Supramolecular Chemistry of a Moving Solution: Flow Drives New Non-covalent Bond Formation
Munenori Numata, Chisako Kanzaki
Abstract
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Munenori Numata, Chisako Kanzaki
Abstract
Open-access reader
The main concern in supramolecular chemistry is the creation of new non-covalent bonds because it leads to the formation of molecular assemblies with new functions. In organic synthesis, there are appropriate toolkits for creating a desired molecule; for example, catalysts produce a variety of new covalent bonds to extend the possible molecular structures. However, in supramolecular chemistry, self-assembly, a passive process, is still the sole method for forming non-covalent bonds. We demonstrated that when a solution moves in a microspace, a positive assembly occurs, leading to the formation of various new non-covalent bonds. Combining this strategy with the precise control of microenvironmental changes in a microflow space will expand the framework of supramolecular structures.
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The main concern in supramolecular chemistry is the creation of new non-covalent bonds because it leads to the formation of molecular assemblies with new functions. In organic synthesis, there are appropriate toolkits for creating a desired molecule; for example, catalysts produce a variety of new covalent bonds to extend the possible molecular structures. However, in supramolecular chemistry, self-assembly, a passive process, is still the sole method for forming non-covalent bonds. We demonstrated that when a solution moves in a microspace, a positive assembly occurs, leading to the formation of various new non-covalent bonds. Combining this strategy with the precise control of microenvironmental changes in a microflow space will expand the framework of supramolecular structures.
Key concepts: Chemistry, Supramolecular chemistry, Covalent bond, Flow (mathematics), Bond, Computational chemistry, Nanotechnology, Organic chemistry