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Found 9759 publications. Showing page 226 of 391:

Publication  
Year  
Category

Heavy metals and POP measurements, 2017

Aas, Wenche; Bohlin-Nizzetto, Pernilla

NILU

2019

Heavy metals and POP measurements, 2016

Aas, Wenche; Bohlin-Nizzetto, Pernilla

NILU

2018

Heavy metals and POP measurements, 2015. EMEP/CCC

Aas, W.; Bohlin-Nizzetto, P.

2017

Heavy metals and POP measurements, 2014. EMEP/CCC

Aas, W.; Pfaffhuber, K. A.; Bohlin-Nizzetto, P.

2016

Heavy metals and POP measurements, 2013. EMEP/CCC

Aas, W.; Bohlin-Nizzetto, P.

2015

Heavy metals and POP measurements, 2012. EMEP/CCC

Aas, W.; Bohlin-Nizzetto, P.

2014

Heavy metals and POP measurements, 2011. EMEP/CCC

Aas, W.; Breivik, K.

2013

Heavy metals and POP measurements, 2010. EMEP/CCC

Aas, W.; Breivik, K.

2012

Heavy metals and POP measurements, 2009. EMEP/CCC

Aas, W.; Breivik, K.

2011

Heavy metals and POP measurements, 2008. EMEP/CCC

Aas, W.; Breivik, K.

2010

Heavy metals and POP measurements, 2007. EMEP/CCC

Aas, W.; Breivik, K.

2009

Heavy metals and POP measurements, 2006. EMEP/CCC

Aas, W.; Breivik, K.

2008

Heavy metals and POP measurements, 2005. EMEP/CCC

Aas, W.; Breivik, K.

2007

Heavy metals and POP measurements, 2004. EMEP/CCC

Aas, W.; Breivik, K.

2006

Heavy metals and POP measurements, 2003. EMEP/CCC

Aas, W.; Breivik, K.

2005

Heavy metals and POP measurements, 2002. EMEP/CCC

Aas, W.; Breivik, K.

2004

Heavy metals and POP measurements 2022

Aas, Wenche; Halvorsen, Helene Lunder; Pfaffhuber, Katrine Aspmo

This report presents an overview of the annual statistics and results from the monitoring programme of heavy metals and persistent organic pollutants (POPs) in EMEP in 2022.

NILU

2024

Heavy metals and POP measurements 2001. EMEP/CCC

Aas, W.; Hjellbrekke, A.-G.

2003

Heavy metal transboundary air pollution in Europe: Monitoring and modelling results for 1997 and 1998.

Ilyin, I.; Ryaboshapko, A.; Travnikov, O.; Berg, T.; Hjellbrekke, A.-G.; Larsen, R.

2000

Heavy metal emissions in Europe.

Theloke, J.; Friedrich, R.; Pacyna, J.; Pacyna, E.G.; Nitter, S.; Kummer, U.

2009

Heating plant i Torshavn. Review of two assessments. NILU OR

Tønnesen, D.

NILU has made simple model calculations of an emission from a planned energy central in the Faroes, and made a review of two separate reports concerning emissions from this facility. NILU agrees with the conclusion made by H.R. Olesen that a 20 m high stack is sufficient to uphold the Danish air quality regulations.

2013

Health risks from pollutants in domestic environments: the urban exposure project.

Coulson, G.; Bartonova, A.; Bøhler, T.; Broday, D.M.; Colbeck, I.; Fløisand, I.; Fudala, J.; Hollander, W.; Housiadas, C.; Lazaridis, M.; Smolik, J.

2003

Health risk assessments of air pollution. Estimations of the 2019 HRA, benefit analysis of reaching specific air quality standards and more.

Ortiz, Alberto González; Guerreiro, Cristina; Soares, Joana; Horálek, Jan

The health risk related to exposure to air pollution (fine particulate matter - PM2.5, ozone - O3, and nitrogen dioxide - NO2) in 2019 was estimated in terms of number of premature deaths and years of life lost related to exposure to for 41 European countries, including the 27 EU Member States. In 2019, air pollution continued to drive a significant burden of premature death and disease in the 41 countries reporting to EEA: 373,000 premature deaths were attributed to chronic exposure to PM2.5; 47,700 premature deaths were attributed to chronic NO2 exposure; 19,070 premature deaths were attributed to acute O3 exposure. The analysis on the EU’s progress to reach the 2030 target established in the Zero Pollution Action Plan shows a steady decrease in the number of premature deaths along the years, and if it continues to fall at a comparable rate in the future, then the target would be achieved by 2032. Had the new WHO air quality guideline level for PM2.5 of 5 µg/m3 been attained already in 2019 everywhere in Europe, the number of estimated premature deaths would have been at least 58 % lower. On the other hand, the attainment of the EU limit value for PM2.5 of 25 µg/m3 would have left the estimated number of premature deaths unchanged in EU-27.

ETC/ATNI

2021

Health Risk Assessment of Air Pollution: assessing the environmental burden of disease in Europe in 2021

Soares, Joana; Plass, Dietrich; Kienzler, Sarah; Ortiz, Alberto González; Gsella, Artur; Horálek, Jan

This report presents the results of the environmental burden of disease (or health risk) assessment related to air pollution in 2021. The estimates include all-cause mortality and cause-specific mortality and morbidity health outcomes, with ten risk-outcome pairs considered for the cause-specific estimates. Cause-specific mortality and morbidity estimates are combined to allow assessing the overall impact on population health based on a common indicator, the disability-adjusted life year. Using estimates disaggregated by mortality and morbidity components allows for the identification of the related shares across European countries.

ETC/HE

2023

Health Risk Assessment of Air Pollution in Europe. Methodology description and 2017 results

Soares, Joana; Horálek, Jan; Ortiz, Alberto González; Guerreiro, Cristina; Gsella, Artur

This report describes the methodology applied to assess health risks across Europe in 2016, published in the European Environmental Agency’s Air Quality in Europe – 2019 report. The methodology applied is based on the work by de Leeuw and Horálek (2016), with a few adjustments. To estimate the health risk related to air pollution, the number of premature deaths and years of life lost related to exposure to fine particulate matter, ozone and nitrogen dioxide exposure were calculated for 41 countries across Europe. The results show that the largest health risks are estimated for the countries with the largest populations. However, in relative terms, when considering e.g., years of life lost per 100 000 inhabitants, the largest relative risks are observed in central and eastern European countries, and the lowest are found for the northern and north-western parts of Europe. Additionally to the assessment, a sensitivity analysis was undertaken to comprehend how much the presumed baseline concentration levels, the concentration below which no health effects are expected, affect the estimations. In addition, a benefit analysis, assuming attainment of the PM2.5 WHO guidelines across Europe, shows a reduction over 30 % of the 2017 premature deaths and years of life lost numbers.

ETC/ATNI

2020

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