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重编程和转分化——再生医学的两个关键过程。

Reprogramming and transdifferentiation - two key processes for regenerative medicine.

机构信息

Department of Pathology, Pomeranian Medical University, Szczecin, Poland.

Department of Pathology, Pomeranian Medical University, Szczecin, Poland.

出版信息

Eur J Pharmacol. 2020 Sep 5;882:173202. doi: 10.1016/j.ejphar.2020.173202. Epub 2020 Jun 18.

DOI:10.1016/j.ejphar.2020.173202
PMID:32562801
Abstract

Regenerative medicine based on transplants obtained from donors or foetal and new-born mesenchymal stem cells, encounter important obstacles such as limited availability of organs, ethical issues and immune rejection. The growing demand for therapeutic methods for patients being treated after serious accidents, severe organ dysfunction and an increasing number of cancer surgeries, exceeds the possibilities of the therapies that are currently available. Reprogramming and transdifferentiation provide powerful bioengineering tools. Both procedures are based on the somatic differentiated cells, which are easily and unlimitedly available, like for example: fibroblasts. During the reprogramming procedure mature cells are converted into pluripotent cells - which are capable to differentiate into almost any kind of desired cells. Transdifferentiation directly converts differentiated cells of one type into another differentiated cells type. Both procedures allow to obtained patient's dedicated cells for therapeutic purpose in regenerative medicine. In combination with biomaterials, it is possible to obtain even whole anatomical structures. Those patient's dedicated structures may serve for them upon serious accidents with massive tissue damage but also upon cancer surgeries as a replacement of damaged organ. Detailed information about reprogramming and transdifferentiation procedures as well as the current state of the art are presented in our review.

摘要

基于供体或胎儿和新生儿间充质干细胞获得的移植的再生医学,遇到了重要的障碍,如器官的有限可用性、伦理问题和免疫排斥。对于在严重事故、严重器官功能障碍和越来越多的癌症手术后接受治疗的患者的治疗方法的需求不断增长,超过了目前可用疗法的可能性。重编程和转分化提供了强大的生物工程工具。这两种方法都是基于体细胞分化细胞,这些细胞很容易且无限可用,例如成纤维细胞。在重编程过程中,成熟细胞被转化为多能细胞——这些细胞能够分化为几乎任何所需的细胞类型。转分化直接将一种分化细胞转化为另一种分化细胞类型。这两种方法都允许为治疗目的从患者身上获得专用细胞,用于再生医学。与生物材料结合,甚至可以获得整个解剖结构。在严重的组织损伤事故或癌症手术后,这些患者专用的结构可以作为受损器官的替代品。我们的综述介绍了重编程和转分化程序以及当前的最新进展的详细信息。

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