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Fant 10000 publikasjoner. Viser side 304 av 400:

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Development of an AOP-based IATA for genotoxicity

Demuynck, E.; Vanhaecke, T.; Thienpont, A.; Rogiers, V.; Winkelman, L. M. T.; Beltman, Joost B.; Reus, A.; Marcon, F.; Bossa, C.; Peijnenburg, A.; Machera, K.; Nikolopoulou, D.; Hatzi, V.; Paparella, M.; Kohl, Y.; Narui, Shan; Mollerup, Steen Kristen; Dusinska, Maria; Runden-Pran, E.; Yamani, Naouale El; Longhin, Eleonora Marta; Svendsen, Camilla; Gutleb, Arno; Pennings, J.; Luijten, Mirjam; Adam-Guillermin, Christelle; Laurent, O.; Armant, O.; Pachoulide, C.; Bouwmeester, Hans; Raitano, G.; Benfenati, Emilio; Wyrzykowska, E.; Stepnik, M.; Puzyn, T.; Audebert, Marc; Mertens, Birgit

2023

Development of an Adverse Outcome Pathway for Chronic and Multi-Generational Impacts of Nanomaterials in the Environmental Indicator Species Daphnia Magna

Lynch, Iseult; Reilly, Katie; Cimpan, Mihaela Roxana; Drønen, Anne-Marthe; Rios-Mondragon, Ivan; Cambier, Sébastien; Gutleb, Arno; Serchi, Tommaso; Dusinska, Maria; Rundén-Pran, Elise; Mariussen, Espen; Longhin, Eleonora Marta; Murugadoss, Sivakumar; Hoet, Peter; Willihagen, Egon; Martens, Marvin; Afantitis, Antreas; Melargakis, Georgia; Vrcek, Ivana Vincovik

2020

Development of an active air sampling method for the determination of chlorinated paraffins

Cioni, L.; Borgen, Anders; Cincinelli, A.; Warner, Nicholas Alexander

2019

Development of a supramolecular solvent–based extraction method for application to quantitative analyses of a wide range of organic contaminants in indoor dust

Marcinekova, Paula; Melymuk, Lisa; Bohlin-Nizzetto, Pernilla; Martinelli, Erika; Jilkova, Simona Rozárka; Martiník, Jakub; Senk, Petr; Kukučka, Petr; Audyc, Ondřej; Kohoutek, Jiří; Ghebremeskel, Mebrat; Håland, Alexander; Borgen, Anders; Eikenes, Heidi; Hanssen, Linda; Harju, Mikael; Cebula, Zofia; Rostkowski, Pawel

This study investigates the efficacy of supramolecular solvent (SUPRAS) in extracting a diverse spectrum of organic contaminants from indoor dust. Initially, seven distinct SUPRAS were assessed across nine categories of contaminants to identify the most effective one. A SUPRAS comprising Milli-Q water, tetrahydrofuran, and hexanol in a 70:20:10 ratio, respectively, demonstrated the best extraction performance and was employed for testing a wider array of organic contaminants. Furthermore, we applied the selected SUPRAS for the extraction of organic compounds from the NIST Standard Reference Material (SRM) 2585. In parallel, we performed the extraction of NIST SRM 2585 with conventional extraction methods using hexane:acetone (1:1) for non-polar contaminants and methanol (100%) extraction for polar contaminants. Analysis from two independent laboratories (in Norway and the Czech Republic) demonstrated the viability of SUPRAS for the simultaneous extraction of twelve groups of organic contaminants with a broad range of physico-chemical properties including plastic additives, pesticides, and combustion by-products. However, caution is advised when employing SUPRAS for highly polar contaminants like current-use pesticides or volatile substances like naphthalene.

2024

Development of a simplified photochemistry scheme for urban areas. NILU PP

Solberg, S.; Walker, S.-E.; Denby, B.

2005

Development of a Novel Framework for the Assessment and Improvement of Climate Adaptation and Mitigation Actions in Europe

Aalmo, Giovanna Ottaviani; Gioli, Beniamino; Rodriguez, Divina Gracia P.; Tuomasjukka, Diana; Liu, Hai-Ying; Pastore, Maria Chiara; Salbitano, Fabio; Bogetoft, Peter; Sæbø, Arne; Konijnendijk, Cecil

The greenhouse gases (GHG) emissions in the European Union (EU) are mainly caused by human activity from five sectors—power, industry, transport, buildings, and agriculture. To tackle all these challenges, the EU actions and policies have been encouraging initiatives focusing on a holistic approach but these initiatives are not enough coordinated and connected to reach the much needed impact. To strengthen the important role of regions in climate actions, and stimulate wide stakeholders’ engagement including citizens, a conceptual framework for enabling rapid and far-reaching climate actions through multi-sectoral regional adaptation pathways is hereby developed. The target audience for this framework is composed by regional policy makers, developers and fellow scientists. The scale of the framework emphasizes the regional function as an important meeting point and delivery arena for European and national climate strategies and objectives both at urban and rural level. The framework is based on transformative and no-regret measures, prioritizing the Key Community Systems (KCS) that most urgently need to be protected from climate impacts and risks.

2022

Development of a Novel Framework for the Assessment and Improvement of Climate Adaptation and Mitigation Actions in Europe

Sæbø, Arne; Rodriguez, Divina Gracia P.; Gioli, Beniamino; Tuomasjukka, Diana; Liu, Hai Ying; Pastore, Maria Chiara; Fabio, Salbitano; Bogetoft, Peter; Konijnendijk van den Bosch, Cecil

Frontiers Media S.A.

2022

Development of a nested WRF/EMEP modelling system at NILU. EMEP status report 1/2012

Solberg, S.; Svendby, T.

2012

Development of a modeling system able to link hemispheric-regional and local air pollution.

Wind, P.; Tarrasón, L.; Berge, E.; Slørdal, L.H.; Solberg, S.; Walker, S.E.

2002

Development of a compact PTR-ToF-MS for suborbital research on the earth's atmospheric composition. NILU F

Wisthaler, A.; Crawford, J.H.; Haidacher, S.; Hanel, G.; Hartungen, E.; Jordan, A.; Märk, L.; Mikoviny, T.; Müller, M.; Mutschlechner, P.; Schottkowsky, R.; Sulzer, P.

2013

Development of a compact PTR-ToF-MS for suborbital research on the earth's atmospheric composition.

Wisthaler, A.; Crawford, J.H.; Haidacher, S.; Hanel, G.; Hartungen, E.; Jordan, A.; Märk, L.; Mikoviny, T.; Müller, M.; Mutschlechner, P.; Schottkowsky, R.; Sulzer, P.

2013

Development and current S2D prediction skill of the Norwegian Climate Prediction Model

Wang, Yiguo; Counillon, Francois; Keenlyside, Noel; kimmritz, Madlen; Bethke, Ingo; Langehaug, Helene R.; Li, Fei

2018

Development and application of data assimilation in regional scale atmospheric chemistry models. NILU OR

Denby, B.; Kahnert, M.; Brandt, J.; Frydendall, J.; Zlatev, Z.

2007

Developing human biomonitoring as a 21st century toolbox within the European exposure science strategy 2020–2030

Jeddi, Maryam Zare; Hopf, Nancy B.; Louro, Henriqueta; Viegas, Susana; Galea, Karen S.; Pasanen-Kase, Robert; Santonen, Tiina; Mustieles, Vicente; Fernandez, Mariana F.; Verhagen, Hans; Bopp, Stephanie K.; Antignac, Jean Philippe; David, Arthur; Mol, Hans; Barouki, Robert; Audouze, Karine; Duca, Radu-Corneliu; Fantke, Peter; Scheepers, Paul; Ghosh, Manosij; Nieuwenhuyse, An Van; Vicente, Joana Lobo; Trier, Xenia; Rambaud, Loïc; Fillol, Clémence; Denys, Sebastien; Conrad, André; Kolossa-Gehring, Marike; Paini, Alicia; Arnot, Jon; Schulze, Florian; Jones, Kate; Sepai, Ovnair; Ali, Imran; Brennan, Lorraine; Benfenati, Emilio; Cubadda, Francesco; Mantovani, Alberto; Bartonova, Alena; Connolly, Alison; Slobodnik, Jaroslav; Bruin, Yuri Bruinen de; Klaveren, Jacob van; Palmen, Nicole; Dirven, Hubert; Husøy, Trine; Thomsen, Cathrine; Virgolino, Ana; Röösli, Martin; Gant, Tim; Goetz, Natalie von; Bessems, Jos

Human biomonitoring (HBM) is a crucial approach for exposure assessment, as emphasised in the European Commission’s Chemicals Strategy for Sustainability (CSS). HBM can help to improve chemical policies in five major key areas: (1) assessing internal and aggregate exposure in different target populations; 2) assessing exposure to chemicals across life stages; (3) assessing combined exposure to multiple chemicals (mixtures); (4) bridging regulatory silos on aggregate exposure; and (5) enhancing the effectiveness of risk management measures.

In this strategy paper we propose a vision and a strategy for the use of HBM in chemical regulations and public health policy in Europe and beyond. We outline six strategic objectives and a roadmap to further strengthen HBM approaches and increase their implementation in the regulatory risk assessment of chemicals to enhance our understanding of exposure and health impacts, enabling timely and targeted policy interventions and risk management. These strategic objectives are: 1) further development of sampling strategies and sample preparation; 2) further development of chemical-analytical HBM methods; 3) improving harmonisation throughout the HBM research life cycle; 4) further development of quality control / quality assurance throughout the HBM research life cycle; 5) obtain sustained funding and reinforcement by legislation; and 6) extend target-specific communication with scientists, policymakers, citizens and other stakeholders.

HBM approaches are essential in risk assessment to address scientific, regulatory and societal challenges. HBM requires full and strong support from the scientific and regulatory domain to reach its full potential in public and occupational health assessment and in regulatory decision-making.

2022

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