Abstract

Molecular structure is usually determined by measuring the diffraction pattern the molecule impresses on x-rays or electrons. We used a laser field to extract electrons from the molecule itself, accelerate them, and in some cases force them to recollide with and diffract from the parent ion, all within a fraction of a laser period. Here, we show that the momentum distribution of the extracted electron carries the fingerprint of the highest occupied molecular orbital, whereas the elastically scattered electrons reveal the position of the nuclear components of the molecule. Thus, in one comprehensive technology, the photoelectrons give detailed information about the electronic orbital and the position of the nuclei.

Keywords

ElectronPhotoelectric effectElectron diffractionLaserAtomic physicsDiffractionQuantum tunnellingMolecular orbitalMoleculeIonGas electron diffractionPhysicsMolecular physicsChemistryReflection high-energy electron diffractionOpticsCondensed matter physicsNuclear physicsQuantum mechanics

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Publication Info

Year
2008
Type
article
Volume
320
Issue
5882
Pages
1478-1482
Citations
761
Access
Closed

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M. Meckel, D. Comtois, D. Zeidler et al. (2008). Laser-Induced Electron Tunneling and Diffraction. Science , 320 (5882) , 1478-1482. https://doi.org/10.1126/science.1157980

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DOI
10.1126/science.1157980