Deep Learning Picking
Deep Learning Picking - Related Videos
10:25
Deep Learning-Based Segmentation of Cryo-Electron Tomograms
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Cited by 54 •
2022
This is a method for training a multi-slice U-Net for multi-class segmentation of cryo-electron tomograms using a portion of one tomogram as a training input. We describe how to infer this network to other tomograms and how to extract segmentations for further analyses, such as subtomogram averaging and filament tracing.
08:20
Superior Auto-Identification of Trypanosome Parasites by Using a Hybrid Deep-Learning Model
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Cited by 7 •
2023
Worldwide medical blood parasites were automatically screened using simple steps on a low-code AI platform. The prospective diagnosis of blood films was improved by using an object detection and classification method in a hybrid deep learning model. The collaboration of active monitoring and well-trained models helps to identify hotspots of trypanosome transmission.
04:17
DNA Virus Detection System Based on RPA-CRISPR/Cas12a-SPM and Deep Learning
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2024
We present a protocol that combines recombinase polymerase amplification with a CRISPR/Cas12a system for trace detection of DNA viruses and builds portable smartphone microscopy with an artificial intelligence-assisted classification for point-of-care DNA virus detection.
09:47
DeepOmicsAE: Representing Signaling Modules in Alzheimer's Disease with Deep Learning Analysis of Proteomics, Metabolomics, and Clinical Data
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Cited by 8 •
2023
DeepOmicsAE is a workflow centered on the application of a deep learning method (i.e., an autoencoder) to reduce the dimensionality of multi-omics data, providing a foundation for predictive models and signaling modules representing multiple layers of omics data.
04:30
A Flame-Free Method for Sterilizing C. elegans Picks, Spatulas, and Scalpels
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Cited by 1 •
2022
This article describes a method for sterilizing worm picks, spatulas, and scalpels using a micro-incinerator in place of an open flame.
FAQs
The network learns from manually labeled examples in which particle images are distinguished from surrounding regions. During training, it identifies recurring visual patterns associated with macromolecules and contrasts them with background noise, ice, and imaging artifacts. Once trained, the model applies those learned patterns to new micrographs, producing candidate particle coordinates for downstream image processing.
These features can resemble molecular particles or obscure their boundaries in cryo-electron microscopy micrographs. A picking model therefore needs to distinguish meaningful macromolecular image patterns from nonparticle signal. This discrimination affects which coordinates enter later preprocessing and reconstruction steps, so accurate recognition helps limit unsuitable images and supports more reliable analysis of proteins and nucleic acid complexes.
Manual inspection depends on a researcher examining micrographs and selecting particle coordinates individually, whereas the automated approach applies learned image-recognition patterns across the dataset. The main advantages described are greater speed and more consistent selection, particularly when datasets contain many images. Manual judgment remains important for creating labeled training examples that guide the model's recognition process.
A typical workflow begins with manually labeling representative particle images in microscopy data. Those examples train a neural network to recognize relevant patterns, after which the model analyzes additional cryo-electron microscopy micrographs and identifies candidate coordinates. The selected particles then proceed into image preprocessing, three-dimensional reconstruction, and ultimately high-resolution structure determination.
The method is especially suited to cryo-electron microscopy micrographs containing molecular particles alongside background noise, ice, and imaging artifacts. It requires representative manually labeled examples for neural-network training and microscopy data for automated analysis. Its value increases when researchers must process large datasets, because automated coordinate selection can streamline the preparation of particles for structural analysis.
It is useful when investigators need to prepare large collections of particle images for three-dimensional reconstruction and high-resolution structure determination. The approach can support studies of proteins, nucleic acid complexes, and other biomolecular assemblies. By accelerating and standardizing particle-coordinate selection, it helps researchers move from microscopy data toward analysis of molecular architecture more efficiently.