Summary
Elemental C2X (X=N,O,Si,S) molecules are fascinating examples of the richness and variety of the carbon chemistry impinging our universe. Not by happenstance, they are ubiquitous in the interstellar medium and known to drive the C-chemitry in its colder and denser parts. With the specific goal of supplying key input data for astronomical observations and astrochemical models, this MC proposal aims at providing spectroscopic and kinetics attributes for C2Xs (X=N,O,Si,S) based on joint laboratory and theoretical studies. Special efforts will be put in the computation and analytic representation of their global potential energy surfaces (PESs). Novel theoretical strategies will be particularly devised in order for the PESs provide spectroscopically accurate information near the equilibrium structures (via rovibrational calculations), while behaving in a physically reasonable manner elsewhere to allow for reaction dynamics studies. The quality of the predicted transition frequencies will be judged and validated with high-resolution laboratory IR experiments. As part of this synergy, individual training in (experimental) spectral analysis and astrochemistry will be pursued by me, thus covering all aspects of lab astrophysics and its link to my existing knowledge on theoretical chemistry; this latter being the main facet transferred to the host university. The advances expected in both theoretical and experimental analysis separately will add up to the methodological improvements made by their in-house interplay, thence allowing the use of astronomical spectra with much higher impact. As a result, it is certain that the new data will trigger astronomical observations of such species. Besides offering a unique opportunity to develop my professional maturity, this MC work plan will provide a natural stepping stone toward lab astrophysics at which the direct link between lab-, theoretical-based research and astronomical applications is optimized at best to reach new insights
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More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/894321 |
| Start date: | 01-09-2020 |
| End date: | 31-08-2022 |
| Total budget - Public funding: | 175 572,48 Euro - 175 572,00 Euro |
Cordis data
Original description
Elemental C2X (X=N,O,Si,S) molecules are fascinating examples of the richness and variety of the carbon chemistry impinging our universe. Not by happenstance, they are ubiquitous in the interstellar medium and known to drive the C-chemitry in its colder and denser parts. With the specific goal of supplying key input data for astronomical observations and astrochemical models, this MC proposal aims at providing spectroscopic and kinetics attributes for C2Xs (X=N,O,Si,S) based on joint laboratory and theoretical studies. Special efforts will be put in the computation and analytic representation of their global potential energy surfaces (PESs). Novel theoretical strategies will be particularly devised in order for the PESs provide spectroscopically accurate information near the equilibrium structures (via rovibrational calculations), while behaving in a physically reasonable manner elsewhere to allow for reaction dynamics studies. The quality of the predicted transition frequencies will be judged and validated with high-resolution laboratory IR experiments. As part of this synergy, individual training in (experimental) spectral analysis and astrochemistry will be pursued by me, thus covering all aspects of lab astrophysics and its link to my existing knowledge on theoretical chemistry; this latter being the main facet transferred to the host university. The advances expected in both theoretical and experimental analysis separately will add up to the methodological improvements made by their in-house interplay, thence allowing the use of astronomical spectra with much higher impact. As a result, it is certain that the new data will trigger astronomical observations of such species. Besides offering a unique opportunity to develop my professional maturity, this MC work plan will provide a natural stepping stone toward lab astrophysics at which the direct link between lab-, theoretical-based research and astronomical applications is optimized at best to reach new insightsStatus
CLOSEDCall topic
MSCA-IF-2019Update Date
28-04-2024
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