Gå til innhold
  • Send

  • Kategori

  • Sorter etter

  • Antall per side

Found 9462 publications. Showing page 375 of 379:

Publication  
Year  
Category

A holistic aproach to assess traffic measures.

Klaeboe, R.; Kolbenstvedt, M.; Clench-Aas, J.; Bartonova, A.

1999

A history about Lagrangian modelling - transport of hazardous substances through the atmosphere

Eckhardt, Sabine; Sigl, Michael; Pisso, Ignacio; Evangeliou, Nikolaos; Stebel, Kerstin

2023

A high-throughput method to screen organic chemicals in commerce for emissions. NILU PP

Breivik, K.; Arnot, J.A.; Brown, Wania, F.; McLachlan, M.S.

2011

A high-resolution dynamic probabilistic material flow analysis of seven plastic polymers; A case study of Norway

Abbasi, Golnoush; Hauser, Marina Jennifer; Baldé, Cornelis Peter; Bouman, Evert Alwin

Plastic pollution has long been identified as one of the biggest challenges of the 21st century. To tackle this problem, governments are setting stringent recycling targets to keep plastics in a closed loop. Yet, knowledge of the stocks and flows of plastic has not been well integrated into policies. This study presents a dynamic probabilistic economy-wide material flow analysis (MFA) of seven plastic polymers (HDPE, LDPE, PP, PS, PVC, EPS, and PET) in Norway from 2000 to 2050. A total of 40 individual product categories aggregated into nine industrial sectors were examined. An estimated 620 ± 23 kt or 114 kg/capita of these seven plastic polymers was put on the Norwegian market in 2020. Packaging products contributed to the largest share of plastic put on the market (∼40%). The accumulated in-use stock in 2020 was about 3400 ± 56 kt with ∼60% remaining in buildings and construction sector. In 2020, about 460 ± 22 kt of plastic waste was generated in Norway, with half originating from packaging. Although ∼50% of all plastic waste is collected separately from the waste stream, only around 25% is sorted for recycling. Overall, ∼50% of plastic waste is incinerated, ∼15% exported, and ∼10% landfilled. Under a business-as-usual scenario, the plastic put on the market, in-use stock, and waste generation will increase by 65%, 140%, and 90%, respectively by 2050. The outcomes of this work can be used as a guideline for other countries to establish the stocks and flows of plastic polymers from various industrial sectors which is needed for the implementation of necessary regulatory actions and circular strategies. The systematic classification of products suitable for recycling or be made of recyclate will facilitate the safe and sustainable recycling of plastic waste into new products, cap production, lower consumption, and prevent waste generation.

Elsevier

2023

A global strategy for atmospheric interdisciplinary research in the European research area, AIRES in ERA. Air pollution report, 76; EUR 19436

Hov, Ø.; Amanatidis, G.T.; Angeletti, G.; Brasseur, G.; Harris, N.; Mégie, G, Schumann, U.; Slania, S. (eds.)

2001

A global satellite-based trend analysis of tropospheric nitrogen dioxide. NILU F

Schneider, P.; van der A, R.; Valdebenito, A.

2013

A global database of lake surface temperatures from 1985-2009.

Gray, D.; Sharma, S.; Read, J.S.; O'Reilly, C.M.; Schneider, P.; Lenters, J.D.; Hook, S.J.; Dong, B.; Gries, C.; Hampton, S.; GLTC Contributors.

2015

A global database of lake surface temperatures collected by in situ and satellite methods from 1985-2009.

Sharma, S.; Gray, D. K.; Read, J. S.; O'Reilly, C. M.; Schneider, P.; Qudrat, A.; Gries, C.; Stefanoff, S.; Hampton, S. E.; Hook, S.; Lenters, J. D.; Livingstone, D. M.; Mcintyre, P. B.; Adrian, R.; Allan, M. G.; Anneville, O.; Arvola, L.; Austin, J.; Bailey, J.; Baron, J. S.; Brookes, J.; Chen, Y.; Daly, R.; Dokulil, M.; Dong, B.; Ewing, K.; De Eyto, E.; Hamilton, D.; Havens, K.; Haydon, S.; Hetzenauer, H.; Heneberry, J.; Hetherington, A. L.; Higgins, S. N.; Hixson, E.; Izmest'eva, L. R.; Jones, B. M.; Kangur, K.; Kasprzak, P.; Köster, O.; Kraemer, B. M.; Kumagai, M.; Kuusisto, E.; Leshkevich, G.; May, L.; Macintyre, S.; Müller-Navarra, D.; Naumenko, M.; Noges, P.; Noges, T.; Niederhauser, P.; North, R. P.; Paterson, A. M.; Plisnier, P.-D.; Rigosi, A.; Rimmer, A.; Rogora, M.; Rudstam, L.; Rusak, J. A.; Salmaso, N.; Samal, N. R.; Schindler, D. E.; Schladow, G.; Schmidt, S. R.; Schultz, T.; Silow, E. A.; Straile, D.; Teubner, K.; Verburg, P.; Voutilainen, A.; Watkinson, A.; Weyhenmeyer, G. A.; Williamson, C. E.; Woo, K. H.

2015

A global assessment of precipitation chemistry and deposition of sulfur, nitrogen, sea salt, base cations, organic acids, acidity and pH, and phosphorus.

Vet, R.; Artz, R.S.; Carou, S.; Shaw, M.; Ro, C.-U.; Aas, W.; Baker, A.; Bowersox, V.C.; Dentener, F.; Galy-Lacaux, C.; Hou, A.; Pienaar, J.J.; Gillett, R.; Forti, M.C.; Gromov, S.; Hara, H.; Khodzher, T.; Mahowald, N.M, Nickovic, S.; Rao, P.S.P.; Reid, N.W.

2014

A global analysis of climate-relevant aerosol properties retrieved from the network of Global Atmosphere Watch (GAW) near-surface observatories

Laj, Paolo; Bigi, Alessandro; Rose, Clemence; Andrews, Elisabeth; Myhre, Cathrine Lund; Coen, Martine Collaud; Lin, Yong; Wiedensohler, Alfred; Schulz, Michael; Ogren, John A.; Fiebig, Markus; Gliss, Jonas; Mortier, Augustin; Pandolfi, Marco; Petäjä, Tuukka; Kim, Sang-Woo; Aas, Wenche; Putaud, Jean-Philippe; Mayol-Bracero, Olga; Keywood, Melita; Labrador, Lorenzo; Aalto, Pasi; Ahlberg, Erik; Arboledas, Lucas Alados; Alastuey, Andrés; Andrade, Marcos; Artiñano, Begoña; Ausmeel, Stina; Arsov, Todor; Asmi, Eija; Backman, John; Baltensprenger, Urs; Bastian, Susanne; Bath, Olaf; Beukes, Johan Paul; Brem, Benjamin T.; Bukowiecki, Nicolas; Conil, Sébastien; Couret, Cedric; Day, Derek; Dayantolis, Wan; Degorska, Anna; Eleftheriadis, Konstantinos; Fetfatzis, Prodromos; Favez, Olivier; Flentje, Harald; Gini, Maria I.; Gregorič, Asta; Gysel-Beer, Martin; Hallar, A. Gannet; Hand, Jenny; Hoffer, András; Hueglin, Christoph; Hooda, Rakesh K.; Hyvärinen, Antti; Kalapov, Ivo; Kalivitis, Nikos; Kasper-Giebl, Anne; Kim, Jeong Eun; Kouvarakis, Giorgos; Kranjc, Irena; Krejci, Radovan; Kulmala, Markku; Labuschagne, Casper; Lee, Hae-Jung; Lihavainen, Heikki; Lin, Neng-Huei; Löschau, Gunter; Luoma, Krista; Marinoni, Angela; Dos Santos, Sebastiao Martins; Meinhardt, Frank; Merkel, Maik; Metzger, Jean-Marc; Mihalopoulos, Nikolaos; Nguyen, Nhat Anh; Ondráček, Jakub; Pérez, Noemi; Perrone, Maria Rita; Petit, Jean-Eudes; Picard, David; Pichon, Jean-Marc; Pont, Veronique; Prats, Natalia; Prenni, Anthony; Reisen, Fabienne; Romano, Salvatore; Sellegri, Karine; Sharma, Sangeeta; Schauer, Gerhard; Sheridan, Patrick; Sherman, James Patrick; Schütze, Maik; Schwerin, Andreas; Sohmer, Ralf; Sorribas, Mar; Steinbacher, Martin; Sun, Junying; Titos, Gloria; Toczko, Barbara

2020

A global analysis of climate-relevant aerosol properties retrieved from the network of GAW near-surface observatories

Laj, Paolo; Rose, Clemence; Bigi, Alessandro; Coen, Martine Collaud; Andrews, Elisabeth; Myhre, Cathrine Lund; Fiebig, Markus; Aas, Wenche; Wiedensohler, Alfred; Schulz, Michael; Mortier, Augustin; Gliss, Jonas; Putaud, Jean-Philippe; Kim, Sang-Woo; Mayol, Olga; Keywood, Melita; Petäjä, Tuukka; Pandolfi, Marco; Labrador, Lorenzo; Ogren, John; SARGAN team, The

2020

A GIS based Air Quality Management System. NILU F

Sivertsen, B.; Naseer, A.A.

2000

A geostationary thermal infrared sensor to monitor the lowermost troposphere: O3 and CO retrieval studies.

Claeyman, M.; Attié, J.-L.; Peuch, V.-H.; El Amraoui, L.; Lahoz, W.A.; Josse, B.; Ricaud, P.; von Clarmann, T.; Höpfner, M.; Orphal, J.; Flaud, J.-M.; Edwards, D.P.; Chance, K.; Liu, X.; Pasternak, F.; Cantié, R.

2011

A generic database for earth observation data. The ESA campaign data service.

Vik, A.F.; Krognes, T, Bjørndalsæter, S.; Stoll, C.; Walker, S.E.; Gloslie, B.; Paltiel, R.; Bårde, T.; Våler, R.L.

2005

A flexible algorithm for network design based on information theory

Thompson, Rona Louise; Pisso, Ignacio

A novel method for atmospheric network design is presented, which is based on information theory. The method does not require calculation of the posterior uncertainty (or uncertainty reduction) and is therefore computationally more efficient than methods that require this. The algorithm is demonstrated in two examples: the first looks at designing a network for monitoring CH4 sources using observations of the stable carbon isotope ratio in CH4 (δ13C), and the second looks at designing a network for monitoring fossil fuel emissions of CO2 using observations of the radiocarbon isotope ratio in CO2 (Δ14CO2).

2023

Publication
Year
Category