Data in Brief · 2016 · 13 citations · 4 references
Natural SciencesMaterials EngineeringMaterials ScienceCeramic MaterialsCeramicsMaterials CharacterizationCeramic ProductionCrystallization ProcessesGrain Structure AnalysisGrain Structure FormationMicrostructure ControlPowder ProcessingBall MillingCeramic PowdersCrystallite Size AnalysisMillingPowder CharacterizationPowder DiffractionPowder Diffraction AnalysisPowder X-ray Diffraction
This paper contains data and supporting information of and complementary to the research article entitled “Effect of jar shape on high-energy planetary ball milling efficiency: simulations and experiments” (Broseghini et al.,) [1]. Calcium fluoride (CaF2) was ground using two jars of different shape (cylindrical and half-moon) installed on a planetary ball-mill, exploring different operating conditions (jar-to-plate angular velocity ratio and milling time). Scanning Electron Microscopy (SEM) images and X-Ray Powder Diffraction data (XRPD) were collected to assess the effect of milling conditions on the end-product crystallite size. Due to the inhomogeneity of the end product, the Whole Powder Pattern Model (WPPM, (Scardi, 2008) [2]) analysis of XRPD data required the hypothesis of a bimodal distribution of sizes – respectively ground (fine fraction) and less-to-not ground (coarse fraction) – confirmed by SEM images and suggested by the previous literature (Abdellatief et al., 2013) [3,4]. Predominance of fine fraction clearly indicates optimal milling conditions.
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Mahmoud Abdellatief, Matthias Abele, Matteo Leoni et al. · Journal of Applied Crystallography · 2013 · 11 citations
Natural Sciences, Materials Engineering, Materials Science +17