Title :
3D-computation of a thermal process in a superconducting coil
Author :
Netter, D. ; Leveque, Jean ; Rezzoug, A. ; Caron, J.P. ; Sargos, F.M.
Author_Institution :
Groupe de Recherche en Electrotech. et Electron., Nancy I Univ., France
fDate :
11/1/1995 12:00:00 AM
Abstract :
This study deals with the resistive zone propagation in a superconducting coil during a quench, taking into account both the flux density distribution and the anisotropy of the thermal parameters. A Finite Difference Method is used to solve the heat diffusion equation and the flux density is calculated by means of a semi-analytical method. The 3-D model is suitable to describe the quench of thick coils and it can be applied to the study of thermal stability. As an application, a 10 kJ-solenoid is studied
Keywords :
critical current density (superconductivity); finite difference methods; flux-line lattice; superconducting coils; thermal stability; 3D-computation; Finite Difference Method; flux density; flux density distribution; heat diffusion equation; quench; resistive zone propagation; superconducting coil; thermal parameters anisotropy; thermal process; Difference equations; Finite difference methods; Heating; Magnetic anisotropy; Nonlinear equations; Perpendicular magnetic anisotropy; Solenoids; Superconducting coils; Temperature; Thermal quenching;
Journal_Title :
Magnetics, IEEE Transactions on