Advanced

An overview of the spectral induced polarization method for near-surface applications

Kemna, Andreas; Binley, Andrew; Cassiani, Giorgio; Niederleithinger, Ernst; Revil, Andre; Slater, Lee; Williams, Kenneth H.; Orozco, Adrian Flores; Haegel, Franz-Hubert and Hoerdt, Andreas, et al. (2012) In Near Surface Geophysics 10(6). p.453-468
Abstract
Over the last 15 years significant advancements in induced polarization (IP) research have taken place, particularly with respect to spectral IP (SIP), concerning the understanding of the mechanisms of the IP phenomenon, the conduction of accurate and broadband laboratory measurements, the modelling and inversion of IF data for imaging purposes and the increasing application of the method in near-surface investigations. We summarize here the current state of the science of the SIP method for near-surface applications and describe which aspects still represent open issues and should be the focus of future research efforts. Significant progress has been made over the last decade in the understanding of the microscopic mechanisms of IP;... (More)
Over the last 15 years significant advancements in induced polarization (IP) research have taken place, particularly with respect to spectral IP (SIP), concerning the understanding of the mechanisms of the IP phenomenon, the conduction of accurate and broadband laboratory measurements, the modelling and inversion of IF data for imaging purposes and the increasing application of the method in near-surface investigations. We summarize here the current state of the science of the SIP method for near-surface applications and describe which aspects still represent open issues and should be the focus of future research efforts. Significant progress has been made over the last decade in the understanding of the microscopic mechanisms of IP; however, integrated mechanistic models involving different possible polarization processes at the grain/pore scale are still lacking. A prerequisite for the advances in the mechanistic understanding of IP was the development of improved laboratory instrumentation, which has led to a continuously growing data base of SIP measurements on various soil and rock samples. We summarize the experience of numerous experimental studies by formulating key recommendations for reliable SIP laboratory measurements. To make use of the established theoretical and empirical relationships between SIP characteristics and target petrophysical properties at the field scale, sophisticated forward modelling and inversion algorithms are needed. Considerable progress has also been made in this field, in particular with the development of complex resistivity algorithms allowing the modelling and inversion of IF data in the frequency domain. The ultimate goal for the future are algorithms and codes for the integral inversion of 3D, time-lapse and multi-frequency IF data, which defines a 5D inversion problem involving the dimensions space (for imaging), time (for monitoring) and frequency (for spectroscopy). We also offer guidelines for reliable and accurate measurements of IP spectra, which are essential for improved understanding of IP mechanisms and their links to physical, chemical and biological properties of interest. We believe that the SIP method offers potential for subsurface structure and process characterization, in particular in hydrogeophysical and biogeophysical studies. (Less)
Please use this url to cite or link to this publication:
author
, et al. (More)
(Less)
organization
publishing date
type
Contribution to journal
publication status
published
subject
in
Near Surface Geophysics
volume
10
issue
6
pages
453 - 468
publisher
EAGE
external identifiers
  • wos:000312975800002
  • scopus:84871296496
ISSN
1873-0604
DOI
10.3997/1873-0604.2012027
language
English
LU publication?
yes
id
4ebd40d7-8e64-4ca1-8357-1ec70c321b24 (old id 3492289)
date added to LUP
2013-02-21 14:33:25
date last changed
2017-11-19 03:06:12
@article{4ebd40d7-8e64-4ca1-8357-1ec70c321b24,
  abstract     = {Over the last 15 years significant advancements in induced polarization (IP) research have taken place, particularly with respect to spectral IP (SIP), concerning the understanding of the mechanisms of the IP phenomenon, the conduction of accurate and broadband laboratory measurements, the modelling and inversion of IF data for imaging purposes and the increasing application of the method in near-surface investigations. We summarize here the current state of the science of the SIP method for near-surface applications and describe which aspects still represent open issues and should be the focus of future research efforts. Significant progress has been made over the last decade in the understanding of the microscopic mechanisms of IP; however, integrated mechanistic models involving different possible polarization processes at the grain/pore scale are still lacking. A prerequisite for the advances in the mechanistic understanding of IP was the development of improved laboratory instrumentation, which has led to a continuously growing data base of SIP measurements on various soil and rock samples. We summarize the experience of numerous experimental studies by formulating key recommendations for reliable SIP laboratory measurements. To make use of the established theoretical and empirical relationships between SIP characteristics and target petrophysical properties at the field scale, sophisticated forward modelling and inversion algorithms are needed. Considerable progress has also been made in this field, in particular with the development of complex resistivity algorithms allowing the modelling and inversion of IF data in the frequency domain. The ultimate goal for the future are algorithms and codes for the integral inversion of 3D, time-lapse and multi-frequency IF data, which defines a 5D inversion problem involving the dimensions space (for imaging), time (for monitoring) and frequency (for spectroscopy). We also offer guidelines for reliable and accurate measurements of IP spectra, which are essential for improved understanding of IP mechanisms and their links to physical, chemical and biological properties of interest. We believe that the SIP method offers potential for subsurface structure and process characterization, in particular in hydrogeophysical and biogeophysical studies.},
  author       = {Kemna, Andreas and Binley, Andrew and Cassiani, Giorgio and Niederleithinger, Ernst and Revil, Andre and Slater, Lee and Williams, Kenneth H. and Orozco, Adrian Flores and Haegel, Franz-Hubert and Hoerdt, Andreas and Kruschwitz, Sabine and Leroux, Virginie and Titov, Konstantin and Zimmermann, Egon},
  issn         = {1873-0604},
  language     = {eng},
  number       = {6},
  pages        = {453--468},
  publisher    = {EAGE},
  series       = {Near Surface Geophysics},
  title        = {An overview of the spectral induced polarization method for near-surface applications},
  url          = {http://dx.doi.org/10.3997/1873-0604.2012027},
  volume       = {10},
  year         = {2012},
}