NUMERICAL−SIMULATION OF THE TIME−DEPENDENT CURRENT TO MEMBRANE−COVERED OXYGEN SENSORS .2. THE APPROACH TO THE STEADY−STATE AND THE RESPONSE TO A STEP CHANGE FOR A MICROCATHODE

In this paper we develop further a model for the operation of the Clark electrode that we have described previously. The difficulties of using this type of sensor with a continuously applied potential are considered, and the nature of the diffusion processes as the steady state is approached for a g...

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Main Authors: Gavaghan, D, Rollett, J, Hahn, C
Format: Journal article
Published: 1993
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author Gavaghan, D
Rollett, J
Hahn, C
author_facet Gavaghan, D
Rollett, J
Hahn, C
author_sort Gavaghan, D
collection OXFORD
description In this paper we develop further a model for the operation of the Clark electrode that we have described previously. The difficulties of using this type of sensor with a continuously applied potential are considered, and the nature of the diffusion processes as the steady state is approached for a gas sample or a still liquid sample is investigated. The effects of step changes in gas sample partial pressure are considered, together with the resulting response time of the sensor to such a change
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spelling oxford-uuid:e99c0df0-a0f4-4c54-9df0-444cac5c38682022-03-27T10:55:30ZNUMERICAL−SIMULATION OF THE TIME−DEPENDENT CURRENT TO MEMBRANE−COVERED OXYGEN SENSORS .2. THE APPROACH TO THE STEADY−STATE AND THE RESPONSE TO A STEP CHANGE FOR A MICROCATHODEJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:e99c0df0-a0f4-4c54-9df0-444cac5c3868Department of Computer Science1993Gavaghan, DRollett, JHahn, CIn this paper we develop further a model for the operation of the Clark electrode that we have described previously. The difficulties of using this type of sensor with a continuously applied potential are considered, and the nature of the diffusion processes as the steady state is approached for a gas sample or a still liquid sample is investigated. The effects of step changes in gas sample partial pressure are considered, together with the resulting response time of the sensor to such a change
spellingShingle Gavaghan, D
Rollett, J
Hahn, C
NUMERICAL−SIMULATION OF THE TIME−DEPENDENT CURRENT TO MEMBRANE−COVERED OXYGEN SENSORS .2. THE APPROACH TO THE STEADY−STATE AND THE RESPONSE TO A STEP CHANGE FOR A MICROCATHODE
title NUMERICAL−SIMULATION OF THE TIME−DEPENDENT CURRENT TO MEMBRANE−COVERED OXYGEN SENSORS .2. THE APPROACH TO THE STEADY−STATE AND THE RESPONSE TO A STEP CHANGE FOR A MICROCATHODE
title_full NUMERICAL−SIMULATION OF THE TIME−DEPENDENT CURRENT TO MEMBRANE−COVERED OXYGEN SENSORS .2. THE APPROACH TO THE STEADY−STATE AND THE RESPONSE TO A STEP CHANGE FOR A MICROCATHODE
title_fullStr NUMERICAL−SIMULATION OF THE TIME−DEPENDENT CURRENT TO MEMBRANE−COVERED OXYGEN SENSORS .2. THE APPROACH TO THE STEADY−STATE AND THE RESPONSE TO A STEP CHANGE FOR A MICROCATHODE
title_full_unstemmed NUMERICAL−SIMULATION OF THE TIME−DEPENDENT CURRENT TO MEMBRANE−COVERED OXYGEN SENSORS .2. THE APPROACH TO THE STEADY−STATE AND THE RESPONSE TO A STEP CHANGE FOR A MICROCATHODE
title_short NUMERICAL−SIMULATION OF THE TIME−DEPENDENT CURRENT TO MEMBRANE−COVERED OXYGEN SENSORS .2. THE APPROACH TO THE STEADY−STATE AND THE RESPONSE TO A STEP CHANGE FOR A MICROCATHODE
title_sort numerical simulation of the time dependent current to membrane covered oxygen sensors 2 the approach to the steady state and the response to a step change for a microcathode
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AT rollettj numericalsimulationofthetimedependentcurrenttomembranecoveredoxygensensors2theapproachtothesteadystateandtheresponsetoastepchangeforamicrocathode
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