A model based on a reaction-diffusion approach is used to simulate thermal desorption experiments performed with ion beam exposed single-crystalline beryllium. The model describes deuterium retention, migration and release, relating microscopic material properties to desorption spectra observed in experiments. Multiple trapping at single vacancies, hydrogen accumulation on the surface and surface coverage dependent desorption are accounted for in the model, showing good qualitative agreement with experimental observations
Temperature Programmed Desorption (TPD) methods are powerful tools for characterizing gas-solid inte...
A new model on hydrogen permeation is proposed, considering absorption and desorption processes on t...
A reaction–diffusion type modelling framework is presented to analyse both electro-permeation (EP) a...
Beryllium will be the first wall material for the international fusion reactor ITER. Due to the heav...
A reaction-diffusion model with surface occupation dependent desorption [D. Matveev et al., Nucl. In...
The atomistic understanding of retention and release processes of deuterium in beryllium is reached ...
Beryllium is proposed to be a neutron multiplier and plasma facing material in future fusion devices...
International audienceBeryllium will be one of the plasma-facing materials for ITER. It will have to...
AbstractBeryllium is proposed to be a neutron multiplier and plasma facing material in future fusion...
The paper addresses the numerical simulation of conditions in which the measurement of thermal desor...
International audienceIn the quest of new renewable sources of energy, hydrogen is a promising candi...
International audienceWe herein introduce an analytical model of hydrogen inventory saturation in th...
International audienceWe herein report on the formation of BeD2 nanocrystalline domes on the surface...
A model to simulate thermal desorption is described. The model is applicable to systems where adsorb...
Temperature Programmed Desorption (TPD) methods are powerful tools for characterizing gas-solid inte...
A new model on hydrogen permeation is proposed, considering absorption and desorption processes on t...
A reaction–diffusion type modelling framework is presented to analyse both electro-permeation (EP) a...
Beryllium will be the first wall material for the international fusion reactor ITER. Due to the heav...
A reaction-diffusion model with surface occupation dependent desorption [D. Matveev et al., Nucl. In...
The atomistic understanding of retention and release processes of deuterium in beryllium is reached ...
Beryllium is proposed to be a neutron multiplier and plasma facing material in future fusion devices...
International audienceBeryllium will be one of the plasma-facing materials for ITER. It will have to...
AbstractBeryllium is proposed to be a neutron multiplier and plasma facing material in future fusion...
The paper addresses the numerical simulation of conditions in which the measurement of thermal desor...
International audienceIn the quest of new renewable sources of energy, hydrogen is a promising candi...
International audienceWe herein introduce an analytical model of hydrogen inventory saturation in th...
International audienceWe herein report on the formation of BeD2 nanocrystalline domes on the surface...
A model to simulate thermal desorption is described. The model is applicable to systems where adsorb...
Temperature Programmed Desorption (TPD) methods are powerful tools for characterizing gas-solid inte...
A new model on hydrogen permeation is proposed, considering absorption and desorption processes on t...
A reaction–diffusion type modelling framework is presented to analyse both electro-permeation (EP) a...