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Single-beam driven rotational manipulation for high-resolution 3D cellular morphology reconstruction

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arxiv 2506.07145 v1 pith:RCF6QQ7W submitted 2025-06-08 physics.optics

Single-beam driven rotational manipulation for high-resolution 3D cellular morphology reconstruction

classification physics.optics
keywords cellsreconstructionmanipulationmethodflexibilitymethodsmulti-viewoptical
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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The acquisition of multi-view information of cells is essential for accurate 3D reconstruction of their structures. Rotational manipulation of cells has emerged as an effective technique for obtaining such data. However, most reported methods require a trade-off between manipulation flexibility and system complexity These limitations significantly hinder their practical applicability. Recently, a novel approach has been proposed that enables simultaneous trapping and arbitrary-angle rotation of cells using a single optical beam carrying spin angular momentum (SAM). This method offers improved stability and manipulation flexibility, a simplified experimental setup, and supports coaxial alignment of the imaging and optical paths. In this paper, we employed this method to rotate cells and acquire multi-view images. Furthermore, we present a complete 3D reconstruction workflow, and validate the performance of the proposed method through the reconstruction of Punica granatum pollen cells and Prunus cerasifera cells. Our methods pave the way for 3D reconstruction of microscopic biological specimens, including but not limited to cells.

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