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  4. Directional dark field for nanoscale full-field transmission X-ray microscopy
 
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Directional dark field for nanoscale full-field transmission X-ray microscopy

Citation Link: https://doi.org/10.15480/882.16913
Publikationstyp
Preprint
Date Issued
2025-06-20
Sprache
English
Author(s)
Wirtensohn, Sami  
Helmholtz-Zentrum Hereon  
Flenner, Silja  
Helmholtz-Zentrum Hereon  
John, Dominik
Qi, Peng
David, Christian
May, Manfred  
Material- und Röntgenphysik M-2  
Huber, Patrick  orcid-logo
Material- und Röntgenphysik M-2  
Herzog, Dirk  orcid-logo
Industrialisierung smarter Werkstoffe M-27  
Tangl, Stefan
Kampleitner, Carina  
Singh, Kritika
Kelbassa, Ingomar  
Industrialisierung smarter Werkstoffe M-27  
Bekes, Katrin  
Herzen, Julia  
Greving, Imke  
TORE-DOI
10.15480/882.16913
TORE-URI
https://hdl.handle.net/11420/62367
Citation
arXiv 2506.16998: (2025)
Publisher DOI
10.48550/arXiv.2506.16998
ArXiv ID
2506.16998
Publisher
arXiv
Peer Reviewed
false
Dark-field X-ray imaging visualizes structural inhomogeneities through small-angle scattering, but existing directional methods are confined to the micrometer scale. While recent advances have extended dark-field capabilities to nanoscale transmission X-ray microscopy, directional scattering retrieval - critical for characterizing anisotropic nanostructures - has remained inaccessible for imaging resolutions in the sub-micrometer scale. Here, we demonstrate the first directional dark-field setup for nanoimaging, achieving orientation mapping of scattering features below the spatial resolution limit. Our method is experimentally simple to implement with existing transmission X-ray microscopy setups. We validate its performance by successfully resolving sub-resolution test structure orientations, cross-correlating orientational changes within hierarchical nanoporous materials, and mapping the directional arrangement of hydroxyapatite nanocrystals 30 - 70 nm within human tooth enamel. By utilizing shadow regions in the optical configuration, we further extend the detectable scattering vector range, demonstrating a pathway toward size-selective dark-field imaging. This advancement enables the quantitative structural characterization of anisotropic nanomaterials, which are critical to biomineralization, advanced materials, and nanotechnology applications.
Subjects
physics.optics
physics.ins-det
DDC Class
600: Technology
Funding(s)
EXC 3120 - BlueMat - Wassergesteuerte Materialien  
EXC 3120 BlueMat - Cross Area Imaging  
Lizenz
https://creativecommons.org/licenses/by/4.0/
Publication version
submittedVersion
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