Deep learning-driven automated high-content dSTORM imaging with a scalable open-source toolkit

Super-resolution microscopy offers the ability to visualize molecular structures in biological samples with unprecedented detail. However, the full potential of these techniques is often hindered by a lack of automated, user-independent workflows. Here, we present an open-source toolkit that automates dSTORM super-resolution microscopy using deep learning for segmentation and object detection. This standalone program enables reliable segmentation of diverse biomedical images, even in low-contrast samples, surpassing existing solutions. Integrated into the imaging pipeline, it rapidly processes high-content data in minutes, reducing manual labor. Demonstrated by biological examples, such as microtubules in cell culture and the βII-spectrin in nerve fibers, our approach makes super-resolution imaging faster, more robust, and easy to use, even by nonexperts. This broadens its potential applications in biomedicine, including high-throughput experimentation.

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Publication Details

Journal
Biophysical Reports
Published
2025-02-28
DOI
https://doi.org/10.1016/j.bpr.2025.100201
Primary Topic
Cell Image Analysis Techniques
Type
article
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article

Deep learning-driven automated high-content dSTORM imaging with a scalable open-source toolkit

Luise Appeltshauser, Katrin G. Heinze, Kathrin Doppler, Janis Linke
Biophysical Reports
Cell Image Analysis Techniques
article

Deep learning-driven automated high-content dSTORM imaging with a scalable open-source toolkit

Luise Appeltshauser, Katrin G. Heinze, Kathrin Doppler, Janis Linke
article en

Abstract

Super-resolution microscopy offers the ability to visualize molecular structures in biological samples with unprecedented detail. However, the full potential of these techniques is often hindered by a lack of automated, user-independent workflows. Here, we present an open-source toolkit that automates dSTORM super-resolution microscopy using deep learning for segmentation and object detection. This standalone program enables reliable segmentation of diverse biomedical images, even in low-contrast samples, surpassing existing solutions. Integrated into the imaging pipeline, it rapidly processes high-content data in minutes, reducing manual labor. Demonstrated by biological examples, such as microtubules in cell culture and the βII-spectrin in nerve fibers, our approach makes super-resolution imaging faster, more robust, and easy to use, even by nonexperts. This broadens its potential applications in biomedicine, including high-throughput experimentation.

Biophysical ReportsVol. 5(2)
University of Würzburg (DE), Universitätsklinikum Würzburg (DE)
Industry, innovation and infrastructure
Openalex Percentile: Top 97%
Cell Image Analysis Techniques
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Deep learning-driven automated high-content dSTORM imaging with a scalable open-source toolkit — Luise Appeltshauser, Katrin G. Heinze, et al. · Biophysical Reports (2025) | TGRS Research Map | TGRS