方法-一种转染多能成体祖细胞(MAPC)的非病毒基因转移方法

U. Lakshmipathy, Luke Hammer, C. Verfaillie
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引用次数: 2

摘要

多能成体祖细胞(MAPC)是一种主要从成体骨髓中分离出来的干细胞,能够在体外分化为具有内胚层、中胚层和神经外胚层细胞表型和功能特征的细胞。此外,MAPCs在较长时间内增殖而没有明显的衰老。因此,MAPCs可能是治疗遗传性疾病的理想细胞,前提是能够克服基因治疗的主要障碍,即有效的基因转移和持续的基因表达。大多数商业上可用的基于脂质的方法非常有效地转染细胞系和原代细胞,但不能转染MAPC。然而,使用superect可以实现10-15%的MAPC转染。然而,这种方法需要高密度的MAPCs培养,MAPCs随后会分化。电穿孔法在MAPCs中实现了12%至15%的转染,但这对MAPCs具有高毒性。本研究中,通过瞬时表达一种增强的绿色荧光蛋白(EGFP)基因,我们报道了核转染导致小鼠MAPC的转染效率超过25%,而不干扰MAPC生长和维持的适宜条件,并且毒性明显低于电穿孔。在大鼠和人的MAPC中也看到了类似的结果。通过核转染有效转染MAPC提供了一种有吸引力的非病毒基因传递模式,可用于在这些细胞中过表达感兴趣的基因。此外,它应该很容易适应新兴的位点特异性整合技术,从而最终在mapc介导的遗传疾病的长期基因治疗中达到顶点。
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Method — A nonviral gene transfer method for transfecting multipotent adult progenitor cells (MAPC)
Multipotent adult progenitor cells (MAPC) are stem cells isolated primarily from adult bone marrow that have the ability to differentiate in vitro into cells with phenotypic and functional characteristics of cells from the three germ layers, namely endoderm, mesoderm and neuroectoderm. In addition, MAPCs proliferate for extended periods of time without obvious senescence. Hence, MAPCs may be ideal cells for therapy of genetic disorders, provided that the main impediment to gene therapy, namely efficient gene transfer and persistent gene expression, can be overcome. Most commercially available lipid-based methods that very highly efficiently transfect cell lines and primary cells, fail to transfect MAPC. However, 10–15% transfection of MAPC can be achieved using Superfect. However, this approach requires high density culture of MAPCs which subsequently differentiate. Between 12 and 15% transfection is achieved in MAPCs using electroporation, but this is highly toxic to MAPCs. Here, using transient expression of an enhanced green fluorescent protein (EGFP) gene, we report that nucleofection results in a transfection efficiency of over 25% with mouse MAPC without perturbing the conditions suitable for MAPC growth and maintenance, and with significantly less toxicity than electroporation. Similar results were seen for rat and human MAPC. Efficient transfection of MAPC by nucleofection offers an appealing non-viral mode of gene delivery and can be used to overexpress genes of interest in these cells. In addition, it should easily accomodate emerging site-specific integration technology, thereby culminating eventually in MAPC-mediated long-term gene therapy for genetic disorders.
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