State Key Laboratory of Supramolecular Structure and Materials, College of Chemistry, Jilin University, Changchun, China.
Chem Soc Rev. 2012 Dec 7;41(23):7890-908. doi: 10.1039/c2cs35207a.
Enzymes are nanometer-sized molecules with three-dimensional structures created by the folding and self-assembly of polymeric chain-like components through supramolecular interactions. They are capable of performing catalytic functions usually accompanied by a variety of conformational states. The conformational diversities and complexities of natural enzymes exerted in catalysis seriously restrict the detailed understanding of enzymatic mechanisms in molecular terms. A supramolecular viewpoint is undoubtedly helpful in understanding the principle of enzyme catalysis. The emergence of supramolecular artificial enzymes therefore provides an alternative way to approach the structural complexity and thus to unravel the mystery of enzyme catalysis. This critical review covers the recent development of artificial enzymes designed based on supramolecular scaffolds ranging from the synthetic macrocycles to self-assembled nanometer-sized objects. Such findings are anticipated to facilitate the design of supramolecular artificial enzymes as well as their potential uses in important fields, such as manufacturing and food industries, environmental biosensors, pharmaceutics and so on.
酶是纳米级分子,其三维结构是通过超分子相互作用使聚合链状组件折叠和自组装形成的。它们能够发挥催化功能,通常伴随着多种构象状态。天然酶在催化中表现出的构象多样性和复杂性严重限制了人们从分子水平上详细了解酶的机制。从超分子的角度来看,理解酶催化的原理无疑是有帮助的。因此,超分子人工酶的出现为研究结构复杂性提供了一种替代方法,从而揭示酶催化的奥秘。这篇评论文章涵盖了基于超分子支架设计的人工酶的最新发展,从合成大环到自组装的纳米级物体。这些发现有望促进超分子人工酶的设计及其在制造和食品工业、环境生物传感器、制药等重要领域的潜在应用。