The Environmental Geochemistry and Atmospheric Research (EGAR) group investigates the chemical and physical processes responsible for the emission, transport, fate and removal of atmospheric pollutants that impact on human health and ecosystems. A major objective is to investigate measures (technological and non-technological) to improve air quality and reduce human exposure to air pollution. Main research lines include, air quality research, source apportionment assessment, atmospheric processes affecting air quality, aerosols and climate change (interpreting optical aerosol radiative effects), human exposure to air pollutants, including commuting, schools, occupational and other indoor and outdoor environments, industrial emissions and industrial wastes (environmental impact and utilisation).
https://idaeaold.ondeuevprojects.net/egar/
EGAR research on Air Quality aims at understanding the chemical and physical processes responsible for the emission, transport, fate and removal of atmospheric pollutants with impact on human health and vegetation. The main objective is to investigate measures (technological and non-technological) to reduce emissions, concentrations or human exposure.
Atmospheric aerosols affect the radiative balance of the Earth-atmosphere system and the Earth’s climate directly through scattering and absorption of solar radiation. Indirectly, by acting as cloud condensation nuclei, atmospheric aerosols can modify cloud properties and precipitation. Our aim is interpreting optical aerosol radiative effects as a function of their chemical and physical patterns and source contributions.
Major knowledge gaps remain regarding exposure to fine and ultrafine particles in indoor, commuting and outdoor environments. Our aim is investigating the pathways of human exposure to air pollutants in both types of environments, and to understanding and quantifying the contribution of different sources to outdoor, commuting and indoor exposure.
Industrial emissions from large industrial facilities (coal-fired power plants, ceramic and cement industry, refineries) are important sources of air pollutants (SOx, NOx, and particulate matter (PM)) producing also significant emissions to water and soil. We develop research on characterising emissions of trace pollutants with a major environmental impact and devising and testing the efficiency of emission abatement controls.
Since the earlier 1980s we develop research on environmental valorisation of industrial wastes with special emphasis on coal combustion/gasification residues. These wastes may be hazardous and we devise and test the efficiency of valorisation processes as well as pollutants immobilisation strategies in case of waste disposal.
Convenio entre la Agencia Estatal CSIC (IDAEA), el Barcelona Supercomputing Center (BSC/CNS), el Centro de Estudios Ambientales del Mediterráneo, la Universitat Jaume I (a través del Instituto de Tecnología Cerámica) y la Universidad del País Vasco para la realización conjunta del proyecto Plan Nacional de Ozono Troposférico
CONVENIO
Start Date: 21/11/2023 – End Date: 21/11/2027
Convenio entre la Agencia Estatal CSIC (IDAEA) y el Barcelona Supercomputing Center (BSC/CNS) para la realización conjunta de un proyecto de I+D+i sobre ozono troposférico
CONVENIO
Start Date: 01/11/2021 – End Date: 01/12/2026
La evaluación y gestión de los riesgos naturales y su impacto ambiental
Itinerario Cicerón
Los riesgos naturales (como terremotos, inundaciones, deslizamientos, incendios forestales y sequías) forman parte de los procesos naturales de la Tierra. Sin embargo, su impacto se ha intensificado debido al
cambio climático, el crecimiento poblacional, la urbanización no planificada y la deforestación. Estos eventos pueden generar consecuencias devastadoras tanto ambientales como sociales, afectando ecosistemas,
infraestructuras y la salud y bienestar de las comunidades.
El desafío principal consiste en evaluar y gestionar estos riesgos para reducir sus efectos. La gestión debe abarcar todas las fases: prevención, preparación, respuesta y recuperación, incorporando dimensiones
ambientales, económicas y sociales.
La evaluación de los riesgos naturales requiere identificar los fenómenos que afectan una región determinada, analizar la vulnerabilidad y exposición de las poblaciones y territorios, y valorar su capacidad de
adaptación. Este proceso se apoya en modelos científicos avanzados que integran información geoespacial, meteorológica, hidrológica y climática, permitiendo comprender la probabilidad de ocurrencia y la magnitud
del impacto potencial.
El objetivo de esta propuesta es evidenciar que el CSIC, principal organismo público de investigación en España, dispone de las capacidades científicas, tecnológicas y humanas necesarias para contribuir de forma
decisiva a la evaluación y gestión de los riesgos naturales y a la mejora de la calidad ambiental. A través de la integración de distintos departamentos y centros especializados, el CSIC puede ofrecer soluciones
innovadoras y basadas en la ciencia para afrontar los desafíos asociados a los desastres naturales.
Financiación: Consejo Superior de Investigaciones Científicas (CSIC)
Start Date: 01/01/2026 – End Date: 31/12/2026
A CSIC para trabajos relacionados con la contaminación atmosférica y por COPS
MITERD- M AMBIENTE
Financiado por Ministerio para la Transición Ecológica y el Reto Demográfico (MTERD)
Start Date: 04/06/2021 – End Date: 04/06/2029
UrbanVOC
Measurements and modelling for advancing knowledge of NMVOC concentrations in urban air and associated emission sources in Berlin and Barcelona
Non-methane hydrocarbons (NMVOCs) are trace gases of anthropogenic and biogenic sources. They are important precursors for the formation of secondary pollutants, such as ozone and secondary organic aerosol, which is a component of particulate matter. Some NMVOCs, such as benzene, also have direct adverse health effects. There are a number of research gaps related to NMVOCs and their role in urban air pollution. For one, there is a lack of measurements of NMVOCs in urban areas. This limits understanding of source sector contributions to total NMVOC emissions. Furthermore, the limited number of individual NMVOCs typically measured means that speciation profiles used for understanding source contributions and representation of NMVOCs in emission inventories needs improvement. Emission inventories are critical input for air quality models, important tools for atmospheric science research and policy support for mitigation air pollution. This combination of research gaps has resulted in limited capacity for assessing model performance for capturing NMVOCs. In the UrbanVOC project, we are bringing together expertise in measurements, modelling, and emissions, to make a coordinated effort to address the research gaps outlined above. Parallel measurement campaigns in Berlin and Barcelona will be carried out, that will allow for source apportionment analysis and new insights into source sector contributions and speciation. The measurement data and source apportionment results will also inform an assessment of the representation of NMVOCs in emission inventories. Two state-of-the-art air quality models will be run and evaluated at regional and local scale using the campaign data and improved emission inventory information. Finally, having two cities and two models will allow for comparisons and sensitivity analyses that will advance knowledge beyond that possible without this cooperation. Results will be broadly applicable to the European research community.
Project PCI2024-155057-2 funded by MICIU/AEI /10.13039/501100011033 and the European Union NextGenerationEU/PRTR
Start Date: 31/12/2024 – End Date: 30/12/2027
NANOHEALTH
Reducing nanoparticle exposures in industrial workplaces
The main objective of the LIFE NANOHEALTH project is to reduce occupational exposure to process-generated nanoparticles from permanently releasing industrial processes by optimising the performance of Risk Management Measures in indoor exposure scenarios. The aim is to clearly define the levels of concentration and risks posed by process-generated nanoparticles generated in industrial processes, as well as develop models for simulating the dispersion of these particles in indoor air and draw up engineering measures for minimising process-generated nanoparticles in industrial environments.
The project will contribute to meeting EU legislation on the health and safety of workers regarding the risk of nanomaterials at work in a cost-effective way, providing policymakers, authorities, professionals, and workers with a set of tools and technologies that will offer adequate solutions for addressing these risks.
LIFE Programme: LIFE20 ENV/ES/000187
Start date: 01/01/2022
End date: 01/07/2025
Start Date: 01/01/2022 – End Date: 01/07/2030
Funding: European Project
https://lifenanohealth.eu/en/home-page/
Staff
Permanent Researchers
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