Monnard P-A
Department of Molecular Biology, Massachusetts General Hospital, Wellman 9, 50 Blossom Street, Boston, Massachussetts, 02114-2696, USA.
Cell Mol Life Sci. 2005 Mar;62(5):520-34. doi: 10.1007/s00018-004-4342-2.
Micro- and nanoenvironments formed by amphiphile self-assembled structures, water-ice lattices and minerals have well-defined, repeating, chemical and physical properties that can be used for selective synthesis of biopolymers, such as RNAs and proteins. The advances made in the development of polymerization supported by these micro- and nanosystems are reviewed here. In particular, it is shown that these systems promote non-enzymatic biopolymerization, yielding long polymers whose sequence composition is determined by the interactions between monomers and the supporting environment. When used to compartmentalize enzymatic biopolymerization, micro- and nanostructures allow the implementation of molecular selection and evolution schemes, which are difficult in homogeneous medium, yielding very active molecules. Thus, micro- and nanoenvironment approaches to the synthesis and selection of biopolymers could be developed into a new biotechnological tool for the production of biopolymers with novel functions.
两亲分子自组装结构、水冰晶格和矿物质形成的微纳环境具有明确的、重复的化学和物理性质,可用于选择性合成生物聚合物,如RNA和蛋白质。本文综述了这些微纳系统支持的聚合反应发展所取得的进展。特别值得指出的是,这些系统促进了非酶生物聚合反应,生成了长聚合物,其序列组成由单体与支持环境之间的相互作用决定。当用于分隔酶促生物聚合反应时,微纳结构允许实施在均相介质中难以实现的分子筛选和进化方案,从而产生非常活跃的分子。因此,用于生物聚合物合成和筛选的微纳环境方法有望发展成为一种新型生物技术工具,用于生产具有新功能的生物聚合物。