Optical radiation force on a dielectric sphere of arbitrary size illuminated by a linearly polarized Airy light-sheet

Song, Ningning; Li, Renxian; Sun, Han; Zhang, Jiaming; Wei, Bojian; Zhang, Shu; Mitri, F.G.

doi:10.1016/j.jqsrt.2020.106853

Cited by 19 publications

(3 citation statements)

References 51 publications

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“…In the work [10] there was studied the effect of laser induced angular momentum of a spheroidal nanoparticle. The optical radiation force on a dielectric sphere illuminated by a linearly polarized Airy light-sheet was recently studied in [11]. A review of some relevant problems can be found, e.g., in the work [12].…”

Section: Introductionmentioning

confidence: 99%

Resonance pressure of electromagnetic radiation on metal nanoparticle

Grigorchuk¹

2022

Condens. Matter Phys.

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The influence of the electromagnetic irradiation pressure on a spheroidal metallic nanoparticle at the frequencies close to the surface plasmon vibrations has been considered. With the action of the radiation pressure, the polarizability of metal nanoparticle becomes a tensor quantity. The expressions for the resonance pressure components for the cases of plane-polarized and circularly polarized light have been derived. We have demonstrated that the resonance pressure can substantially depend on the shape of a non-spherical nanoparticle and its orientation with respect to the direction of light propagation and the light polarization.

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Section: Introductionmentioning

confidence: 99%

Resonance pressure of electromagnetic radiation on metal nanoparticle

Grigorchuk¹

2022

Condens. Matter Phys.

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“…A theory for the generation in a spheroidal MN of an angular momentum under the action of ultrashort laser pulse is developed in the work 10 . The optical radiation force on a dielectric sphere illuminated by a linearly polarized Airy light-sheet was studied recently in 11 . A review of some relevant problems can be found, e.g., in the work 12 .…”

Section: Introductionmentioning

confidence: 99%

Acceleration of Metal Nanoparticle with Irradiation Pressure

Grigorchuk¹

2021

Preprint

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The acceleration of an spheroidal metal nanoparticle in an irradiation field with a frequency close to the surface plasmon vibration has been considered. Under the action of radiation pressure, the polarizability for nonspherical particle becomes a tensor quantity. The analytical expressions for the resonance acceleration components for the cases of plane-polarized and circularly polarized light have been derived. We have demonstrated that the resonance acceleration can depend substantially on the shape of a metal nanoparticle and its orientation with respect to the directions of light propagation and the light polarization.

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“…The formalism is applicable to focused beams [9,21,22] and other arbitrary-shaped wavefronts and lightsheets [1,23]. Alternatively, using a different (but equivalent) formalism involving the integration of Maxwell's stress tensor over a surface enclosing the particle [24], other investigations have been undertaken to evaluate the time-averaged optical radiation force and torque in focused [25][26][27], Bessel [28,29], and Airy beams [30] and light-sheets [31,32] to name a few examples. As such, it is concluded that in a nondissipative medium of wave propagation, Poynting's vector and Maxwell's stress tensor formalisms used to derive the optical radiation force vector are commensurate with the same result.…”

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Addendum: Radiation force and torque of light-sheets (2017 J. Opt. 19 065403)

Mitri

2020

J. Opt.

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The purpose of this Addendum is to provide some clarifications and additional discussions related to the formalism of the generalized Lorenz–Mie theories in two-dimensions presented in the manuscript (Mitri F G 2017 J. Opt. 19 065403). The generalized formalism provides exact mathematical expressions that are used to compute the optical scattering, and time-averaged radiation force and torque of any light-sheets of arbitrary wavefront illuminating a homogeneous dielectric cylindrical particle of arbitrary geometrical cross-section, suspended in a lossless medium of wave propagation. In particular, it is emphasized here that concerning the analytical derivations and calculations based on far-field limits of the scattering, the Poynting vector formalism can only be utilized to determine the optical radiation force vector and its components, a result that is commensurate with the same outcome of an analysis based on the integration of the time-averaged Maxwell stress tensor. Nevertheless, in the far-field, the Poynting vector formalism is not valid to evaluate the optical radiation torque because it is radial, and the integration of its moment over a surface of large radius enclosing the particle leads to a zero torque, not in agreement with the derivation based on Maxwell’s stress tensor. Therefore, the analytical expression required to derive the optical radiation torque component (either in the near-field or far-field limits of the scattering, which lead to equivalent expressions without any approximations in the case of a lossless medium of wave propagation) should always involve the integration of the moment of the time-averaged Maxwell stress tensor.

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Optical radiation force on a dielectric sphere of arbitrary size illuminated by a linearly polarized Airy light-sheet

Cited by 19 publications

References 51 publications

Resonance pressure of electromagnetic radiation on metal nanoparticle

Resonance pressure of electromagnetic radiation on metal nanoparticle

Acceleration of Metal Nanoparticle with Irradiation Pressure

Addendum: Radiation force and torque of light-sheets (2017 J. Opt. 19 065403)

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