Abstract:
In this paper, we include the important effects of sextupolar field contributions on saturation gain and length of a linear polarized undulator driven inverse free electr...Show MoreMetadata
Abstract:
In this paper, we include the important effects of sextupolar field contributions on saturation gain and length of a linear polarized undulator driven inverse free electron laser (IFEL) that arise when the electrons are injected off axis. The modified IFEL equations are derived and analyzed. Both the accelerating gradient and the saturation length of the IFEL are influenced by the imperfect beam trajectory. For a fixed laser wavelength, the effects are more pronounced in the case of short period undulator in comparison with a larger period undulator IFEL. A useful empirical fit is prescribed to estimate the tolerance of the IFEL for imperfect beam trajectory.
Published in: IEEE Transactions on Plasma Science ( Volume: 43, Issue: 5, May 2015)
Funding Agency:
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Magnetic Field ,
- Field Contributions ,
- Inverse Free Electron Laser ,
- Linearly Polarized ,
- Laser Wavelength ,
- Gain Saturation ,
- Electron Energy ,
- Quantitative Comparison ,
- Equations Of Motion ,
- Electromagnetic Wave ,
- Bessel Function ,
- Energy Gain ,
- Resonance Condition ,
- Radiation Loss ,
- Electric Vector ,
- Electron Motion ,
- Transverse Velocity ,
- Transverse Motion ,
- Transverse Size ,
- Relativistic Electron ,
- Electron Trajectories ,
- Tight Tolerances
- Author Keywords
- Author Free Keywords
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Magnetic Field ,
- Field Contributions ,
- Inverse Free Electron Laser ,
- Linearly Polarized ,
- Laser Wavelength ,
- Gain Saturation ,
- Electron Energy ,
- Quantitative Comparison ,
- Equations Of Motion ,
- Electromagnetic Wave ,
- Bessel Function ,
- Energy Gain ,
- Resonance Condition ,
- Radiation Loss ,
- Electric Vector ,
- Electron Motion ,
- Transverse Velocity ,
- Transverse Motion ,
- Transverse Size ,
- Relativistic Electron ,
- Electron Trajectories ,
- Tight Tolerances
- Author Keywords
- Author Free Keywords