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首页> 外文期刊>Chemical Society Reviews >Supramolecular concepts and new techniques in mechanochemistry: cocrystals, cages, rotaxanes, open metal-organic frameworks
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Supramolecular concepts and new techniques in mechanochemistry: cocrystals, cages, rotaxanes, open metal-organic frameworks

机译:机械化学中的超分子概念和新技术:共晶体,笼,轮烷,开放的金属有机骨架

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Mechanochemical reactions effected by milling or grinding are an attractive means to conduct chemical reactions dependent on molecular recognition and to systematically explore different modes of molecular self-assembly. The natural relationship between milling mechanochemistry and supramolecular chemistry arises primarily from the ability to avoid bulk solvent, which simultaneously avoids limitations of solution-based chemistry, such as solubility, solvent complexation, or solvolysis, and makes the resulting process highly environmentally friendly. This tutorial review highlights the use of mechanochemistry for the synthesis of supramolecular targets in the solid state, such as molecular hydrogen- or halogen-bonded complexes, molecular and supramolecular cages, open frameworks and interlocked architectures. It is also demonstrated that the molecular self-assembly phenomena that are well-established in solution chemistry, such as reversible binding through covalent or non-covalent bonds, thermodynamic equilibration and structure templating, are also accessible in milling mechanochemistry through recently developed highly efficient methodologies such as liquid-assisted grinding (LAG) or ion- and liquid-assisted grinding (ILAG). Also highlighted are the new opportunities arising from the marriage of concepts of supramolecular and mechanochemical synthesis, including organocatalysis, deracemisation and discovery of new molecular recognition motifs.
机译:通过研磨或研磨进行的机械化学反应是进行依赖于分子识别的化学反应并系统地探索分子自组装的不同模式的有吸引力的手段。研磨机械化学和超分子化学之间的自然关系主要来自避免大量溶剂的能力,同时避免了基于溶液的化学的局限性,例如溶解度,溶剂络合或溶剂分解,并使所得的方法高度环保。本教程概述着重介绍了如何使用机械化学合成固态的超分子靶标,例如分子氢或卤素键合的配合物,分子和超分子笼,开放框架和互锁结构。还证明了在溶液化学中已经建立的分子自组装现象,例如通过共价或非共价键的可逆结合,热力学平衡和结构模板化,也可以通过最近开发的高效方法在碾磨机械化学中获得。例如液体辅助研磨(LAG)或离子液体辅助研磨(ILAG)。还强调了超分子和机械化学合成概念的结合所带来的新机遇,包括有机催化,脱轨和发现新的分子识别基序。

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