Skip to content
  • Submit

  • Category

  • Sort by

  • Per page

Found 10000 publications. Showing page 214 of 400:

Publication  
Year  
Category

Integrated Monitoring Program on Acidification of Chinese Terrestrial Systems - IMPACTS. Annual Report - Results 2003.

Larssen, T.; Dagang, T.; Yi, H. (editors). Authors: Aas, W. (NILU), Tørseth, K. (NILU) et al.

2004

Integrated monitoring program on acidification of Chinese terrestrial systems (impacts) - A Chinese-Norwegian cooperation project.

Tang, D.; Lydersen, E.; Seip, H.M.; Angell, V.; Eilertsen, O.; Larssen, T.; Liu, X.; Kong, G.; Mulder, J.; Semb, A.; Solberg, S.; Tørseth, K.; Vogt, R.D.; Xiao, J.; Zhao, D.

2001

Integrated modeling and monitoring of emerging organic contaminants in the Nordic region. NILU F

Krogseth, I.S.; Breivik, K.; Schlabach, M.; McLachlan, M.S.; Wania, F.; Arnot, J.

2013

Integrated modeling and monitoring of emerging organic contaminants in the Nordic region. NILU F

Krogseth, I.S.; Breivik, K.; Schlabach, M.; McLachlan, M.S.; Wania, F.; Arnot, J.

2013

Integrated modeling and monitoring of emerging organic contaminants in the Nordic region NILU F

Krogseth, I.S.; Breivik, K.; Schlabach, M.,McLachlan, M.S.; Wania, F.; Arnot, J.

2012

Integrated management plan for The North Sea and Skagerrak. Priority knowledge needs.

Iversen, S.A.; van der Meeren, G.I.; Brungot, A.L.; Olsen, M.; Fjærbu, R.J.; Hansen, G.H.; Nilsen, B.; Fadnes, T.; Storeng, A.B.; Walday, M.; Overvik, M.; Anker-Nilssen, T.; Newton, A.; Røsland, I.

2012

Integrated management plan for The North Sea and Skagerrak. Indicators for a monitoring programme.

Storeng, A.B.; Havelin, T.; Riisberg, I.; Måge, A.; Koefoed, J.H.; Fadnes, T.; Brungot, A.L. (red.), van der Meeren, G.I. (red.), Pettersen, C.F. (red.) Bidragsytere: Newton, A. m.fl.

2012

Integrated management plan for The North Sea and Skagerrak. Cumulative environmental effects.

Kroglund, M.; Olsen, M. (red.) Østby, C.; Thorvik, T.; van der Meeren, G.; Gjelsvik, L.; Nilsen, B.; Nybakke, K.; Newton, A.; Anker-Nilssen, T.; Walday, M.; Jarandsen, B.; Stenløkk, J.; Røsland, I.; Koefoed, J.H.; Brungot, A.L.

2012

Integrated exposure assessment of northern goshawk (Accipiter gentilis) nestlings to legacy and emerging organic pollutants using non-destructive samples

Briels, Nathalie; Torgersen, Lene Norstrand; Castano-Ortíz, Jose M.; Løseth, Mari Engvig; Herzke, Dorte; Nygård, Torgeir; Bustnes, Jan Ove; Ciesielski, Tomasz Maciej; Poma, Giulia; Malarvannan, Govindan; Covaci, Adrian; Jaspers, Veerle

In the present study, concentrations of legacy and emerging contaminants were determined in three non-destructive matrices (plasma, preen oil and body feathers) of northern goshawk (Accipiter gentilis) nestlings. Persistent organic pollutants (POPs), including polychlorinated biphenyls (PCBs), organochlorine pesticides (OCPs) and polybrominated diphenyl ethers (PBDEs), together with emerging pollutants, including per- and polyfluorinated alkyl substances (PFASs), novel brominated flame retardants (NBFRs), phosphorus flame retardants (PFRs) and Dechlorane Plus isomers (DPs) were targeted. Plasma, preen oil and feather samples were collected from 61 goshawk nestlings in Norway (Trøndelag and Troms) in 2015 and 2016, and pollutant concentrations were compared between the three matrices. In plasma, PFASs were detected in the highest concentrations, ranging between 1.37 and 36.0 ng/mL, which suggests that the nestlings were recently and continuously exposed to these emerging contaminants, likely through dietary input. In preen oil, OCPs (169–3560 ng/g) showed the highest concentrations among the investigated compounds, consistent with their high lipophilicity. PFRs (2.60–314 ng/g) were the dominant compounds in feathers and are thought to originate mainly from external deposition, as they were not detected in the other two matrices. NBFRs and DPs were generally not detected in the nestlings, suggesting low presence of these emerging contaminants in their environment and/or low absorption. Strong and significant correlations between matrices were found for all POPs (rs = 0.46–0.95, p < 0.001), except for hexachlorobenzene (HCB, rs = 0.20, p = 0.13). Correlations for PFASs were less conclusive: linear perfluorooctane sulfonate (PFOS), perfluoroundecanoate (PFUnA), perfluorododecanoate (PFDoA) and perfluorotetradecanoate (PFTeA) showed strong and significant correlations between plasma and feathers (rs = 0.42–0.72, p < 0.02), however no correlation was found for perfluorohexane sulfonate (PFHxS), perfluorononanoate (PFNA) and perfluorotridecanoate (PFTriA) (rs = 0.05–0.33, p = 0.09–0.85). A lack of consistency between the PFAS compounds (contrary to POPs), and between studies, prevents concluding on the suitability of the investigated matrices for PFAS biomonitoring.

2019

Integrated Chemical and Hazard Assessment of Plastic Pellets from the Toconao Spill (Galicia, Spain) Indicates Potential for Environmental Harm

Morales-Caselles, Carmen; Booth, Andrew Michael; Baztan, Juan; Berget, Line Marie; Carmona, Eric; Corcoll, Natàlia; Dirven, Hubert; Filella, Montserrat; Gómez-Martínez, Daniela; Herzke, Dorte; Hjertholm, Hege; Jahnke, Annika; Jepsen, Per Meyer; Kardgar, Azora König; Lorenz, Claudia; Negi, Neema; Rojo-Nieto, Elisa; Snapkov, Igor; Sørensen, Lisbet; Syberg, Kristian; Takada, Hideshige; Turner, Andrew; Carney-Almroth, Bethanie

Plastic pellet spills are a major source of microplastic pollution, and pellets are found on beaches worldwide. However, the potential environmental impacts of these spills remain poorly understood. In December 2023, approximately 25,000 kg of polyethylene pellets containing high concentrations of the additive Tinuvin UV-622 were spilled during a shipping accident off the northern coast of Portugal. Pellets collected from an affected beach located in Galicia, Spain, along with solvent extracts and aqueous leachates, were subjected to both target and nontarget chemical analyses and tested in a battery of toxicity assays including a green microalga (Raphidocelis subcapitata), a marine copepod (Apocyclops royi), a fish model (Danio rerio), and a human cell line. Chemical screening identified on the order of 50 chemical substances in addition to Tinuvin UV-622, including a range of known plastic additives and nonintentionally added substances (NIAS). Toxicity assays revealed significant growth inhibition and stress-induced cell aggregation in R. subcapitata and acute toxicity causing immobilization in copepods, which could have potential implications in the environment via the disruption of primary producers and food web dynamics. In contrast, zebrafish embryos showed no significant developmental effects, while human cells exhibited modest, time-dependent reductions in viability. Our findings underscore the complex chemical burden associated with pellet spills and stress the need for policies and regulations to prevent them, reinforcing the importance of applying the precautionary principle in managing the environmental risks linked to plastic pellet production, transport, and accidental release.

2026

Integrated assessment of releases of heavy metals in Europe.

Friedrich, R.; Pacyna, J.; Theloke, J.; Nitter, S.; Dutchak, S.; Fantke, P.; Fudala, J.; Hawiczka, S.; Huck, I.; Munthe, J.; Searl, A.; Strzelecka-Jastrzab, E.; Travnikov, O.

2009

Integrated assessment of noise and air quality in European cities. Methodology.

Peris, Eulàlia; Öztürk, Evrim Dogan; Gsella, Artur; Blanes, Núria; Maza, Miquel Sáinz de la; Domingues, Francisco; Soares, Joana; Guerreiro, Cristina; Horálek, Jan

The resulting index provides spatial information on the areas most affected combining noise and air pollution across European urban areas. This information can build on and contribute to the EEA’s integrated assessments and it is going to be used to disseminate information on the European environment to policy makers and to European citizens.

ETC/ATNI

2022

INTARESE. Revised integrated monitoring. NILU OR

Liu, H-Y.; Bartonova, A.; Dusinska, M. (eds.)

The aim of this report is to summarize the results from (i) review of existing and planned environment and health monitoring programs (section 2.1); (ii) review of frameworks which are currently used in the integrated monitoring programs (section 2.2); (iii) review of the results of SP 1, SP 2 and SP 3 to date within INTARESE project (section 2.3). Based upon the above results, we identified the development needs for integrated monitoring and integrated usage of data/information from multiple sources (section 3); proposed a conceptual framework of integrated environmental health monitoring (section 4); developed a work process of integrated data/information from multiple monitoring programs (section 5); recommended the relevant tools and methodologies for the integrated usage of information from multiple sources (section 6).

2010

INTARESE Workshop report on integrated monitoring. NILU OR

Bartonova, A.; Liu, H-Y.

2010

Publication
Year
Category