
doi: 10.1038/71889
pmid: 10625387
The ability to safely and efficiently transfer foreign DNA into cells is a fundamental goal in biotechnology. Toward this end, rapid advances have recently been made in our understanding of mechanisms for DNA stability and transport within cells. Current synthetic DNA delivery systems are versatile and safe, but substantially less efficient than viruses. Indeed, most current systems address only one of the obstacles to DNA delivery by enhancing DNA uptake. In fact, the effectiveness of gene expression is also dependent on several additional factors, including the release of intracellular DNA, stability of DNA in the cytoplasm, unpackaging of the DNA-vector complex, and the targeting of DNA to the nucleus. Delivery systems of the future must fully accommodate all these processes to effectively shepherd DNA across the plasma membrane, through the hostile intracellular environment, and into the nucleus.
Cell Nucleus, Drug Delivery Systems, Nuclear Localization Signals, Animals, Humans, Biological Transport, DNA, Transfection
Cell Nucleus, Drug Delivery Systems, Nuclear Localization Signals, Animals, Humans, Biological Transport, DNA, Transfection
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