Equivalent inductance model for the design analysis of electrodynamic suspension coils for hyperloop

Area of Science:

• Engineering
• Transportation Technology
• Electromagnetism

Background:

• Hyperloop technology proposes high-speed ground transport utilizing near-vacuum tubes.
• Magnetic levitation is crucial for Hyperloop's acceleration and stable travel.
• Superconducting (SC) electrodynamic suspension (EDS) offers advantages like large levitation gaps and inherent stability for Hyperloop.

Purpose of the Study:

• To develop a novel, rapid, and accurate model for calculating frequency-dependent equivalent inductance in EDS systems.
• To apply this model for the design and analysis of SC-EDS levitation coils specifically for Hyperloop applications.
• To validate the developed model against established numerical methods and experimental data.

Main Methods:

• Development of a novel computational model for frequency-dependent inductance.
• Application of decoupled resistance-inductance equations for levitation coil design.
• Validation using 3D finite element method (FEM) simulations and experimental measurements of induced currents.

Main Results:

• A new model was successfully developed for fast and accurate inductance calculations.
• The model facilitated the design and analysis of SC-EDS levitation coils for Hyperloop.
• The model's accuracy was confirmed through comparison with FEM results and experimental data.

Conclusions:

• The developed model provides an efficient tool for analyzing and designing SC-EDS systems for Hyperloop.
• This approach overcomes the computational limitations of traditional 3D FEM analyses.
• The validated model supports the advancement of Hyperloop transportation technology.