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Fant 10002 publikasjoner. Viser side 364 av 401:

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År  
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Application of the comet assay in nanotoxicology. Issues in toxicology, 30

Dusinska, M.; Rundén-Pran, E.; El Yamani, N.; Fjellsbø, L. M.; Collins, A.

2017

Application of the comet assay for the evaluation of DNA damage in mature sperm

Gajski, Goran; Ravlić, Sanda; Godschalk, Roger; Collins, Andrew Richard; Dusinska, Maria; Brunborg, Gunnar

2021

Application of the comet assay for nanotoxicology study on example of nanosilver.

El Yamani, N.; Huk, A.; Izak-Nau, E.; Duschl, A.; Dusinska, M.

2014

Application of Svalbard fjord fast ice studies for Arctic sea ice research: Possibilities and limitations.

Gerland, S.; Granskog, M.A.; Forsström, S.; Hudson, S.; Pedersen, C.A.; Renner, A.H.H.; Wang, C.; Burkhart, J.; Büttner, J.; Cheng, B.; Hamre, B.; Ivanov, B.; Lei, R.; Nicolaus, M.; Storvold, R.; Wang, K.; Zhijun, L.

2011

APNEE-TU field trials results. NILU F

Endregard, G.

2003

2001

Antiparasite treatments reduce humoral immunity and impact oxidative status in raptor nestlings.

Hanssen, S.A.; Bustnes, J.O.; Schnug, L.; Bourgeon, S.; Johnsen, T.V.; Ballesteros, M.; Sonne, C.; Herzke, D.; Eulaers, I.; Jaspers, V.L.B.; Covaci, A.; Eens, M.; Halley, D.J.; Moum, T.; Ims, R.A.; Erikstad, K.E.

2013

Antioxidative state of workers exposed to asbestos.

Volkovová, K.; Mislanová, C.; Staruchová, M.; Spustová, V.; Wsólová, L.; Bonassi, S.; Ceppi, M.; Dusinska, M.

2010

Antioxidant responses in relation to persistent organic pollutants and metals in a low- and a high-exposure population of seabirds.

Fenstad, A.A.; Moody, A.J.; Ost, M.; Jaatinen, K.; Bustnes, J.O.; Moe, B.; Hanssen, S.A.; Gabrielsen, K.M.; Herzke, D.; Lierhagen, S.; Jenssen, B.M.; Krokje, A.

2016

Anti-parasite treatment and blood biochemistry in raptor nestlings.

Hanssen, S. A.; Sonne, C.; Bustnes, J. O.; Schnug, L.; Bourgeon, S.; Ballesteros, M.; Eulaers, I.; Moum, T.; Johnsen, T. V.; Kjelgaard-Hansen, M.; Herzke, D.; Jaspers, V. L. B.; Covaci, A.; Eens, M.; Halley, D. J.; Erikstad, K. E.; Ims, R. A.

2017

Anthropogenic, Direct Pressures on Coastal Wetlands

Newton, Alice; Icely, John; Cristina, Sónia; Perillo, Gerardo M.; Turner, R. Eugene; Ashan, Dewan; Cragg, Simon; Luo, Yongming; Tu, Chen; Li, Yuan; Zhang, Haibo; Ramesh, Ramachandran; Forbes, Donald L.; Solidoro, Cosimo; Béjaoui, Béchir; Gao, Shu; Pastres, Roberto; Kelsey, Heath; Taillie, Dylan; Nhan, Nguyen; Brito, Ana C; Lima, Ricardo de; Kuenzer, Claudia

Coastal wetlands, such as saltmarshes and mangroves that fringe transitional waters, deliver important ecosystem services that support human development. Coastal wetlands are complex social-ecological systems that occur at all latitudes, from polar regions to the tropics. This overview covers wetlands in five continents. The wetlands are of varying size, catchment size, human population and stages of economic development. Economic sectors and activities in and around the coastal wetlands and their catchments exert multiple, direct pressures. These pressures affect the state of the wetland environment, ecology and valuable ecosystem services. All the coastal wetlands were found to be affected in some ways, irrespective of the conservation status. The main economic sectors were agriculture, animal rearing including aquaculture, fisheries, tourism, urbanization, shipping, industrial development and mining. Specific human activities include land reclamation, damming, draining and water extraction, construction of ponds for aquaculture and salt extraction, construction of ports and marinas, dredging, discharge of effluents from urban and industrial areas and logging, in the case of mangroves, subsistence hunting and oil and gas extraction. The main pressures were loss of wetland habitat, changes in connectivity affecting hydrology and sedimentology, as well as contamination and pollution. These pressures lead to changes in environmental state, such as erosion, subsidence and hypoxia that threaten the sustainability of the wetlands. There are also changes in the state of the ecology, such as loss of saltmarsh plants and seagrasses, and mangrove trees, in tropical wetlands. Changes in the structure and function of the wetland ecosystems affect ecosystem services that are often underestimated. The loss of ecosystem services impacts human welfare as well as the regulation of climate change by coastal wetlands. These cumulative impacts and multi-stressors are further aggravated by indirect pressures, such as sea-level rise.

2020

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