Structured x-ray beams from twisted electrons by inverse Compton scattering of laser light
arXiv:1407.4329 · doi:10.1103/PhysRevA.90.012118
Abstract
The inverse Compton scattering of laser light on high-energetic twisted electrons is investigated with the aim to construct spatially structured x-ray beams. In particular, we analyze how the properties of the twisted electrons, such as the topological charge and aperture angle of the electron Bessel beam, affects the energy and angular distribution of scattered x-rays. We show that with suitably chosen initial twisted electron states one can synthesize tailor-made x-ray beam profiles with a well-defined spatial structure, in a way not possible with ordinary plane-wave electron beams.
7 pages, 4 figures; corrected references
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Cited by in corpus (20)
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- Promises and challenges of high-energy vortex states collisions
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- Compton scattering of twisted light: angular distribution and polarization of scattered photons
- Elastic scattering of vortex electrons provides direct access to the Coulomb phase
- Semiclassical probability of radiation of twisted photons in the ultrarelativistic limit
- Probability of radiation of twisted photons by classical currents
- Relativistic quantum dynamics of twisted electron beams in arbitrary electric and magnetic fields
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- symmetry in the vortex muon decay
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- The Random Fractional Matching Problem
- Spin effects on the semiclassical trajectories of Dirac electrons
- Plasma rotation driven by lasers with zero angular momentum
- Universal features of high-energy scattering of Laguerre-Gaussian states