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动态超分子复合物由正交自组装构建。

Dynamic supramolecular complexes constructed by orthogonal self-assembly.

机构信息

Key Laboratory of Mesoscopic Chemistry of MOE, School of Chemistry and Chemical Engineering, Nanjing University , Nanjing 210093, China.

出版信息

Acc Chem Res. 2014 Jul 15;47(7):2041-51. doi: 10.1021/ar5000709. Epub 2014 May 29.

Abstract

CONSPECTUS

Supramolecular complexes, including various low-molecular-mass structures and large molecular aggregates that are assembled by reversible and highly directional noncovalent interactions, have attracted more and more attention due to their fascinating and unconventional chemical and physical properties that are different from those of traditional architectures encountered by covalently linked backbones. Supramolecular complexes are by nature dynamic architectures considering the reversibility of noncovalent interactions by which small molecular monomers can assemble into specific architectures that are able to be repeatably reorganized through the assembly/disassembly processes under certain environmental factors such as temperature, concentration, and solvent conditions. The construction of supramolecular complexes by orthogonal self-assembly with different types of highly specific, noninterfering interactions is currently attracting considerable interest since they not only can dynamically self-assemble, but also can be tuned by various external stimuli through addressing each type of noncovalent interaction separately. Therefore, these dynamic supramolecular complexes, especially with external responsiveness, represent the most outstanding candidates for the future development of functional and smart materials, and even mimic the assembling process of natural systems. In this Account, we will summarize the recent advances of dynamic supramolecular complexes constructed by orthogonal self-assembly in soluiton in two sections: (1) Construction strategies for supramolecular complexes based on orthogonal self-assembly, whose dynamic behaviors with external responsiveness were not experimentally investigated but potentially existed due to the intrinsic reversibility of noncovalent bonds; (2) dynamic behaviors of multiresponsive supramolecular complexes, which were experimentally reported to exhibit reversible multi-responsiveness to external stimuli. Dynamic nature is one of intrinsic properties of supramolecular complexes constructed by self-assembly. Therefore, in the first section, we will describe the dynamic self-assembly in the construction of supramolecular complexes, but will focus on their external responsive dynamic behaviors in the second section. In addition, considering that an increasing number of supramolecular complexes constructed by biological building blocks through bio-orthogonal assembly as mimics of biological systems have been reported in recent years, in the second section we will also present some typical examples on such special dynamic biological supramolecular complexes. The final part of this Account is devoted to foreseeing the rapid development of dynamic supramolecular complexes toward applications in functional and smart materials and fundamental questions facing dynamic supramolecular complexes in the future.

摘要

概述

超分子复合物包括各种通过可逆和高度定向的非共价相互作用组装的低分子结构和大分子聚集体,由于其具有不同于传统共价键连接骨架的迷人且非常规的化学和物理性质,因此越来越受到关注。考虑到非共价相互作用的可逆性,超分子复合物本质上是动态结构,小分子单体可以通过非共价相互作用组装成特定的结构,并且可以在某些环境因素(如温度、浓度和溶剂条件)下通过组装/解组装过程进行重复重组。通过不同类型的高度特异性、非干扰相互作用的正交自组装来构建超分子复合物目前引起了相当大的兴趣,因为它们不仅可以动态自组装,而且可以通过单独处理每种类型的非共价相互作用来通过各种外部刺激进行调整。因此,这些动态超分子复合物,特别是具有外部响应性的,是未来功能和智能材料发展的最杰出候选者,甚至可以模拟自然系统的组装过程。在本综述中,我们将总结通过溶液中的正交自组装构建动态超分子复合物的最新进展,分为两个部分:(1)基于正交自组装的超分子复合物的构建策略,由于非共价键的固有可逆性,其动态行为与外部响应性尚未进行实验研究,但具有潜在的存在性;(2)多响应性超分子复合物的动态行为,已实验报道其对外部刺激具有可逆的多响应性。动态性是自组装构建的超分子复合物的固有性质之一。因此,在第一部分中,我们将描述超分子复合物构建中的动态自组装,但在第二部分中,我们将重点介绍它们对外界响应的动态行为。此外,考虑到近年来通过生物正交组装构建的生物基元作为生物系统模拟物的超分子复合物的数量不断增加,在第二部分中,我们还将介绍一些特殊的动态生物超分子复合物的典型例子。本综述的最后一部分致力于展望动态超分子复合物在功能和智能材料中的应用的快速发展以及未来动态超分子复合物面临的基本问题。

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