Technical applications of multifilamentary wires indicate that filaments are used in complex magnetic fields (a combination of non-parallel a.c./d.c. transverse and rotating fields) carrying an a.c./d.c. transport current of various frequency. Furthermore, due to technical manufacturing processes the filaments are heavily distorted. Therefore, a numerical model is developed to compute the current density of a filament of arbitrary shape in any external transverse field carrying an a.c./d.c. transport current. The great flexibility of the model is shown in several examples
A numerical model to calculate current and losses distribution inside a multifilamentary superconduc...
none4The modeling of current distribution and ac losses in multistrand superconducting cables is str...
The current density distribution of high temperature superconducting (HTS) tapes is modeled for the ...
Technical applications of multifilamentary wires indicate that filaments are used in complex magneti...
A.c. losses caused by an a.c. transport current and a transverse a.c. magnetic field during simultan...
This paper presents a new Finite Element numerical method to analyze the coupling between twisted fi...
Current distribution in multistrand superconducting cables can be a major concern for stability in s...
Nous présentons un modèle numérique, basé sur les équations de Maxwell, pour calculer la dissipation...
Nous avons étudié les variations de la distribution du courant dans les supraconducteurs à filaments...
The modelling of both critical and remanent states (i.e., the current density and field distribution...
This paper presents results from numerical modelling of non-twisted multifilamentary Bi-2223/Ag cond...
Expressions are derived for determining dipole and quadrupole fields in magnets with cylindrical and...
Abstract — AC losses are numerically evaluated for various types of multifilamentary tapes without t...
The validation of numerical codes for the calculation of current distribution and AC loss in superco...
Abstract — The performance of high-current super-conducting multi-strand cables often lags behind th...
A numerical model to calculate current and losses distribution inside a multifilamentary superconduc...
none4The modeling of current distribution and ac losses in multistrand superconducting cables is str...
The current density distribution of high temperature superconducting (HTS) tapes is modeled for the ...
Technical applications of multifilamentary wires indicate that filaments are used in complex magneti...
A.c. losses caused by an a.c. transport current and a transverse a.c. magnetic field during simultan...
This paper presents a new Finite Element numerical method to analyze the coupling between twisted fi...
Current distribution in multistrand superconducting cables can be a major concern for stability in s...
Nous présentons un modèle numérique, basé sur les équations de Maxwell, pour calculer la dissipation...
Nous avons étudié les variations de la distribution du courant dans les supraconducteurs à filaments...
The modelling of both critical and remanent states (i.e., the current density and field distribution...
This paper presents results from numerical modelling of non-twisted multifilamentary Bi-2223/Ag cond...
Expressions are derived for determining dipole and quadrupole fields in magnets with cylindrical and...
Abstract — AC losses are numerically evaluated for various types of multifilamentary tapes without t...
The validation of numerical codes for the calculation of current distribution and AC loss in superco...
Abstract — The performance of high-current super-conducting multi-strand cables often lags behind th...
A numerical model to calculate current and losses distribution inside a multifilamentary superconduc...
none4The modeling of current distribution and ac losses in multistrand superconducting cables is str...
The current density distribution of high temperature superconducting (HTS) tapes is modeled for the ...