A one-electron model potential approach for calculating the binding energies of an excess electron\ud interacting with water clusters is presented. Drude oscillators are employed on the water monomers\ud to describe electron–water polarization and dispersion interactions. It is demonstrated that the\ud resulting model gives electron binding energies very close to the predictions of\ud ab initio\ud CCSD\ud ~\ud T\ud !\ud calculations. Dispersion interactions and high-order renormalization effects are found to make large\ud contributions to the electron binding energies. ©\ud 2002 American Institute of Physic
State-of-the-art ADC(2), EOM-EA-CCSD, and EOM-EA-CCSD(2) many-body methods are used to calculate the...
A quantum Drude oscillator model was developed by our group to describe excess electrons interacting...
A quantum Drude oscillator model was developed by our group to describe excess electrons interacting...
A one-electron model potential approach for calculating the binding energies of an excess electron\u...
In this work we focus on the binding of excess electrons to water clusters, a problem for which disp...
In this work we focus on the binding of excess electrons to water clusters, a problem for which disp...
The problem of the binding of an excess electron to polar molecules and their clusters with sufficie...
Cluster anions for which the excess electron occupies an extended nonvalence orbital can be describe...
Cluster anions for which the excess electron occupies an extended nonvalence orbital can be describe...
We present a new model for characterizing the interactions of excess electrons with (H2O)n- clusters...
We present a new model for characterizing the interactions of excess electrons with (H2O)n- clusters...
Cluster anions for which the excess electron occupies an extended nonvalence orbital can be describe...
State-of-the-art ADC(2), EOM-EA-CCSD, and EOM-EA-CCSD(2) many-body methods are used to calculate the...
State-of-the-art ADC(2), EOM-EA-CCSD, and EOM-EA-CCSD(2) many-body methods are used to calculate the...
State-of-the-art ADC(2), EOM-EA-CCSD, and EOM-EA-CCSD(2) many-body methods are used to calculate the...
State-of-the-art ADC(2), EOM-EA-CCSD, and EOM-EA-CCSD(2) many-body methods are used to calculate the...
A quantum Drude oscillator model was developed by our group to describe excess electrons interacting...
A quantum Drude oscillator model was developed by our group to describe excess electrons interacting...
A one-electron model potential approach for calculating the binding energies of an excess electron\u...
In this work we focus on the binding of excess electrons to water clusters, a problem for which disp...
In this work we focus on the binding of excess electrons to water clusters, a problem for which disp...
The problem of the binding of an excess electron to polar molecules and their clusters with sufficie...
Cluster anions for which the excess electron occupies an extended nonvalence orbital can be describe...
Cluster anions for which the excess electron occupies an extended nonvalence orbital can be describe...
We present a new model for characterizing the interactions of excess electrons with (H2O)n- clusters...
We present a new model for characterizing the interactions of excess electrons with (H2O)n- clusters...
Cluster anions for which the excess electron occupies an extended nonvalence orbital can be describe...
State-of-the-art ADC(2), EOM-EA-CCSD, and EOM-EA-CCSD(2) many-body methods are used to calculate the...
State-of-the-art ADC(2), EOM-EA-CCSD, and EOM-EA-CCSD(2) many-body methods are used to calculate the...
State-of-the-art ADC(2), EOM-EA-CCSD, and EOM-EA-CCSD(2) many-body methods are used to calculate the...
State-of-the-art ADC(2), EOM-EA-CCSD, and EOM-EA-CCSD(2) many-body methods are used to calculate the...
A quantum Drude oscillator model was developed by our group to describe excess electrons interacting...
A quantum Drude oscillator model was developed by our group to describe excess electrons interacting...