The Monte-Carlo code ERO2.0 was used to simulate steady-state erosion and transport of beryllium (Be) in the ITER main chamber. Various plasma scenarios were tested, including a variation of the main species (hydrogen, deuterium, helium), plasma conditions (density, temperature, flow velocity) and magnetic configurations. The study provides valuable predictions for the Be transport to the divertor, where it is expected to be an important contributor to dust formation and fuel retention due to build-up of co-deposited layers. The Be gross and net erosion rates provided by this study can help identifying first wall regions with potentially critical armour lifetime
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
The ITER beryllium (Be) first wall (FW) panels are shaped to protect leading edges between neighbour...
The recently developed Monte-Carlo code ERO2.0 is applied to the modelling of limited and diverted d...
The recently developed Monte-Carlo code ERO2.0 is applied to the modelling of limited and diverted d...
| openaire: EC/H2020/633053/EU//EUROfusionThe recently developed Monte-Carlo code ERO2.0 is applied ...
The recently developed Monte-Carlo code ERO2.0 is applied to the modelling of limited and diverted d...
The recently developed Monte-Carlo code ERO2.0 is applied to the modelling of limited and diverted d...
ERO2.0 is a recently developed Monte‐Carlo code for modelling global erosion and redeposition in fus...
ITER will use beryllium as a plasma-facing material in the main chamber, covering a total surface ar...
ITER will use beryllium as a plasma-facing material in the main chamber, covering a total surface ar...
The present study addresses the uncertainties that affect the recently performed predictions of bery...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
The ITER beryllium (Be) first wall (FW) panels are shaped to protect leading edges between neighbour...
The recently developed Monte-Carlo code ERO2.0 is applied to the modelling of limited and diverted d...
The recently developed Monte-Carlo code ERO2.0 is applied to the modelling of limited and diverted d...
| openaire: EC/H2020/633053/EU//EUROfusionThe recently developed Monte-Carlo code ERO2.0 is applied ...
The recently developed Monte-Carlo code ERO2.0 is applied to the modelling of limited and diverted d...
The recently developed Monte-Carlo code ERO2.0 is applied to the modelling of limited and diverted d...
ERO2.0 is a recently developed Monte‐Carlo code for modelling global erosion and redeposition in fus...
ITER will use beryllium as a plasma-facing material in the main chamber, covering a total surface ar...
ITER will use beryllium as a plasma-facing material in the main chamber, covering a total surface ar...
The present study addresses the uncertainties that affect the recently performed predictions of bery...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
International audienceITER will use beryllium as a plasma-facing material in the main chamber, cover...
The ITER beryllium (Be) first wall (FW) panels are shaped to protect leading edges between neighbour...