Equality of diffusion-limited chronoamperometric currents to equal area spherical and cubic nanoparticles on a supporting electrode surface

We computationally investigate the chronoamperometric current response of spherical and cubic particles on a supporting insulating surface. By using the method of finite di?erences and random walk simulations, we can show that both systems exhibit identical responses on all time scales if their expo...

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Main Authors: Kätelhön, E, Barnes, E, Krause, K, Wolfrum, B, Compton, R
Format: Journal article
Published: Elsevier 2014
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author Kätelhön, E
Barnes, E
Krause, K
Wolfrum, B
Compton, R
author_facet Kätelhön, E
Barnes, E
Krause, K
Wolfrum, B
Compton, R
author_sort Kätelhön, E
collection OXFORD
description We computationally investigate the chronoamperometric current response of spherical and cubic particles on a supporting insulating surface. By using the method of finite di?erences and random walk simulations, we can show that both systems exhibit identical responses on all time scales if their exposed surface areas are equal. This result enables a simple and computationally effcient method to treat certain spherical geometries in random walk based noise investigations.
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spelling oxford-uuid:efd868bc-8ef4-4743-8d9a-713e3614d1252022-03-27T11:43:09ZEquality of diffusion-limited chronoamperometric currents to equal area spherical and cubic nanoparticles on a supporting electrode surfaceJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:efd868bc-8ef4-4743-8d9a-713e3614d125Symplectic Elements at OxfordElsevier2014Kätelhön, EBarnes, EKrause, KWolfrum, BCompton, RWe computationally investigate the chronoamperometric current response of spherical and cubic particles on a supporting insulating surface. By using the method of finite di?erences and random walk simulations, we can show that both systems exhibit identical responses on all time scales if their exposed surface areas are equal. This result enables a simple and computationally effcient method to treat certain spherical geometries in random walk based noise investigations.
spellingShingle Kätelhön, E
Barnes, E
Krause, K
Wolfrum, B
Compton, R
Equality of diffusion-limited chronoamperometric currents to equal area spherical and cubic nanoparticles on a supporting electrode surface
title Equality of diffusion-limited chronoamperometric currents to equal area spherical and cubic nanoparticles on a supporting electrode surface
title_full Equality of diffusion-limited chronoamperometric currents to equal area spherical and cubic nanoparticles on a supporting electrode surface
title_fullStr Equality of diffusion-limited chronoamperometric currents to equal area spherical and cubic nanoparticles on a supporting electrode surface
title_full_unstemmed Equality of diffusion-limited chronoamperometric currents to equal area spherical and cubic nanoparticles on a supporting electrode surface
title_short Equality of diffusion-limited chronoamperometric currents to equal area spherical and cubic nanoparticles on a supporting electrode surface
title_sort equality of diffusion limited chronoamperometric currents to equal area spherical and cubic nanoparticles on a supporting electrode surface
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AT krausek equalityofdiffusionlimitedchronoamperometriccurrentstoequalareasphericalandcubicnanoparticlesonasupportingelectrodesurface
AT wolfrumb equalityofdiffusionlimitedchronoamperometriccurrentstoequalareasphericalandcubicnanoparticlesonasupportingelectrodesurface
AT comptonr equalityofdiffusionlimitedchronoamperometriccurrentstoequalareasphericalandcubicnanoparticlesonasupportingelectrodesurface