Study on Electrophysiological Signal Monitoring of Plant under Stress Based on Integrated Op-Amps and Patch Electrode

Electrophysiological signal in plant is a weak electrical signal, which can fluctuate with the change of environment. An amplification detection system was designed for plant electrical signal acquisition by using integrated op-amps (CA3140, AD620, and INA118), patch electrode, data acquisition card...

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Main Authors: Weiming Cai, Qingke Qi
Format: Article
Language:English
Published: Hindawi Limited 2017-01-01
Series:Journal of Electrical and Computer Engineering
Online Access:http://dx.doi.org/10.1155/2017/4182546
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spelling doaj-8f2398a59fb849f7a0ed3179ccd50ae12021-07-02T01:47:41ZengHindawi LimitedJournal of Electrical and Computer Engineering2090-01472090-01552017-01-01201710.1155/2017/41825464182546Study on Electrophysiological Signal Monitoring of Plant under Stress Based on Integrated Op-Amps and Patch ElectrodeWeiming Cai0Qingke Qi1School of Information Science and Engineering, Ningbo Institute of Technology, Zhejiang University, Ningbo 315100, ChinaSchool of Information Science and Engineering, Ningbo Institute of Technology, Zhejiang University, Ningbo 315100, ChinaElectrophysiological signal in plant is a weak electrical signal, which can fluctuate with the change of environment. An amplification detection system was designed for plant electrical signal acquisition by using integrated op-amps (CA3140, AD620, and INA118), patch electrode, data acquisition card (NI USB-6008), computer, and shielded box. Plant electrical signals were also studied under pressure and flooding stress. The amplification detection system can make nondestructive acquisition for Aquatic Scindapsus and Guaibcn with high precision, high sensitivity, low power consumption, high common mode rejection ratio, and working frequency bandwidth. Stress experiments were conducted through the system; results show that electrical signals were produced in the leaf of Aquatic Scindapsus under the stress of pressure. Electrical signals in the up-leaf surface of Aquatic Scindapsus were stronger than the down-leaf surface. Electrical signals produced in the leaf of Guaibcn were getting stronger when suffering flooding stress. The more the flooding stress was severe, the faster the electrical signal changed, the longer the time required for returning to a stable state was, and the greater the electrical signal got at the stable state was.http://dx.doi.org/10.1155/2017/4182546
collection DOAJ
language English
format Article
sources DOAJ
author Weiming Cai
Qingke Qi
spellingShingle Weiming Cai
Qingke Qi
Study on Electrophysiological Signal Monitoring of Plant under Stress Based on Integrated Op-Amps and Patch Electrode
Journal of Electrical and Computer Engineering
author_facet Weiming Cai
Qingke Qi
author_sort Weiming Cai
title Study on Electrophysiological Signal Monitoring of Plant under Stress Based on Integrated Op-Amps and Patch Electrode
title_short Study on Electrophysiological Signal Monitoring of Plant under Stress Based on Integrated Op-Amps and Patch Electrode
title_full Study on Electrophysiological Signal Monitoring of Plant under Stress Based on Integrated Op-Amps and Patch Electrode
title_fullStr Study on Electrophysiological Signal Monitoring of Plant under Stress Based on Integrated Op-Amps and Patch Electrode
title_full_unstemmed Study on Electrophysiological Signal Monitoring of Plant under Stress Based on Integrated Op-Amps and Patch Electrode
title_sort study on electrophysiological signal monitoring of plant under stress based on integrated op-amps and patch electrode
publisher Hindawi Limited
series Journal of Electrical and Computer Engineering
issn 2090-0147
2090-0155
publishDate 2017-01-01
description Electrophysiological signal in plant is a weak electrical signal, which can fluctuate with the change of environment. An amplification detection system was designed for plant electrical signal acquisition by using integrated op-amps (CA3140, AD620, and INA118), patch electrode, data acquisition card (NI USB-6008), computer, and shielded box. Plant electrical signals were also studied under pressure and flooding stress. The amplification detection system can make nondestructive acquisition for Aquatic Scindapsus and Guaibcn with high precision, high sensitivity, low power consumption, high common mode rejection ratio, and working frequency bandwidth. Stress experiments were conducted through the system; results show that electrical signals were produced in the leaf of Aquatic Scindapsus under the stress of pressure. Electrical signals in the up-leaf surface of Aquatic Scindapsus were stronger than the down-leaf surface. Electrical signals produced in the leaf of Guaibcn were getting stronger when suffering flooding stress. The more the flooding stress was severe, the faster the electrical signal changed, the longer the time required for returning to a stable state was, and the greater the electrical signal got at the stable state was.
url http://dx.doi.org/10.1155/2017/4182546
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AT qingkeqi studyonelectrophysiologicalsignalmonitoringofplantunderstressbasedonintegratedopampsandpatchelectrode
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