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  • Beam Physics
  • Colliders
  • Dielectric Laser Acceleration
  • Free Electron Lasers
  • High Brightness Electron Sources
  • Machine Learning
  • Modeling
  • Plasma Wakefield Acceleration
  • Population Inversion Hard X-ray Lasing
  • Storage Rings
  • Normal Conducting Radio Frequency
  • Superconducting Radio Frequency
  • Ultrafast Electron Diffraction

Modeling

Particle acclerator modeling concerns the mathematical description of particle beams and fields. Computer simulations built from thes mathematical models inform us how beams or individual particles can be expected to behave in particle accelerators.

We develop models of both single- and multi-particle beam dynamics, and use these models to test accelerator, Free Electron Laser (FEL), and photon optics designs. Models tell us the what the position, momentum, and distribution of particles in a beam will be at each point in the accelerator, and how those parameters can be expected to change as the beam propagates through the electromagnetic fields in the accelerator.

At SLAC we also rely heavily on beam modelling online, in the control system of accelerators, to improve their performance, through computing appropriate feedback coefficients, numerical optimization, and simply predicting dynamical beam behavior.

Figure 1 Modeling
Figure 1: LCLS-2 HE merger line for LEIT along with optics.
Figure 2a
Figure 2a:  x-px particle distribution at merger exit without space charge effects.
Figure 2b
Figure 2b: x-px particle distribution at merger exit with space charge effects.
Figure 3a
Figure 3a: y-py particle distribution at merger exit without space charge effects.
Figure 3b
Figure 3b:  y-py particle distribution at merger exit with space charge effects.

Contacts

Michael Ehrlichman
Accelerator Directorate
2575 Sand Hill Road
Menlo Park, CA 94025
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