Electron transfer processes occurring on platinum neural stimulating electrodes: a tutorial on the i(Ve) profile

The aim of this tutorial is to encourage members of the neuroprosthesis community to incorporate electron transfer processes into their thinking and provide them with the tools to do so when they design and work with neurostimulating devices. The focus of this article is on platinum because it is th...

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Veröffentlicht in:Journal of neural engineering 2016-10, Vol.13 (5), p.052001-052001
Hauptverfasser: Kumsa, Doe W, Bhadra, Narendra, Hudak, Eric M, Kelley, Shawn C, Untereker, Darrel F, Mortimer, J Thomas
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container_end_page 052001
container_issue 5
container_start_page 052001
container_title Journal of neural engineering
container_volume 13
creator Kumsa, Doe W
Bhadra, Narendra
Hudak, Eric M
Kelley, Shawn C
Untereker, Darrel F
Mortimer, J Thomas
description The aim of this tutorial is to encourage members of the neuroprosthesis community to incorporate electron transfer processes into their thinking and provide them with the tools to do so when they design and work with neurostimulating devices. The focus of this article is on platinum because it is the most used electrode metal for devices in commercial use. The i(Ve) profile or cyclic voltammogram contains information about electron transfer processes that can occur when the electrode-electrolyte interface, Ve, is at a specific potential, and assumed to be near steady-state conditions. For the engineer/designer this means that if the potential is not in the range of a specific electron transfer process, that process cannot occur. An i(Ve) profile, recorded at sweep rates greater than 0.1 mVs−1, approximates steady-state conditions. Rapid transient potential excursions, like that seen with neural stimulation pulses, may be too fast for the reaction to occur, however, this means that if the potential is in the range of a specific electron transfer process it may occur and should be considered. The approach described here can be used to describe the thermodynamic electron transfer processes on other candidate electrode metals, e.g. stainless steel, iridium, carbon-based, etc.
doi_str_mv 10.1088/1741-2560/13/5/052001
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subjects Algorithms
cyclic voltammetry
Electric Stimulation
electrochemistry
Electrodes
Electrolytes
electron transfer processes
Electrons
Humans
neural prostheses
neural stimulation
oxidation
platinum
reduction
title Electron transfer processes occurring on platinum neural stimulating electrodes: a tutorial on the i(Ve) profile
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