Computer Simulation Technology
 

CST PARTICLE STUDIO® - Charged Particle Dynamics Simulation

CST PARTICLE STUDIO®(CST PS) is dedicated to simulating charged particles travelling through electromagnetic fields. To accomplish this task, CST PS requires fields from other CST STUDIO SUITE™ 3D EM solvers, particularly CST EM STUDIO™ and CST MICROWAVE STUDIO®, as input. CST PS tracks charged particles through this fields, considering relativistic effect, space charge and secondary emission, delivering particle trajectories, phase space distribution, emmitance,...

CST PS simulation of a depressed collector. Particels are decelerated by electrostatic
        fields
CST PS simulation of a depressed collector. Particles are decelerated by electrostatic fields

The Stationary Particle Tracking Solver enables the tracking of charged particles through electrostatic, magnetostatic and eigenmode fields. There are various emission models, including secondary emission, available. Space charge can be considered in gun mode.

The Wake Field Solver calculates the fields created by a charged particle bunch travelling through 3D geometries, like cavities, bellows, etc. in time domain; it integrates the total effect of such accelerator elements and delivers information like loss and kick factor.

The Particle in Cell (PIC) solver provides a self-consistent method for the transient simulation of particle dynamics. This solver takes care of space charge and self-magnetic as well as of relativistic effects when propagating particles for example through static or HF electromagnetic fields. This allows to simulate devices such as high power MW tubes.

The Electrostatics Solver of CST EMS is used to calculate the accelerating fields for static guns, or the deflecting electrostatic fields of beamsteering units in cathode ray tubes (CRT).

CST EMS' Magnetostatics Solver pre-calculates the fields of various types of magnets - such as solenoids, dipoles, quadrupoles,... - for beam optics simulation

The particles can also be tracked through resonant fields in cavities calculated with CST MWS's Eigenmode Solver