APPLICATIONS
-
- 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
-
- 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
Charged Particle Beams Simulation
LORENTZ™ programs can simulate a wide variety of charge particle beam trajectory applications. Examples include Electron guns, Ion guns, Ion implanters, Nanotube field emitter, Sputtering sources, X-ray tubes and Ion propulsion
Physical properties that can be modeled are:
- The nature of the emission source: Child’s Law, Schottky Emissions, Fowler-Nordheim Emission, etc.
- The effect of the beam charge on the electric solution.
- The electric repulsion between like charged particle rays and attraction between opposite charged rays.
- The magnetic effects caused by current in the beam, including self-magnetic effort of the beam on itself.
LORENTZ-EM™ (2D/RS) and LORENTZ-EM™ (3D) compute beam trajectories under the influence of both electric and magnetic fields simultaneously. The hybrid programs combine the full capabilities of ELECTRO™/MAGNETO™ (2D/RS) or COULOMB™/AMPERES™ (3D) and are particularly useful for designing charge particle beam trajectory applications.
