Abstract
The increasing knowledge of the molecular and genetic background of many different human diseases has led to the vision that genetic engineering might be used one day for their phenotypic correction. The main goal of gene therapy is to treat loss-of-function genetic disorders by delivering correcting therapeutic DNA sequences into the nucleus of a cell, allowing its long-term expression at physiologically relevant levels. Manifold different vector systems for the therapeutic gene delivery have been described over the recent years. They all have their individual advantages but also their individual limitations and must be judged on a careful risk/benefit analysis. Integrating vector systems can deliver genetic material to a target cell with high efficiency enabling long-term expression of an encoded transgene. The main disadvantage of integrating vector systems, however, is their potential risk of causing insertional mutagenesis. Episomal vector systems have the potential to avoid these undesired side effects, since they behave as separate extrachromosomal elements in the nucleus of a target cell. Within this article we present a comprehensive survey of currently available episomal vector systems for the genetic modification of mammalian cells. We will discuss their advantages and disadvantages and their applications in the context of basic research, biotechnology and gene therapy.
Keywords: Gene Therapy, Episomal Vectors, Vector Administration, Vector Replication, Nuclear Retention, Virus-like Particles, Naked DNA delivery, Artificial Chromosomes
Current Gene Therapy
Title: Episomal Vectors for Gene Therapy
Volume: 8 Issue: 3
Author(s): Anja Ehrhardt, Rudolf Haase, Aloys Schepers, Manuel J. Deutsch, Hans J. Lipps and Armin Baiker
Affiliation:
Keywords: Gene Therapy, Episomal Vectors, Vector Administration, Vector Replication, Nuclear Retention, Virus-like Particles, Naked DNA delivery, Artificial Chromosomes
Abstract: The increasing knowledge of the molecular and genetic background of many different human diseases has led to the vision that genetic engineering might be used one day for their phenotypic correction. The main goal of gene therapy is to treat loss-of-function genetic disorders by delivering correcting therapeutic DNA sequences into the nucleus of a cell, allowing its long-term expression at physiologically relevant levels. Manifold different vector systems for the therapeutic gene delivery have been described over the recent years. They all have their individual advantages but also their individual limitations and must be judged on a careful risk/benefit analysis. Integrating vector systems can deliver genetic material to a target cell with high efficiency enabling long-term expression of an encoded transgene. The main disadvantage of integrating vector systems, however, is their potential risk of causing insertional mutagenesis. Episomal vector systems have the potential to avoid these undesired side effects, since they behave as separate extrachromosomal elements in the nucleus of a target cell. Within this article we present a comprehensive survey of currently available episomal vector systems for the genetic modification of mammalian cells. We will discuss their advantages and disadvantages and their applications in the context of basic research, biotechnology and gene therapy.
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Cite this article as:
Ehrhardt Anja, Haase Rudolf, Schepers Aloys, Deutsch J. Manuel, Lipps J. Hans and Baiker Armin, Episomal Vectors for Gene Therapy, Current Gene Therapy 2008; 8 (3) . https://dx.doi.org/10.2174/156652308784746440
DOI https://dx.doi.org/10.2174/156652308784746440 |
Print ISSN 1566-5232 |
Publisher Name Bentham Science Publisher |
Online ISSN 1875-5631 |
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