Trapping of two types of Rayleigh particles using focused twisted
Hermite-Gaussian-Schell model beam

doi:10.3969/j.issn.1007-5461.2022.05.007

Abstract

Abstract: In order to explore the trapping properties of a focused twisted Hermite-Gaussian-Schell model beam on Rayleigh particles, based on the generalized Huygens-Fresnel principle and the Rayleigh scattering theory, the analytical expressions of light intensity and radiation force of a focused twisted HermiteGaussian-Schell model beam passing through a focused lens are derived, and then the eﬀects of beam parameters such as beam order, twist factor and lens focal length on the radiation force of a focused twisted Hermite-Gaussian-Schell model beam are numerically simulated. The results show that the intensity distribution of a focused twisted Hermite-Gaussian-Schell model beam gradually splits and rotates around the transmission axis during the propagation, and the gradient force and trapping stable range of the beam increase with the beam order and twist factor. By selecting appropriate beam parameters and lens focal length, two types of Rayleigh particles with diﬀerent refractive index can be stably trapped. The results are valuable for the application of focused twisted Hermite-Gaussian-Schell model beams in optical tweezers.

Key words: laser technology, twisted Hermite-Gaussian-Schell model beam, Huygens-Fresnel principle; radiation force

CLC Number:

O439

ZHANG Chao, HAN Yashuai, ZHOU Zhengxian, QU Jun ∗. Trapping of two types of Rayleigh particles using focused twisted Hermite-Gaussian-Schell model beam[J]. Chinese Journal of Quantum Electronics, 2022, 39(5): 742-751.

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Trapping of two types of Rayleigh particles using focused twisted Hermite-Gaussian-Schell model beam

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