Computational electrochemistry: finite element simulation of a disk electrode with ultrasonic acoustic streaming.

Computer simulations using the finite element method (FEM) are used to predict the correlation between the transport limiting current (I(lim)) and parameters such as diffusion coefficient, source to electrode separation, source power, and medium viscosity for a sonicated disk electrode in "face...

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Main Authors: Henley, I, Fisher, A, Compton, R, Banks, C
Format: Journal article
Language:English
Published: 2005
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author Henley, I
Fisher, A
Compton, R
Banks, C
author_facet Henley, I
Fisher, A
Compton, R
Banks, C
author_sort Henley, I
collection OXFORD
description Computer simulations using the finite element method (FEM) are used to predict the correlation between the transport limiting current (I(lim)) and parameters such as diffusion coefficient, source to electrode separation, source power, and medium viscosity for a sonicated disk electrode in "face on" mode. The fluid dynamics and diffusion layer are modeled directly using FEM and predict that the electrode is uniformly accessible, I(lim) is proportional to the diffusion coefficient to the 2/3 power and I(lim) is proportional to the square root of the source power. Curves are also calculated relating I(lim) to the source to electrode separation and liquid viscosity.
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spelling oxford-uuid:9dc290e8-6b7b-4feb-b51a-9a15687a7c1f2022-03-27T00:45:27ZComputational electrochemistry: finite element simulation of a disk electrode with ultrasonic acoustic streaming.Journal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:9dc290e8-6b7b-4feb-b51a-9a15687a7c1fEnglishSymplectic Elements at Oxford2005Henley, IFisher, ACompton, RBanks, CComputer simulations using the finite element method (FEM) are used to predict the correlation between the transport limiting current (I(lim)) and parameters such as diffusion coefficient, source to electrode separation, source power, and medium viscosity for a sonicated disk electrode in "face on" mode. The fluid dynamics and diffusion layer are modeled directly using FEM and predict that the electrode is uniformly accessible, I(lim) is proportional to the diffusion coefficient to the 2/3 power and I(lim) is proportional to the square root of the source power. Curves are also calculated relating I(lim) to the source to electrode separation and liquid viscosity.
spellingShingle Henley, I
Fisher, A
Compton, R
Banks, C
Computational electrochemistry: finite element simulation of a disk electrode with ultrasonic acoustic streaming.
title Computational electrochemistry: finite element simulation of a disk electrode with ultrasonic acoustic streaming.
title_full Computational electrochemistry: finite element simulation of a disk electrode with ultrasonic acoustic streaming.
title_fullStr Computational electrochemistry: finite element simulation of a disk electrode with ultrasonic acoustic streaming.
title_full_unstemmed Computational electrochemistry: finite element simulation of a disk electrode with ultrasonic acoustic streaming.
title_short Computational electrochemistry: finite element simulation of a disk electrode with ultrasonic acoustic streaming.
title_sort computational electrochemistry finite element simulation of a disk electrode with ultrasonic acoustic streaming
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