Document Type : Original Article
Authors
1 Department of Physics, Lovely Professional University, G.T. Road, Phagwara, Punjab, India 2 Department of Physics, Ch. Balluram Godara Government Girls College, Sri Ganganagar, Rajasthan, India
Abstract
This paper investigates the potential of Hermite-sinh-Gaussian (HSG) laser beams to improve the efficacy of electron acceleration in vacuum. HSG beams are distinguished by their hybrid structure, which encompasses Hermite-Gaussian orthogonality and non-Gaussian characteristics introduced by the hyperbolic sine (sinh) function. This structure provides distinctive capabilities for the manipulation of laser electric fields. The study examines the responsibilities of critical parameters, such as the Hermite mode index (s), the decentered parameter (b) of the sinh function, and the electric field amplitude and distribution, in the optimization of electron acceleration dynamics. The interplay between these parameters and their effect on energy gain and trajectory confinement is analyzed using theoretical modelling and numerical simulations. The results indicate that the maximum total energy can be enhanced to 3375.75 MeV by customized HSG beam configurations (s = 2, b = 3), which can provide valuable insights for the development of advanced laser-driven particle accelerators. These results facilitate the development of compact, high-efficiency electron acceleration technologies that have applications in radiation generation and particle physics.
Keywords
- Radial polarized Hermite-sinh-Gaussian laser
- Decentered parameter
- Hermite mode index
- Electron energy gain
- Energy efficiency
Main Subjects
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