We introduce CRASH-AMR, a new version of the cosmological radiative transfer (RT) code CRASH, enabled to use refined grids. This new feature allows us to attain higher resolution in our RT simulations and thus to describe more accurately ionization and temperature patterns in high-density regions. We have tested CRASH-AMR by simulating the evolution of an ionized region produced by a single source embedded in gas at constant density, as well as by a more realistic configuration of multiple sources in an inhomogeneous density field. While we find an excellent agreement with the previous version of CRASH when the adaptive mesh refinement (AMR) feature is disabled, showing that no numerical artefact has been introduced in CRASHAMR, when additi...
We present a new implementation of radiation hydrodynamics (RHD) in the adaptive mesh refinement (AM...
We implemented sink particles in the Adaptive Mesh Refinement (AMR) code FLASH to model the gravitat...
International audienceContext. Both radiative transfer and magnetic field are understood to have str...
We introduce CRASH-AMR, a new version of the cosmological radiative transfer (RT) code CRASH, enable...
Abstract Here we introduce CRASH4 [6], the fourth release of the cosmological radiative transfer c...
In this paper, we report on the improvements implemented in the cosmological radiative transfer code...
We present the new parallel version (PCRASH2) of the cosmological radiative transfer code CRASH2 for...
Here we introduce CRASH3, the latest release of the 3D radiative transfer code CRASH. In its current...
International audienceWe have explored the evolution of gas distributions from cosmological simulati...
We present a new three-dimensional radiative transfer (RT) code, RADAMESH, based on a ray-tracing, p...
We describe the Center for Radiative Shock Hydrodynamics (CRASH) code, a block-adaptive-mesh code fo...
We present a new dust extension to the Monte Carlo radiative transfer code CRASH, which enables it t...
We describe the Center for Radiative Shock Hydrodynamics (CRASH) code, a block-adaptive-mesh code fo...
We present a new dust extension to the Monte Carlo radiative transfer code CRASH, which enables it t...
MetalCRASH is a new variant of the cosmological radiative transfer code CRASH[1 -4] . MetalCRASH ex...
We present a new implementation of radiation hydrodynamics (RHD) in the adaptive mesh refinement (AM...
We implemented sink particles in the Adaptive Mesh Refinement (AMR) code FLASH to model the gravitat...
International audienceContext. Both radiative transfer and magnetic field are understood to have str...
We introduce CRASH-AMR, a new version of the cosmological radiative transfer (RT) code CRASH, enable...
Abstract Here we introduce CRASH4 [6], the fourth release of the cosmological radiative transfer c...
In this paper, we report on the improvements implemented in the cosmological radiative transfer code...
We present the new parallel version (PCRASH2) of the cosmological radiative transfer code CRASH2 for...
Here we introduce CRASH3, the latest release of the 3D radiative transfer code CRASH. In its current...
International audienceWe have explored the evolution of gas distributions from cosmological simulati...
We present a new three-dimensional radiative transfer (RT) code, RADAMESH, based on a ray-tracing, p...
We describe the Center for Radiative Shock Hydrodynamics (CRASH) code, a block-adaptive-mesh code fo...
We present a new dust extension to the Monte Carlo radiative transfer code CRASH, which enables it t...
We describe the Center for Radiative Shock Hydrodynamics (CRASH) code, a block-adaptive-mesh code fo...
We present a new dust extension to the Monte Carlo radiative transfer code CRASH, which enables it t...
MetalCRASH is a new variant of the cosmological radiative transfer code CRASH[1 -4] . MetalCRASH ex...
We present a new implementation of radiation hydrodynamics (RHD) in the adaptive mesh refinement (AM...
We implemented sink particles in the Adaptive Mesh Refinement (AMR) code FLASH to model the gravitat...
International audienceContext. Both radiative transfer and magnetic field are understood to have str...