Victor M. R. Zermeno

TL;DR: In this article, a homogenization method to model a stack of second generation High Temperature Superconducting tapes under AC applied transport current or magnetic field has been obtained, where the idea is to find an anisotropic bulk equivalent for the stack such that the geometrical layout of the internal alternating structures of insulating, metallic, superconducting, and substrate layers is washed out while keeping the overall electromagnetic behavior of the original stack.

TL;DR: In this paper, a homogenization method to model a stack of second generation (2G) HTS tapes under AC applied transport current or magnetic field has been obtained, where the idea is to find an anisotropic bulk equivalent for the stack, such that the geometrical layout of the internal alternating structures of insulating, metallic, superconducting and substrate layers is "washed" out while keeping the overall electromagnetic behavior of the original stack.

TL;DR: In this article, the authors present a numerical model based on the critical state with angular field dependence of Jc to extract the Jc(B,theta) relation from experimental data.

TL;DR: In this paper, the authors proposed a series of adaptations to the multi-scale and homogenization methods so that they can be efficiently used in conjunction with the T-A formulation to compute the distribution of current density and hysteresis losses in the superconducting layer of Superconducting tapes.

TL;DR: This work presents a full 3D model of a Roebel cable with 14 strands based on the H-formulation, widely used for 2D problems, and represents a further step into achieving 3D simulation of superconducting devices for real applications.