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The SCOUT-O3 Darwin Aircraft Campaign: rationale and meteorology.

Brunner, D.; Siegmund, P.; May, P.T.; Chappel, L.; Schiller, C.; Müller, R.; Peter, T.; Fueglistaler, S.; MacKenzie, A.R.; Fix, A.; Schlager, H.; Allen, G.; Fjæraa, A.M.; Streibel, M.; Harris, N.R.P.

2009

The siberian pathways: experimental insights into atmospheric transport across Eurasia.

Paris, J.D.; Ciais, P.; Stohl, A.; Ramonet, M.; Nedelec, P.; Belan, B.D.; Arshinov, M.Y.

2008

The size range of bubbles that produce ash during explosive volcanic eruptions.

Genareau, K.; Mulukutla, G.K.; Proussevitch, A.A.; Durant, A.J.; Rose, W.I.; Sahagian, D.L.

2013

The sources of atmospheric black carbon at a European gateway to the Arctic.

Winiger, P.; Andersson, A.; Eckhardt, S.; Stohl, A.; Gustafsson, O.

2016

The Street Emission Ceilings (SEC) Project.

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

2005

The strength in numbers: comprehensive characterization of house dust using complementary mass spectrometric techniques

Rostkowski, Pawel; Haglund, Peter; Aalizadeh, Reza; Alygizakis, Nikiforos; Thomaidis, Nikolaos; Arandes, Joaquin Beltran; Bohlin-Nizzetto, Pernilla; Booij, Petra; Budzinski, Hélène; Brunswick, Pamela; Covaci, Adrian; Gallampois, Christine; Grosse, Sylvia; Hindle, Ralph; Ipolyi, Ildiko; Jobst, Karl; Kaserzon, Sarit; Leonards, Pim; Lestremau, Francois; Letzel, Thomas; Magnér, Jörgen; Matsukami, Hidenori; Moschet, Christoph; Oswald, Peter; Plassmann, Merle; Slobodnik, Jaroslav; Yang, Chun

Untargeted analysis of a composite house dust sample has been performed as part of a collaborative effort to evaluate the progress in the field of suspect and nontarget screening and build an extensive database of organic indoor environment contaminants. Twenty-one participants reported results that were curated by the organizers of the collaborative trial. In total, nearly 2350 compounds were identified (18%) or tentatively identified (25% at confidence level 2 and 58% at confidence level 3), making the collaborative trial a success. However, a relatively small share (37%) of all compounds were reported by more than one participant, which shows that there is plenty of room for improvement in the field of suspect and nontarget screening. An even a smaller share (5%) of the total number of compounds were detected using both liquid chromatography–mass spectrometry (LC-MS) and gas chromatography–mass spectrometry (GC-MS). Thus, the two MS techniques are highly complementary. Most of the compounds were detected using LC with electrospray ionization (ESI) MS and comprehensive 2D GC (GC×GC) with atmospheric pressure chemical ionization (APCI) and electron ionization (EI), respectively. Collectively, the three techniques accounted for more than 75% of the reported compounds. Glycols, pharmaceuticals, pesticides, and various biogenic compounds dominated among the compounds reported by LC-MS participants, while hydrocarbons, hydrocarbon derivatives, and chlorinated paraffins and chlorinated biphenyls were primarily reported by GC-MS participants. Plastics additives, flavor and fragrances, and personal care products were reported by both LC-MS and GC-MS participants. It was concluded that the use of multiple analytical techniques was required for a comprehensive characterization of house dust contaminants. Further, several recommendations are given for improved suspect and nontarget screening of house dust and other indoor environment samples, including the use of open-source data processing tools. One of the tools allowed provisional identification of almost 500 compounds that had not been reported by participants.

Springer

2019

The structure of the fire fighting foam surfactant Forafac®1157 and its biological and photolytic transformation products.

Moe, M.K.; Huber, S.; Svenson, J.; Hagenaars, A.; Pabon, M.; Trümper, M.; Berger, U.; Knapen, D.; Herzke, D.

2012

The study of the mercury cycle in polar regions: An international study in Ny-Ålesund, Svalbard.

Ferrari, C.P.; Gauchard, P.A.; Magand, O.; Aspmo, K.; Temme, C.; Steffen, A.; Berg, T.; Ström J.; Dommergue, A.; Bahlmann, E.; Planchon, F.; Ebinghaus, R.; Banic, C.; Nagorski, S.; Baussand, P.; Amato P.; Fain X.; Hennebelle R.; Delort A.-M.; Sancelme, M.; Cairns, W.; Barbante, C.; Ceson, P.; Kaleschke, L.; Boutron, C.

2006

The study of traffic hotspot air quality and street scale modelling in the Street Emission Ceilings (SEC) project.

Kalognomou, E-A.; Mellios, G.; Moussiopoulos, N.; Larssen, S.; Samaras, Z.; van den Hout, D.; de Leeuw, F.; Kukkonen, J.; Fiala, J.

2009

The summertime buildup and decay of lightning NOx and aged thunderstorm outflow above North America.

Cooper, O.R.; Eckhardt, S.; Crawford, J.H.; Brown, C.C.; Cohen, R.C.; Bertram, T.H.; Wooldridge, P.; Perring, A.; Brune, W.H.; Ren, X.; Brunner, D.; Baughcum, S.L.

2008

The superstatistical nature and interoccurrence time of atmospheric mercury concentration fluctuations

Carbone, Francesco; Bruno, Antonio Giovanni; Naccarato, Attilio; De Simone, Francesco; Gencarelli, Christian Natale; Sprovieri, F.; Hedgecock, I. M.; Landis, Matthew S.; Skov, Henrik; Pfaffhuber, Katrine A.; Read, Katie A.; Martin, Lywill G.; Angot, Hélène; Dommergue, Aurélien; Magand, O.; Pirrone, N.

American Geophysical Union (AGU)

2018

The team player

Heimstad, Eldbjørg Sofie (intervjuobjekt); Hansen, Christine Kristoffersen (journalist)

2020

The time for ambitious action is now: Science-based recommendations for plastic chemicals to inform an effective global plastic treaty

Brander, Susanne M.; Senathirajah, Kala; Fernandez, Marina; Weis, Judith S.; Kumar, Eva; Jahnke, Annika; Hartmann, Nanna B.; Alava, Juan José; Farrelly, Trisia; Almroth, Bethanie Carney; Groh, Ksenia J.; Syberg, Kristian; Buerkert, Johanna Sophie; Abeynayaka, Amila; Booth, Andy; Cousin, Xavier; Herzke, Dorte; Monclús , Laura; Morales-Caselles, Carmen; Bonisoli-Alquati, Andrea; Al-jaibachi, Rana; Wagner, Martin

The ubiquitous and global ecological footprint arising from the rapidly increasing rates of plastic production, use, and release into the environment is an important modern environmental issue. Of increasing concern are the risks associated with at least 16,000 chemicals present in plastics, some of which are known to be toxic, and which may leach out both during use and once exposed to environmental conditions, leading to environmental and human exposure. In response, the United Nations member states agreed to establish an international legally binding instrument on plastic pollution, the global plastics treaty. The resolution acknowledges that the treaty should prevent plastic pollution and its related impacts, that effective prevention requires consideration of the transboundary nature of plastic production, use and pollution, and that the full life cycle of plastics must be addressed. As a group of scientific experts and members of the Scientists' Coalition for an Effective Plastics Treaty, we concur that there are six essential “pillars” necessary to truly reduce plastic pollution and allow for chemical detoxification across the full life cycle of plastics. These include a plastic chemical reduction and simplification, safe and sustainable design of plastic chemicals, incentives for change, holistic approaches for alternatives, just transition and equitable interventions, and centering human rights. There is a critical need for scientifically informed and globally harmonized information, transparency, and traceability criteria to protect the environment and public health. The right to a clean, healthy, and sustainable environment must be upheld, and thus it is crucial that scientists, industry, and policy makers work in concert to create a future free from hazardous plastic contamination.

Elsevier

2024

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