White paper: accuracy analysis of charged particle trajectory CAE software
Integrated Engineering Softwarecontact supplier
‘Accuracy analysis of charged particle trajectory CAE software’
Advances in numerical solutions of both ordinary and partial differential equations have led to the development of computer-aided engineering (CAE) software packages that permit the simulation of more complex systems that include real-world deviations that inevitably occur. As the accuracy of simulation results is fundamental for the selection of beam analysis software, this paper from Integrated Engineering Software uses that criterion to examine the most popular numerical methods and to illustrate techniques for evaluating their suitability.
Click on the link above to download the white paper.
White paper contents
- Executive summary
- Overview of charged particle beam analysis
- Types of field distribution
- Simulating trajectories using the Lorentz CAE software suite
- Isolating ODE solution errors
- Constant E field simulations
- Constant B field simulations
- Summary
- About Integrated Engineering Software
- Contact us
More stories
White paper: electromagnetic sensor design — considerations when selecting CAE software downloadweblink
This paper from Integrated Engineering Software provides guidelines to aid in the proper selection and application of electromagnetic CAE software for simulating and optimising sensor systems. Example electric, magnetic and eddy current simulations will be used for illustration. In particular, this paper will discuss the approximations and simplifications that are often required to produce practical engineering models.
White paper: simulation of coupled electromagnetic/thermal systems downloadweblink
Electromagnetic induction heating occurs in electrically conducting materials when they are in the presence of time varying magnetic fields. This phenomenon is utilised in a wide range of industrial applications. This white paper from Integrated Engineering Software will illustrate examples of coupled electromagnetic/thermal field simulations for both steady-state and transient conditions.




