State-Dependent Electron Delocalization Dynamics at the Solute-Solvent Interface: Soft X-ray Absorption Spectroscopy and Ab Initio Calculations
arXiv:1301.6858 · doi:10.1103/PhysRevLett.111.083002
Abstract
Non-radiative decay channels in the L-edge fluorescence spectra from transition metal-aqueous solutions give rise to spectral dips in X-ray transmission spectra. Their origin is unraveled here using partial and inverse partial fluorescence yields on the micro-jet combined with multi-reference ab initio electronic structure calculations. Comparing Fe2+, Fe3+, and Co2+ systems we demonstrate unequivocally that spectral dips are due to a state-dependent electron delocalization within the manifold of d-orbitals.
revised paper and supplementary material
Cited by in corpus (10)
- Multi-reference approach to the calculation of photoelectron spectra including spin-orbit coupling
- Efficient Simulation of Near-Edge X-ray Absorption Fine Structure (NEXAFS) in Density-Functional Theory: Comparison of Core-Level Constraining Approaches
- Multi-reference quantum chemistry protocol for simulating autoionization spectra: Test of ionization continuum models for the neon atom
- Implementation of the exact semi-classical light-matter interaction - the easy way
- Ultrafast spin-flip dynamics in transition metal complexes triggered by soft X-ray light
- Density matrix based time-dependent configuration interaction approach to ultrafast spin-flip dynamics
- Ultrafast dissipative spin-state dynamics triggered by X-ray pulse trains
- Effect of chemical structure on the ultrafast spin dynamics in core-excited states
- Sensitivity of K mainline X-ray emission to structural dynamics in iron photosensitizer
- A time-correlation function approach to nuclear dynamical effects in X-ray spectroscopy