sensors
microflow electrochemical sensor
elastic membrane
multiphysical field finite element
author_facet Qiuzhan Zhou
Chunhui Wang
Yongzhi Chen
Shuozhang Chen
Jun Lin
author_sort Qiuzhan Zhou
title Dynamic Response Analysis of Microflow Electrochemical Sensors with Two Types of Elastic Membrane
title_short Dynamic Response Analysis of Microflow Electrochemical Sensors with Two Types of Elastic Membrane
title_full Dynamic Response Analysis of Microflow Electrochemical Sensors with Two Types of Elastic Membrane
title_fullStr Dynamic Response Analysis of Microflow Electrochemical Sensors with Two Types of Elastic Membrane
title_full_unstemmed Dynamic Response Analysis of Microflow Electrochemical Sensors with Two Types of Elastic Membrane
title_sort dynamic response analysis of microflow electrochemical sensors with two types of elastic membrane
publisher MDPI AG
series Sensors
issn 1424-8220
publishDate 2016-05-01
description The Molecular Electric Transducer (MET), widely applied for vibration measurement, has excellent sensitivity and dynamic response at low frequencies. The elastic membrane in the MET is a significant factor with an obvious effect on the performance of the MET in the low frequency domain and is the focus of this paper. In simulation experiments, the elastic membrane and the reaction cavity of the MET were analysed in a model based on the multiphysics finite element method. Meanwhile, the effects caused by the elastic membrane elements are verified in this paper. With the numerical simulation and practical experiments, a suitable elastic membrane can be designed for different cavity structures. Thus, the MET can exhibit the best dynamic response characteristics to measure the vibration signals. With the new method presented in this paper, it is possible to develop and optimize the characteristics of the MET effectively, and the dynamic characteristics of the MET can be improved in a thorough and systematic manner.
topic microflow electrochemical sensor
elastic membrane
multiphysical field finite element
url http://www.mdpi.com/1424-8220/16/5/657
work_keys_str_mv AT qiuzhanzhou dynamicresponseanalysisofmicroflowelectrochemicalsensorswithtwotypesofelasticmembrane
AT chunhuiwang dynamicresponseanalysisofmicroflowelectrochemicalsensorswithtwotypesofelasticmembrane
AT yongzhichen dynamicresponseanalysisofmicroflowelectrochemicalsensorswithtwotypesofelasticmembrane
AT shuozhangchen dynamicresponseanalysisofmicroflowelectrochemicalsensorswithtwotypesofelasticmembrane
AT junlin dynamicresponseanalysisofmicroflowelectrochemicalsensorswithtwotypesofelasticmembrane
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