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Modeling and conformation analysis of β-cyclodextrin complexes

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Summary

A series of β-cyclodextrin complexes containing various guest molecules was studied using computer-aided molecular modeling and conformation analysis techniques. The geometry of each complex was studied using crystallographic data. The positions of the glycosidic O4 atoms indicate that the β-cyclodextrin molecules are elliptically distorted. This distortion can be related to the van der Waals volume of the guest molecules. This correlation is different for aromatic and non-aromatic guest compounds. Rigid body docking experiments demonstrated that in crystal structures the guest molecule occupies a position in the cavity of nearly minimum interaction energy when there are no other molecules having interactions with the guest molecule. From the crystallographic data several rules could be deduced which seem to determine the conformation of β-cyclodextrin molecules in complexes. A procedure was developed to construct β-cyclodextrin molecules that are able to encompass guest molecules having a given van der Waals volume.

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Kostense, A.S., van Helden, S.P. & Janssen, L.H.M. Modeling and conformation analysis of β-cyclodextrin complexes. J Computer-Aided Mol Des 5, 525–543 (1991). https://doi.org/10.1007/BF00135312

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  • DOI: https://doi.org/10.1007/BF00135312

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