4.6 Article

Pyrrole and Pyridine in the Water Environment-Effect of Discrete and Continuum Solvation Models

Journal

ACS OMEGA
Volume 6, Issue 38, Pages 24693-24699

Publisher

AMER CHEMICAL SOC
DOI: 10.1021/acsomega.1c03437

Keywords

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Funding

  1. EC Research Innovation Action under the H2020 Programme
  2. IQTCUB
  3. Spanish MINECO [PID2019-106830GB-I00, MDM-2017-0767]
  4. Generalitat de Catalunya [2017SGR348]
  5. Project HPCEUROPA3 [INFRAIA-2016-1-730897]

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This study comprehensively investigated the properties of pyrrole and pyridine molecules under different hydration levels using density functional theory. It focused on hydrogen bond formation with single water molecules or clusters, as well as the impact of solvation on the aromaticity of the molecules.
Properties of pyrrole and pyridine molecules upon different hydrations were investigated through density functional theory. Complexes of studied molecules with a cluster of SO water molecules were considered, and the polarizable continuum model of solvation (PCM) was also taken into account. For comparative purposes, all mentioned calculations were repeated for single pyrrole and pyridine molecules and their complexes with one water molecule. Aromaticities of solvated pyrrole and pyridine rings were studied using several geometric- and electronic-based aromaticity criteria. Special attention was paid to studying the properties of formed hydrogen bonds between pyrrole or pyridine and either a single water molecule or several water molecules of the cluster. Overall, a comprehensive description of two very important heterocyclic compounds, that is, pyrrole and pyridine, in both discrete and continuum water solutions, is extensively presented.

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