Optical Force of Bessel Pincer Light-Sheets Beam on a Dielectric Sphere of Arbitrary Size

In the framework of Generalized Lorenz-Mie theory (GLMT), based on the expansion results of electromagnetic field radiation components of Bessel pincer light sheets beam acting on dielectric particles of arbitrary size, the expression of radiation force components in a Cartesian coordinate system is...

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Published in:Nanomaterials (Basel, Switzerland) Switzerland), 2022-10, Vol.12 (21), p.3723
Main Authors: Zhang, Shu, Wei, Bing, Wei, Qun, Li, Renxian, Chen, Shiguo, Song, Ningning
Format: Article
Language:English
Subjects:
angular spectrum expansion method
Approximation
Bending
Bessel pincer light-sheets
Biophysics
Cartesian coordinates
Dielectric properties
Dielectrics
Electric fields
Electromagnetic fields
Electromagnetic radiation
Electromagnetism
Force distribution
GLMT
Light
Light sheets
Maxwell’s stress tensor
Methods
Mie scattering
Numerical analysis
optical force
Parameters
Particle size
Propagation
Radiation
Refractivity
Tensors
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Wei, Bing
Wei, Qun
Li, Renxian
Chen, Shiguo
Song, Ningning
description In the framework of Generalized Lorenz-Mie theory (GLMT), based on the expansion results of electromagnetic field radiation components of Bessel pincer light sheets beam acting on dielectric particles of arbitrary size, the expression of radiation force components in a Cartesian coordinate system is obtained by using the Maxwell stress tensor method. On the one hand, the effects of the refractive index and the equivalent radius of spherical particles on the distribution of radiation force are discussed; On the other hand, the influence of beam scaling parameter and beam order of Bessel pincer light sheets beam on the distribution of radiation force are investigated. The results indicate that the changes of particle's refractive index and effective radius only affect the distribution of radiation force. However, the beam scaling parameter and beam order of Bessel pincer light sheets beam have a very sharp impact on the convergence position, distribution range and bending degree far away from the wave source of the radiation force. Single-beam optical tweezers using the self-focusing and self-bending Bessel pincer light-sheets beam are crucial for applications such as single molecule biophysics, optical manipulation and particle separation/clearing.
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On the one hand, the effects of the refractive index and the equivalent radius of spherical particles on the distribution of radiation force are discussed; On the other hand, the influence of beam scaling parameter and beam order of Bessel pincer light sheets beam on the distribution of radiation force are investigated. The results indicate that the changes of particle's refractive index and effective radius only affect the distribution of radiation force. However, the beam scaling parameter and beam order of Bessel pincer light sheets beam have a very sharp impact on the convergence position, distribution range and bending degree far away from the wave source of the radiation force. 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subjects angular spectrum expansion method
Approximation
Bending
Bessel pincer light-sheets
Biophysics
Cartesian coordinates
Dielectric properties
Dielectrics
Electric fields
Electromagnetic fields
Electromagnetic radiation
Electromagnetism
Force distribution
GLMT
Light
Light sheets
Maxwell’s stress tensor
Methods
Mie scattering
Numerical analysis
optical force
Parameters
Particle size
Propagation
Radiation
Refractivity
Tensors
title Optical Force of Bessel Pincer Light-Sheets Beam on a Dielectric Sphere of Arbitrary Size
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