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Clean air policies are key for successfully mitigating Arctic warming

von Salzen, Knut; Whaley, Cynthia; Anenberg, Susan C.; Van Dingenen, Rita; Klimont, Zbigniew; Flanner, Mark G.; Mahmood, Rashed; Arnold, Stephen R.; Beagley, Stephen; Chien, Rong-You; Christensen, Jesper H.; Eckhardt, Sabine; Ekman, Annica M. L.; Evangeliou, Nikolaos; Faluvegi, Greg; Fu, Joshua S.; Gauss, Michael; Gong, Wanmin; Hjorth, Jens; Im, Ulas; Krishnan, Srinath; Kupiainen, Kaarle; Kuhn, Thomas; Langner, Joakim; Law, Kathy S.; Marelle, Louis; Oliviè, Dirk Jan Leo; Onishi, Tatsuo; Oshima, Naga; Paunu, Ville-Veikko; Peng, Yiran; Plummer, David; Pozzoli, Luca; Rao-Skirbekk, Shilpa; Raut, Jean-Christophe; Sand, Maria; Schmale, Julia; Sigmond, Michael; Thomas, Manu Anna; Tsigaridis, Kostas; Tsyro, Svetlana; Turnock, Steven T.; Wang, Minqi; Winter, Barbara

A tighter integration of modeling frameworks for climate and air quality is urgently needed to assess the impacts of clean air policies on future Arctic and global climate. We combined a new model emulator and comprehensive emissions scenarios for air pollutants and greenhouse gases to assess climate and human health co-benefits of emissions reductions. Fossil fuel use is projected to rapidly decline in an increasingly sustainable world, resulting in far-reaching air quality benefits. Despite human health benefits, reductions in sulfur emissions in a more sustainable world could enhance Arctic warming by 0.8 °C in 2050 relative to the 1995–2014, thereby offsetting climate benefits of greenhouse gas reductions. Targeted and technically feasible emissions reduction opportunities exist for achieving simultaneous climate and human health co-benefits. It would be particularly beneficial to unlock a newly identified mitigation potential for carbon particulate matter, yielding Arctic climate benefits equivalent to those from carbon dioxide reductions by 2050.

Springer Nature

2022

Clean air and healthy lungs. Enhancing the World Bank's Approach to Air Quality Management. Environment and natural resources global practice discussion paper; 03

Awe, Y.; Nygard, J.; Larssen, S.; Lee, H.; Dulal, H.; Kanakia, R.

This report specifically deals with air pollution, which was reported, by the World Health Organization (WHO), as the single largest environmental health risk globally in 2012 (WHO, 2014a). Air pollution from outdoor and household sources jointly account for more than 7 million deaths (3.7 million from ambient air pollution and 4.3 million from household air pollution). The following sections of this chapter present the objectives of, and key aspects of the institutional context for, this report followed by an examination of some of the major drivers of deteriorating ambient air quality in developing countries; air pollution sources and impacts; and the status of air quality management in developing countries. Chapter two presents the results of a desk-based portfolio review of World Bank projects that are relevant to reduction of air pollution. This is followed, in chapter three, by an examination of case studies of World Bank projects whose objectives include addressing ambient air pollution, highlighting good practices and lessons for future work of the Bank in supporting clients. Chapter four presents possible approaches for enhancing future Bank support in helping clients to improve air quality and reduce the associated adverse health outcomes. Chapter five presents overall conclusions and recommendations.

2015

ClairCity: Citizen-led air pollution reduction in cities. D7.4 Final City Policy Package – Ljubljana.

Slingerland, Stephan; Artola, Irati; Bolscher, Hans; Barnes, Jo; Boushel, Corra; Fogg-Rogers, Laura; Hayes, Enda; Rodrigues, Vera; Oliveira, Kevin; Lopes, Myriam; Vanherle, Kris; Csobod, Eva; Trozzi, Carlo; Piscitello, Enzo; Knudsen, Svein; Soares, Joana

ClairCity Project

2020

ClairCity: Citizen-led air pollution reduction in cities. D7.4 Final City Policy Package – First City (Bristol)

Slingerland, Stephan; Artola, Irati; Bolscher, Hans; Barnes, Jo; Boushel, Corra; de Vito, Laura; Fogg-Rogers, Laura; Hayes, Enda; Rodrigues, Vera; Oliveira, Kevin; Lopes, Myriam; Vanherle, Kris; Csobod, Eva; Trozzi, Carlo; Knudsen, Svein; Soares, Joana

ClairCity Project

2019

ClairCity: Citizen-led air pollution reduction in cities. D7.5 Final City Policy Package – Last City (Amsterdam).

Slingerland, Stephan; Artola, Irati; Barnes, Jo; Fogg-Rogers, Laura; de Vito, Laura; Hayes, Enda; Rodrigues, Vera; Oliveira, Kevin; Lopes, Myriam; Vanherle, Kris; Trozzi, Carlo; Soares, Joana; Knudsen, Svein

ClairCity Project

2020

CitySatAir: Exploiting Sentinel-5P Satellite Data for Mapping Urban Air Quality

Schneider, Philipp; Mijling, Bas; Hamer, Paul David; van der A, Ronald J; Gasbarra, Dario; Retscher, C.

2022

CitySatAir: Exploiting Sentinel-5P nitrogen dioxide data for the urban scale

Schneider, Philipp; Mijling, Bas; Hamer, Paul David

2022

CitySatAir – Monitoring urban NO2 with TROPOMI data

Mijling, Bas; Schneider, Philipp; Hamer, Paul David; Moreno, Paul; Jimenez, Isadora

2024

CityDelta: A model intercomparison study to explore the impact of emission reductions in European cities in 2010.

Cuvelier, C.; Thunis, P.; Vautard, R.; Amann, M.; Bessagnet, B.; Bedogni, M.; Berkowicz, R.; Brandt, J.; Brocheton, F.; Builtjes, P.; Carnavale, C.; Denby, B.; Douros, J.; Graf, A.; Hellmuth, O.; Hodzic, A.; Honoré, C.; Jonson, J.; Kerschbaumer, A.; de Leeuw, F.; Minguzzi, E.; Moussiopoulos, N.; Pertot, C.; Peuch, V.H.; Pirovano, G.; Rouil, L.; Sauter, F.; Schaap, M.; Stern, R.; Tarrasón, L.; Vignati, E.; Volta, M.; White, L.; Wind, P.; Zuber, A.

2007

CityAir app: Mapping air-quality perception using people as sensors.

Castell, N.; Fredriksen, M.; Cole-Hunter, T.; Robinson, J.; Keune, H.; Nieuwenhuijsen, M.; Bartonova, A.

2016

City-level mapping of air quality at fine spatial resolution – the Prague case study. NO2, PM10 and PM2.5 maps on a 100 m spatial grid.

Horálek, Jan; Damaskova, Dasa; Schneider, Philipp; Kurfürst, Pavel; Schreiberova, Marketa; Vlcek, Ondrej

This paper examines the creation of fine resolution maps at 100 m x 100 m resolution using statistical downscaling for the area of Prague, as a case study. This Czech city was selected due to the fine resolution proxy data available for this city. The reference downscaling methodology used is the linear regression and the interpolation of its residuals by the area-to-point kriging. Next to this, several other methods of statistical downscaling have been also executed. The results of different downscaling methods have been compared mutually and against the data from the monitoring stations of Prague, separately for urban background and traffic areas.

The downscaled maps in 100 m x 100 m resolution have been constructed for the area of Prague for three pollutants, namely for NO2, PM10 and PM2.5. Several methods of the statistical downscaling have been compared mutually and against the data from the monitoring stations. In general, the best results are given by the linear regression and the interpolation of its residuals, either by the area-to-point kriging or the bilinear interpolation. In the maps, one can see overall realistic spatial patterns, the main roads in Prague are visible through higher air pollution levels. This is distinct especially for NO2, while for PM10 and PM2.5 the differences between road increments and urban background are smaller as would be expected. The results of the case study for Prague have proven the usefulness of the statistical downscaling for the air quality mapping, especially for NO2. In addition, the population exposure estimates based on the downscaled mapping results have been also calculated.

ETC/HE

2023

Citizens' Observatories: Five EU FP7 Projects. NILU PP

Liu, H.-Y.; Kobernus, M.; Bartonova, A.; Grossberndt, S.; Berre, A.; Ceccaroni, L.; Ties, S.; Arnaud, Y.; Ledent, P.; Wrigley, S.

2014

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