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FOREWORD

Foreword to the Special Issue on ‘Technology Critical Elements’

Montserrat Filella A D , Ishai Dror B and Dario Omanović C
+ Author Affiliations
- Author Affiliations

A Department F.-A. Forel, University of Geneva, Boulevard Carl-Vogt 66, CH-1205 Geneva, Switzerland.

B Department of Earth and Planetary Sciences, Weizmann Institute of Science, Rehovot 7610001, Israel.

C Ruđer Bošković Institute, Division for Marine and Environmental Research, Bijenička cesta 54, 10000 Zagreb, Croatia.

D Corresponding author. Email: Montserrat.Filella@unige.ch

Environmental Chemistry 17(2) 75-76 https://doi.org/10.1071/ENv17n2_FO
Published: 13 March 2020


References

Abdou M, Schäfer J, Gil-Díaz T, Tercier-Waeber M-L, Catrouillet C, Massa F, Castellano M, Magi E, Povero P, Blanc G (2020). Spatial variability and sources of platinum in a contaminated harbor – tracing coastal urban inputs. Environmental Chemistry 17, 105–117.
Spatial variability and sources of platinum in a contaminated harbor – tracing coastal urban inputsCrossref | GoogleScholarGoogle Scholar |

Biver M, Filella M (2020). A general strategy for the voltammetric trace determination of tellurium in geochemical and environmental matrices after arsenic coprecipitation and critical assessment of digestion schemes. Environmental Chemistry 17, 85–92.
A general strategy for the voltammetric trace determination of tellurium in geochemical and environmental matrices after arsenic coprecipitation and critical assessment of digestion schemesCrossref | GoogleScholarGoogle Scholar |

Canto N, Mercado L, Quiroz W (2020). Reactivity of antimony(V) and its effect on the pro-inflammatory response in the RAW 264.7 monocyte/macrophage cell line. Environmental Chemistry 17, 173–181.
Reactivity of antimony(V) and its effect on the pro-inflammatory response in the RAW 264.7 monocyte/macrophage cell lineCrossref | GoogleScholarGoogle Scholar |

Catrouillet C, Guenet H, Pierson-Wickmann A-C, Dia A, Bouhnik LeCoz M, Deville S, Lenne Q, Suko Y, Davranche M (2020). Rare earth elements as tracers of active colloidal organic matter composition. Environmental Chemistry 17, 133–139.
Rare earth elements as tracers of active colloidal organic matter compositionCrossref | GoogleScholarGoogle Scholar |

Cobelo-García A, Filella M (2017). Electroanalytical techniques for the quantification of technology-critical elements in environmental samples. Current Opinion in Electrochemistry 3, 78–90.
Electroanalytical techniques for the quantification of technology-critical elements in environmental samplesCrossref | GoogleScholarGoogle Scholar |

Cobelo-García A, Filella M, Croot P, Frazzoli C, Du Laing G, Ospina-Álvarez N, Rauch S, Salaun P, Schäfer J, Zimmermann S (2015). COST action TD1407 network on technology-critical elements (NOTICE)—from environmental processes to human health threats. Environmental Science and Pollution Research International 22, 15188–15194.
COST action TD1407 network on technology-critical elements (NOTICE)—from environmental processes to human health threatsCrossref | GoogleScholarGoogle Scholar |

Filella M, Rodríguez-Murillo JC (2017). Less-studied TCE: are their environmental concentrations increasing due to their use in new technologies?. Chemosphere 182, 605–616.
Less-studied TCE: are their environmental concentrations increasing due to their use in new technologies?Crossref | GoogleScholarGoogle Scholar |

Filella M, Rodushkin I (2018). A concise guide for the determination of less-studied technology-critical elements (Nb, Ta, Ga, In, Ge, Te) by ICP-MS in environmental samples. Spectrochimica Acta. Part B, Atomic Spectroscopy 141, 80–84.
A concise guide for the determination of less-studied technology-critical elements (Nb, Ta, Ga, In, Ge, Te) by ICP-MS in environmental samplesCrossref | GoogleScholarGoogle Scholar |

Grosjean N, Blaudez D, Chalot M, Gross EM, Le Jean M (2020). Identification of new hardy ferns that preferentially accumulate light rare earth elements: a conserved trait within fern species. Environmental Chemistry 17, 191–200.
Identification of new hardy ferns that preferentially accumulate light rare earth elements: a conserved trait within fern speciesCrossref | GoogleScholarGoogle Scholar |

Gunn G (Ed.) (2014). ‘Critical metals handbook.’ (American Geophysical Union and Wiley: Nottingham, UK)

Kouhail Y, Dror I, Berkowitz B (2020). Current knowledge on transport and reactivity of technology-critical elements (TCEs) in soil and aquifer environments. Environmental Chemistry 17, 118–132.
Current knowledge on transport and reactivity of technology-critical elements (TCEs) in soil and aquifer environmentsCrossref | GoogleScholarGoogle Scholar |

Magdas DA, Marincaş O, Cristea G, Feher I, Vedeanu N (2020). REEs – a possible tool for geographical origin assessment?. Environmental Chemistry 17, 148–157.
REEs – a possible tool for geographical origin assessment?Crossref | GoogleScholarGoogle Scholar |

Mijošek T, Filipović Marijić V, Dragun Z, Ivanković D, Krasnići N, Redžović Z, Veseli M, Gottstein S, Lajtner J, Sertić Perić M, Matoničkin Kepčija R, Erk M (2020). Thallium accumulation in different organisms from karst and lowland rivers of Croatia under wastewater impact. Environmental Chemistry 17, 201–212.
Thallium accumulation in different organisms from karst and lowland rivers of Croatia under wastewater impactCrossref | GoogleScholarGoogle Scholar |

Pađan J, Marcinek S, Cindrić A-M, Layglon N, Garnier C, Salaün P, Cobelo-García A, Omanović D (2020). Determination of sub-picomolar levels of platinum in the pristine Krka River estuary (Croatia) using improved voltammetric methodology. Environmental Chemistry 17, 77–84.
Determination of sub-picomolar levels of platinum in the pristine Krka River estuary (Croatia) using improved voltammetric methodologyCrossref | GoogleScholarGoogle Scholar |

Rahmawati A, Kuncoro KA, Ismadji S, Liu J-C (2020). Subcritical water extraction of indium from indium tin oxide scrap using organic acid solutions. Environmental Chemistry 17, 158–162.
Subcritical water extraction of indium from indium tin oxide scrap using organic acid solutionsCrossref | GoogleScholarGoogle Scholar |

Roldán N, Pizarro D, Verdugo M, Salinas-Parra N, Quiroz W, Reyes-Martinez C, Figueroa S, Quiroz C, Gonzalez AA (2020). Antimony(III) induces fibroblast-like phenotype, profibrotic factors and reactive oxygen species in mouse renal cells. Environmental Chemistry 17, 182–190.
Antimony(III) induces fibroblast-like phenotype, profibrotic factors and reactive oxygen species in mouse renal cellsCrossref | GoogleScholarGoogle Scholar |

Ruiz Cánovas C, Macías F, Olías M, Basallote MD, Pérez-López R, Ayora C, Nieto JM (2020). Release of technology critical metals during sulfide oxidation processes: the case of the Poderosa sulfide mine (south-west Spain). Environmental Chemistry 17, 93–104.
Release of technology critical metals during sulfide oxidation processes: the case of the Poderosa sulfide mine (south-west Spain)Crossref | GoogleScholarGoogle Scholar |

Tipping E, Filella M (2020). Estimation of WHAM7 constants for GaIII, InIII, SbIII and BiIII from linear free energy relationships, and speciation calculations for natural waters. Environmental Chemistry 17, 140–147.
Estimation of WHAM7 constants for GaIII, InIII, SbIII and BiIII from linear free energy relationships, and speciation calculations for natural watersCrossref | GoogleScholarGoogle Scholar |

Vedeanu N, Voica C, Magdas DA, Kiss B, Stefan M-G, Simedrea R, Georgiu C, Berce C, Vostinaru O, Boros R, Fizesan I, Rusu ME, Grozav A, Loghin F, Popa D-S (2020). Subacute co-exposure to low doses of ruthenium(III) changes the distribution, excretion and biological effects of silver ions in rats. Environmental Chemistry 17, 163–172.
Subacute co-exposure to low doses of ruthenium(III) changes the distribution, excretion and biological effects of silver ions in ratsCrossref | GoogleScholarGoogle Scholar |