Assessing how electroporation affects the effective conductivity tensor of biological tissues
We report calculations of the anisotropy ratio of the electrical conductivity of a simple model of a loose connective biological tissue described as a random assembly of multiscale undeformable core-shell and controlled polydisperse spherical structures. One can estimate a 10% increase in the anisot...
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Veröffentlicht in: | Applied physics letters 2012-11, Vol.101 (21), p.213702 |
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container_title | Applied physics letters |
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creator | Essone Mezeme, M. Kranjc, M. Bajd, F. Serša, I. Brosseau, C. Miklavčič, D. |
description | We report calculations of the anisotropy ratio of the electrical conductivity of a simple model of a loose connective biological tissue described as a random assembly of multiscale undeformable core-shell and controlled polydisperse spherical structures. One can estimate a 10% increase in the anisotropy ratio due to the application of electric field (duration 100 mu m) above the electroporation threshold (40 kV m-1) up to 120 kV m-1. These findings are consistent with the experimental data on the field-induced anisotropy dependence of the electrical conductivity due to cell membrane electroporation. |
doi_str_mv | 10.1063/1.4767450 |
format | Article |
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subjects | Anisotropy Assembly Biological Electrical conductivity Electrical resistivity Electroporation Mathematical models Resistivity |
title | Assessing how electroporation affects the effective conductivity tensor of biological tissues |
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