Efficient Reduced Magnetic Vector Potential Formulation for the Magnetic Field Simulation of Accelerator Magnets
Laura A. M. D'Angelo, Dominik Moll, Andrea Vitrano, Nicolas Marsic,, Erik Schnaubelt, Mariusz Wozniak, Herbert De Gersem, Bernhard Auchmann

TL;DR
This paper introduces an improved reduced magnetic vector potential formulation that simplifies the simulation of accelerator magnets by modeling coil structures as thin wires, leading to more efficient and accurate magnetic field simulations.
Contribution
The paper presents an updated RMVP approach that significantly outperforms the original method in simulating accelerator magnet fields, verified through implementation and comparison.
Findings
Enhanced simulation accuracy for accelerator magnets.
Reduced computational complexity by modeling coils as thin wires.
Successful application to a quadrupole magnet simulation.
Abstract
The major advantage of reduced magnetic vector potential formulations (RMVPs) is that complicated coil structures do not need to be resolved by a computational mesh. Instead, they are modeled by thin wires, whose source field is included into the simulation model along Biot-Savart's law. Such an approach has already been successfully employed in ROXIE for the simulation of superconducting Large Hadron Collider magnets at CERN. This work presents an updated RMVP approach, which significantly outperforms the original method. The updated formulation is postulated, implemented, verified, compared to the original formulation, and applied for the simulation of a quadrupole magnet. The promising results of this work encourage further investigation towards an updated simulation framework for next-generation accelerator magnets.
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Taxonomy
TopicsSuperconducting Materials and Applications · Particle accelerators and beam dynamics · Particle Accelerators and Free-Electron Lasers
