Nonadditive contribution to the interaction energy in water trimer is analyzed in terms of Heitler–London exchange, SCF deformation, induction and dispersion nonadditivities. Nonadditivity originates mainly from the SCF deformation effect which is due to electric polarization. However, polarization does not serve as a universal mechanism for nonadditivity in water. In the double‐donor configuration, for example, the Heitler–London exchange contribution is the most important and polarization yields the wrong sign. Correlation effects do not contribute significantly to the nonadditivity. A detailed analysis of the pair potential is also provided. The present two‐body potential and its components are compared to the existing ab initi...
We incorporate geometry-dependent distributed multipole and polarizability surfaces into an inductio...
Many remarkable properties of liquid water originate from the ability of its molecules to form hydro...
We report vibrational configuration interaction calculations of the monomer fundamentals of (H2O)(2)...
Nonadditive contribution to the interaction energy in water trimer is analyzed in terms of Heitler–...
Two algorithms for many-body interaction energy decomposition within the Hartree−Fock approximation ...
© 2020 The Authors. Published by Wiley-VCH Verlag GmbH & Co. KGaA. Intermolecular interactions in bu...
The Heitler–London (HL) exchange energy is responsible for the anisotropy of the pair potential in ...
The role of nonadditive interactions on the structure and dielectric properties of water is investig...
The nonexpanded second-order dispersion energy is calculated for a number of geometrical configurati...
The global minimum energy structures of the water hexamer predicted by widely used analytic water po...
Contains fulltext : 35760.pdf (publisher's version ) (Open Access)A new six-dimens...
Localized molecular orbital energy decomposition analysis and symmetry-adapted perturbation theory (...
A potential energy surface for the water dimer with explicit dependence on monomer coordinates is pr...
The equilibrium structure and binding energy of the water dimer system were determined by employing ...
A full-dimensional potential energy function (MB-pol) for simulations of water from the dimer to bul...
We incorporate geometry-dependent distributed multipole and polarizability surfaces into an inductio...
Many remarkable properties of liquid water originate from the ability of its molecules to form hydro...
We report vibrational configuration interaction calculations of the monomer fundamentals of (H2O)(2)...
Nonadditive contribution to the interaction energy in water trimer is analyzed in terms of Heitler–...
Two algorithms for many-body interaction energy decomposition within the Hartree−Fock approximation ...
© 2020 The Authors. Published by Wiley-VCH Verlag GmbH & Co. KGaA. Intermolecular interactions in bu...
The Heitler–London (HL) exchange energy is responsible for the anisotropy of the pair potential in ...
The role of nonadditive interactions on the structure and dielectric properties of water is investig...
The nonexpanded second-order dispersion energy is calculated for a number of geometrical configurati...
The global minimum energy structures of the water hexamer predicted by widely used analytic water po...
Contains fulltext : 35760.pdf (publisher's version ) (Open Access)A new six-dimens...
Localized molecular orbital energy decomposition analysis and symmetry-adapted perturbation theory (...
A potential energy surface for the water dimer with explicit dependence on monomer coordinates is pr...
The equilibrium structure and binding energy of the water dimer system were determined by employing ...
A full-dimensional potential energy function (MB-pol) for simulations of water from the dimer to bul...
We incorporate geometry-dependent distributed multipole and polarizability surfaces into an inductio...
Many remarkable properties of liquid water originate from the ability of its molecules to form hydro...
We report vibrational configuration interaction calculations of the monomer fundamentals of (H2O)(2)...