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Found 9759 publications. Showing page 231 of 391:

Publication  
Year  
Category

Modelled radiative forcing of the direct aerosol effect with multi-observation evaluation.

Myhre, G.; Berglen, T.F.; Johnsrud, M.; Hoyle, C.R.; Berntsen, T.K.; Christopher, S.A.; Fahey, D.W.; Isaksen, I.S.A.; Jones, T.A.; Kahn, R.A.; Loeb, N.; Quinn, P.; Remer, L.; Schwarz, J.P.; Yttri, K.E.

2009

Modelled sources of airborne microplastics collected at a remote Southern Hemisphere site

Aves, Alex; Ruffell, Helena; Evangeliou, Nikolaos; Gaw, Sally; Revell, Laura E.

Airborne microplastics have emerged in recent years as ubiquitous atmospheric pollutants. However, data from the Southern Hemisphere, and remote regions in particular, are sparse. Here, we report airborne microplastic deposition fluxes measured during a five-week sampling campaign at a remote site in the foothills of the Southern Alps of New Zealand. Samples were collected over 24-hour periods for the first week and for 7-day periods thereafter. On average, atmospheric microplastic (MP) deposition fluxes were six times larger during the 24-hour sampling periods (150 MP m−2 day−1) than during the 7-day sampling periods (26 MP m−2 day−1), highlighting the importance of sampling frequency and deposition collector design to limit particle resuspension. Previous studies, many of which used weekly sampling frequencies or longer, may have substantially underestimated atmospheric microplastic deposition fluxes, depending on the study design. To identify likely sources of deposited microplastics, we performed simulations with a global dispersion model coupled with an emissions inventory of airborne microplastics. Modelled deposition fluxes are in good agreement with observations, highlighting the potential for this method in tracing sources of deposited microplastics globally. Modelling indicates that sea-spray was the dominant source when microplastics underwent long-range atmospheric transport, with a small contribution from road dust.

Elsevier

2024

Modellering av vulkanaske i norsk luftfrom. Pkt. 1.3 Enkle forbedringer av utslippsestimat. NILU OR

Kristiansen, N.I.

The report describes how a transport model is used to simulate the emission of ash from volcanic eruptions and how the ash emissions can be described in the model. A number of methods for calculating ash emissions are presented and the development of improved ash emissions by manual analysis of satellite data is presented.

2013

Modellering som verktøy til å forstå utslipp, eksponering og bioakkumulering

Krogseth, Ingjerd Sunde; Nøst, Therese Haugdahl; Breivik, Knut

2019

Modelling air pollution in Hanoi. NILU OR

Sivertsen, B.; Dudek, A.

2006

Modelling air quality in Ho Chi Minh City, Vietnam. NILU F

Sivertsen, B.; Vo, D. T.

2006

Modelling and data fusion in CITI-Sense. NILU F

Schneider, P.; Lahoz, W.

2014

Modelling and mapping heavy metal and nitrogen concentrations in moss in 2010 throughout europe by applying random forests models.

Nickel, S.; Schröder, W.; Wosniok, W.; Harmens, H.; Frontasyeva, M. V.; Alber, R.; Aleksiayenak, J.; Barandovski, L.; Blum, O.; Danielsson, H.; de Temmermann, L.; Dunaev, A. M.; Fagerli, H.; Godzik, B.; Ilyin, I.; Jonkers, S.; Jeran, Z.; Pihl Karlsson, G.; Lazo, P.; Leblond, S.; Liiv, S.; Magnússon, S. H.; Mankovska, B.; Martínez-Abaigar, J.; Piispanen, J.; Poikolainen, J.; Popescu, I. V.; Qarri, F.; Radnovic, D.; Santamaria, J. M.; Schaap, M.; Skudnik, M.; Špiri¿, Z.; Stafilov, T.; Steinnes, E.; Stihi, C.; Suchara, I.; Thöni, L.; Uggerud, H. T.; Zechmeister, H. G.

2017

Modelling Arctic Atmospheric Aerosols: Representation of Aerosol Processing by Ice and Mixed-Phase Clouds

Gong, Wanmin; Stephen, Beagley; Ghahreman, Roya; Sharma, Sangeeta; Huang, Lin; Quinn, Patricia K.; Massling, Andreas; Pernov, Jakob Boyd; Skov, Henrik; Calzolai, Giulia; Traversi, Rita; Aas, Wenche; Yttri, Karl Espen; Vestenius, Mika; Makkonen, Ulla; Kivekäs, Niku; Kulmala, Markku; Alto, Pasi; Fiebig, Markus

2025

Modelling base cations in Europe. EMEP/MSC-W technical report, 2/2005

van Loon, M.; Tarrasón, L.; Posch, M.; NILU contributors: Hjellbrekke, A.-G.; Aas, W.

2005

Modelling EC/OC over Europe: comparison with observations.

Bergström, R.; Simpson, D.; Yttri, K.E.; Denier van der Gon, H.

2011

Modelling emission, transport and deposition of Icelandic mineral dust.

Groot Zwaaftink, C. D.; Arnalds, O.; Dagsson-Waldhauserova, P.; Jóhannsson, T.; Eckhardt, S.; Stohl, A.

2017

Modelling non-exhaust emissions of PM10 in Oslo. Impact of the environmental speed limit using the NORTRIP model. NILU OR

Denby, B.R.; Sundvor, I.

This report was requested by the Norwegian Public Roads Administration (Statens vegvesen) to provide information concerning non-exhaust traffic emissions in Oslo and the impact of changes in environmental speed limits on these emissions. This report provides the results of calculations made with the dispersion model EPISODE coupled to the NORTRIP road dust emission model, a recently developed emission model for calculating non-exhaust emissions. The change in modelled emissions due to changes in environmental speed limit are calculated for two different speed scenarios, where 'speed limit' and 'realistic speed' changes are compared. In addition the impact of the environmental speed limit is compared to other road dust control measures involving studded tyre share and heavy duty vehicle reduction, taken from a previous report.

2013

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