Q592069
type: Item
instance of: scholarly article
title: Automatic simulation of electrochemical transients by the adaptive Huber method for Volterra integral equations involving kernel terms \(\exp[ -\alpha (t - \tau )]\text{erex} \{[\beta (t - \tau )]^{1/2}\}\) and \(\exp[ - \alpha (t - \tau )]\text{daw} \{[\beta (t - \tau )]^{1/2}\}\)
zbMATH Open document ID: 1310.65163
author: Lesław K. Bieniasz
publication date: 2012-06-13T00:00:00Z
Mathematics Subject Classification ID: 65R20
Mathematics Subject Classification ID: 45D05
Mathematics Subject Classification ID: 45H05
Mathematics Subject Classification ID: 78A57
zbMATH DE Number: 6046206
zbMATH Keywords: computational electrochemistry
zbMATH Keywords: laboratory automation
zbMATH Keywords: voltammetry
zbMATH Keywords: digital simulation
zbMATH Keywords: Volterra integral equations
zbMATH Keywords: weakly singular kernels
zbMATH Keywords: numerical example
zbMATH Keywords: adaptive Huber method
MaRDI profile type: Publication
full work available at URL: s10910-011-9923-3
OpenAlex ID: W1965115397
cites work: Digital simulation in electrochemistry
cites work: Future problem solving environments for computational science
cites work: Eine Näherungsmethode zur Auflösung Volterrascher Integralgleichungen
cites work: An adaptive Huber method with local error control, for the numerical solution of the first kind Abel integral equations
cites work: Initialisation of the adaptive Huber method for solving the first kind Abel integral equation
cites work: An adaptive Huber method for weakly singular second kind Volterra integral equations with non-linear dependencies between unknowns and their integrals
cites work: An adaptive Huber method for non-linear systems of weakly singular second kind Volterra integral equations
DOI: 10.1007/S10910-011-9923-3
published in: Journal of Mathematical Chemistry
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label: Automatic simulation of electrochemical transients by the adaptive Huber method for Volterra integral equations involving kernel terms \(\exp[ -\alpha (t - \tau )]\text{erex} \{[\beta (t - \tau )]^{1/2}\}\) and \(\exp[ - \alpha (t - \tau )]\text{daw} \{[\beta (t - \tau )]^{1/2}\}\)
description: scientific article; zbMATH DE number 6046206