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三维培养贴壁依赖型哺乳动物细胞的概念与实践进展综述

Review-progress in concept and practice of growing anchorage-dependent mammalian cells in three dimension.

作者信息

Rappaport Catherine

机构信息

Department of Chemical and Fuels Engineering, University of Utah, Salt Lake City, Utah 84112-9203, USA.

出版信息

In Vitro Cell Dev Biol Anim. 2003 May-Jun;39(5-6):187-92. doi: 10.1290/1543-706X(2003)039<0187:RICAPO>2.0.CO;2.

Abstract

Tissue culture has played a major role in the rapid advances made in medical science in the past 50 yr. The full potential of the technique, however, is limited by the fact that growth of cells is usually restricted to a monolayer accompanied by major decreases in many of their tissue-specific functions. This has been shown to be due, in large part, to the inadequate oxygenation of cells growing in tissue culture dishes. Studies that show that the high charge density and rigidity of the plastic and glass surfaces used for culture are also major factors limiting growth of cells to a monolayer, are reviewed. A new culture system has been developed in which cells are grown on substrata made using perfluorocarbons (PFCs) coated with collagen type 1 and other adhesive factors. Perfluorocarbons have a much higher solubility for oxygen than water and have been used as oxygen delivery systems to protect cells from hypoxia. These new PFC-based substrata can provide both the optimal level of oxygen cells need to maintain differentiated functions and the flexible and weaker type of adhesion that allows cells to round up, interact with each other, and when provided with adequate nutritional support, to grow in three dimension.

摘要

在过去50年里,组织培养在医学科学的快速发展中发挥了重要作用。然而,该技术的全部潜力受到以下事实的限制:细胞生长通常局限于单层,同时其许多组织特异性功能大幅下降。研究表明,这在很大程度上是由于在组织培养皿中生长的细胞氧合不足所致。本文综述了一些研究,这些研究表明用于培养的塑料和玻璃表面的高电荷密度和刚性也是将细胞生长限制在单层的主要因素。一种新的培养系统已经开发出来,在该系统中,细胞生长在由涂有I型胶原蛋白和其他粘附因子的全氟化碳(PFC)制成的基质上。全氟化碳对氧气的溶解度比水高得多,已被用作氧气输送系统以保护细胞免受缺氧影响。这些基于全氟化碳的新型基质既能提供细胞维持分化功能所需的最佳氧气水平,又能提供灵活且较弱的粘附类型,使细胞能够聚集、相互作用,并在获得足够营养支持时进行三维生长。

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