Solvent Effects on the Kinetics of Epoxide Carbonation in Dihydroxyethyldiethylammonium Bromide Ionic Liquids

Solvent effects by ionic liquids (ILs) may be assessed by using a complementary supermolecule + dielectric continuum approach. We revisited the carbonation mechanism of epoxide in the [Net<sub>2</sub>(HE)<sub>2</sub>][Br] ionic liquid and found that the reaction field (RF) effect in the outer sphere of solvation determines the accepted mechanism for the title reaction. This implicit solvent effect appears to be related to the maximum hardness principle (MHP) involving the relative energy/hardness relationship at the transition-state structures: a highly encouraging result, as it suggests that classical reactivity rules could still be applied in the presence of complex ionic environments.

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Publication Details

Journal
The Journal of Physical Chemistry B
Published
2026-01-20
DOI
https://doi.org/10.1021/acs.jpcb.5c06993
Citations
1
Primary Topic
Carbon dioxide utilization in catalysis
Type
article
Field-Weighted Citation Impact
17.85
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article

Solvent Effects on the Kinetics of Epoxide Carbonation in Dihydroxyethyldiethylammonium Bromide Ionic Liquids

Renato Coello Contreras, José Muñoz-Espinoza
1 citations
The Journal of Physical Chemistry B
Carbon dioxide utilization in catalysis
17.85
article

Solvent Effects on the Kinetics of Epoxide Carbonation in Dihydroxyethyldiethylammonium Bromide Ionic Liquids

Renato Coello Contreras, José Muñoz-Espinoza
article en
1 citations

Abstract

Solvent effects by ionic liquids (ILs) may be assessed by using a complementary supermolecule + dielectric continuum approach. We revisited the carbonation mechanism of epoxide in the [Net<sub>2</sub>(HE)<sub>2</sub>][Br] ionic liquid and found that the reaction field (RF) effect in the outer sphere of solvation determines the accepted mechanism for the title reaction. This implicit solvent effect appears to be related to the maximum hardness principle (MHP) involving the relative energy/hardness relationship at the transition-state structures: a highly encouraging result, as it suggests that classical reactivity rules could still be applied in the presence of complex ionic environments.

The Journal of Physical Chemistry BVol. 130(4)
University of Chile (CL)
Openalex Percentile: Top 3%
Carbon dioxide utilization in catalysis
17.85
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