Modules

For static models, with support for nonlinear materials, permanent magnets, DC currents and various boundary conditions.

For analyzing electromagnetic devices and systems with time-harmonic AC currents — computes eddy currents, proximity effect, impedance and Joule losses, with support for external circuit coupling.

Adds time-stepping on top of DC Magnetics, able to simulate dynamic systems with nonlinear materials and permanent magnets, supporting sinusoidal and pulsed excitation, with external circuit coupling.

Analyzes the electric field produced by static charge distributions and applied voltages in systems with conductors and dielectrics, and can compute charged particle trajectories.

Simulates the current distribution in a conductive material under an applied DC voltage or given current density.

Computes the electric field and current distribution in conductors and dielectrics under time-harmonic AC voltage or current, accounting for both resistive and capacitive effects.

Computes the electric field and current distribution produced by arbitrary-waveform, time-varying voltage or current pulses applied to conductors and dielectrics.

Solves for the temperature distribution in steady-state and transient heat transfer; heat sources can be given directly or imported as Joule losses from another problem.

Computes mechanical stress, strain and deformation; loads can be given directly, or imported as electromagnetic forces or thermal loads from another problem.

Connects the field-model regions of AC Magnetics or Transient Magnetics problems to an external circuit, or solves a pure circuit problem with no field analysis at all.

Uses the result of one analysis as the input to another, enabling a complete electromagnetic–thermal–structural coupling chain.