Obiettivo
To understand the processes which control tropospheric ozone and oxidation capacity on a regional and global basis.
There are still severe limits to our understanding of the processes which control tropospheric ozone and oxidation capacity on a regional and global basis. These limits restrict our ability to address many scientific and policy issues, and the aim of this proposal is to employ a well integrated combination of airborne and ground-based measurements and statistical and deterministic models to resolve some of these.
Amongst these questions are those relating to Global Change, such as: Is the ozone concentration over the North Atlantic significantly enhanced by human-made emissions? Can the ozone balance be predicted? A second set of questions relate to oxidation processes: How many ozone molecules are formed for each NOX molecule converted into products, including organic nitrates? How does this number depend on the concentration of precursors? Can indirect estimates be made of the main oxidant molecule, hydroxyl? A third set relates more closely to policy issues: What are the relative roles of VOC and NOX in forming ozone over the N Atlantic? Are measured concentrations of NOy and hydrocarbons consistent with European emission inventories?
The technique used will be to characterise changes in the chemical compositio of summertime European continental air masses as they move over the ocean, and compare them with our current understanding of chemical processes. The air mass from Northern Europe will be followed as they move over the sea in the lower troposphere on the outer edge of an anticyclone, avoiding areas of cloud and precipitation.
Concentrations of ozone, NO, NO2, NOy, PAN, individual organic compounds (including organic nitrates), CO, peroxides and depending on the instrument development, peroxy radicals will be measured by the Meteorological Research Flight C-130 aircraft during several horizontal and vertical interceptions of approximately the same air mass during the first two days after it has left the continent. Campaigns will be undertaken in the summers of 1996 and 1997. Supporting measurements will be made at coastal ground sites, and all data will be archived at NILU.
Aircraft and ground-based data will be analysed and interpreted using 3-d coupled numerical weather prediction, chemistry-transport and Lagrangian models. A novel and rigorous statistical scheme will be applied to the analysis of the measurements and in the validation of deterministic models of photo-oxidant formation. The programme is divided into five closely related work packages, each with a co-ordinator and with well-defined links to all other parts of the project and the project co-ordinator (University of Bergen): Aircraft campaigns (co-ordinated by MRF); ground-based measurements (University of East Anglia); data archiving (NILU); statistical interpretation of measurements (KFA) and model (Lagrangian and Eulerian) interpretation of measurements (University of Cambridge). The project will build on results from the recent EC OCTA project, carried out by some of the partners. KEYWORDS (max l0)
oxidation, ozone, measurements, model, validation, hydroxyl, nitrogen oxides, chemical age, global change
The project uses a well integrated combination of airborne and ground-based measurements and statistical and deterministic models to understand the processes involved. Amongst the questions are those relating to Global Change, such as: Is the ozone concentration over the North Atlantic significantly enhanced by human-made emissions ? Can the ozone balance be predicted? A second set of questions relate to oxidation processes: How many ozone molecules are formed for each NOX molecule converted into products, including organic nitrates ? How does this number depend on the concentration of precursors ? Can indirect estimates be made of the main oxidant molecule, hydroxyl? A third set relates more closely to policy issues: What are the relative roles of VOC and NOX in forming ozone over the N Atlantic ? Are measured concentrations of NOy and hydrocarbons consistent with European emission inventories ?
The technique used will be to characterise changes in the chemical composition of summertime European continental air masses as they move over the ocean, and compare them with our current understanding of chemical processes. The air mass from Northern Europe will be followed as they move over the sea in the lower troposphere on the outer edge of an anticyclone, avoiding areas of cloud and precipitation.
Concentrations of ozone, NO, NO2, NOy, PAN, individual organic compounds (including organic nitrates), CO, peroxides and depending on the instrument development, peroxy radicals will be measured by the Meteorological Research Flight C-130 aircraft during several horizontal and vertical interceptions of approximately the same air mass during the first two days after it has left the continent. Campaigns will be undertaken in the summers of 1996 and 1997. Supporting measurements will be made at coastal ground sites, and all data will be archived at NILU. Aircraft and ground-based data will be analyzed and interpreted using 3-d coupled numerical weather prediction, chemistry-transport and Lagrangian models. A novel and rigorous statistical scheme will be applied to the analysis of the measurements and in the validation of deterministic models of photo-oxidant formation. The programme is divided into five closely related work packages, each with a co-ordinator and with well-defined links to all other parts of the project and the project co-ordinator (University of Bergen): Aircraft campaigns (co-ordinated by MRF); ground-based measurements (University of East Anglia, Norwich); data archiving (NILU); statistical interpretation of measurements (KFA) and model (Lagrangian and Eulerian) interpretation of measurements (University of Cambridge). The project will build on results from the recent EC OCTA project, carried out by some of the
Campo scientifico (EuroSciVoc)
CORDIS classifica i progetti con EuroSciVoc, una tassonomia multilingue dei campi scientifici, attraverso un processo semi-automatico basato su tecniche NLP. Cfr.: Il Vocabolario Scientifico Europeo.
CORDIS classifica i progetti con EuroSciVoc, una tassonomia multilingue dei campi scientifici, attraverso un processo semi-automatico basato su tecniche NLP. Cfr.: Il Vocabolario Scientifico Europeo.
- scienze naturali scienze chimiche elettrochimica elettrolisi
- ingegneria e tecnologia ingegneria meccanica ingegneria dei veicoli ingegneria aerospaziale aeromobili
- scienze naturali scienze chimiche chimica organica idrocarburi
- scienze naturali scienze della terra e scienze ambientali connesse scienze dell'atmosfera meteorologia troposfera
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Programmi di finanziamento pluriennali che definiscono le priorità dell’UE in materia di ricerca e innovazione.
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Gli inviti a presentare proposte sono suddivisi per argomenti. Un argomento definisce un’area o un tema specifico per il quale i candidati possono presentare proposte. La descrizione di un argomento comprende il suo ambito specifico e l’impatto previsto del progetto finanziato.
Gli inviti a presentare proposte sono suddivisi per argomenti. Un argomento definisce un’area o un tema specifico per il quale i candidati possono presentare proposte. La descrizione di un argomento comprende il suo ambito specifico e l’impatto previsto del progetto finanziato.
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Procedura per invitare i candidati a presentare proposte di progetti, con l’obiettivo di ricevere finanziamenti dall’UE.
Meccanismo di finanziamento
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Meccanismo di finanziamento (o «Tipo di azione») all’interno di un programma con caratteristiche comuni. Specifica: l’ambito di ciò che viene finanziato; il tasso di rimborso; i criteri di valutazione specifici per qualificarsi per il finanziamento; l’uso di forme semplificate di costi come gli importi forfettari.
Coordinatore
5007 Bergen
Norvegia
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