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Found 10000 publications. Showing page 148 of 400:

Publication  
Year  
Category

EVDC - ESA atmospheric Validation Data Centre. Preparation for future missions. NILU PP

Fjæraa, A.M.; Kiernan, P.; Boyd, I.; Burini, A.,Eckhardt, P.; Espe, T.

2016

EVDC - ESA Validation Data Centre.

Fjæraa, A.M.; Burini, A.

2015

EVDC - ESA Validation Data Centre.

Fjæraa, A.M.; Krognes, T.; Eckhardt, P.; Espe, T.H.; Bårde, T.; Burini, A.; Boyd, I.

2015

EVDC for TCCON

Fjæraa, Ann Mari

2019

EVDC.

Fjæraa, A.M.; Boyd, I.; Espe, T.

2016

Evidence for a recurring eastern North America upper tropospheric ozone maximum during summer.

Cooper, O. R.; Trainer, M.; Thompson, A.M.; Oltmans, S.J.; Tarasick, D.W.; Witte, J.C.; Stohl, A.; Eckhardt, S.; Lelieveld, J.; Newchurch, M.J.; Johnson, B.J.; Kalnajs, L.; Dubey, M.K.; Leblanc, T.; McDermid, I.S.; Forbes, G.; Wolfe, D.; Carey-Smith, T.; Morris, G.A.; Lefer, B.; Rappenglück, B.; Joseph, E.; Schmidlin, F.; Meagher, J.; Fehsenfeld, F.C.; Keating, T.J.; Van Curen, R.A.; Minschwaner, K.

2007

Evidence for a recurring eastern North America upper tropospheric ozone maximum during summer.

Cooper, O. R.; Trainer, M.; Thompson, A.M.; Oltmans, S.J.; Tarasick, D.W.; Witte, J.C.; Stohl, A.; Eckhardt, S.; Lelieveld, J.; Portmann, R.; Johnson, B.J.; Kalnajs, L.; Newchurch, M.J.; Dubey, M.K.; Meagher, J.; Leblanc, T.; McDermid, I.S.; Forbes, G.; Carey-Smith, T.; Wolfe, D.; Fehsenfeld, F.C.; Morris, G.A.; Lefer, B.; Rappenglück, B.; Keating, T.J.; Joseph, E.; Minschwaner, K.; Schmidlin, F.; Van Curen, R.A.

2007

Evidence for large average concentrations of the nitrate radical (NO3) in Western Europe from the HANSA hydrocarbon database.

Penkett, S.A.; Burgess, R.A.; Coe, H.; Coll, I.; Hov, Ø.; Lindskog, A.; Schmidbauer, N.; Solberg, S.; Roemer, M.; Thijsse, T.; Beck, J.; Reeves, C.E.

2007

Evidence for long-range transport of North American anthropogenic and wildfire emissions to Europe from airborne and ground based lidar measurements during European ITOP (IGAC Lagrangian 2K4, ICARTT.

Law, K.; Schlager, H.; Real, E.; Ancellet, G.; Huntrieser, H.; Petzold, A.; Haeffelin, M.; Pietras, C.; Nedelec, P.; Stohl, A.; Methven, J.; Arnold, S.; Parrish, D.; Ryerson, T.; Lewis, A.; Avery, M.; Sachse, G.; Arnold, F.; Spidel, M.; Fischer, H.; Gurck, C.; Mihalopoulos, N.

2005

Evidence for major emissions of PCBs in the West African region.

Gioia, L.; Eckhardt, S.; Breivik, K.; Jaward, F.; Prieto, A.; Nizzetto, L.; Jones, K.C.

2011

Evidence for the uptake of atmospheric acetone and methanol by the Arctic Ocean during late summer DMS-Emission plumes.

Sjostedt, S.J.; Leaitch, W.R.; Levasseur, M.; Scarratt, M.; Michaud, S.; Motard-Côté, J.; Burkhart, J.H.; Abbatt, J.P.D.

2012

Evidence from firn air for recent decreases in non-methane hydrocarbons and a 20th century increase in nitrogen oxides in the northern hemisphere.

Worton, D.R.; Sturges, W.T.; Reeves, C.E.; Newland, M.J.; Penkett, S.A.; Atlas, E.; Stroud, V.; Johnson, K.; Schmidbauer, N.; Solberg, S.; Schwander, J.; Barnola, J.-M.

2012

Evidence of major emissions of polychlorinated biphenyls (PCBs) and polynuclear aromatic hydrocarbons (PAHs) in the West African region. NILU F

Gioia, R.; Nizzetto, L.; Jaward, F.; Prieto, A.; Breivik, K.; Eckhardt, S.; Jones, K.C.

2010

Evolution of atmospheric methane under the global methane pledge: insights from an Earth system model

Im, Ulas; Tsigaridis, Kostas; Bauer, Susanne; Shindell, Drew; Olivié, Dirk; Wilson, Simon; Sørensen, Lise Lotte; Langen, Peter; Eckhardt, Sabine; Hoglund-Isaksson, Lena; Klimont, Zig; Bruhwiler, Lori

2025

Evolution of Near‐Term Atmospheric Methane and Associated Temperature Response Under the Global Methane Pledge: Insights From an Earth System Model

Im, Ulas; Shindell, Drew; Tsigaridis, Kostas; Bauer, Susanne; Olivié, Dirk; Wilson, Simon; Sørensen, Lise Lotte; Langen, Peter L.; Eckhardt, Sabine; Höglund-Isaksson, Lena; Klimont, Zbigniew; Lindl, Florian; Bruhwiler, Lori

Abstract Methane is a powerful greenhouse gas with a shorter lifetime than carbon dioxide (CO 2 ), making it an important target for near‐term climate action. The Global Methane Pledge (GMP) aims to cut anthropogenic methane emissions by 30% from 2020 levels by 2030. Using an Earth system model with interactive CH 4 sources and sinks, we assess the Pledge's impact through 2050. Results show that current GMP commitments deliver only a 10% cut by 2030—well below the target. Only the maximum technically feasible reduction (MTFR) pathway can achieve the 30% goal. By 2050, current GMP commitments lowers methane concentrations by 3% relative to 2025, while MTFR achieves 8%. Both pathways slow warming slightly, avoiding about 0.1°C of global temperature rise, with the Arctic seeing the greatest benefits (up to 2°C less warming). Without wider participation, the GMP with current signatories will fall short of its targets and Paris Agreement goals.

2026

Evolution of NOx emissions in Europe with focus on road transport control measures.

Vestreng, V.; Ntziachristos, L.; Semb, A.; Reis, S.; Isaksen, I.S.A.; Tarrasón, L.

2009

Evolution of semi-volatile organic compounds (SVOCs) in surface snow. Poster presentation. NILU F

Villa, S.V.; Herbert, B.M.J.; Halsall, C.J.; Thomas, G.O.; Jones, K.C.; Kallenborn, R.

2004

Evoluzione della contaminazione da composti organici semivolatili (SVOC) in campioni di neve fresca. NILU F

Villa, S.; Herbert, B.M.J.; Halsall, C.J.; Thomas, G.O.; Jones, K.C.; Kallenborn, R.

2004

Evolving Anthropogenic and Natural Aerosol Sources in the High Arctic

Zhang, Lu; Skov, Henrik; Massling, Andreas; Dall’Osto, Manuel; Evangeliou, Nikolaos; Che, Haochi; Jensen, Bjarne; Im, Ulas

2026

Evolving trends in application of low-cost air quality sensor networks: challenges and future directions

Bagkis, Evangelos; Hassani, Amirhossein; Schneider, Philipp; DeSouza, Priyanka; Shetty, Shobitha; Kassandros, Theodosios; Salamalikis, Vasileios; Castell, Nuria; Karatzas, Kostas; Ahlawat, Ajit; Khan, Jibran

Abstract Low-cost air quality sensors (LCS) are increasingly used to complement traditional air quality monitoring yet concerns about their accuracy and fitness-for-purpose persist. This scoping review investigates topics, methods, and technologies in the application of LCS networks in recent years that are gaining momentum, focusing on LCS networks (LCSN) operation, drone-based and mobile monitoring, data fusion/assimilation, and community engagement. We identify several key challenges remaining. A major limitation is the absence of unified performance metrics and cross-validation methods to compare different LCSN calibration and imputation techniques and meta-analyses. LCSN still face challenges in effectively sharing and interpreting data due to a lack of common protocols and standardized definitions, which can hinder collaboration and data integration across different systems. In mobile monitoring, LCS siting, orientation, and platform speed are challenges to data consistency of different LCS types and limit the transferability of static calibration models to mobile settings. For drone-based monitoring, rotor downwash, LCS placement, flight pattern, and environmental variability complicate accurate measurements. In integrating LCS data with air quality models or data assimilation, realistic uncertainty quantification, ideally at the individual measurement level, remains a major obstacle. Finally, citizen science initiatives often encounter motivational, technological, economic, societal, and regulatory barriers that hinder their scalability and long-term impact.

2025

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