Abstract
A detailed mathematical model and numerical simulation tools based on the SUPG Finite Element Method for the Czochralski crystal growth has been developed. In this presentation the mathematical modeling and numerical simulation of the melt flow and the temperature distribution in a rotationally symmetric crystal growth environment is investigated. The temperature distribution and the position of the free boundary between the solid and liquid phases are solved by using the Enthalpy method. Heat inside of the Czochralski furnace is transferred by radiation, conduction and convection. The melt flow is governed by the incompressible Navier-Stokes equations coupled with the enthalpy equation. The melt flow is numerically demonstrated and the temperature distribution in the whole Czochralski furnace. (author)
Citation Formats
Jaervinen, J, and Nieminen, R.
Mathematical modeling and numerical simulation of Czochralski Crystal Growth.
Finland: N. p.,
1996.
Web.
Jaervinen, J, & Nieminen, R.
Mathematical modeling and numerical simulation of Czochralski Crystal Growth.
Finland.
Jaervinen, J, and Nieminen, R.
1996.
"Mathematical modeling and numerical simulation of Czochralski Crystal Growth."
Finland.
@misc{etde_464570,
title = {Mathematical modeling and numerical simulation of Czochralski Crystal Growth}
author = {Jaervinen, J, and Nieminen, R}
abstractNote = {A detailed mathematical model and numerical simulation tools based on the SUPG Finite Element Method for the Czochralski crystal growth has been developed. In this presentation the mathematical modeling and numerical simulation of the melt flow and the temperature distribution in a rotationally symmetric crystal growth environment is investigated. The temperature distribution and the position of the free boundary between the solid and liquid phases are solved by using the Enthalpy method. Heat inside of the Czochralski furnace is transferred by radiation, conduction and convection. The melt flow is governed by the incompressible Navier-Stokes equations coupled with the enthalpy equation. The melt flow is numerically demonstrated and the temperature distribution in the whole Czochralski furnace. (author)}
place = {Finland}
year = {1996}
month = {Dec}
}
title = {Mathematical modeling and numerical simulation of Czochralski Crystal Growth}
author = {Jaervinen, J, and Nieminen, R}
abstractNote = {A detailed mathematical model and numerical simulation tools based on the SUPG Finite Element Method for the Czochralski crystal growth has been developed. In this presentation the mathematical modeling and numerical simulation of the melt flow and the temperature distribution in a rotationally symmetric crystal growth environment is investigated. The temperature distribution and the position of the free boundary between the solid and liquid phases are solved by using the Enthalpy method. Heat inside of the Czochralski furnace is transferred by radiation, conduction and convection. The melt flow is governed by the incompressible Navier-Stokes equations coupled with the enthalpy equation. The melt flow is numerically demonstrated and the temperature distribution in the whole Czochralski furnace. (author)}
place = {Finland}
year = {1996}
month = {Dec}
}