Solitary Waves in an Intense Beam Propagating Through a Smooth Focusing Field
Stephan I. Tzenov, Ronald C. Davidson
Abstract
Based on the Vlasov-Maxwell equations describing the self-consistent nonlinear beam dynamics and collective processes, the evolution of an intense sheet beam propagating through a periodic focusing field has been studied. In an earlier paper [1] it has been shown that in the case of a beam with uniform phase space density the Vlasov-Maxwell equations can be replaced exactly by the macroscopic warm fluid-Maxwell equations with a triple adiabatic pressure law. In this paper we demonstrate that starting from the macroscopic fluid-Maxwell equations a nonlinear Schroedinger equation for the slowly varying wave amplitude (or a set of coupled nonlinear Schroedinger equations for the wave amplitudes in the case of multi-wave interactions) can be derived. Properties of the nonlinear Schroedinger equation are discussed, together with soliton formation in intense particle beams.
Create a lesson
Related papers
Physics of stabilization and dynamic control of CW magnetrons for superconducting accelerators
G. Kazakevich, R. P. Johnson, I. Gonin et al.
AloHEP Software: A luminosity optimizer for High Energy Physics colliders
Burak Dagli, Yigitali Karaca
Development of a continuous-wave photocathode very-high-frequency electron gun for S3FEL
Lianmin Zheng, Yitong Duan, Yuanyuan Qin et al.
Limits on energy recovery for positron acceleration in a warm plasma column
Max Varverakis, Spencer Gessner, Severin Diederichs et al.
Construction of Approximate Invariants Across Nonlinear Resonances
Yongjun Li, Derong Xu, Yue Hao et al.
Effect of transition layer on wakefield in plasma waveguide
Peter Markov, Kostyantyn Galaydych, Gennadiy Sotnikov