Englisch S, Ditscherlein R, Kirstein T, Hansen L, Furat O, Drobek D, Leißner T, Apeleo Zubiri B, Weber AP, Schmidt V, Peuker UA, Spiecker E (2023)
Publication Type: Journal article
Publication year: 2023
Book Volume: 419
Article Number: 118343
DOI: 10.1016/j.powtec.2023.118343
A correlative 3D characterization workflow by micro and nano X-ray computed tomography (Micro-CT, Nano-CT) and analytical scanning electron microscopy (SEM) is presented over different length scales for particle composite materials that apply to any powder at the size scale between 0.3 µm to 15 µm. In this case study, an artificial compound of calcite, talcum, dolomite, and magnesite providing constituent particles with similar morphology, size distribution, and chemical composition for multidimensional separation processes is analyzed. First, Micro-CT characterizes the particle morphology and distribution of a larger amalgamated volume. Then, a smaller, site-specifically prepared pillar is imaged by Nano-CT allowing for correlative investigations at higher-resolution. Afterwards, the Nano-CT reconstruction is informed slice-wise by analytical SEM distinguishing particles with different chemical composition. The statistical interpretation of our results is improved by advanced post-processing and multidimensional analysis, allowing for quantitative characterization of the particles’ size, phase distribution, and mineral degree of liberation.
APA:
Englisch, S., Ditscherlein, R., Kirstein, T., Hansen, L., Furat, O., Drobek, D.,... Spiecker, E. (2023). 3D analysis of equally X-ray attenuating mineralogical phases utilizing a correlative tomographic workflow across multiple length scales. Powder Technology, 419. https://doi.org/10.1016/j.powtec.2023.118343
MLA:
Englisch, Silvan, et al. "3D analysis of equally X-ray attenuating mineralogical phases utilizing a correlative tomographic workflow across multiple length scales." Powder Technology 419 (2023).
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