bioRxivBiophysics
Circumventing the optical diffraction limit with customized speckles
Abstract
Speckle patterns have been widely used in imaging techniques such as ghost imaging, dynamic speckle illumination microscopy, structured illumination microscopy, and photoacoustic fluctuation imaging. Recent advances in the ability to control the statistical properties of speckles has enabled the customization of speckle patterns for specific imaging applications. In this work, we design and create special speckle patterns for parallelized nonlinear pattern-illumination microscopy based on fluorescence photoswitching. We present a proof-of-principle experimental demonstration where we obtain a spatial resolution three times higher than the diffraction limit of the illumination optics in our setup. Furthermore, we show that tailored speckles vastly outperform standard speckles. Our work establishes that customized speckles are a potent tool in parallelized super-resolution microscopy.
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- High-Density Super-Resolution Microscopy With An Incoherent Light Source And A Conventional Epifluorescence Microscope Setup
Kirti Prakash·bioRxiv·May 1, 2017
- A technique for resolution assessment in blind-SIM experiments
I. Boujmil, E. Xypakis, … M. Leonetti·bioRxiv·Sep 1, 2021
- Integrated optical device for Structured Illumination Microscopy
M. Calvarese, P. Paie, … A. Bassi·bioRxiv·Apr 22, 2022
- Multiplane HiLo microscopy with speckle illumination and non-local means denoising
Shuqi Zheng, Minoru Koyama, Jerome C. Mertz·Journal of Biomedical OpticsPeer-reviewed·Nov 17, 2023
- Mitigating the Field-of-View - Resolution Tradeoff by Photon Superlocalization
Sulaimon Balogun, Andreas E. Vasdekis·bioRxiv·Dec 11, 2025
- Scattering-Based Super-Resolution Optical Fluctuation Imaging
Shimon Yudovich, Gregor Posnjak, … Shimon Weiss·Optics ExpressPeer-reviewed·Feb 10, 2025