The microscopic transport processes of an excess electron in bulk water are studied using hybrid ab initio molecular dynamics calculations. In contrast to the typical cavity obtained with solvated anions, the electron cavity structure is found to be much more variable, with water molecules easily exchanging at the surface of the cavity. The microscopic mechanism of electron transport involves a novel sequence of opportunistic electron redistributions driven by a positive feedback between thermal fluctuations and the attraction of the electron to hydrogen atoms that are not saturated in hydrogen bonding. (C) 2001 Elsevier Science B.V. All rights reserved.X1128sciescopu
Water is a ubiquitous liquid that displays a wide range of anomalous properties and has a delicate s...
Molecular dynamics simulations are used to study the mechanism and kinetics of hydrated electron dif...
We present a computational study of the structure and dynamics of an excess electron in a medium-siz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
A hydrated electron is formed when an excess electron is captured and stablized by an aqueous soluti...
The structure of the hydrated electron is a matter of debate as it evades direct experimental observ...
When an excess electron is solvated by water molecules, it forms a well-known species named the hydr...
When an excess electron is solvated by water molecules, it forms a well-known species named the hydr...
An ab initio molecular dynamics simulation of liquid water has been performed using density function...
Since the discovery of the hydrated electron more than 40 years ago, a general consensus has emerged...
Water is a ubiquitous liquid that displays a wide range of anomalous properties and has a delicate s...
Molecular dynamics simulations are used to study the mechanism and kinetics of hydrated electron dif...
We present a computational study of the structure and dynamics of an excess electron in a medium-siz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
We provide a consistent description of the electronic levels associated with localized and delocaliz...
A hydrated electron is formed when an excess electron is captured and stablized by an aqueous soluti...
The structure of the hydrated electron is a matter of debate as it evades direct experimental observ...
When an excess electron is solvated by water molecules, it forms a well-known species named the hydr...
When an excess electron is solvated by water molecules, it forms a well-known species named the hydr...
An ab initio molecular dynamics simulation of liquid water has been performed using density function...
Since the discovery of the hydrated electron more than 40 years ago, a general consensus has emerged...
Water is a ubiquitous liquid that displays a wide range of anomalous properties and has a delicate s...
Molecular dynamics simulations are used to study the mechanism and kinetics of hydrated electron dif...
We present a computational study of the structure and dynamics of an excess electron in a medium-siz...