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- Actuators
 - Coil Design
 - Electromagnetic Brakes & Clutches
 - Inductors
 - Levitators
 - MRI
 - Motors
 - Alternators and Generators
 - Electromagnetic Brakes and Clutches
 - Sensors
 - Loudspeakers
 - Magnetic Encoding
 - Relays and Contactors
 - Solenoids
 - Shielding
 - Electromagnets
 - Magnetic Bearings
 - Magnetic Signatures
 - Magnetic Fixtures
 - Magnets
 - Non Destructive Testing
 - Particles
 
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- Antenna Radiation Characteristics
 - Simulation of an Airplane
 - EM Simulation of a Desktop
 - EM Compatability and EM Interference
 - Cable Junctions and Terminations
 - Filters
 - Lightning Strikes
 - Microwave Circuits
 - Microwave Ovens
 - MRI
 - Near Field Analysis
 - Radar Cross Sections
 - Radio Frequency Cavities
 - Reflector Antennas
 - Sensors
 - Ultra Wideband Antennas
 - Waveguides
 - Antennas
 
 
Inductors
Some specific types of inductors:
Chokes:
Normally our electromagnetic simulation software MAGNETO™ (2D/RS) would be sufficient, though chokes with air gaps might require AMPERES™.
High voltage chokes may require analysis of the electric fields in and around the device to determine safe operating conditions. Usually this requires COULOMB™, though simple geometries may permit the use of ELECTRO™ (2D/RS).
                    Adjustable Core Inductors:
If the core and plug in adjustable core inductors possess rotational symmetry, an RS MAGNETO™ model should be sufficient, but complex geometries or examination of fields external to the inductor might require AMPERES™.
Saturable Reactors:
The presence of both DC and AC windings in saturable reactors necessitates a transient analysis using OERSTED™ .
High voltage inductors may require analysis of the electric fields in and around the device to determine safe operating conditions. Usually this requires COULOMB™, though simple geometries may permit the use of ELECTRO™ (2D/RS).
Current Limiting Reactors:
In the case of current limiting reactors, if the reactor possesses rotational symmetry, an RS MAGNETO™ model should be sufficient. Complex geometries or examination of fields external to the reactor might require AMPERES™.
High voltage reactors may require analysis of the electric fields in and around the device to determine safe operating conditions. Usually this requires COULOMB™, though simple geometries may permit the use of ELECTRO™ (2D/RS).
Simulations using Integrated CAE software permit determination of inductor performance and equivalent circuit parameters.