Particles physics, Astrophysics, Geosciences, Environment and ecology (PAGE)
This research pole covers the fields of particle and nucleus Physics, Astrophysics, the Earth, the Environment and ecology. This work contributes to the development and exploitation of large instruments, long-term observation means and research infrastructures, in the framework of a national and international programs. It relies on important and innovative instrumental developments and numerical means (calculations, data), and addresses several major societal challenges.
Strategic axes
The universe: origin, composition, evolution
Research of new physics at the Large Hadron Collider (LHC): origin of masses, new particles, matter-antimatter asymmetry, properties of the plasma of quarks and gluons.
Neutrino physics: measuring charge-parity symmetry violation, in connection with the origin of matter-antimatter asymmetry.
Nature of dark matter and dark energy in the Universe, combining ground-based and space-based observations of astro-particles and massive structures such as galaxy clusters.
Multi-messenger astrophysics: characterize the sources of gravitational waves, and more generally the sky at high energies (cosmic rays, gamma rays).
Neutrino physics: measuring charge-parity symmetry violation, in connection with the origin of matter-antimatter asymmetry.
Nature of dark matter and dark energy in the Universe, combining ground-based and space-based observations of astro-particles and massive structures such as galaxy clusters.
Multi-messenger astrophysics: characterize the sources of gravitational waves, and more generally the sky at high energies (cosmic rays, gamma rays).
Stellar systems, planetary systems & planet Earth
Interstellar medium and star formation: dependence of star properties on the structure, dynamics, magnetic field, and chemistry of the interstellar medium.
Proto-planetary disks: understanding the formation of planets and the role of the magnetic field in the coupling of the disk with its star.
Extra-solar planets: detection, characterization (core, atmosphere) and dynamics to understand their diversity and origin.
Solar system: exobiology via missions to study the moons of Jupiter and Saturn, and the return of Martian samples to Earth.
Planetary cores, in particular that of the Earth: simulations of the dynamics of the Earth's core, with the contribution of applied mathematics and satellite data assimilation algorithms.
Proto-planetary disks: understanding the formation of planets and the role of the magnetic field in the coupling of the disk with its star.
Extra-solar planets: detection, characterization (core, atmosphere) and dynamics to understand their diversity and origin.
Solar system: exobiology via missions to study the moons of Jupiter and Saturn, and the return of Martian samples to Earth.
Planetary cores, in particular that of the Earth: simulations of the dynamics of the Earth's core, with the contribution of applied mathematics and satellite data assimilation algorithms.
Earth and anthropization: climate, ecosystems, risks, resources
Climate-water: regionalization of climate models to understand the effects of global change on hydrological regimes in mountain environments, on ice caps, and in intertropical zones.
Anthropocene: understanding the coupled themes of climate - human activities - environmental quality, including analytical studies, contaminant dynamics, and characterization of extreme events.
Biodiversity and ecosystems: evolution and spatial variations, respective contributions of climate, soil and pollutants.
Physics, Chemistry and dynamics of the Earth: at all time and space scales.
Geo-resources: identification, modalities of formation and variability, exploitation and recycling.
Natural risks and hazards: multidisciplinary approaches to natural hazards and risk for the purpose of anticipating future risks in the context of global change.
Anthropocene: understanding the coupled themes of climate - human activities - environmental quality, including analytical studies, contaminant dynamics, and characterization of extreme events.
Biodiversity and ecosystems: evolution and spatial variations, respective contributions of climate, soil and pollutants.
Physics, Chemistry and dynamics of the Earth: at all time and space scales.
Geo-resources: identification, modalities of formation and variability, exploitation and recycling.
Natural risks and hazards: multidisciplinary approaches to natural hazards and risk for the purpose of anticipating future risks in the context of global change.
Partners
Laboratories
Associated laboratories
Labex
- ENIGMASS
The enigma of mass - FOCUS
Better detectors for exploring the universe - OSUG@2020
Innovative strategies for observing and modelling natural systems - TEC21
Mechanical and process engineering
Schools and training structures
- Chemestry and biology
- Grenoble INP - Ense3
Energy, Water, Environment - Grenoble INP - Phelma
Physics, Electronics, Materials - IUT 1 Grenoble
- OSUG
Institute Universe Sciences Observatory of Grenoble - PhITEM
Physics, Ingeniery, Earth, Environment, Mechanics - Polytech Grenoble
- SceM
Sciences and Montains
Others
- FED 3G
Federation of Research Galileo Galilei Grenoble - FR Free-Alpes
Federation of Research in Ecology and Environment - UAR GRICAD
Intensive Calculation and Data - UAR OSUG
Universe Sciences Observatory of Grenoble - UAR The Lautaret Alpine Garden
- CSUG
Centre spatial universitaire de Grenoble
Published on February 6, 2020
Updated on December 9, 2021
Updated on December 9, 2021
Contacts
- Jean-Charles Augereau
Directeur - Corinne Goy
Directrice adjointe - Anne Paul
Directrice adjointe - Fabien Arnaud
Chargé de mission - Carole Musset
Coordonnatrice administrative
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