Development, validation and verification of an ICP-MS procedure for a multi-element analysis of uranium ore concentrates

The International Atomic Energy Agency (IAEA) uses information from characterization of uranium-bearing material samples to support the verification of states' declarations and to look for indications of possible undeclared materials and activities. Parameters of interest include, among others,...

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Veröffentlicht in:Journal of analytical atomic spectrometry 2017-11, Vol.32 (11), p.2226-2237
Hauptverfasser: Boulyga, Sergei F, Cunningham, J. Alan, Macsik, Zsuzsanna, Hiess, Joe, Pe kin, Maxim V, Walsh, Stephen J
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container_end_page 2237
container_issue 11
container_start_page 2226
container_title Journal of analytical atomic spectrometry
container_volume 32
creator Boulyga, Sergei F
Cunningham, J. Alan
Macsik, Zsuzsanna
Hiess, Joe
Pe kin, Maxim V
Walsh, Stephen J
description The International Atomic Energy Agency (IAEA) uses information from characterization of uranium-bearing material samples to support the verification of states' declarations and to look for indications of possible undeclared materials and activities. Parameters of interest include, among others, the concentrations of elemental impurities, the patterns of rare earth elements (REE), and the isotope ratios of uranium and some impurity elements. These data along with other physical and chemical properties are being used to assess material quality, monitor chemical processes, and verify material origin. This manuscript describes a Sector Field-Inductively Coupled Plasma-Mass Spectrometry (SF-ICP-MS) procedure for the determination of 67 minor and trace elements, including REE, in uranium ore concentrates (UOC) and related compounds without matrix separation. All elements are measured within one instrumental sequence, which improves the timeliness of the analyses. A particular focus is set on developing a reliable quality control mechanism in the absence of uranium-bearing reference materials with certified concentrations of all analysed elements. In order to provide objective experimental evidence that the particular requirements for each specific parameter are fulfilled the validation process included (i) assessment of measurement uncertainties, (ii) analysis of available certified reference materials with uranium matrix (validated for 31 elements), and (iii) measuring test samples in the frame of four inter-laboratory comparison exercises (validated for 54 elements). The majority of the analysed elements could be measured with a satisfactory accuracy but determination of difficult-to-analyse elements, such as silicon and tungsten, requires a modified sample preparation and measurement procedure. An alternative 'non-destructive' analytical method, such as XRF or laser ablation ICP-MS, can be applied for direct analysis of non-dissolved residues that remain in the digests. A validated procedure for SF-ICP-MS determination of 67 minor and trace elements in uranium ore concentrates applied to nuclear safeguards.
doi_str_mv 10.1039/c7ja00180k
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This manuscript describes a Sector Field-Inductively Coupled Plasma-Mass Spectrometry (SF-ICP-MS) procedure for the determination of 67 minor and trace elements, including REE, in uranium ore concentrates (UOC) and related compounds without matrix separation. All elements are measured within one instrumental sequence, which improves the timeliness of the analyses. A particular focus is set on developing a reliable quality control mechanism in the absence of uranium-bearing reference materials with certified concentrations of all analysed elements. In order to provide objective experimental evidence that the particular requirements for each specific parameter are fulfilled the validation process included (i) assessment of measurement uncertainties, (ii) analysis of available certified reference materials with uranium matrix (validated for 31 elements), and (iii) measuring test samples in the frame of four inter-laboratory comparison exercises (validated for 54 elements). The majority of the analysed elements could be measured with a satisfactory accuracy but determination of difficult-to-analyse elements, such as silicon and tungsten, requires a modified sample preparation and measurement procedure. An alternative 'non-destructive' analytical method, such as XRF or laser ablation ICP-MS, can be applied for direct analysis of non-dissolved residues that remain in the digests. 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source Royal Society Of Chemistry Journals 2008-; Alma/SFX Local Collection
subjects Chemical properties
Concentrates (ores)
Destructive testing
Energy consumption
Impurities
Inductively coupled plasma mass spectrometry
Isotope ratios
Laser ablation
Mass spectrometry
Nondestructive testing
Nuclear electric power generation
Nuclear energy
Parameter uncertainty
Parameters
Quality assessment
Quality control
Rare earth elements
Reference materials
Trace elements
Tungsten
Uncertainty analysis
Uranium
title Development, validation and verification of an ICP-MS procedure for a multi-element analysis of uranium ore concentrates
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