We introduce a model to describe the mechanical interaction and the energy transfer mechanisms from arc column toward to porous medium occuring in the HBC fuse. The model is built on a macroscopic and microscopic approach in order to evaluate more accurately the thermal evolution of the solid phase and the vaporization and condensation processes of the silica sand. We consider a thermal model at the scale of a sand grain to determine the temperature evolution of the sand grains. The gas flow is based on the compressible homogenized Euler equations with two species coupled with a porous media model. The governing equations are discretized following a finite volume scheme coupled with a fractional step technique
International audienceDuring the HBC fuse working, the fault current implies the initiation of an el...
A FEM model was developed to simulate the temperature increase in the material due to the power inpu...
A conductive wire can explode by rapidly heating it to vaporization temperature by flowing a current...
We present a one dimensional model to describe the gas flow and the heat transfer in high breaking c...
A one-dimensional model is introduced to describe the plasma flow and the heat transfer in a porous ...
We propose a new model to describe compressible fluid flows in porous media introducing a microscopi...
978-1-78561-223-7International audienceIndustrial fuses are composed of metallic elements in compact...
The purpose of this paper is to describe the influence of the silica sand grains on pressure during ...
International audienceIn order to study the short pre-arcing time in high breaking capacity (HBC) fu...
Silicon is produced in submerged arc furnaces (SAFs), with the heat needed for the endothermic chemi...
This paper presents a model which calculates the amount of erosion of an electrical contact undergoi...
The pre-arcing regime is the rst of the two working stages which characterize the fuse operation. It...
By varying the mean granulometry and the packing density of the arc quenching material (silica sand)...
International audienceIn this paper, we present a model and a numerical method of the fuse element h...
The process of gasification is a thermochemical conversion of the organic matter, biomass for exampl...
International audienceDuring the HBC fuse working, the fault current implies the initiation of an el...
A FEM model was developed to simulate the temperature increase in the material due to the power inpu...
A conductive wire can explode by rapidly heating it to vaporization temperature by flowing a current...
We present a one dimensional model to describe the gas flow and the heat transfer in high breaking c...
A one-dimensional model is introduced to describe the plasma flow and the heat transfer in a porous ...
We propose a new model to describe compressible fluid flows in porous media introducing a microscopi...
978-1-78561-223-7International audienceIndustrial fuses are composed of metallic elements in compact...
The purpose of this paper is to describe the influence of the silica sand grains on pressure during ...
International audienceIn order to study the short pre-arcing time in high breaking capacity (HBC) fu...
Silicon is produced in submerged arc furnaces (SAFs), with the heat needed for the endothermic chemi...
This paper presents a model which calculates the amount of erosion of an electrical contact undergoi...
The pre-arcing regime is the rst of the two working stages which characterize the fuse operation. It...
By varying the mean granulometry and the packing density of the arc quenching material (silica sand)...
International audienceIn this paper, we present a model and a numerical method of the fuse element h...
The process of gasification is a thermochemical conversion of the organic matter, biomass for exampl...
International audienceDuring the HBC fuse working, the fault current implies the initiation of an el...
A FEM model was developed to simulate the temperature increase in the material due to the power inpu...
A conductive wire can explode by rapidly heating it to vaporization temperature by flowing a current...