Gene Transfection of Mammalian Cells Using Membrane Sandwich Electroporation
Zhengzheng Fei, Shengnian Wang, Yubing Xie, Brian E Henslee, Chee Guan Koh, L James Lee
Abstract
Zhengzheng Fei, Shengnian Wang, Yubing Xie, Brian E Henslee, Chee Guan Koh, L James Lee
Abstract
To avoid safety issues such as immune response and cytotoxicity associated with viruses and liposomes, physical methods have been widely used for either in vivo or ex vivo gene delivery. They are, however, very invasive and often provide limited efficiency. Using pEGFP and pSEAP plasmids and NIH 3T3 fibroblasts as models, we demonstrate a new electroporation-based gene delivery method, called membrane sandwich electroporation (MSE). The MSE method is able to provide better gene confinement near the cell surface to facilitate gene transport into the cells and thus shows significant improvement over transgene expression of mammalian cells compared to current electroporation techniques.
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To avoid safety issues such as immune response and cytotoxicity associated with viruses and liposomes, physical methods have been widely used for either in vivo or ex vivo gene delivery. They are, however, very invasive and often provide limited efficiency. Using pEGFP and pSEAP plasmids and NIH 3T3 fibroblasts as models, we demonstrate a new electroporation-based gene delivery method, called membrane sandwich electroporation (MSE). The MSE method is able to provide better gene confinement near the cell surface to facilitate gene transport into the cells and thus shows significant improvement over transgene expression of mammalian cells compared to current electroporation techniques.
Key concepts: Electroporation, Gene delivery, Transfection, Chemistry, Transgene, Liposome, Ex vivo, Genetic enhancement