The chemical bonding and electronic structure of RhC, RhN, and RhO by anion photoelectron spectroscopy
- 1 October 1998
- journal article
- Published by AIP Publishing in The Journal of Chemical Physics
- Vol. 109 (13) , 5264-5268
- https://doi.org/10.1063/1.477143
Abstract
The electronic structure and chemical bonding of RhC, RhN, and RhO were experimentally investigated using anion photoelectron spectroscopy. Vibrationally resolved photoelectron spectra of RhC−, RhN−, and RhO− were obtained at two detachment photon energies, 532 (2.33 eV) and 355 nm (3.49 eV). Electron affinities, low-lying electronic states, and vibrational frequencies are reported for the neutral diatomic molecules. The adiabatic electron affinities are similar for the three molecules and increase slightly from RhC to RhO (RhC: 1.46; RhN: 1.51; RhO: 1.58 eV). The low-lying electronic states are rather simple for RhC, with its first electronic excited state occurring at 9400 cm−1 above the ground state, whereas those of RhN and RhO are more complicated, with numerous closely spaced low-lying electronic states. Excited states of the anions were also observed for RhC− and RhN−. The trend of the chemical bonding from RhC to RhO is discussed based on the experimental results.Keywords
This publication has 10 references indexed in Scilit:
- A photoelectron spectroscopic study of monovanadium oxide anions (VOx−, x=1–4)The Journal of Chemical Physics, 1998
- Electronic states and potential energy surfaces of rhodium carbide (RhC)Chemical Physics Letters, 1997
- Electronic structure of titanium oxide clusters: TiOy (y = 1−3) and (TiO2)n (n = 1−4)The Journal of Chemical Physics, 1997
- Electronic states and nature of bonding in the molecule RhN by all-electron ab initio calculationsJournal of Molecular Structure: THEOCHEM, 1997
- Chemical Bonding between Cu and OxygenCopper Oxides vs O2 Complexes: A Study of CuOx (x = 0−6) Species by Anion Photoelectron SpectroscopyThe Journal of Physical Chemistry A, 1997
- Photoelectron spectroscopy of size-selected transition metal clusters: Fe−n, n=3–24The Journal of Chemical Physics, 1995
- A comparison of the bonding in the second-row transition-metal oxides and carbenesChemical Physics Letters, 1993
- All-electron and relativistic effective core potential study of rhodium compoundsThe Journal of Physical Chemistry, 1991
- Electronic structure and bonding in the RhC molecule by all-electron a b i n i t i o HF–Cl calculations and mass spectrometric measurementsThe Journal of Chemical Physics, 1984
- Binding energies and structure of transition metal negative ionsThe Journal of Chemical Physics, 1981