We have investigated the solvation dynamics and the genuine binding energy and photoemission anisotropy of the solvated electron in neutral water clusters with a combination of time-resolved photoelectron velocity map imaging and electron scattering simulations. The dynamics was probed with a UV probe pulse following above-band-gap excitation by an EUV pump pulse. The solvation dynamics is completed within about 2 ps. Only a single band is observed in the spectra, with no indication for isomers with distinct binding energies. Data analysis with an electron scattering model reveals a genuine binding energy in the range of 3.55−3.85 eV and a genuine anisotropy parameter in the range of 0.51−0.66 for the ground-state hydrated electron. All of ...
Electronic relaxation dynamics are measured on a femtosecond timescale in three types of anionic clu...
Author Institution: Department of Chemistry, The Ohio State University, Columbus, OH 43210We have co...
Author Institution: Department of Chemistry, The Ohio State University,; Columbus, OH 43210Electron...
Solvated electrons, and hydrated electrons in particular, are important spe-cies in condensed phase ...
Cluster-size-resolved ultrafast dynamics of the solvated electron in neutral water clusters with n =...
We directly observed the hydration dynamics of an excess electron in the finite-sized water clusters...
A hydrated electron is formed when an excess electron is captured and stablized by an aqueous soluti...
Author Institution: Department of Chemistry, Yale University, New Haven, CT 06520Negatively charged ...
An ongoing controversy about water cluster anions concerns the electron-binding motif, whether the c...
ABSTRACT: Water cluster anions, (H2O)N , are examined using mixed quantum/classical molecular dynami...
Excess electrons in condensed-phase media play a crucial role in the dynamics of important chemical ...
Author Institution: Department of Chemistry, University of California - Berkeley, Berkeley, CA 94720...
We have used mixed quantum-classical molecular dynamics simulations to explore the role of structura...
An ongoing controversy about water cluster anions concerns the electron-binding motif, whether the c...
We have investigated the hydration dynamics in size selected water clusters with n=66, 104, 200, 500...
Electronic relaxation dynamics are measured on a femtosecond timescale in three types of anionic clu...
Author Institution: Department of Chemistry, The Ohio State University, Columbus, OH 43210We have co...
Author Institution: Department of Chemistry, The Ohio State University,; Columbus, OH 43210Electron...
Solvated electrons, and hydrated electrons in particular, are important spe-cies in condensed phase ...
Cluster-size-resolved ultrafast dynamics of the solvated electron in neutral water clusters with n =...
We directly observed the hydration dynamics of an excess electron in the finite-sized water clusters...
A hydrated electron is formed when an excess electron is captured and stablized by an aqueous soluti...
Author Institution: Department of Chemistry, Yale University, New Haven, CT 06520Negatively charged ...
An ongoing controversy about water cluster anions concerns the electron-binding motif, whether the c...
ABSTRACT: Water cluster anions, (H2O)N , are examined using mixed quantum/classical molecular dynami...
Excess electrons in condensed-phase media play a crucial role in the dynamics of important chemical ...
Author Institution: Department of Chemistry, University of California - Berkeley, Berkeley, CA 94720...
We have used mixed quantum-classical molecular dynamics simulations to explore the role of structura...
An ongoing controversy about water cluster anions concerns the electron-binding motif, whether the c...
We have investigated the hydration dynamics in size selected water clusters with n=66, 104, 200, 500...
Electronic relaxation dynamics are measured on a femtosecond timescale in three types of anionic clu...
Author Institution: Department of Chemistry, The Ohio State University, Columbus, OH 43210We have co...
Author Institution: Department of Chemistry, The Ohio State University,; Columbus, OH 43210Electron...