3260 papers • 126 benchmarks • 313 datasets
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These leaderboards are used to track progress in whole-slide-images-8
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Use these libraries to find whole-slide-images-8 models and implementations
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This work study the performance of segmentation and classification models when applied to the proposed dataset and demonstrate the application of models trained on PanNuke to whole-slide images.
The power of using deep learning to produce significant improvements in the accuracy of pathological diagnoses is demonstrated, by combining the deep learning system's predictions with the human pathologist's diagnoses.
This work proposes an automated object detection pipeline, enabling accurate, reproducible and quick EIPH scoring in WSI and evaluated state-of-the-art deep learning-based methods for single cell macrophage classification and compared them against the performance of nine cytology experts.
This work proposes a fully automated pipeline for oral cancer detection on whole slide cytology images that consists of fully convolutional regression-based nucleus detection, followed by per-cell focus selection, and CNN based classification.
The open-source online platform EXACT (EXpert Algorithm Collaboration Tool) is developed that enables the collaborative interdisciplinary analysis of images from different domains online and offline and has already been successfully applied to a broad range of annotation tasks.
This research presents a novel probabilistic procedure called “spot-spot PCR” that can be used to characterize the structure of the connective tissue of the immune system and provide real-time information about the immune systems of animals.
This work proposes a MIL-based method for WSI classification and tumor detection that does not require localized annotations, and introduces a novel MIL aggregator that models the relations of the instances in a dual-stream architecture with trainable distance measurement.
Fast Image Search for Histopathology (FISH), a histology image search pipeline that is infinitely scalable and achieves constant search speed that is independent of the image database size while being interpretable and without requiring detailed annotations is presented.
A code-free pipeline utilizing free-to-use, open-source software for creating and deploying deep learning-based segmentation models for computational pathology is presented and pathologists without programming experience can create near state-of-the-art segmentation solutions for histopathological WSIs using only free- to-use software.
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