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Water activation and splitting by single anionic iridium atoms

Mass spectrometric analysis of anionic products that result from interacting Ir− with H2O shows the efficient generation of [Ir(H2O)]− complexes and IrO− molecular anions. Anion photoelectron spectra of [Ir(H2O)]−, formed under various source conditions, exhibit spectral features that are due to thr...

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Published in:The Journal of chemical physics 2022-12, Vol.157 (23), p.234304-234304
Main Authors: Liu, Gaoxiang, Ciborowski, Sandra M., Cao, Yulu, Harris, Rachel M., Bowen, Kit H.
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Language:English
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description Mass spectrometric analysis of anionic products that result from interacting Ir− with H2O shows the efficient generation of [Ir(H2O)]− complexes and IrO− molecular anions. Anion photoelectron spectra of [Ir(H2O)]−, formed under various source conditions, exhibit spectral features that are due to three different forms of the complex: the solvated anion–molecule complex, Ir−(H2O), as well as the intermediates, [H–Ir–OH]− and [H2–Ir–O]−, where one and two O–H bonds have been broken, respectively. The measured and calculated vertical detachment energy values are in good agreement and, thus, support identification of all three types of isomers. The calculated reaction pathway shows that the overall reaction Ir− + H2O → IrO− + H2 is exothermic. Two minimum energy crossing points were found, which shuttle intermediates and products between singlet and triplet potential surfaces. This study presents the first example of water activation and splitting by single Ir− anions.
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source American Institute of Physics (AIP) Publications; American Institute of Physics:Jisc Collections:Transitional Journals Agreement 2021-23 (Reading list)
subjects Anions
Atomic properties
Energy value
Exothermic reactions
Iridium
Mathematical analysis
Photoelectrons
Physics
Spectrometry
Splitting
title Water activation and splitting by single anionic iridium atoms
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