FInding ExoeaRths: tackling the ChallengEs of stellar activity
FIERCE aims to enhance exoplanet detection by developing methods to model and correct stellar noise, using the Paranal solar Espresso Telescope to improve precision in identifying Earth-like planets.
Projectdetails
Introduction
FIERCE aims at providing the long-needed step forward to tackle the challenges of stellar activity on the search for Exoearths.
Objective
The detection and characterisation of other Earths, planets with the physical conditions to hold liquid water and thus potential life-sustaining environments, is a bold objective of present-day astrophysics. This goal continuously pushes the development of new ground- and space-based instrumentation.
Challenges
However, the quest for other Earths is severely limited by astrophysical "noise" from the host stars, whose signatures distort the spectra that are used to detect and characterise them. Existing methods usually circumvent the problem without a detailed understanding of the individual sources of variability. This is insufficient to reach the required precision levels.
Need for a New Approach
To enable the full scientific success of major exoplanet research facilities, a new approach is clearly needed.
Methodology
With FIERCE, the PI will employ his competitive team, together with the strong participation in cutting-edge ESO and ESA projects and missions, to break through this obstacle. The ultimate goals are to:
- Develop novel approaches to identify, model, and correct stellar spurious signals in radial velocity measurements down to 10 cm/s.
- Obtain a comprehensive understanding of the impact of stellar granulation and activity on the detection of exoplanet atmospheres.
Innovative Solution
To this end, FIERCE will approach the problem of stellar "noise" from a whole new angle by building a dedicated facility, the Paranal solar Espresso Telescope (PoET). PoET will connect to the recently commissioned ESPRESSO spectrograph and, using the Sun as a proxy, allow for the unambiguous identification and understanding of the sources of relevant variability in solar-type stars.
Conclusion
Ambitious, timely, and feasible, this project will provide crucial information for the success of present and future major efforts aiming at detecting and characterising other Earths.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 2.458.705 |
Totale projectbegroting | € 2.458.705 |
Tijdlijn
Startdatum | 1-10-2022 |
Einddatum | 30-9-2027 |
Subsidiejaar | 2022 |
Partners & Locaties
Projectpartners
- CENTRO DE INVESTIGACAO EM ASTRONOMIA E ASTROFISICA DA UNIVERSIDADE DOPORTO ASSOCIACAOpenvoerder
- FCIENCIAS.ID - ASSOCIACAO PARA A INVESTIGACAO E DESENVOLVIMENTO DE CIENCIAS
- UNIVERSIDADE DO PORTO
Land(en)
Vergelijkbare projecten binnen European Research Council
Project | Regeling | Bedrag | Jaar | Actie |
---|---|---|---|---|
REVEALing Signatures of Habitable Worlds Hidden by Stellar ActivityREVEAL unites experts to tackle stellar variability, enhancing exoplanet detection and atmospheric analysis, ultimately aiming to identify Earth-like planets and potential signs of life. | ERC Synergy ... | € 6.831.455 | 2024 | Details |
Exoplanetary Systems with a Coronagraphic Archive Processing EngineThe ESCAPE project aims to enhance starlight subtraction techniques for high-contrast space imagers, improving exoplanet detection by 20x and advancing our understanding of life in the Universe. | ERC Consolid... | € 1.999.996 | 2022 | Details |
Physical modelling of stellar activity effects to discover and measure exoearthsThe SPOTLESS project aims to model and correct stellar activity effects in exoplanet research using advanced simulations and machine learning, enhancing the detection and characterization of exoearths. | ERC Advanced... | € 2.477.355 | 2024 | Details |
Uncovering New Worlds: Enhancing Optical Interferometry to detect reflected light exoplanetPLANETES aims to revolutionize exoplanet atmospheric studies through a high-contrast ground-based interferometric system, enhancing detection capabilities and enabling new astronomical insights. | ERC Advanced... | € 3.490.464 | 2025 | Details |
Radio stars and exoplanets: Discovering the space weather of other worldsThis project aims to enhance our understanding of exoplanet habitability by using low-frequency radio techniques to analyze space weather conditions around stars and their interactions with orbiting planets. | ERC Starting... | € 1.485.971 | 2025 | Details |
REVEALing Signatures of Habitable Worlds Hidden by Stellar Activity
REVEAL unites experts to tackle stellar variability, enhancing exoplanet detection and atmospheric analysis, ultimately aiming to identify Earth-like planets and potential signs of life.
Exoplanetary Systems with a Coronagraphic Archive Processing Engine
The ESCAPE project aims to enhance starlight subtraction techniques for high-contrast space imagers, improving exoplanet detection by 20x and advancing our understanding of life in the Universe.
Physical modelling of stellar activity effects to discover and measure exoearths
The SPOTLESS project aims to model and correct stellar activity effects in exoplanet research using advanced simulations and machine learning, enhancing the detection and characterization of exoearths.
Uncovering New Worlds: Enhancing Optical Interferometry to detect reflected light exoplanet
PLANETES aims to revolutionize exoplanet atmospheric studies through a high-contrast ground-based interferometric system, enhancing detection capabilities and enabling new astronomical insights.
Radio stars and exoplanets: Discovering the space weather of other worlds
This project aims to enhance our understanding of exoplanet habitability by using low-frequency radio techniques to analyze space weather conditions around stars and their interactions with orbiting planets.