Microsphere-assisted laser speckle polarimetric microscopy

This paper presents a robust approach to polarimetric microscopy by integrating microsphere-assisted microscopy, dynamic laser speckle analysis (DLSA), and polarimetric imaging. DLSA creatively transforms laser speckle-induced imaging challenges into opportunities, while simultaneously overcoming traditional polarization interpretation difficulties by analyzing sequence-based variations in speckle pattern, caused by the sample’s polarimetric responses during a full polarimetric measurement. The inclusion of a dielectric microsphere (MS) significantly increases the numerical aperture of the microscopy system, enabling the capture of high-frequency spatial information. A proof-of-concept experiment is conducted on a standard holographic diffraction grating sample. Results obtained from several graphical and numerical statistical analyses demonstrate significant improvements with the incorporation of a silica MS, introducing a cost-effective and non-invasive approach with potential applications in various fields requiring high-precision polarimetric microscopy analyses.

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Publication Details

Journal
Journal of Applied Physics
Published
2025-02-12
DOI
https://doi.org/10.1063/5.0244195
Citations
7
Primary Topic
Near-Field Optical Microscopy
Type
article
Field-Weighted Citation Impact
4.72
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article

Microsphere-assisted laser speckle polarimetric microscopy

Vahid Abbasian, Arash Darafsheh, Vahideh Farzam Rad
7 citations
Journal of Applied Physics
Near-Field Optical Microscopy
4.72
article

Microsphere-assisted laser speckle polarimetric microscopy

Vahid Abbasian, Arash Darafsheh, Vahideh Farzam Rad
article en
7 citations

Abstract

This paper presents a robust approach to polarimetric microscopy by integrating microsphere-assisted microscopy, dynamic laser speckle analysis (DLSA), and polarimetric imaging. DLSA creatively transforms laser speckle-induced imaging challenges into opportunities, while simultaneously overcoming traditional polarization interpretation difficulties by analyzing sequence-based variations in speckle pattern, caused by the sample’s polarimetric responses during a full polarimetric measurement. The inclusion of a dielectric microsphere (MS) significantly increases the numerical aperture of the microscopy system, enabling the capture of high-frequency spatial information. A proof-of-concept experiment is conducted on a standard holographic diffraction grating sample. Results obtained from several graphical and numerical statistical analyses demonstrate significant improvements with the incorporation of a silica MS, introducing a cost-effective and non-invasive approach with potential applications in various fields requiring high-precision polarimetric microscopy analyses.

Journal of Applied PhysicsVol. 137(6)
Institute for Advanced Studies in Basic Sciences (IR), Washington University in St. Louis (US)
Openalex Percentile: Top 6%
Near-Field Optical Microscopy
4.72
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