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Time-Resolved Coulomb Explosion Imaging Unveils Ultrafast Ring Opening of Furan

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arxiv 2311.05099 v1 pith:HC7JWE2C submitted 2023-11-09 physics.chem-ph physics.atm-clus

classification physics.chem-phphysics.atm-clus
keywords coulombexplosionimagingultrafastdynamicsmolecularfemtosecondfuran
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Following the changes in molecular structure throughout the entirety of a chemical reaction with atomic resolution is a long-term goal in femtochemistry. Although the development of a plethora of ultrafast technique has enabled detailed investigations of the electronic and nuclear dynamics on femtosecond time scales, direct and unambiguous imaging of the nuclear motion during a reaction is still a major challenge. Here, we apply time-resolved Coulomb explosion imaging with femtosecond near-infrared pulses to visualize the ultraviolet-induced ultrafast molecular dynamics of gas-phase furan. Widely contradicting predictions and observations for this molecule have been reported in the literature. By combining the experimental Coulomb explosion imaging data with ab initio molecular dynamics and Coulomb explosion simulations, we reveal the presence of a strong ultrafast ring-opening pathway upon excitation at 198 nm that occurs within 100 fs.

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  1. Exploiting correlations in multi-coincidence Coulomb explosion patterns for differentiating molecular structures using machine learning

    physics.chem-ph 2025-09 conditional novelty 7.0 of 10

    Complete six- and eight-ion Coulomb explosion imaging, interpreted with UMAP, HDBSCAN, and Random Forest analysis, automatically separates dichloroethylene isomers and transfers simulation-trained classifiers to exper...

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