The damped oscillating propagation of the compensating self-accelerating beams
Wei-Wei Liu, Yong-Lun Jiang, Pan-Pan Yu, Hao-wei Wang, Zi-qiang Wang,, and Yin-Mei Li

TL;DR
This paper introduces a new type of compensating self-accelerating beam with damped oscillating propagation, maintaining invariant mean intensity, and controllable orientation, with potential applications in particle manipulation.
Contribution
It presents a novel compensating accelerating beam generated via amplitude modulation of symmetric Airy beams, featuring damped oscillations and flexible main-lobe orientation.
Findings
Beam maintains mean intensity in free space and loss media
Exhibits damped oscillating propagation property
Main lobe orientation can be flexibly controlled
Abstract
We report a new form of compensating accelerating beam generated by amplitude modulation of the symmetric Airy beam (SAB) caustics with an exponential apodization mask. Our numerical study manifests that the compensating beam is with one main-lobe beam structure and can maintain the mean-intensity invariant both in the free space and loss media. Specially, the beam inherits the beamlets structure from the SAB and owns a novel damped oscillating propagation property. We also conduct a comparative study of its propagation property with that of the Airy beam theoretically. And by altering the signs of 2D masks, the main lobe of the compensating beam can be modulated to orientate in four different quadrants flexibly. The proposed compensating accelerating beam is anticipated to get special applications in particle manipulation or plasmas regions.
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Taxonomy
TopicsParticle accelerators and beam dynamics · Particle Accelerators and Free-Electron Lasers · Gyrotron and Vacuum Electronics Research
