Publications

Adding value to the Global Observing System: Making sense of high-resolution air quality observations using data assimilation techniques.

Lahoz, W.A.; Schneider, P.; Castell, N.; Bartonova, A.

Nitric oxide produced by energetic electron precipitation during a geomagnetic storm in April 2010.

Smith-Johnsen, C.; Tyssøy, H.N.; Ødegaard, L.-C. G.; Stordal, F.; Orsolini, Y.; Hendricks, K.; Megner, L.

Extending the long-term record of volcanic SO2 emissions with the Ozone Mapping and Profiler Suite nadir mapper.

Carn, S. A.; Yang, K.; Prata, A. J.; Krotkov, N. A.

The IAGOS-CORE aerosol package: instrument design, operation and performance for continuous measurement aboard in-service aircraft.

Bundke, U.; Berg, M.; Houben, N.; Ibrahim, A.; Fiebig, M.; Tettich, F.; Klaus, C.; Franke, H.; Petzold, A.

Environmental pollutants in the terrestrial and urban environment 2014. NILU OR

Herzke, D.; Nygård, T.; Heimstad, E.S.; Uggerud, H.

On an assignment from the Norwegian Environmental Agency, the Norwegian Institute for Air Research (NILU) in collaboration with the Norwegian Institute for Nature Research (NINA) collected and analysed biological samples from terrestrial and urban regions for various inorganic and organic contaminants. The purpose of this report is to provide an updated assessment of pollution present within an urban environment in Norway, compared with that of more rural sites. The selected species were sparrowhawk and fieldfare (eggs), red fox (liver) and earthworms. Of all the organisms and tissues measured in the study, sparrowhawk eggs had the highest average concentration of the sum of all organic pollutants measured, followed by fieldfare, earthworm and red fox on a wet weight basis. Higher concentrations in the urban site, Oslo, compared to the rural site were observed for sparrowhawk and earthworms.

Norwegian monitoring program in the Russian-Norwegian border areas.

Berglen, T.F.

Land use regression for particulate matter mapping: data collection techniques, choice of predictor variables and possibilities for validation and improvement of maps.

Davidovic, M.; Topalovic, D.; Jovasevic-Stojanovic, M.; Bartonova, A.; Schneider, P.

Non-target screening - drømmen om å se alt.

Rostkowski, P.; Schlabach, M.

Perfluoroalkyl substance concentrations in a terrestrial raptor: Relationships to environmental conditions and individual traits.

Bustnes, J.O.; Bangjord, G.; Ahrens, L.; Herzke, D.; Yoccoz, N.G.

Computer modelling identifies new environmental contaminants.

Solbakken, C.F.

Using self-organising maps to explore ozone profile validation results - SCIAMACHY limb compared to ground-based lidar observations.

van Gijsel, J.A.E.; Zurita-Milla, R.; Stammes, P.; Godin-Beekmann, S.; Leblanc, T.; Marchand, M.; McDermid, I.S.; Stebel, K.; Steinbrecht, W.; Swart, D.P.J.

Concept of air quality e-reporting - experiences of Norway. Guiding document for GIOS. NILU OR

Ødegård, R.; Obracaj, A.; Stoll, C.

NILU and GIO¿, Poland, are implementing the project ¿Strengthening the air quality assessment system in Poland, based on Norwegian experience¿ as part of the programme ¿Improving Environmental Monitoring and Inspection¿ within the framework of the European Economic Area 2009¿2014.
The European Environment Agency (EEA) has moved towards a new reporting mechanism for reporting and sharing air quality data and information, called e-reporting. This mechanism is based on the Implementing Decision and a shared information system for electronic reporting ¿ aligned with the INSPIRE directive and considering inputs and outputs from the GMES Atmospheric Services.
This report is a technical report that are to be used as a guide by GIOS as input to the Polish implementation of the e-reporting obligations. The report is based on the Norwegian implementation. The report describes how Norway has implemented the new e-reporting schemas, illustrated through data flow figures and XML examples.

WP10 - ACTRIS Data Centre

Myhre, C.L.; Mona, L.; O'Connor, E.J.; Descloitres, J.