Many remarkable properties of liquid water originate from the ability of its molecules to form hydrogen bonds, each of which emerges as a combination of electrostatic, polarization, dispersion, and donor–acceptor or covalent interactions. In this work, ab initio molecular dynamics was tailored to isolate and switch off the covalent component of interactions between water molecules in simulations. Comparison of simulations with and without covalency shows that a small amount of intermolecular electron density transfer has a profound effect on the structure and dynamics of the hydrogen-bond network and thus on observable properties of room-temperature liquid water
The nearly linear relationship between hydrogen-bond strength at the CCSD(T)/Aug-cc-pVTZ level and t...
The prototypical hydrogen bond in water dimer and hydrogen bonds in the protonated water dimer, in o...
Structure and dynamics of water remain a challenge. Resolving the properties of hydro-gen bonding li...
The local hydrogen-bonding structure and dynamics of liquid water have been investigated using the C...
The local hydrogen-bonding structure and dynamics of liquid water have been investigated using the C...
International audienceThe local hydrogen-bonding structure and dynamics of liquid water have been in...
The local hydrogen-bonding structure and dynamics of liquid water have been investigated using the C...
First published September 25, 2017.Water is vital to our everyday life, but its structure at a molec...
We study structural, dynamical, and electronic properties of liquid water through ab initio molecula...
We present the first-principles molecular dynamics simulations of water molecules using two differen...
An ab initio molecular dynamics simulation of liquid water has been performed using density function...
Four scenarios have been proposed for the low-temperature phase behavior of liquid water, each predi...
The accurate representation of the structural and dynamical properties of water is essential for sim...
The network connectivity in liquid water is revised in terms of electronic signatures of hydrogen bo...
We investigate the structural properties of liquid water at near ambient conditions using first-prin...
The nearly linear relationship between hydrogen-bond strength at the CCSD(T)/Aug-cc-pVTZ level and t...
The prototypical hydrogen bond in water dimer and hydrogen bonds in the protonated water dimer, in o...
Structure and dynamics of water remain a challenge. Resolving the properties of hydro-gen bonding li...
The local hydrogen-bonding structure and dynamics of liquid water have been investigated using the C...
The local hydrogen-bonding structure and dynamics of liquid water have been investigated using the C...
International audienceThe local hydrogen-bonding structure and dynamics of liquid water have been in...
The local hydrogen-bonding structure and dynamics of liquid water have been investigated using the C...
First published September 25, 2017.Water is vital to our everyday life, but its structure at a molec...
We study structural, dynamical, and electronic properties of liquid water through ab initio molecula...
We present the first-principles molecular dynamics simulations of water molecules using two differen...
An ab initio molecular dynamics simulation of liquid water has been performed using density function...
Four scenarios have been proposed for the low-temperature phase behavior of liquid water, each predi...
The accurate representation of the structural and dynamical properties of water is essential for sim...
The network connectivity in liquid water is revised in terms of electronic signatures of hydrogen bo...
We investigate the structural properties of liquid water at near ambient conditions using first-prin...
The nearly linear relationship between hydrogen-bond strength at the CCSD(T)/Aug-cc-pVTZ level and t...
The prototypical hydrogen bond in water dimer and hydrogen bonds in the protonated water dimer, in o...
Structure and dynamics of water remain a challenge. Resolving the properties of hydro-gen bonding li...