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Found 10000 publications. Showing page 63 of 400:

Publication  
Year  
Category

Street Emission Ceiling exercise - Phase 1 report. ETC/ACC Technical Paper, 2003/11

Moussiopoulos, N.; Kalognomou, E.-A.; Samaras, Z.; Mellios, G.; Larssen, S.E.; Gjerstad, K.I.; de Leeuw, F.A.A.M.; van den Hout, K.D.; Teeuwisse, S.

2004

Street Emission Ceiling (SEC) exercise. Phase 3 report on station pair data analysis, comparison with emissions estimates, street typology and guidance on how to use it. ETC/ACC Technical paper, 2006/7

Larssen, S.; Mellios, G.; van den Hout, D.; Kalognomou, E.A.; Moussiopoulos, N.

2007

Streamlining Quantification and Data Harmonization of Polychlorinated Alkanes Using a Platform-Independent Workflow

Ezker, Idoia Beloki; Yuan, Bo; Borgen, Anders Røsrud; Liu, Jiyan; Wang, Yawei; Wang, Thanh

Reliable quantification of polychlorinated alkanes (PCAs) remains a major challenge, hindering environmental research across diverse matrices. Each sample can contain over 500 homologue groups, collectively producing >1000 m/z ratios that require interference checks. High-resolution mass spectrometry methods vary in ionization signals and data formats and require specialized algorithms for quantification. CPxplorer streamlines data processing through the integration of three modules: (1) CPions generates target ion sets and isotopic thresholds for compound identification into the next module; (2) Skyline performs instrument-independent data integration, interference evaluation, and homologue profiling; and (3) CPquant deconvolves homologues and reports concentrations using reference standards and homologue profiles from Skyline. Evaluation of the workflow with NIST-SRM-2585 dust and ERM-CE100 fish tissue material yielded comparable results across raw data formats from different instruments. Further applications of CPxplorer across diverse matrices, including indoor dust, organic films, silicone wrist bands, and food samples, demonstrated the usefulness in biological and environmental monitoring. Compared to existing tools limited to qualitative detection, CPxplorer enables quantitative outputs, reduces processing time, and expands functionality to PCA-like substances (e.g., BCAs) and PCA degradation products (e.g., OH-PCAs). CPxplorer reduces learning barriers, empowers users to quantify PCAs across various analytical instruments, and contributes to generating comparable results in the field.

2025

Stratospheric ozone during the arctic winter: Brewer measurements in Ny-Ålesund.

Rafanelli, C.; De Simone, S.; Damiani, A.; Myhre, C.L.; Edvardsen, K.; Svenoe, T.; Benedetti, E.

2009

Stratospheric ozone distribution and its influence on the atmospheric circulation.

Tartaglione, N.; Toniazzo, T.; Otterå, H.; Orsolini, Y.

2017

Stratospheric ozone and the link to climate change. EUR 19867

Austin, J.; Langematz, U. Contributing authors: Dameris, M.; Pawson, S.; Pitari, G.; Shine, K.P.; Stordal, F.

2001

Stratospheric injection of biomass fire smoke followed by long-range transport: MOZAIC case studies.

Cammas, J.; Brioude, J.; Chaboureau, J.; Duron, J.; Mari, C.; Mascart, P.; Nedelec, P.; Smit, H.; Volz-Thomas, A.; Stohl, A.; Fromm, M.

2005

Stratospheric effects of energetic particle precipitation in 2003-2004.

Randall, C.E.; Harvey, V.L.; Manney, G.L.; Orsolini, Y.; Codrescu, M.; Sioris, C.; Brohede, S.; Haley, C.S.; Gordley, L.L.; Zawodny, J.M.; Russell, J.M.

2005

Stratospheric aerosol data records for the climate change initiative: Development, validation and application to chemistry-climate modelling.

Bingen, C.; Robert, C. E.; Stebel, K.; Brühl, C.; Schallock, J.; Vanhellemont, F.; Mateshvili, N.; Höpfner, M.; Trickl, T.; Barnes, J. E.; Jumelet, J.; Vernier, J.-P.; Popp, T.; de Leeuw, G.; Pinnock, S.

2017

Stratosphere-troposphere ozone exchange from high resolution MLS ozone analyses.

Barré, J.; Peuch, V.-H.; Attié, J.-L.; El Amraoui, L.; Lahoz, W. A.; Josse, B.; Claeyman, M.; Nédélec, P.

2012

Stratosphere-Mesosphere coupling during major stratospheric sudden warming. NILU F

Orsolini, Y.; Tweedy, O.; Limpasuvan, V.; Smith, A.; Kvissel, O.-K.

2012

Stratopausen i Arktis sett med nye øyne.

Orsolini, Y.; Kvissel, O.-K.; Stordal, F.; Isaksen, I.

2011

Strategisk utnyttelse av IKT. NILU F

Endregard, G.

2003

Strategies for grouping per-and polyfluoroalkyl substances

Cousins, Ian T.; Glüge, Juliane; Goldenman, G.; Herzke, Dorte; Lohmann, R.; Miller, M.; Ng, C. A.; Scheringer, M.; Trier, X.; Wang, Z.; DeWitt, J. C.

2020

Strategies for grouping per- and polyfluoroalkyl substances (PFAS) to protect human and environmental health

Cousins, Ian T.; DeWitt, Jamie C.; Glüge, Juliane; Goldenman, Gretta; Herzke, Dorte; Lohmann, Rainer; Miller, Mark; Ng, Carla A.; Scheringer, Martin; Vierke, Lena; Wang, Zhanyun

Grouping strategies are needed for per- and polyfluoroalkyl substances (PFAS), in part, because it would be time and resource intensive to test and evaluate the more than 4700 PFAS on the global market on a chemical-by-chemical basis. In this paper we review various grouping strategies that could be used to inform actions on these chemicals and outline the motivations, advantages and disadvantages for each. Grouping strategies are subdivided into (1) those based on the intrinsic properties of the PFAS (e.g. persistence, bioaccumulation potential, toxicity, mobility, molecular size) and (2) those that inform risk assessment through estimation of cumulative exposure and/or effects. The most precautionary grouping approach of those reviewed within this article suggests phasing out PFAS based on their high persistence alone (the so-called “P-sufficient” approach). The least precautionary grouping approach reviewed advocates only grouping PFAS for risk assessment that have the same toxicological effects, modes and mechanisms of action, and elimination kinetics, which would need to be well documented across different PFAS. It is recognised that, given jurisdictional differences in chemical assessment philosophies and methodologies, no one strategy will be generally acceptable. The guiding question we apply to the reviewed grouping strategies is: grouping for what purpose? The motivation behind the grouping (e.g. determining use in products vs. setting guideline levels for contaminated environments) may lead to different grouping decisions. This assessment provides the necessary context for grouping strategies such that they can be adopted as they are, or built on further, to protect human and environmental health from potential PFAS-related effects.

2020

Støvnedfall Miljøbriketter AS. Måling av nedfallsstøv og mangan

Berglen, Tore Flatlandsmo; Opøien, Geir; Andresen, Erik; Vadset, Marit

NILU har gjort målinger av nedfallsstøv rundt Miljøbriketter AS sitt anlegg i Skien. Det ble gjort prøvetaking ved 8 målepunkter i to perioder. Prøvene ble analysert for mengde nedfallsstøv og mangan. Bidraget fra Miljøbriketter til total mengde nedfallsstøv er lite.

NILU

2025

Støvmålinger Skjerkøya. Målinger av nedfallsstøv ved Ragn-Sells Dekkgjenvinning, Bamble.

Berglen, Tore Flatlandsmo; Andresen, Erik; Kihle, Jan; Opøien, Geir

NILU

2020

Støver ned

Solbakken, Christine Forsetlund (interview subject); Rapp, Ole Magnus (journalist)

2020

Støv på hjernen - hvor kommer støvet fra/er det farlig?

Nipen, Maja (interview subject); Cederström, Madeleine (journalist)

2024

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