J
Jan R. R. Verlet
Researcher at Durham University
Publications - 118
Citations - 3340
Jan R. R. Verlet is an academic researcher from Durham University. The author has contributed to research in topics: Excited state & Ion. The author has an hindex of 30, co-authored 104 publications receiving 2886 citations. Previous affiliations of Jan R. R. Verlet include King's College London & Lawrence Berkeley National Laboratory.
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Journal ArticleDOI
Observation of large water-cluster anions with surface-bound excess electrons.
Jan R. R. Verlet,Arthur E. Bragg,Aster Kammrath,Ori Cheshnovsky,Daniel M. Neumark,Daniel M. Neumark +5 more
TL;DR: In this article, the authors used photoelectron imaging to characterize a class of (H2O)n− and (D2On−)n-cluster anions with vertical binding energies that are significantly lower than those previously recorded.
Journal ArticleDOI
Hydrated Electron Dynamics: From Clusters to Bulk
Arthur E. Bragg,Jan R. R. Verlet,Aster Kammrath,Ori Cheshnovsky,Daniel M. Neumark,Daniel M. Neumark +5 more
TL;DR: The results support the “nonadiabatic relaxation” mechanism for the bulk hydrated electron mechanism and support the internal conversion lifetime of the p-state population decay with concomitant s-state repopulation.
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Toward real-time charged-particle image reconstruction using polar onion-peeling
TL;DR: A method to reconstruct full three-dimensional photofragment distributions from their two-dimensional (2D) projection onto a detection plane is presented, for processes in which the expanding Newton sphere has cylindrical symmetry around an axis parallel to the projection plane.
Journal ArticleDOI
Electronic relaxation dynamics of water cluster anions.
TL;DR: The large differences in dynamical trends, relaxation mechanisms, and PADs between large isomer I and isomer II clusters are consistent with their assignment to very different electron binding motifs.
Journal ArticleDOI
Hydrated electrons at the water/air interface.
TL;DR: The dynamics of hydrated electrons at the water/air interface are investigated using time-resolved second-harmonic generation spectroscopy, which shows that the electron is hydrated in the interfacial region, below the dividing surface.