B. Mangolini, L. Palin,
Marco MILANESIO
, M. Lopresti
Research output
:
Non-textual form
›
Digital or Visual Products
@misc{21000b75c10f478eb03e73d0579a3b1d,
title = "Dataset for {"}XRF and XRPD data sets in ternary mixtures with high level micro-absorption and/or preferred orientations problems for phase quantification analysis{"}",
keywords = "X-Ray Fluorescence Spectroscopy, Powder X-Ray Diffraction, Rietveld Refinement, Multivariate Quantitative Analysis, Multiple Regression, X-Ray Fluorescence Spectroscopy, Powder X-Ray Diffraction, Rietveld Refinement, Multivariate Quantitative Analysis, Multiple Regression",
author = "B. Mangolini and L. Palin and Marco MILANESIO and M. Lopresti",
note = "XRF and XRPD data were collected on four different mixture experimental domain, each containing one or more common issues for phase quantification: micro-absorption and preferred orientations. Simplex-Centroid experimental design was used to homogeneously explore the experimental domain. Microabsorption and preferred orientations were included in a controlled way, by choosing the appropriate components each time. The datasets are respectively: - D1: A three component mixture containing bismuth oxide (MM: 208.980 g/mol, density: 8.93 g/cm^3, Z of the heaviest element: 83), barium sulfate (MM: 137.327 g/mol, density: 4.48 g/cm^3, Z of the heaviest element: 56) and sieved graphite (MM: 12.01 g/mol, density: 2.23 g/cm^3, Z of the heaviest element: 6) with a particle size lower than 90 micrometers (non-oriented). - D2: A three component mixture containing bismuth oxide (MM: 208.980 g/mol, density: 8.93 g/cm^3, Z of the heaviest element: 83), barium sulfate (MM: 137.327 g/mol, density: 4.48 g/cm^3, Z of the heaviest element: 56) and sieved graphite (MM: 12.01 g/mol, density: 2.23 g/cm^3, Z of the heaviest element: 6), divided in about 70 % sieved graphite with a particle size lower than 90 micrometers (non-oriented) and 30% sieved graphite with particle size higher than 90 micrometers (oriented). - D3: A three component mixture containing bismuth oxide (MM: 208.980 g/mol, density: 8.93 g/cm^3, Z of the heaviest element: 83), barium sulfate (MM: 137.327 g/mol, density: 4.48 g/cm^3, Z of the heaviest element: 56) and zinc acetate (MM: 219.528 g/mol, density: 1.74 g/cm^3, Z of the heaviest element: 30). - D4: A three component mixture containing bismuth oxide (MM: 208.980 g/mol, density: 8.93 g/cm^3, Z of the heaviest element: 83), barium sulfate (MM: 137.327 g/mol, density: 4.48 g/cm^3, Z of the heaviest element: 56) and urea (MM: 60.06 g/mol, density: 1.32 g/cm^3, Z of the heaviest element: 8). The aim of this datasets is to provide an open-source collection data on which perform quantification analysis by both traditional and innovative methods. More informations are detailed in the data paper {"}XRF and XRPD data sets in ternary mixtures with high level micro-absorption and/or preferred orientations problems for phase quantification analysis{"}.",
year = "2021",
doi = "10.17632/js2nzwf5md",
language = "English",
}
TY - ADVS
T1 - Dataset for "XRF and XRPD data sets in ternary mixtures with high level micro-absorption and/or preferred orientations problems for phase quantification analysis"
AU - Mangolini, B.
AU - Palin, L.
AU - MILANESIO, Marco
AU - Lopresti, M.
N1 - XRF and XRPD data were collected on four different mixture experimental domain, each containing one or more common issues for phase quantification: micro-absorption and preferred orientations.
Simplex-Centroid experimental design was used to homogeneously explore the experimental domain. Microabsorption and preferred orientations were included in a controlled way, by choosing the appropriate components each time. The datasets are respectively:
- D1: A three component mixture containing bismuth oxide (MM: 208.980 g/mol, density: 8.93 g/cm^3, Z of the heaviest element: 83), barium sulfate (MM: 137.327 g/mol, density: 4.48 g/cm^3, Z of the heaviest element: 56) and sieved graphite (MM: 12.01 g/mol, density: 2.23 g/cm^3, Z of the heaviest element: 6) with a particle size lower than 90 micrometers (non-oriented).
- D2: A three component mixture containing bismuth oxide (MM: 208.980 g/mol, density: 8.93 g/cm^3, Z of the heaviest element: 83), barium sulfate (MM: 137.327 g/mol, density: 4.48 g/cm^3, Z of the heaviest element: 56) and sieved graphite (MM: 12.01 g/mol, density: 2.23 g/cm^3, Z of the heaviest element: 6), divided in about 70 % sieved graphite with a particle size lower than 90 micrometers (non-oriented) and 30% sieved graphite with particle size higher than 90 micrometers (oriented).
- D3: A three component mixture containing bismuth oxide (MM: 208.980 g/mol, density: 8.93 g/cm^3, Z of the heaviest element: 83), barium sulfate (MM: 137.327 g/mol, density: 4.48 g/cm^3, Z of the heaviest element: 56) and zinc acetate (MM: 219.528 g/mol, density: 1.74 g/cm^3, Z of the heaviest element: 30).
- D4: A three component mixture containing bismuth oxide (MM: 208.980 g/mol, density: 8.93 g/cm^3, Z of the heaviest element: 83), barium sulfate (MM: 137.327 g/mol, density: 4.48 g/cm^3, Z of the heaviest element: 56) and urea (MM: 60.06 g/mol, density: 1.32 g/cm^3, Z of the heaviest element: 8).
The aim of this datasets is to provide an open-source collection data on which perform quantification analysis by both traditional and innovative methods.
More informations are detailed in the data paper "XRF and XRPD data sets in ternary mixtures with high level micro-absorption and/or preferred orientations problems for phase quantification analysis".
PY - 2021
Y1 - 2021
KW - X-Ray Fluorescence Spectroscopy
KW - Powder X-Ray Diffraction
KW - Rietveld Refinement
KW - Multivariate Quantitative Analysis
KW - Multiple Regression
KW - X-Ray Fluorescence Spectroscopy
KW - Powder X-Ray Diffraction
KW - Rietveld Refinement
KW - Multivariate Quantitative Analysis
KW - Multiple Regression
UR - https://iris.uniupo.it/handle/11579/126089
U2 - 10.17632/js2nzwf5md
DO - 10.17632/js2nzwf5md
M3 - Digital or Visual Products
ER -
We use cookies to help provide and enhance our service and tailor content. By continuing you agree to the
use of cookies
