Electrokinetic remediation for nuclear site decommissioning - the UK's TRANSCEND Consortium – 21238
Electrokinetic remediation for nuclear site decommissioning - the UK's TRANSCEND Consortium – 21238
Electrokinetic Remediation, EKR, is an environmental remediation technology that uses electricity to remove pollutants from contaminated materials. It is a flexible and low-energy (< 1 V.cm-1) technique, that operates effectively in low permeability substrates (clayey soils, cements, etc.) which are often difficult to remediate by conventional means (e.g. soil washing, pump-and-treat). It can be combined with renewable power inputs and operate in-situ, providing effective, safe and sustainable solutions in which worker exposure to hazardous materials is minimized while high remediation efficiencies are retained. However, EKR is limited mostly to the laboratory or pilot scale for nuclear industry applications, with reliable, meter-plus scale studies in real operating environments still lacking.
Here, we discuss EKR and its potential uses at nuclear sites. We begin by summarizing the key advantages offered by EKR over other, conventional remediation methods and, from this, review how EKR, singly or in combination with other technologies, can be or has been applied practically. We illustrate this using real examples at selected nuclear sites of international importance. Finally, we examine perspectives on tools to help the decision-making process for remediation at active nuclear sites, and how these tools could be used to support practical deployment of EKR for nuclear site decommissioning.
Purkis, Jamie M.
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Warwick, Phillip
f2675d83-eee2-40c5-b53d-fbe437f401ef
Graham, James
d2b35a13-921b-4561-944c-372b3e2fdd89
Hemming, Shaun Daniel
e64b1983-cecb-4cce-9b64-23219c648ab4
Cundy, Andy
994fdc96-2dce-40f4-b74b-dc638286eb08
11 March 2021
Purkis, Jamie M.
17c76efb-2aa2-429e-92b3-5a21de7b02a5
Warwick, Phillip
f2675d83-eee2-40c5-b53d-fbe437f401ef
Graham, James
d2b35a13-921b-4561-944c-372b3e2fdd89
Hemming, Shaun Daniel
e64b1983-cecb-4cce-9b64-23219c648ab4
Cundy, Andy
994fdc96-2dce-40f4-b74b-dc638286eb08
Purkis, Jamie M., Warwick, Phillip, Graham, James, Hemming, Shaun Daniel and Cundy, Andy
(2021)
Electrokinetic remediation for nuclear site decommissioning - the UK's TRANSCEND Consortium – 21238.
In WM2021 Symposium, Arizona, USA.
Record type:
Conference or Workshop Item
(Paper)
Abstract
Electrokinetic Remediation, EKR, is an environmental remediation technology that uses electricity to remove pollutants from contaminated materials. It is a flexible and low-energy (< 1 V.cm-1) technique, that operates effectively in low permeability substrates (clayey soils, cements, etc.) which are often difficult to remediate by conventional means (e.g. soil washing, pump-and-treat). It can be combined with renewable power inputs and operate in-situ, providing effective, safe and sustainable solutions in which worker exposure to hazardous materials is minimized while high remediation efficiencies are retained. However, EKR is limited mostly to the laboratory or pilot scale for nuclear industry applications, with reliable, meter-plus scale studies in real operating environments still lacking.
Here, we discuss EKR and its potential uses at nuclear sites. We begin by summarizing the key advantages offered by EKR over other, conventional remediation methods and, from this, review how EKR, singly or in combination with other technologies, can be or has been applied practically. We illustrate this using real examples at selected nuclear sites of international importance. Finally, we examine perspectives on tools to help the decision-making process for remediation at active nuclear sites, and how these tools could be used to support practical deployment of EKR for nuclear site decommissioning.
More information
Published date: 11 March 2021
Identifiers
Local EPrints ID: 447687
URI: http://eprints.soton.ac.uk/id/eprint/447687
PURE UUID: 2177671c-aefb-499d-817d-c6677c22dcf2
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Date deposited: 18 Mar 2021 17:44
Last modified: 17 Mar 2024 06:25
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Author:
James Graham
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