Development and application of reference and routine analytical methods providing SI-traceable results for the determination of technology-critical elements in PCB from WEEE

The recovery and reprocessing of technology-critical elements (TCE) present in printed circuit boards (PCB) from electrical and electronic waste is essential both for recycling valuable materials subject to supply risk and for reducing the environmental impact. Although the quantitative knowledge of...

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Published inJournal of analytical atomic spectrometry Vol. 39; no. 11; pp. 289 - 2823
Main Authors D'Agostino, Giancarlo, Oelze, Marcus, Vogl, Jochen, Ghestem, Jean-Philippe, Lafaurie, Nicolas, Klein, Ole, Pröfrock, Daniel, Di Luzio, Marco, Bergamaschi, Luigi, Ja imovi, Radojko, Oster, Caroline, Irrgeher, Johanna, Lancaster, Shaun T, Walch, Anna, Röthke, Anita, Michaliszyn, Lena, Pramann, Axel, Rienitz, Olaf, Sara-Aho, Timo, Cankur, Oktay, Kutan, Derya, Noireaux, Johanna
Format Journal Article
LanguageEnglish
Published London Royal Society of Chemistry 30.10.2024
Subjects
Online AccessGet full text
ISSN0267-9477
1364-5544
DOI10.1039/d4ja00235k

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Abstract The recovery and reprocessing of technology-critical elements (TCE) present in printed circuit boards (PCB) from electrical and electronic waste is essential both for recycling valuable materials subject to supply risk and for reducing the environmental impact. Although the quantitative knowledge of TCE amounts in end-of-life PCB plays a key role, there are neither matrix certified reference materials nor harmonized analytical methods available to establish the traceability of the results to the International System of Units. To fill these gaps, we developed and applied five reference analytical methods based on ICP-MS standard addition calibrations and INAA k 0 - and relative calibrations suitable to certify reference materials. In addition, we developed and tested six analytical methods based on more commonly used ICP-MS external standard calibrations to provide industry with routine analysis methods. Twenty TCE (Ag, Au, Co, Cu, Dy, Ga, Gd, Ge, In, La, Li, Nd, Ni, Pd, Pr, Pt, Rh, Sm, Ta and Ti) were selected as target analytes and a batch of powdered PCB was used as measurement material. An overall mutual agreement was observed among data collected by reference methods at a few percent relative uncertainty levels. Moreover, all but one of the methods developed for routine analysis demonstrated their suitability in industrial applications by producing data within ± 20% of the values established with reference methods. Development and test of five reference analytical methods and six routine analytical methods providing SI-traceable results of twenty technology-critical elements in end-of-life PCB materials.
AbstractList The recovery and reprocessing of technology-critical elements (TCE) present in printed circuit boards (PCB) from electrical and electronic waste is essential both for recycling valuable materials subject to supply risk and for reducing the environmental impact. Although the quantitative knowledge of TCE amounts in end-of-life PCB plays a key role, there are neither matrix certified reference materials nor harmonized analytical methods available to establish the traceability of the results to the International System of Units. To fill these gaps, we developed and applied five reference analytical methods based on ICP-MS standard addition calibrations and INAA k0- and relative calibrations suitable to certify reference materials. In addition, we developed and tested six analytical methods based on more commonly used ICP-MS external standard calibrations to provide industry with routine analysis methods. Twenty TCE (Ag, Au, Co, Cu, Dy, Ga, Gd, Ge, In, La, Li, Nd, Ni, Pd, Pr, Pt, Rh, Sm, Ta and Ti) were selected as target analytes and a batch of powdered PCB was used as measurement material. An overall mutual agreement was observed among data collected by reference methods at a few percent relative uncertainty levels. Moreover, all but one of the methods developed for routine analysis demonstrated their suitability in industrial applications by producing data within ± 20% of the values established with reference methods.
The recovery and reprocessing of technology-critical elements (TCE) present in printed circuit boards (PCB) from electrical and electronic waste is essential both for recycling valuable materials subject to supply risk and for reducing the environmental impact. Although the quantitative knowledge of TCE amounts in end-of-life PCB plays a key role, there are neither matrix certified reference materials nor harmonized analytical methods available to establish the traceability of the results to the International System of Units. To fill these gaps, we developed and applied five reference analytical methods based on ICP-MS standard addition calibrations and INAA k 0 - and relative calibrations suitable to certify reference materials. In addition, we developed and tested six analytical methods based on more commonly used ICP-MS external standard calibrations to provide industry with routine analysis methods. Twenty TCE (Ag, Au, Co, Cu, Dy, Ga, Gd, Ge, In, La, Li, Nd, Ni, Pd, Pr, Pt, Rh, Sm, Ta and Ti) were selected as target analytes and a batch of powdered PCB was used as measurement material. An overall mutual agreement was observed among data collected by reference methods at a few percent relative uncertainty levels. Moreover, all but one of the methods developed for routine analysis demonstrated their suitability in industrial applications by producing data within ± 20% of the values established with reference methods. Development and test of five reference analytical methods and six routine analytical methods providing SI-traceable results of twenty technology-critical elements in end-of-life PCB materials.
The recovery and reprocessing of technology-critical elements (TCE) present in printed circuit boards (PCB) from electrical and electronic waste is essential both for recycling valuable materials subject to supply risk and for reducing the environmental impact. Although the quantitative knowledge of TCE amounts in endof-life PCB plays a key role, there are neither matrix certified reference materials nor harmonized analytical methods available to establish the traceability of the results to the International System of Units. To fill these gaps, we developed and applied five reference analytical methods based on ICP-MS standard addition calibrations and INAA k 0 -and relative calibrations suitable to certify reference materials. In addition, we developed and tested six analytical methods based on more commonly used ICP-MS external standard calibrations to provide industry with routine analysis methods. Twenty TCE (Ag, Au, Co, Cu, Dy, Ga, Gd, Ge, In, La, Li, Nd, Ni, Pd, Pr, Pt, Rh, Sm, Ta and Ti) were selected as target analytes and a batch of powdered PCB was used as measurement material. An overall mutual agreement was observed among data collected by reference methods at a few percent relative uncertainty levels. Moreover, all but one of the methods developed for routine analysis demonstrated their suitability in industrial applications by producing data within ± 20% of the values established with reference methods.
The recovery and reprocessing of technology-critical elements (TCE) present in printed circuit boards (PCB) from electrical and electronic waste is essential both for recycling valuable materials subject to supply risk and for reducing the environmental impact. Although the quantitative knowledge of TCE amounts in end-of-life PCB plays a key role, there are neither matrix certified reference materials nor harmonized analytical methods available to establish the traceability of the results to the International System of Units. To fill these gaps, we developed and applied five reference analytical methods based on ICP-MS standard addition calibrations and INAA k 0 - and relative calibrations suitable to certify reference materials. In addition, we developed and tested six analytical methods based on more commonly used ICP-MS external standard calibrations to provide industry with routine analysis methods. Twenty TCE (Ag, Au, Co, Cu, Dy, Ga, Gd, Ge, In, La, Li, Nd, Ni, Pd, Pr, Pt, Rh, Sm, Ta and Ti) were selected as target analytes and a batch of powdered PCB was used as measurement material. An overall mutual agreement was observed among data collected by reference methods at a few percent relative uncertainty levels. Moreover, all but one of the methods developed for routine analysis demonstrated their suitability in industrial applications by producing data within ± 20% of the values established with reference methods.
Author Walch, Anna
Irrgeher, Johanna
Rienitz, Olaf
Ghestem, Jean-Philippe
Lafaurie, Nicolas
Ja imovi, Radojko
Röthke, Anita
Vogl, Jochen
Pramann, Axel
Sara-Aho, Timo
Kutan, Derya
Michaliszyn, Lena
Klein, Ole
Cankur, Oktay
Oelze, Marcus
Oster, Caroline
Di Luzio, Marco
Noireaux, Johanna
D'Agostino, Giancarlo
Lancaster, Shaun T
Pröfrock, Daniel
Bergamaschi, Luigi
AuthorAffiliation Department Environment and Climate change
Division Chemistry-Biology
Finnish Environment Institute (Syke)
National Metrology Institute of Turkey (TUBITAK)
Gebze Technical University
Bundesanstalt für Materialforschung und -prüfung (BAM)
University of Pavia
Unit of Radiochemistry and Spectroscopy c/o Department of Chemistry
Department of Physics
Department of Environmental Sciences
Laboratoire Nationale des Essais et de la métrologie (LNE)
Chair of General and Analytical Chemistry
Bureau de Recherches Géologiques et Minières (BRGM)
Inorganic Chemistry Laboratory
Water, Environment, Processes and Analysis Department
Istituto Nazionale di Ricerca Metrologica (INRIM)
Metrology
Helmholtz-Zentrum Hereon (Hereon)
Montanuniversität Leoben (MUL)
Inorganic Trace Analysis
Physikalisch-Technische Bundesanstalt (PTB)
Jo ef Stefan Institute (JSI)
Research Infrastructure
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Snippet The recovery and reprocessing of technology-critical elements (TCE) present in printed circuit boards (PCB) from electrical and electronic waste is essential...
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SubjectTerms Calibration
Circuit boards
Copper
Data analysis
Earth Sciences
End of life
Gadolinium
Gold
Industrial applications
Industrial development
International System of Units
Materials traceability
Palladium
Printed circuits
Reference materials
Reprocessing
Sciences of the Universe
Tantalum
Technology assessment
Uncertainty analysis
Title Development and application of reference and routine analytical methods providing SI-traceable results for the determination of technology-critical elements in PCB from WEEE
URI https://www.proquest.com/docview/3122480417
https://brgm.hal.science/hal-04717146
Volume 39
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