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Main Authors: Maxime, Debiossac, Peng, Pan, Carina, Kanitz, Philippe, Roncin
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2504.18327
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author Maxime, Debiossac
Peng, Pan
Carina, Kanitz
Philippe, Roncin
author_facet Maxime, Debiossac
Peng, Pan
Carina, Kanitz
Philippe, Roncin
contents We investigate experimentally the diffraction of fast atoms of noble gas on a LiF(100) crystal oriented along the [100] and [110] directions. The wavelengths are so short that the observed quantum features are qualitatively described by semi-classical models. With increasing mass and energy, the scattering profiles show an increasing number of diffraction peaks forming an increasing number of supernumerary rainbow peaks but progressively weakening in contrast. The innermost peaks corresponding to individual Bragg peaks disappear first. Along the [100] direction, only one type of atomic row contributes to the diffraction signal. After removing the contributions of the attractive forces, we present topological corrugation that should compare with those accessible with an atomic force microscope (AFM).
format Preprint
id arxiv_https___arxiv_org_abs_2504_18327
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Diffraction of fast heavy noble gas atoms, Ar, Kr and Xe on a LiF(001) surface Changing the tip of a 'perfect' AFM
Maxime, Debiossac
Peng, Pan
Carina, Kanitz
Philippe, Roncin
Atomic Physics
We investigate experimentally the diffraction of fast atoms of noble gas on a LiF(100) crystal oriented along the [100] and [110] directions. The wavelengths are so short that the observed quantum features are qualitatively described by semi-classical models. With increasing mass and energy, the scattering profiles show an increasing number of diffraction peaks forming an increasing number of supernumerary rainbow peaks but progressively weakening in contrast. The innermost peaks corresponding to individual Bragg peaks disappear first. Along the [100] direction, only one type of atomic row contributes to the diffraction signal. After removing the contributions of the attractive forces, we present topological corrugation that should compare with those accessible with an atomic force microscope (AFM).
title Diffraction of fast heavy noble gas atoms, Ar, Kr and Xe on a LiF(001) surface Changing the tip of a 'perfect' AFM
topic Atomic Physics
url https://arxiv.org/abs/2504.18327