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Fant 9758 publikasjoner. Viser side 314 av 391:

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Snow buntings (Plectrophenax nivealis) as bio-indicators for exposure differences to legacy and emerging persistent organic pollutants from the Arctic terrestrial environment

Warner, Nicholas Alexander; Sagerup, Kjetil; Kristoffersen, Siv; Herzke, Dorte; Gabrielsen, Geir W.; Jenssen, Bjørn Munro

2019

Snow deposition and distribution of persistent organic pollutants (POPs) on Bear Island. NILU F

Kallenborn, R.; Christensen, G.N.; Gregor, D.; Evenset, A.

2004

Snow-to-air exchanges of mercury in an Arctic seasonal snow pack in Ny-Ålesund, Svalbard.

Ferrari, C.P.; Gauchard, P.-A.; Aspmo, K.; Dommergue, A.; Magand, O.; Bahlmann, E.; Nagorski, S.; Temme, C.; Ebinghaus, R.; Steffen, A.; Banic, C.; Berg, T.; Planchon, f.; Barbante, C.; Cescon, P.; Boutron, C.F.

2005

SO2 emissions from paroxysmal eruptions at Etna volcano in 2011-12. NILU F

Bonny, E.; Mandon, C.; Carn, S.A.; Prata, F.; Coltelli, M.; Donnadieu, F.

2013

SO2 Kårstø. Miljøkonsekvenser av økte utslipp. NILU OR

Berglen, T.F.; Høgåsen, T.; Liu, L.; Tønnesen, D.; Wathne, B.M.

Norsk institutt for luftforskning (NILU) har gjort spredningsberegninger av utslipp til luft.

2011

Social-Environmental Analysis for the Management of Coastal Lagoons in North Africa

El Mahrad, Badr; Abalansa, Samuel; Newton, Alice; Icely, John D; Snoussi, Maria; Kacimi, Ilias

This study provides an overview of 11 lagoons in North Africa, from the Atlantic to the Eastern Mediterranean. Lagoons are complex, transitional, coastal zones providing valuable ecosystem services that contribute to the welfare of the human population. The main economic sectors in the lagoons included fishing, shellfish harvesting, and salt and sand extraction, as well as maritime transport. Economic sectors in the areas around the lagoons and in the watershed included agriculture, tourism, recreation, industrial, and urban development. Changes were also identified in land use from reclamation, changes in hydrology, changes in sedimentology from damming, inlet modifications, and coastal engineering. The human activities in and around the lagoons exert multiple pressures on these ecosystems and result in changes in the environment, affecting salinity, dissolved oxygen, and erosion; changes in the ecology, such as loss of biodiversity; and changes in the delivery of valuable ecosystem services. Loss of ecosystem services such as coastal protection and seafood affect human populations that live around the lagoons and depend on them for their livelihood. Adaptive management frameworks for social–ecological systems provide options that support decision makers with science-based knowledge to deliver sustainable development for ecosystems. The framework used to support the decision makers for environmental management of these 11 lagoons is Drivers–Activities–Pressures–State Change–Impact (on Welfare)–Responses (as Measures).

Frontiers Media S.A.

2020

Social-environmental analysis of methane in the South China Sea and bordering countries

Tseng, Hsiao-Chun; Newton, Alice; Chen, Chen-Tung Arthur; Borges, Alberto V.; DelValls, T. Angel

2018

Socio-economic costs of continuing the status-quo of mercury pollution. TemaNord 2008:580

Pacyna, J.M.; Sundseth, K.; Pacyna, E.G.; Munthe, J.; Belhaj, M.; Åström, S.; Panasiuk, D.; Glodek, A.

2008

Socioeconomic consequences of mercury use and pollution.

Swain, E.B.; Jakus, P.M.; Rice, G.; Lupi, F.; Maxson, P.A.; Pacyna, J.M.; Penn, A.; Spiegel, S.J.; Veiga, M.M.

2007

Socioeconomic consequences of mercury use and pollution. Panel conclusion. NILU F

Swain, E. (chair), Jakus, P.; Lupi, F.; Maxson, P.A.; Pacyna, J.M.; Penn, A.; Rice, G.; Spiegel, S.J.; Veiga, M.M.

2006

Socioeconomic position, lifestyle habits and biomarkers of epigenetic aging: A multi-cohort analysis

Fiorito, Giovanni; McCrory, Cathal; Robinson, Oliver; Carmeli, Cristian; Rosales, Carolina Ochoa; Zhang, Yan; Colicino, Elena; Dugué, Pierre-Antoine; Artaud, Fanny; McKay, Gareth J.; Jeong, Ayoung; Mishra, Pashupati P.; Nøst, Therese Haugdahl; Krogh, Vittorio; Panico, Salvatore; Sacerdote, Carlotta; Tumino, Rosario; Palli, Domenico; Matullo, Giuseppe; Guarrera, Simonetta; Gandini, Martina; Bochud, Murielle; Dermitzakis, Emmanouil; Muka, Taulant; Schwartz, Joel; Vokonas, Pantel S.; Just, Allan; Hodge, Allison M.; Giles, Graham G.; Southey, Melissa C.; Hurme, Mikko A.; Young, Ian; McKnight, Amy Jayne; Kunze, Sonja; Waldenberger, Melanie; Peters, Annette; Schwettmann, Lars; Lund, Eiliv; Baccarelli, Andrea; Milne, Roger L.; Kenny, Rose A.; Elbaz, Alexis; Brenner, Hermann; Kee, Frank; Voortman, Trudy; Probst-Hensch, Nicole; Lehtimäki, Terho; Elliot, Paul; Stringhini, Silvia; Vineis, Paolo; Polidoro, Silvia

2019

Sodaloop. Fangst av CO2 med natriumkarbonat. NILU OR

Schmidbauer, N.; Knudsen, S.

2014

Soil – an important sink for VOCs?

Rinnan, Riikka; Jiao, Yi; Kramshøj, Magnus; Davie-Martin, Cleo Lisa; Albers, Christian Nyrop

2024

Soil contamination and sources of phthalates and its health risk in China: A review

Lü, Huixiong; Mo, Ce-Hui; Zhao, Hai-Ming; Xiang, Lei; Katsoyiannis, Athanasios A.; Li, Yan-Wen; Cai, Quan-Ying; Wong, Ming-Hung

Elsevier

2018

Soil is a potentially important sink for VOCs

Jiao, Yi; Kramshøj, Magnus; Davie-Martin, Cleo Lisa; Albers, Christian Nyrop; Elberling, Bo; Rinnan, Riikka

2024

Soil moisture over Norway. NILU F

Griesfeller, A.; Lahoz, W.A.; Svendby, T.

2012

Soil pollution at a major West African E-waste recycling site: Contamination pathways and implications for potential mitigation strategies

Möckel, Claudia; Breivik, Knut; Nøst, Therese Haugdahl; Sankoh, Alhaji; Jones, Kevin C.; Sweetman, Andrew

Elsevier

2020

Soil uptake of VOCs exceeds production when VOCs are readily available

Jiao, Yi; Kramshøj, Magnus; Davie-Martin, Cleo Lisa; Albers, Christian Nyrop; Rinnan, Riikka

Volatile organic compounds (VOCs) are reactive gaseous compounds with significant impacts on air quality and the Earth's radiative balance. While natural ecosystems are known to be major sources of VOCs, primarily due to vegetation, soils, an important component of these ecosystems, have received relatively less attention as potential sources and sinks of VOCs. In this study, soil samples were collected from two temperate ecosystems: a beech forest and a heather heath, and then sieved, homogenized, and incubated under various controlled conditions such as different temperatures, oxic vs. anoxic conditions, and different ambient VOC levels. A dynamic flow-through system coupled to a proton transfer reaction-time of flight-mass spectrometry (PTR-ToF-MS) was used to measure production and/or uptake rates of selected VOCs, aiming to explore the processes and their controlling mechanisms. Our results showed that these soils were natural sources of a variety of VOCs, and the strength and profile of these emissions were influenced by soil properties (e.g. moisture, soil organic matter), oxic/anoxic conditions, and temperature. The soils also acted as sinks for most VOCs when VOC substrates at parts per billions levels (ranging between 0.18 and 68.65 ppb) were supplied to the headspace of the enclosed soils, and the size of the sink corresponded to the amount of VOCs available in the ambient air. Temperature-controlled incubations and glass bead simulations indicated that the uptake of VOCs by soils was likely driven by microbial metabolism, with a minor contribution from physical adsorption to soil particles. In conclusion, our study suggests that soil uptake of VOCs can mitigate the impact of other significant VOC sources in the near-surface environment and potentially regulate the net exchange of these trace gases in ecosystems.

Elsevier

2023

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