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Found 9941 publications. Showing page 294 of 398:

Publication  
Year  
Category

Global and Arctic methane

Platt, Stephen Matthew; Myhre, Cathrine Lund; Ferré, Benedicte; Silyakova, Anna; Hermansen, Ove; Pisso, Ignacio; Schmidbauer, Norbert; Jansson, Pär; Stohl, Andreas; Eckhardt, Sabine; Vadakkepuliyambatta, Sunil; Fisher, Rebecca; Nisbet, Euan; Lowry, D.; Myhre, Gunnar; Mienert, Jürgen; Roekmann, Thomas

2019

Copernicus services for AQ assessment and management support, including recommendations from 2019 ETC work

Tarrasón, Leonor; Schneider, Philipp; Hamer, Paul David; Stebel, Kerstin; Rouil, Laurence; Colette, Augustin; Esteve, Jaume Fons

2019

Top-down estimates of N2O emissions over the past two decades

Thompson, Rona Louise; Lassaletta, Luis; Patra, Prabir; Wilson, C.; Wells, Kelley C.; Gressent, Alicia; Koffi, Ernest; Chipperfield, M. P; Winiwarter, Wilfried; Davidson, E. A.; Tian, H.; Canadell, P.

2019

Insights into possibilities for grouping and read-across for nanomaterials in EU chemicals legislation

Mech, A.; Rasmussen, K.; Jantunen, P.; Aicher, L.; Alessandrelli, M.; Bernauer, U.; Bleeker, E. A. J.; Bouillard, J.; Di Prospero Fanghella, P.; Draisci, R.; Dusinska, Maria; Encheva, G.; Flament, G.; Haase, A.; Handzhiyski, Y.; Herzberg, F.; Huwyler, J.; Jacobsen, N.R.; Jeliazkov, V.; Jeliazkova, N.; Nymark, P.; Grafström, R.; Oomen, A. G.; Polci, M. L.; Riebeling, C.; Sandström, J.; Shivachev, B.; Stateva, S.; Tanasescu, S.; Tsekovska, R.; Wallin, Håkan; Wilks, M. F.; Zellmer, S.; Apostolova, M. D.

This paper presents a comprehensive review of European Union (EU) legislation addressing the safety of chemical substances, and possibilities within each piece of legislation for applying grouping and read-across approaches for the assessment of nanomaterials (NMs). Hence, this
review considers both the overarching regulation of chemical substances under REACH (Regulation (EC) No 1907/2006 on registration, evaluation, authorization, and restriction of chemicals) and CLP (Regulation (EC) No 1272/2008 on classification, labeling and packaging of substances and mixtures) and the sector-specific pieces of legislation for cosmetic, plant protection and biocidal products, and legislation addressing food, novel food, and food contact materials. The relevant supporting documents (e.g. guidance documents) regarding each piece of legislation were identified and reviewed, considering the relevant technical and scientific literature. Prospective regulatory needs for implementing grouping in the assessment of NMs were identi-
fied, and the question whether each particular piece of legislation permits the use of grouping and read-across to address information gaps was answered.

Informa Healthcare

2019

Livsfarlig røyk truer storbyen: - Lukter brent

Guerreiro, Cristina (interview subject); Andresen, Frode (journalist)

2019

Introduction to hCOMET special issue, 'Comet assay in vitro'

Dusinska, Maria; Costa, Solange; Collins, Andrew

2019

Lufta er for alle!

Grossberndt, Sonja; Castell, Nuria; Gray, Laura

2019

Zurich Statement on Future Actions on Per- and Polyfluoroalkyl Substances (PFASs)

Wang, Z.; Ritscher, A.; Scheringer, M.; Boucher, J.; Ahrens, L.; Berger, U.; Bintein, S.; Bopp, S.; Borg, D.; Buser, A.; Cousins, Ian; DeWitt, J. C.; Fletcher, T; Green, C.; Herzke, Dorte; Higgins, C. P.; Huang, J.; Hung, H.; Knepper, T. P.; Lau, C.; Leinala, E.; Lindstrom, A.; Liu, J.; Miller, M.; Ohno, K.; Perkola, N.; Shi, Y; Haug, Line Småstuen; Trier, X.; Valsecchi, S.; van der Jagt, K.; Vierke, L.

2019

Air Pollution Monitoring for Health Research and Patient Care. An Official American Thoracic Society Workshop Report

Cromar, Kevin R.; Duncan, Bryan N.; Bartonova, Alena; Benedict, Kristen; Brauer, Michael; Habre, Rima; Hagler, Gayle S. W.; Haynes, John A.; Khan, Sean; Kilaru, Vasu; Liu, Yang; Pawson, Steven; Peden, David B.; Quint, Jennifer K.; Rice, Mary B.; Sasser, Erika N.; Seto, Edmund; Stone, Susan L.; Thurston, George D.; Volckens, John

2019

Assessment of source contributions to the urban air quality for the Bristol ClairCity pilot case

Oliveira, Kevin; Rodrigues, Vera; Coelho, Silvia; Fernandes, Ana Patrícia; Rafael, Sandra; Faria, Carlos; Ferreira, Joana; Borrego, Carlos; Husby, Trond; Diafas, Iason; Sieverts Nielsen, Per; Liu, Xiufeng; Kewo, Angreine; Trozzi, Carlo; Piscitello, Enzo; Vanherle, Kris; Knudsen, Svein; Bouman, Evert; Barnes, Jo; Slingerland, Stephan; Hayes, Enda; Bolscher, Hans; Lopes, Myriam

WIT Press

2019

Health and Exposure to VOCs From Pinewood in Indoor Environments

Skulberg, Knut Ragnvald; Nyrud, Anders Q.; Goffeng, Lars Ole; Wisthaler, Armin

As a natural, biological material, wood emits various organic chemical substances, mostly volatile organic compounds (VOCs), very volatile organic compounds (VVOCs) and formaldehyde. When such emissions occur in indoor spaces, concentrations of these substances are higher than concentrations outdoors. Consequently, the level of emissions from building materials are of relevance in relation to their possible health effects. The aim of the study was to test the hypothesis that exposure to VOCs from Scots pine (Pinus sylvestris) might increase mucous membrane symptoms and/or general symptoms, compared to exposure to VOCs from Norway spruce (Picea abies). The study was carried out as a double-blinded, crossover, randomized, controlled trial. The health indicators were measured using objective and subjective methods. The VOC exposure was measured with a proton-transfer-reaction time-of-flight mass spectrometer. Thirty healthy individuals participated. The mean concentration of CO2 inside the chamber in each session varied between 420 ppm and 533 ppm. The temperature and RH varied between 21.5°C and 23.7°C and 12.0% and 24.2%. Ozone was supplied via ventilated outdoor air. The median concentration in outdoor air was 23 μg/m3 (13 ppb). The study was conducted with a statistically significant difference in the exposure to VOCs between the experimental (pine) exposure and the control (spruce) exposure. The mean concentrations of VOCs during the experimental exposure were methanol (31 ppb), acetaldehyde (8 ppb), formic acid (11 ppb), acetone/propanal (14 ppb), acetic acid (14 ppb) and monoterpenes (172 ppb). No difference in health outcome was revealed between the experimental and the control exposure. No inflammatory reactions or sensory irritation were found with exposure to 172 ppb monoterpenes and a low ozone concentration. Low relative humidity may have increased eye blinking in the participants in both exposure situations.

Frontiers Media S.A.

2019

Copernicus Sentinel-5p Operational Validation: System, Results, Synergies with Suomi-NPP, and Perspectives for the GEO+LEO Air Quality Satellite Constellation

Lambert, Jean-Christopher; Compernolle, Steven; Hubert, Daan; Keppens, Arno; Langerock, Bavo; Verhoelst, Tijl; Eichmann, Kai Uwe; Fjæraa, Ann Mari; Kleipool, Quintus; Niemeijer, Sander; Wagner, Thomas; Dehn, Angelika; Loyola, Diego G.; Veefkind, Pepijn; Zehner, Claus

2019

Correction to Negligible Impact of ingested microplastics on tissueconcentrations of persistent organic pollutants in Northern Fulmars of coastal Norway

Herzke, Dorte; Anker-Nilssen, Tycho; Nøst, Therese Haugdahl; Götsch, Arntraut; Christensen-Dalsgaard, Signe; Langset, Magdalene; Fangel, Kirstin; Koelmans, Albert A.

2019

Er det farleg å tenne stearinlys?

Halse, Anne Karine (interview subject); Farestveit, Elise; Takle, Stian Sjursen (journalists)

2019

Plastic pollution increasing at the top of the Earth

Herzke, Dorte (interview subject); Breum, Martin (journalist)

2019

Gummiknotter til besvær

Herzke, Dorte

2019

Smører du deg med god samvittighet?

Warner, Nicholas Alexander

2019

Godkjenning av instrumenter for måling av lokal luftkvalitet. Forslag til godkjenningsordning for Norge.

Hak, Claudia; Marsteen, Leif

Instrumenter som skal brukes til måling av lokal luftkvalitet i henhold til forurensningsforskriften skal være godkjente for dette formålet. Norge har per i dag ingen godkjenningsordning. Inntil videre godkjennes derfor de instrumenter som det svenske referanselaboratoriet for luft har godkjent.
Denne rapporten beskriver hvordan en godkjenningsordning kan etableres i Norge, basert på rutinen brukt i Sverige, gjennom å belyse den lovmessige forankringen og prosedyren for typegodkjenning. Oppgavene og ansvarsfordelingen mellom den ansvarlige forvaltningsmyndigheten (Miljødirektoratet) og Referanselaboratoriet er forklart.
Miljødirektoratet rapport, M-1327/2019.

NILU

2019

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