ELECTRO-OPTICS  LABORATORY

Department of Electrical and Computer Engineering

Inter-plane crosstalk suppression for single-shot 3D reconstruction of interferenceless coded aperture correlation holography via Wiener deconvolution/TV-K constraint

Junpeng Yang, Le Yang, Tao Huang, Yu Heng Wang, Weina Zhang, Jianglei Di, Joseph Rosen, Liyun Zhong, Yuwen Qin

Interferenceless coded aperture correlation holography (I-COACH), which utilizes spatial incoherent light illumination to achieve interferenceless and non-scanning three-dimensional (3D) imaging, has revolutionized the field of incoherent holography. However, existing correlation reconstruction algorithms often suffer from significant inter-plane crosstalk from multiple cross-sections of the sample, resulting in poor quality in 3D imaging. Here, we proposed a single-shot 3D reconstruction method of I-COACH via a Wiener deconvolution network combining total variation kernel (TV-K) functional constraint (WienerNet3D/TV-K). The method first performs multiple pairing of Wiener deconvolution and a convolutional neural network (CNN) and then uses the point spread hologram (PSH) library of the I-COACH system and object hologram (OH) as inputs, updating throughout the entire training process to learn the optimal filter and noise regularization parameters. Moreover, a TV-K function constraint is introduced to achieve more high-frequency details of the sample. Both simulation analysis and experimental results demonstrate that the proposed method has excellent performance in suppressing inter-plane crosstalk and significantly improves the signal-to-noise ratio in I-COACH 3D reconstruction. Importantly, this WienerNet3D/TV-K method will provide a useful strategy for the application of I-COACH dynamic 3D imaging in fluorescence microscopy, astronomy and other fields.

Publication language English
Journal Optics and Laser Technology
Volume 175
Publication status Published - 01.08.2024
110768

Keywords

Inter-plane crosstalk
Interferenceless coded aperture correlation holography
Single-shot 3D reconstruction
Total variation kernel
Wiener deconvolution

ASJC Scopus subject areas

Electronic, Optical and Magnetic Materials
Atomic and Molecular Physics, and Optics
Electrical and Electronic Engineering