The nanodiffraction problem

The results of a systematic rigorous study on the accuracy of lattice parameters computed from X‐ray diffraction patterns of ideally perfect nanocrystalline powder and thin‐film samples are presented. It is shown that, if the dimensions of such samples are below 20 nm, the lattice parameters obtaine...

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Veröffentlicht in:Journal of applied crystallography 2018-08, Vol.51 (4), p.1102-1115
Hauptverfasser: Xiong, Shangmin, Öztürk, Hande, Lee, Seung-Yub, Mooney, Patricia M., Noyan, Ismail Cevdet
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container_end_page 1115
container_issue 4
container_start_page 1102
container_title Journal of applied crystallography
container_volume 51
creator Xiong, Shangmin
Öztürk, Hande
Lee, Seung-Yub
Mooney, Patricia M.
Noyan, Ismail Cevdet
description The results of a systematic rigorous study on the accuracy of lattice parameters computed from X‐ray diffraction patterns of ideally perfect nanocrystalline powder and thin‐film samples are presented. It is shown that, if the dimensions of such samples are below 20 nm, the lattice parameters obtained from diffraction analysis will deviate from their true values. The relative deviation depends on the relevant size parameter through an inverse power law and, for particular reflections, depends on the angular peak positions. This size‐dependent error, Δa/a, is larger than the precision of typical X‐ray diffraction measurements for ∼20 nm‐thick diffracting domains, and it can be several orders of magnitude larger for particles smaller than 5 nm. A systematic rigorous self‐consistent modeling study of diffraction experiments from nancrystalline powders and thin films was performed. The results show that for such samples the lattice parameters determined from single‐peak or full‐pattern analysis have size‐dependent errors which are not due to artifacts of peak‐fit and refinement routines.
doi_str_mv 10.1107/S1600576718007719
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subjects accuracy
Angular position
Chemistry
Crystallography
Diffraction
Diffraction patterns
Lattice parameters
Nanodiffraction
nanoparticles
Powder
precision
X-ray diffraction
title The nanodiffraction problem
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