Democratising deep learning for microscopy with ZeroCostDL4Mic
By Lucas von Chamier, Romain F. Laine, Johanna Jukkala, Christoph Spahn, Daniel Krentzel, Elias Nehme, Martina Lerche, Sara Hernández-Pérez, P. Mattila, Eleni Karinou and 12 more. Nature Communications, 2021
455 citations recorded by the source corpus.
Deep Learning (DL) methods are powerful analytical tools for microscopy and can outperform conventional image processing pipelines. Despite the enthusiasm and innovations fuelled by DL technology, the need to access powerful and compatible resources to train DL networks leads to an accessibility barrier that novice users often find difficult to overcome. Here, we present ZeroCostDL4Mic, an entry-level platform simplifying DL access by leveraging the free, cloud-based computational resources of Google Colab. ZeroCostDL4Mic allows researchers with no coding expertise to train and apply key DL networks to perform tasks including segmentation (using U-Net and StarDist), object detection (using YOLOv2), denoising (using CARE and Noise2Void), super-resolution microscopy (using Deep-STORM), and image-to-image translation (using Label-free prediction - fnet, pix2pix and CycleGAN). Importantly, we provide suitable quantitative tools for each network to evaluate model performance, allowing model optimisation. We demonstrate the application of the platform to study multiple biological processes. Deep learning methods show great promise for the analysis of microscopy images but there is currently an accessibility barrier to many users. Here the authors report a convenient entry-level deep learning platform that can be used at no cost: ZeroCostDL4Mic.
Subfields: Biophysics, Media Technology
View Paper: https://www.semanticscholar.org/paper/b11468ed3a6215f1ee109fe5b2e0bd0e0e2f0eb1
Citations in the corpus
- Spatial components of molecular tissue biology (2022, unknown): “…evaluations of segmentation meth-ods, as well as integrating them in a processing pipeline 106–108 could help decision-making on nuclear versus cytoplasmic segmentation, different segmentation algorithms 109,110 and experimental design consideration on segmentation-auxiliary membrane stains 74 .”