Gå til innhold
  • Send

  • Kategori

  • Sorter etter

  • Antall per side

Fant 10014 publikasjoner. Viser side 368 av 401:

Publikasjon  
År  
Kategori

Analysis of European local-scale PM10 air pollution episodes, with example cases in Oslo, Helsinki, London and Milan.

Kukkonen, J.; Sokhi, R.S.; Pohjola, M.; Fragkou, L.; Kitwiroon, N.; Luhana, L.; Rantamäki, M.; Berge, E.; Odegaard, V.; Slørdal, L.H.; Denby, B.; Finardi, S.

2004

Analysis of Chinese emissions trends of major halocarbons in monitoring the impacts of the Montreal Protocol. NILU F

Li, S.; Park, S.; Park, M.; Kim, J.; Muhle, J.; Fang, X.; Stohl, A.; Weiss, R.F.; Kim, K.

2013

Analysis of brominated flame retardants in liver samples of lynx from the Norwegian biota. NILU PP

Mariussen, E.; Kålås, J.A.; Borgen, A.; Nygaard, T.; Schlabach, M.

2004

Analysis of Arctic cloud thermodynamic phase susceptibility to aerosols. NILU F

Coopman, Q.; Garrett, T.; Riedi, J.; Eckhardt, S.; Stohl, A.

2014

Analysis of air pollution episodes in European cities. EUR 20451

Sokhi, R.S.; Luhana, L.; Kukkonen, J.; Berge, E.; Slørdal, L.H.; Finardi, S.

2002

Analysis for BrO in zenith-sky spectra: An intercomparison exercise for analysis improvement.

Aliwell, S.R.; Van Roozendael, M.; Johnston, P.V.; Richter, A.; Wagner, T.; Arlander, D.W.; Burrows, J.P.; Fish, D.J.; Jones, R.L.; Tørnkvist, K.K.; Lambert, J.C.; Pfeilsticker, K.; Pundt, I.

2002

Analysis and review of air quality standards: Deliverable report 2.4. NILU OR

Liu, L.; Slørdal, L.H.; Bøhler, T.

This report provides an overview of international and national air quality standards and guidelines from different environmental agencies, such as the European Union (EU), US Environmental Protection Agency (EPA), World Health Organization (WHO), United Arab Emirates (UAE) and some other selected countries.

2011

Analysis and evaluation of selected local-scale PM10 air pollution episodes in four European cities: Helsinki, London, Milan and Oslo.

Kukkonen, J.; Pohjola, M.; Sokhi, R.S.; Luhana, L.; Kitwiroon, N.; Fragkou, L.; Rantamäki, M.; Berge, E.; Ødegaard, V.; Slørdal, L.H.; Denby, B.; Finardo, S.

2005

Analysis and evaluation of genotoxicity and carcinogenicity assessment across legislation towards the regulatory implementation of NAMs

Bossa, Cecilia; Alivernini, Silvia; Andreoli, Cristina; Aquilina, Gabriele; Attias, Leonello; Marcon, Francesca; Russo, Maria Teresa; Dusinska, Maria; Yamani, Naouale El; Rundén-Pran, Elise; Louro, Henriqueta; Silva, Maria João; Benfenati, Emilio; Raitano, Giuseppa; Battistelli, Chiara Laura

2024

Analysis and evaluation of European air pollution episodes.

Kukkonen, J.; Sokhi, R.; Slørdal, L.H.; Finardi, S.; Fay, B.; Millán, M.; Salvador, R.; Palau, J.L.; Rasmussen, A.; Schayes, G.; Berge, E.

2005

Analyses of selected organic contaminants and metals in drinking bottles. Technical report.

Rostkowski, Pawel Marian; Uggerud, Hilde Thelle; Harju, Mikael; Nikiforov, Vladimir; Borgen, Anders; Kringstad, Alfhild; Bjørklund, Morten; Thomassen, Silje Eltvik; Vadset, Marit; Ghebremeskel, Mebrat; Eikenes, Heidi; Reid, Malcolm James

On behalf of Norwegian Consumer Council NILU has conducted analyses of organic contaminants and metals in the leachate from selected drinking bottles. The simulation of the leakage is conducted based on a compilation of the methods described within NS-EN-1186-9 and NS-EN-13130-1. The instrumental analytical methods used were already established at NILU and NIVA. A number of different organic contaminants and metals have been found in trace amounts in the different products.

NILU

2018

Analyses of selected organic contaminants and metals in coffee cups. Technical report.

Rostkowski, Pawel; Uggerud, Hilde Thelle; Harju, Mikael; Nikiforov, Vladimir; Borgen, Anders; Kringstad, Alfhild; Bjørklund, Morten; Thomassen, Silje Eltvik; Vadset, Marit; Ghebremeskel, Mebrat; Eikenes, Heidi; Reid, Malcolm James

On behalf of Norwegian Consumer Council, NILU has conducted analyses of organic contaminants and metals in the leachate from selected coffee-cups. The simulation of the leakage is conducted based on a compilation of the methods described within NS-EN-1186-9 and NS-EN-13130-1. The instrumental analytical methods used were already established at NILU and NIVA. A number of different organic contaminants and metals have been found in trace amounts in the different products.

NILU

2018

Analyse av Selective Serotonine Reuptake Inhibitors i avløpsvann fra renseanlegg i Tromsø. NILU PP

Vasskog, T.; Berger, U.; Samuelsen, P.-J.; Jensen, E.

2005

Analyse av sedimenter: Kildesporing av brommerte flammehemmere i Ålesundområdet. NIVA-rapport, 5674-2008

Berge, J.A.; Borgå, K.; Enge, E.K.

2008

Analyse av bromerte flammehemmere, PCB og pesticider inkludert toksafen i polarmåke (Larus hyperboreus) fra Bjørnøya. Statlig program for foururensingsovervåking. Rapport 813/01. TA-1781/2001

Burkow, I.; Herzke, D.; Wolkers, H.; Gabrielsen, G.W.

2001

An update on low-cost sensors for the measurement of atmospheric composition

Peltier, Richard E.; Castell, Nuria; Clements, Andrea L.; Dye, Tim; Hüglin, Christoph; Kroll, Jesse H.; Lung, Shih-Chun Candice; Ning, Zhi; Parsons, Matthew; Penza, Michèle; Reisen, Fabienne; Scheidemesser, Erika von; Arfire, Adrian; Boso, Àlex; Fu, Qingyan; Hagan, David; Henshaw, Geoff; Jayaratne, Rohan; Jones, Roderic; Kelly, Kerry; Kilaru, Vasu; Mead, Iq; Morawska, Lidia; Papale, Dario; Polidori, Andrea; Querol, Xavier; Seddon, Jessica; Schneider, Philipp; Tarasova, Oksana; Yu, Alfred LC; Zellweger, Christoph

The report reflects on the state of the art in terms of accuracy, reliability and reproducibility of different sensors used for the measurements of reactive and greenhouse gases, and aerosols, along with the key analytical principles and what has been learned so far about low-cost sensors from both laboratory studies and real-world tests (up to August 2020). In some cases, scientific literature that had been accepted, but not yet published in a final form, was included in this review. Some national and international government documents were also included in this synthesis. The report includes eight distinct sections, including an Introduction to the Report, Main Principles and Components, Evaluation Activities, Sensor Performance, Communicating LCS to Society, and Expert Consensus and Advice. Communicating LCS to Society is a new section to the original 2018 report and includes a consensus viewpoint on strategies for communicating LCS data and technologies more broadly to the lay public. This report also includes a set of specific expert consensus recommendations for LCS users across different user groups.

WMO

2021

An Unprecedented Arctic Ozone Depletion Event During Spring 2020 and Its Impacts Across Europe

Petkov, Boyan H.; Vitale, Vito; Carlo, Piero Di; Drofa, Oxana; Mastrangelo, Daniele; Smedley, Andrew R.D.; Diemoz, Henri; Siani, Anna-Maria; Fountoulakis, Ilias; Webb, Ann R; Bais, Alkiviadis; Kift, Richard; Rimmer, John; Hansen, Georg Heinrich; Svendby, Tove Marit; Pazmino, Andrea; Werner, Rolf; Atanassov, Atanas M.; Láska, Kamil; Backer, Hugo De; Mangold, Alexander; Köhler, Ulf; Velazco, Voltaire A.; Stübi, René; Solomatnikova, Anna; Pavlova, Kseniya; Sobolewski, Piotr S.; Johnsen, Bjørn; Goutail, Florence; Misaga, Oliver; Aruffo, Eleonora; Metelka, Ladislav; Tóth, Zoltán; Fekete, Dénes; Aculinin, Alexandr A.; Lupi, Angelo; Mazzola, Mauro; Zardi, Federico

The response of the ozone column across Europe to the extreme 2020 Arctic ozone depletion was examined by analyzing ground-based observations at 38 European stations. The ozone decrease at the northernmost site, Ny-Ålesund (79°N) was about 43% with respect to a climatology of more than 30 years. The magnitude of the decrease declined by about 0.7% deg−1 moving south to reach nearly 15% at 40°N. In addition, it was found that the variations of the ozone column at each of the selected stations in March-May were similar to those observed at Ny-Ålesund but with a delay increasing to about 20 days at mid-latitudes with a gradient of approximately 0.5 days deg−1. The distributions of reconstructed ozone column anomalies over a sector covering a large European area show decreasing ozone that started from the north at the beginning of April 2020 and spread south. Such behavior was shown to be similar to that observed after the Arctic ozone depletion in 2011. Stratospheric dynamical patterns in March–May 2011 and during 2020 suggested that the migration of ozone-poor air masses from polar areas to the south after the vortex breakup caused the observed ozone responses. A brief survey of the ozone mass mixing ratios at three stratospheric levels showed the exceptional strength of the 2020 episode. Despite the stronger and longer-lasting Arctic ozone loss in 2020, the analysis in this work indicates a similar ozone response at latitudes below 50°N to both 2011 and 2020 phenomena.

2023

Publikasjon
År
Kategori