Effective encapsulation of noble and small gases and molecules by tubularene molecule

Author:

Weinert Christopher1,Ćoćić Dušan2ORCID,Puchta Ralph1345,van Eldik Rudi36

Affiliation:

1. Fakultät Angewandte Mathematik, Physik und Allgemeinwissenschaften Technische Hochschule Nürnberg Georg Simon Ohm Keßlerplatz 12 90489 Nürnberg Germany

2. University of Kragujevac Faculty of Science Department of Chemistry Radoja Domanovića 12, P. O. Box 60 34000 Kragujevac Serbia

3. Inorganic Chemistry Department of Chemistry and Pharmacy University of Erlangen-Nuremberg Egerlandstr. 1 91058 Erlangen Germany

4. Central Institute for Scientific Computing (CISC) University of Erlangen-Nuremberg Martensstr. 5a 91058 Erlangen Germany

5. Computer Chemistry Center Department of Chemistry and Pharmacy University of Erlangen-Nuremberg Nägelsbachstr. 25 91052 Erlangen Germany

6. Faculty of Chemistry Nicolaus Copernicus University in Toruń Gagarina 7 87-100 Toruń Poland

Abstract

AbstractBased on computational chemistry calculations (ωB97XD/def2‐tzvp//ωB97XD/def2‐svp/svpfit+ZPE(ωB97XD/def2‐svp/svpfit)), binding energy of tubular[3,6,6,6]arene to accommodate noble gases and a series of 29 small gases were calculated. Based on the gained results, Rn (−17.52 kcal/mol) from the series of noble gases is best suited to be accommodated. In the series of noble gases, the binding energy increases linearly with increasing gas radii. From the series of 29 small guests, IF3 and C2I2 (~ −23 kcal/mol) have the best proclivity to be most effectively accommodated in the tubularene, with other 26 exhibiting favorable encapsulation energies on various scales depending on their voluminosity and structure, and only NI3 with the unfavorable complexation energy of 13.87 kcal/mol. Investigated gases, depending on the size, are placed at the different position inside the tube‐like cavity of the tubularene. The structure of the tubularene, independent of the hosted guest species, has remained very rigid, with its atom's rearrangements withing an error margin.

Publisher

Wiley

Subject

Inorganic Chemistry

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