Open AccessBook
Guide to Electroporation and Electrofusion
Donald C. Chang
- 01 Dec 1991
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TL;DR: Mechanisms and Fundamental Processes in Electroporation and Electrofusion: D.C. Chang, Structure and Dynamics of Electric Field-Induced Membrane Pores as Revealed by Rapid-Freezing Electron Microscopy, and J.E. Sowers, Mechanisms of Electropororation and electrofusion using a Pulsed Radio-Frequency Electric Field.
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Abstract: D.C. Chang, B.M. Chassy, J.A. Saunders, and A.E. Sowers, Overview of Electroporation and Electrofusion. Mechanisms and Fundamental Processes in Electroporation and Electrofusion: D.C. Chang, Structure and Dynamics of Electric Field-Induced Membrane Pores as Revealed by Rapid-Freezing Electron Microscopy. K. Kinosita, M. Hibino, H. Itoh, M. Shigemori, K. Hirano, Y. Kirino, and T. Hayakawa, Events of Membrane Electroporation Visualized on a Time Scale from Microseconds to Seconds. T.Y. Tsong, Time Sequence of Molecular Events in Electroporation. L.V. Chernomordik, Electropores in Lipid Bilayers and Cell Membranes. E. Neumann, A. Sprafke, E. Boldt, and H. Wolf, Biophysical Considerations of Membrane Electroporation. J.C. Weaver and A. Barnett, Progress Toward a Theoretical Model for Electroporation Mechanism: Membrane Electrical Behavior and Molecular Transport. A.E. Sowers, Mechanisms of Electroporation and Electrofusion. J. Teissi*aae and M.-P. Rols, Interfacial Membrane Alteration Associated with Electropermeabilization and Electrofusion. D.S. Dimitrov, Membrane Fusion Kinetics. S.W. Hui and D.A. Stenger, Effects of Intercellular Forces on Electrofusion. Q. Zheng and D.C. Chang, Dynamics of Cytoskeletal Reorganization in CV-1 Cells during Electrofusion. Applications of Electroporation and Electrofusion in Current Research: H. Potter and S.W.F. Cooke, Gene Transfer into Adherent Cells Growing on Microbeads. L.H. Reid and O. Smithies, Gene Targeting and Electroporation. J.A. Saunders, B.F. Matthews, and S.L. Van Wert, Pollen Electrotransformation for Gene Transfer in Plants. G.W. Bates, Electrofusion of Plant Protoplasts and the Production of Somatic Hybrids. J.T. Trevors, B.M. Chassy, W.J. Dower, and H.P. Blaschek, Electrotransformation of Bacteria by Plasmid DNA. W.J. Dower and S.E. Cwirla, Creating Vast Peptide Expression Libraries: Electroporation as a Tool to Construct Plasmid Libraries of Greater Than 109 Recombinants. D.C. Chang, J.R. Hunt, Q. Zheng, and P.-Q. Gao, Electroporation and Electrofusion Using a Pulsed Radio-Frequency Electric Field. Y. Mouneimme, P.-F. Tosi, R. Barhoumi, and C. Nicolau, Electroinsertion: An Electrical Method for Protein Implantation into Cell Membranes. R.R. Swezey and D. Epel, Electroporation as a Tool to Study Enzyme Activities in Situ. U. Karsten, P. Stolley, and B. Seidel, Comparison of PEG-Induced and Electric Field-Mediated Cell Fusion in the Generation of Monoclonal Antibodies against a Variety of Soluble and Cellular Antigens. L.C. Smith, Production of Genetically Identical Embryos by Electrofusion. R. Heller and R. Gilbert, Development of Cell-Tissue Electrofusion for Biological Applications. S.R. Gallagher and D.C. Chang, Novel Applications of Electroporation. Practical Protocols for Electroporation and Electrofusion: D.C. Chang, Design of Protocols for Electroporation and Electrofusion: Selection of Electrical Parameters. H. Potter, Protocols for Using Electroporation to Stably or Transiently Transfect Mammalian Cells. G.R. MacGregor, Optimization of Electroporation Using Reporter Genes. J.A. Saunders and G.W. Bates, Genetic Manipulation of Plant Cells by Means of Electroporation and Electrofusion. W.J. Dower, B.M. Chassy, J.T. Trevors, and H.P. Blaschek, Protocols for the Transformation of Bacteria by Electroporation. D.M. Becker and L. Guarente, Protocol for High-Efficiency Yeast Transformation. M.I. Mally, M.E. McKnight, and M.C. Glassy, Protocols of Electroporation and Electrofusion for Producing Human Hybridomas. S.M.M. Rehman, S. Perkins, U. Zimmermann, and S.K.H. Foung, Human Hybridoma Formation by Hypo-Osmolar Electrofusion. J.M. Robl, P. Collas, R. Fissore, and J.R. Dobrinsky, Electrically Induced Fusion and Activation in Nuclear Transplant Embryos. Instrumentation for Electroporation and Electrofusion: B.M. Chassy, J.A. Saunders, and A.E. Sowers, Pulse Generators for Electrofusion and Electroporation. Chapter References. Index.
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Citations
An Acanthamoeba polyubiquitin gene and application of its promoter to the establishment of a transient transfection system
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TL;DR: A polyubiquitin gene upstream fragment contains a functional promoter which is about 2.5 times as strong as a viral RSV-LTR promoter when driving CAT expression in Acanthamoeba.
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Applications of electroporation of adherent cells in situ, on a partly conductive slide.
Leda Raptis,Heather L. Brownell,Stanley K. W. Liu,Kevin L. Firth,Leslie W. MacKenzie,Charles D. Stiles,John A. Alberta +6 more
TL;DR: Nontraumatic, simple, and reproducible procedures for the introduction of nonpermeant molecules into adherent mammalian cells byin situ electroporation are described and their effect on the cellular phenotype can be observed.
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Improved procedure for electroporation of peptides into adherent cells in situ.
TL;DR: In situ electroporation on ITO-coated glass does not affect cellular metabolism in any detectable way, presumably because the pores reseal rapidly so that the cell interior is restored to its original state, which makes it a valuable technique for the study of the consequences of the introduced peptides on cellular morphology as well as biochemical changes or DNA synthesis in situ.
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Role of cytoskeleton and elastic moduli in cellular response to nanosecond pulsed electric fields
TL;DR: It is hypothesize that cellular elasticity, based upon the cytoskeleton, affects nsPEF-induced decrease in cellular viability and that Jurkat cells showed greater lethality than latrunculin-treated CHO cells of comparable elasticity.
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•Dissertation
Electrical characterization of electroporation of human stratum corneum
Vanu G. Bose
- 01 Jan 1994
TL;DR: Electrical impedance measurements made before and after high voltage "pulses" applied to the human skin samples in vitro were investigated to test the hypothesis that electroporation occurs in the skin and to relate these changes to previously observed changes in the transdermal flux of moderately sized charged molecules.
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