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Title: Glucose oxidase (GOD)-coupled amperometric microsensor with integrated electrochemical actuation system
Author (s): Jongwon Park
Kim, Chang-Soo
Shanrui Zhang
Choi, Minsu
Department/Lab Affiliations: Biological Sciences
Electrical and Computer Engineering
Intelligent Microsystem Laboratory
Keywords: Actuator
GOD(Glucose oxidase)
Glucose measurement
Solid-state biosensor
thin-lm amperometric sensor
Issue Date: 2005
Publisher: Institute of Electrical and Electronics Engineers
Citation: Jongwon Park; Chang-Soo Kim; Shanrui Zhang; Minsu Choi, "Glucose Oxidase (GOD)-Coupled Amperometric Microsensor with Integrated Electrochemical Actuation System" IMTC 2005. Proceedings of the IEEE Instrumentation and Measurement Technology Conference, 2005. vol.1, pp. 134- 138, 16-19 May 2005
Abstract: Recent developments for biosensors have been mainly focused on miniaturization and exploratory use of new materials. It should be emphasized that the absence of a novel "in-situ self-calibration/diagnosis technique" that is not connected to an external apparatus is a key obstacle to the realization of a biosensor for continuous use with minimum attendance. In order to address this issue, a novel solid-state glucose oxidase-coupled amperometric biosensor with integrated electrochemical actuation system has been designed and validated. There are two key components of the proposed glucose biosensor: solid-state GOD-coupled thin-lm amperometric sensing element andO 2 depleting/saturating built-in electrochemical actuator. The actuator can be used to accomplish in-situ 1-point self-calibration by depleting O 2 (i.e., by simulating glucose-free environment). Also, it can be used at the same time to extend the proposed sensor''s linear detection range by in ating O 2 (i.e., by enhancing glucose sensitivity). A prototype sensor was fabricated and a series of lab experiments was conducted. Collected data assures that the proposed sensor effectively establishes the zero calibration point and signi cantly enhances its measurement sensitivity and con dence.
Type: Article - Conference proceedings
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titleGlucose oxidase (GOD)-coupled amperometric microsensor with integrated electrochemical actuation system
contributor.authorJongwon Park
contributor.authorKim, Chang-Soo
contributor.authorShanrui Zhang
contributor.authorChoi, Minsu
contributor.deptlabBiological Sciences
contributor.deptlabElectrical and Computer Engineering
contributor.deptlabIntelligent Microsystem Laboratory
subjectActuator
subjectGOD(Glucose oxidase)
subjectGlucose measurement
subjectSolid-state biosensor
subjectthin-lm amperometric sensor
date.issued2005
date.submitted2007
publisherInstitute of Electrical and Electronics Engineers
identifier.citationJongwon Park; Chang-Soo Kim; Shanrui Zhang; Minsu Choi, "Glucose Oxidase (GOD)-Coupled Amperometric Microsensor with Integrated Electrochemical Actuation System" IMTC 2005. Proceedings of the IEEE Instrumentation and Measurement Technology Conference, 2005. vol.1, pp. 134- 138, 16-19 May 2005
identifier.pub.URI
http://ieeexplore.ieee.org/iel5/10678/33710/01604085.pdf?arnumber=160408
description.abstractRecent developments for biosensors have been mainly focused on miniaturization and exploratory use of new materials. It should be emphasized that the absence of a novel "in-situ self-calibration/diagnosis technique" that is not connected to an external apparatus is a key obstacle to the realization of a biosensor for continuous use with minimum attendance. In order to address this issue, a novel solid-state glucose oxidase-coupled amperometric biosensor with integrated electrochemical actuation system has been designed and validated. There are two key components of the proposed glucose biosensor: solid-state GOD-coupled thin-lm amperometric sensing element andO 2 depleting/saturating built-in electrochemical actuator. The actuator can be used to accomplish in-situ 1-point self-calibration by depleting O 2 (i.e., by simulating glucose-free environment). Also, it can be used at the same time to extend the proposed sensor''s linear detection range by in ating O 2 (i.e., by enhancing glucose sensitivity). A prototype sensor was fabricated and a series of lab experiments was conducted. Collected data assures that the proposed sensor effectively establishes the zero calibration point and signi cantly enhances its measurement sensitivity and con dence.
typeArticle - Conference proceedings
type.DCMITypetext
type.statusFinal version
rightsThis material is presented to ensure timely dissemination of scholarly and technical work. Copyright and all rights therein are retained by authors or by other copyright holders. All persons copying this information are expected to adhere to the terms and constraints invoked by each author's copyright. In most cases, these works may not be reposted without the explicit permission of the copyright holder.
rights.URI
http://www.ieee.org/web/publications/rights/policies.html
date.accessioned2007-04-05T14:26:23Z
date.available2007-04-05T14:26:23Z
identifier.persist.URI
http://scholarsmine.mst.edu/post_prints/01604085_09007dcc8030d975.html
Full Text
01604085_09007dcc8030d97a.pdf