This article presents a review of the finite-element method (FEM) model based on the H
formulation of Maxwell's equations used to calculate AC losses in high-temperature …

This paper reviews the modeling of high-temperature superconductors (HTS) using the
finiteelement method (FEM) based on the H-formulation of Maxwell's equations. This …

A numerical method is proposed to analyse the electromagnetic behaviour of systems
including high-temperature superconductors (HTSCs) in time-varying external fields and …

A homogenization method to model a stack of second generation High Temperature
Superconducting tapes under AC applied transport current or magnetic field has been …

High-temperature superconductor applications have reached a mature status, with several
prototypes and devices in precommercial stage installed around the world. Following this …

In this paper, we present a general review of the status of numerical modelling applied to the
design of high temperature superconductor devices. The importance of this tool is …

High temperature superconductor Roebel cables are well known for their large current
capacity and low AC losses. For this reason they have become attractive candidates for …

Computing the electric eddy currents in non-linear materials, such as superconductors, is
not straightforward. The design of superconducting magnets and power applications needs …

Intrinsically stable magnetic levitation between superconductors and permanent magnets
can be exploited in a variety of applications of great technical interest in the field of …

The finite element method (FEM) provides a powerful support for the calculations of
superconducting electromagnetic responses. It enables the analysis of large-scale high …