Numerical and Analytical Study of the Magnetic Field Distribution in a Three-Solenoid System

This study investigates the magnetic fields produced by a three-solenoid system configuration using both traditional numerical solvers and fractional integral methods. We focus on the role of mesh resolution in influencing simulation accuracy, examining coils with dimensions 80 mm × 160 mm and a radius of 15.5 mm, each carrying a current of 200 A. Magnetic field behavior is analyzed along a line parallel to the central axis at a distance equal to half the solenoid’s radius. The fractional integral formulation employed provides a refined understanding of field variations, especially in off-axis regions. Comparisons with the Poisson solver highlight consistency across methods and suggest pathways for further optimization. The results support the potential of fractional approaches in advancing electromagnetic field modeling, particularly in accelerator and beamline applications.

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Publication Details

Journal
Fractal and Fractional
Published
2025-06-16
DOI
https://doi.org/10.3390/fractalfract9060383
Primary Topic
Electromagnetic Launch and Propulsion Technology
Type
article
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article

Numerical and Analytical Study of the Magnetic Field Distribution in a Three-Solenoid System

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Fractal and Fractional
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Numerical and Analytical Study of the Magnetic Field Distribution in a Three-Solenoid System

Martina Carillo, M. Migliorati, B. Spataro, Mostafa Behtouei, Moreno Comelli, L. Verra, L. Faillace, A. Bacci
article en

Abstract

This study investigates the magnetic fields produced by a three-solenoid system configuration using both traditional numerical solvers and fractional integral methods. We focus on the role of mesh resolution in influencing simulation accuracy, examining coils with dimensions 80 mm × 160 mm and a radius of 15.5 mm, each carrying a current of 200 A. Magnetic field behavior is analyzed along a line parallel to the central axis at a distance equal to half the solenoid’s radius. The fractional integral formulation employed provides a refined understanding of field variations, especially in off-axis regions. Comparisons with the Poisson solver highlight consistency across methods and suggest pathways for further optimization. The results support the potential of fractional approaches in advancing electromagnetic field modeling, particularly in accelerator and beamline applications.

Fractal and FractionalVol. 9(6)
Istituto Nazionale di Fisica Nucleare (IT), Nello Carrara Institute of Applied Physics (IT), Istituto Nazionale di Fisica Nucleare, Sezione di Milano (IT), Istituto Nazionale di Fisica Nucleare, Laboratori Nazionali di Frascati (IT), Sapienza University of Rome (IT)
Openalex Percentile: Top 82%
Electromagnetic Launch and Propulsion Technology
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