OXFORD UNIVERSITY COMPUTING LABORATORY

Kathryn Gillow: Publications

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[1]

Adaptive Finite Element Methods in Electrochemistry

D.J. Gavaghan, K. Gillow and E. Süli

Langmuir, Vol. 22, No. 25, pages 10666—10682. 2006.

[2]

Finite Element Solution of A Membrane Covered Electrode Problem

K. Gillow, D.J. Gavaghan and E. Süli

Journal of Electroanalytical Chemistry, Vol. 587, No. 1, pages 18—24. 2006.

[3]

Computation of Currents at Microelectrodes using hp-DGFEM

K. Gillow, D.J. Gavaghan and E. Süli

Journal of Electroanalytical Chemistry, Vol. 587, No. 1, pages 1—17. 2006.

[4]

Fourier Transformed Large Amplitude Square Wave Voltammetry as an Alternative to Impedance Spectroscopy: Evaluation of Resistance, Capacitance and Electrode Kinetic Effects via a Heuristic Approach

A.A. Sher et al.

Electroanalysis, Vol. 17, No. 15--16, pages 1450—1462. 2005.

[5]

Resistance, Capacitance and Electrode Kinetic Effects in Fourier Transformed Large Amplitude Sinusoidal Voltammetry: The Emergence of Powerful and Intuitively Obvious Tools for Recognition of Patterns of Behaviour

A.A. Sher et al.

Analytical Chemistry, Vol. 76, No. 21, pages 6214-6228. 2004.

[6]

Simulation of Linear Sweep Voltammetry Using an Adaptive Finite Element Algorithm

K. Harriman, D.J. Gavaghan and E. Süli

Journal of Electroanalytical Chemistry, Vol. 573, No. 1, pages 169—174. 2004.

[7]

Time dependent EC', ECE and EC2E mechanisms at microdisc electrodes: simulations using adaptive finite element methods

K. Harriman, D.J. Gavaghan and and E. Süli

Journal of Electroanalytical Chemistry, Vol. 569, No. 1, pages 35—46. 2004.

[8]

Finite Element Simulation of a Membrane Covered Electrode Problem

K. Harriman, D.J. Gavaghan and E. Süli

No. NA04/21, Technical Report, Oxford University Computing Laboratory. 2004.

[9]

Application of hpDGFEM to Mechanisms at Channel Microband Electrodes

K. Harriman, D.J. Gavaghan and E. Süli

No. NA04/20, Technical Report, Oxford University Computing Laboratory. 2004.

[10]

Approximation of Linear Functionals Using an hp-Adaptive Discontinuous Galerkin Finite Element Method

K. Harriman, D.J. Gavaghan and E. Süli

No. NA04/19, Technical Report, Oxford University Computing Laboratory. 2004.

[11]

The Importance of Adjoint Consistency in the Approximation of Linear Functionals Using the Discontinuous Galerkin Finite Element Method

K. Harriman, D.J. Gavaghan and E. Süli

No. NA04/18, Technical Report, Oxford University Computing Laboratory. 2004.

[12]

Adaptive Finite Element Simulation of Chronoamperometry at Microdisc Electrodes

K. Harriman, D.J. Gavaghan and E. Süli

Electrochemistry Communications, Vol. 5, No. 7, pages 519—529. 2003.

[13]

hp-Version Discontinuous Galerkin Methods with Interior Penalty for Partial Differential Equations with Nonnegative Characteristic Form

K. Harriman et al.

In C.-W. Shu, T. Tang and S.-Y. Cheng, editors, Recent Advances in Scientific Computing and Partial Differential Equations 2003.

Contemporary Mathematics Vol. 330, pp. 89—119, AMS.

[14]

Finite Element Simulation of Electrochemically Reversible, Quasi-Reversible and Irreversible Linear Sweep Voltammetry at the Wall Tube Electrode

O.V. Klymenko et al.

Journal of Electroanalytical Chemistry, Vol. 531, No. 1, pages 25—31. 2002.

[15]

hp-Version Discontinuous Galerkin Methods with Interior Penalty for Partial Differential Equations with Nonnegative Characteristic Form

K. Harriman et al.

No. NA02/21, Technical Report, Oxford University Computing Laboratory. 2002.

[16]

Adaptive Finite Element Simulation of Currents at Microelectrodes to Guaranteed Accuracy: ECE and EC2E Mechanisms at Channel Microband Electrodes

K. Harriman et al.

Electrochemistry Communications, Vol. 2, No. 8, pages 576—585. 2000.

[17]

Adaptive Finite Element Simulation of Currents at Microelectrodes to Guaranteed Accuracy: An E Reaction at a Channel Microband Electrode

K. Harriman et al.

Electrochemistry Communications, Vol. 2, No. 8, pages 567—575. 2000.

[18]

Adaptive Finite Element Simulation of Currents at Microelectrodes to Guaranteed Accuracy: First Order EC' Mechanism at Inlaid and Recessed Discs

K. Harriman et al.

Electrochemistry Communications, Vol. 2, No. 3, pages 163-170. 2000.

[19]

Adaptive Finite Element Simulation of Currents at Microelectrodes to Guaranteed Accuracy: Theory

K. Harriman et al.

Electrochemistry Communications, Vol. 2, No. 3, pages 157—162. 2000.

[20]

Adaptive Finite Element Simulation of Currents at Microelectrodes to Guaranteed Accuracy: Application to a Simple Model Problem

K. Harriman et al.

Electrochemistry Communications, Vol. 2, No. 3, pages 150—156. 2000.

[21]

Adaptive Finite Element Simulation of Currents at Microelectrodes to a Guaranteed Accuracy. Application to Channel Microband Electrodes

K. Harriman et al.

No. NA00/09, Technical Report, Oxford University Computing Laboratory. 2000.

[22]

Adaptive Finite Element Simulation of Steady State Currents at Microdisc Electrodes to a Guaranteed Accuracy

K. Harriman et al.

No. NA99/19, Technical Report, Oxford University Computing Laboratory. 1999.

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