Laser-driven shock compression of samples precompressed to 1 GPa produces high-pressure-temperature conditions inducing two significant changes in the optical properties of water: the onset of opacity followed by enhanced reflectivity in the initially transparent water. The onset of reflectivity at infrared wavelengths can be interpreted as a semiconductorelectronic conductor transition in water, and is found at pressures above ~130 GPa for single-shocked samples precompressed to 1 GPa. Our results indicate that conductivity in the deep interior of “icy” giant planets is greater than realized previously because of an additional contribution from electrons
We present some preliminary results on the equation of state (EOS) of water in a pressure regime of...
The study of planetary interiors is a key concern for the purpose of providing a unified framework a...
Understanding hydrodynamic phenomena driven by fast electron heating is important for a range of app...
Laser-driven shock compression of pre-compressed water (up to 1 GPa precompression) produces high-pr...
Laser-driven shock compression of samples precompressed to 1 GPa produces high-pressure-temperature...
The optical reflectance of a strong shock front in water increases continuously with pressure above ...
In this work, we present experimental results on the behavior of liquid water at megabar pressure. T...
An accurate equation of state (EOS) for planetary constituents at extreme conditions is the key to a...
Characterising the behaviour of planetary interiors’ components at extreme conditions (megabar press...
High power lasers are a tool that can be used to determine important parameters in the context of wa...
International audienceWater, methane, and ammonia are commonly considered to be the key components o...
Materials can be experimentally characterized at high pressures and densities by sending a laser-ind...
We present some preliminary results on the equation of state (EOS) of water in a pressure regime of...
The study of planetary interiors is a key concern for the purpose of providing a unified framework a...
Understanding hydrodynamic phenomena driven by fast electron heating is important for a range of app...
Laser-driven shock compression of pre-compressed water (up to 1 GPa precompression) produces high-pr...
Laser-driven shock compression of samples precompressed to 1 GPa produces high-pressure-temperature...
The optical reflectance of a strong shock front in water increases continuously with pressure above ...
In this work, we present experimental results on the behavior of liquid water at megabar pressure. T...
An accurate equation of state (EOS) for planetary constituents at extreme conditions is the key to a...
Characterising the behaviour of planetary interiors’ components at extreme conditions (megabar press...
High power lasers are a tool that can be used to determine important parameters in the context of wa...
International audienceWater, methane, and ammonia are commonly considered to be the key components o...
Materials can be experimentally characterized at high pressures and densities by sending a laser-ind...
We present some preliminary results on the equation of state (EOS) of water in a pressure regime of...
The study of planetary interiors is a key concern for the purpose of providing a unified framework a...
Understanding hydrodynamic phenomena driven by fast electron heating is important for a range of app...