10–13 Jun 2024
Parkhotel Bad Zurzach, Switzerland
Europe/Zurich timezone

Session

Session 1: Coupled & Uncoupled Multiphysics Problems

11 Jun 2024, 08:45
Parkhotel Bad Zurzach, Switzerland

Parkhotel Bad Zurzach, Switzerland

Presentation materials

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  1. Louis Denis (University of Liege)
    11/06/2024, 08:45
    Invited Oral

    The accurate prediction of AC losses in High- Temperature Superconducting (HTS) tapes has been widely discussed in the literature, as both homogenized and multi-scale models have been proposed using different magnetodynamic finite-element (FE) formulations. In this work, we discuss numerical considerations to be taken into account when coupling magnetic and thermal FE models. The validity of...

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  2. Fedor Gömöry (Institute of Electrical Engineering, Slovak Academy of Sciences)
    11/06/2024, 09:15
    Invited Oral

    In this contribution is demonstrated how to evaluate in T-A formulation the “macroscopic” voltage in turns of HTS magnet energized by AC current. Decomposing the local electric field into the vector-potential induced and the electrostatic-charges initiated part allows to integrate the latter along the whole length of conductor, and compute in this way the voltage signal that will appear at the...

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  3. Gabriel Hajiri (Université de Lorraine - GREEN)
    11/06/2024, 10:15
    Oral

    To improve the understanding of High-Temperature Superconducting (HTS) devices in electrical systems, it's important to couple Finite Element Models (FEM) with Electrical Circuits (EC). This coupling should consider superconducting behavior and how HTS devices affect electrical systems. Some HTS devices shift from the superconducting state to the normal resistive state, like fault current...

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  4. Andrea Zappatore (Politecnico di Torino)
    11/06/2024, 10:35
    Oral

    3D thermal-hydraulic and electric modelling of quench propagation in HTS conductors for fusion
    Andrea Zappatore
    Energy Department
    Politecnico di Torino
    Turin, Italy
    andrea.zappatore@polito.it

    Abstract—A fully three-dimensional multi-physics model to simulate quench propagation in HTS conductors for fusion applications is presented. It accounts for thermal, electric and fluid...

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  5. Sofia Viarengo (Politecnico di Torino, Turin, Italy)
    11/06/2024, 10:55
    Oral

    In perspective of 20 T+ field magnet and more compact layouts for fusion reactors, the high temperature superconductors are the alternative which can allow high transport current at very high field, guaranteeing at the same time a higher stability. Among them, the Rare-Earth Barium Copper Oxide (ReBCO ) coated conductors are a promising option due to their high critical temperature and the...

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  6. Michela Fracasso (Politecnico di Torino)
    11/06/2024, 11:15
    Oral

    Although thermomagnetic instability can deteriorate its performances, MgB$_2$ has been proved to be one of the most promising superconductors for magnetic shielding. For this reason, finding solutions to reduce or prevent thermomagnetic instabilities is mandatory. A numerical approach can be a powerful tool for predicting the occurrence of such phenomena, thus facilitating the development of...

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  7. Santiago Guijosa Guadarrama (GREEN-University of Lorraine)
    11/06/2024, 11:35
    Oral

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    \title{Impact of porosity on trapped...

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  8. Enric Pardo (Institute of Electrical Engineering, SAS)
    11/06/2024, 13:30
    Invited Oral

    The design of REBCO high temperature superconducting (HTS) ultra-high-field magnets requires fast and accurate multi-physics modelling (electromagnetic, thermal and mechanical). This contribution presents a novel computationally-efficient multi-physics method that takes screening currents into account. We apply this method to a REBCO insert within a 19 T / 150 mm bore low-temperature...

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