Abstract
Electropermeabilization is one of the non-viral methods successfully used to transfer genes into living cells invitro and in-vivo. Although this method shows promises in the field of gene therapy, very little is known about the basic processes supporting plasmid DNA transfer. In contrast to small molecules that have direct access to the cytoplasm, plasmid DNA forms a long-lasting complex with the permeabilized membrane. The present letter reports the semi-quantitative analysis of the effect of electric pulse intensity on plasmid DNA/membrane interaction at the single-cell level using fluorescence microscopy. The raising of electric field intensity induces an increase in the cellular perimeter of plasmid DNA/membrane interaction and in the total number of plasmid DNA complexes. The increase in the perimeter of plasmid DNA/membrane interaction is in good agreement with the theoretical perimeter of membrane permeabilization. This theory easily explains the quantitative increase in plasmid DNA and gives explanations for the success of electro-mediated gene delivery.
Keywords: Electropermeabilization, gene delivery, pDNA/membrane interaction, electric field intensity, plasmid DNA, immobilization, pDNA Staining
Drug Delivery Letters
Title:Effect of Electric Field Intensity on Plasmid DNA/Membrane Interaction during In-Vitro Gene Electrotransfer
Volume: 2 Issue: 1
Author(s): Jean-Michel Escoffre, Elisabeth Bellard, Emilie Phez, Marie-Pierre Rols and Cyril Favard
Affiliation:
Keywords: Electropermeabilization, gene delivery, pDNA/membrane interaction, electric field intensity, plasmid DNA, immobilization, pDNA Staining
Abstract: Electropermeabilization is one of the non-viral methods successfully used to transfer genes into living cells invitro and in-vivo. Although this method shows promises in the field of gene therapy, very little is known about the basic processes supporting plasmid DNA transfer. In contrast to small molecules that have direct access to the cytoplasm, plasmid DNA forms a long-lasting complex with the permeabilized membrane. The present letter reports the semi-quantitative analysis of the effect of electric pulse intensity on plasmid DNA/membrane interaction at the single-cell level using fluorescence microscopy. The raising of electric field intensity induces an increase in the cellular perimeter of plasmid DNA/membrane interaction and in the total number of plasmid DNA complexes. The increase in the perimeter of plasmid DNA/membrane interaction is in good agreement with the theoretical perimeter of membrane permeabilization. This theory easily explains the quantitative increase in plasmid DNA and gives explanations for the success of electro-mediated gene delivery.
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Cite this article as:
Escoffre Jean-Michel, Bellard Elisabeth, Phez Emilie, Rols Marie-Pierre and Favard Cyril, Effect of Electric Field Intensity on Plasmid DNA/Membrane Interaction during In-Vitro Gene Electrotransfer, Drug Delivery Letters 2012; 2 (1) . https://dx.doi.org/10.2174/2210304x11202010022
DOI https://dx.doi.org/10.2174/2210304x11202010022 |
Print ISSN 2210-3031 |
Publisher Name Bentham Science Publisher |
Online ISSN 2210-304X |
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