3260 papers • 126 benchmarks • 313 datasets
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These leaderboards are used to track progress in covid-19-image-segmentation-11
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Use these libraries to find covid-19-image-segmentation-11 models and implementations
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A deep learning model can accurately detect COVID-19 and differentiate it from community acquired pneumonia and other lung diseases.
A deep learning (DL) based segmentation system is developed to automatically quantify infection regions of interest (ROIs) and their volumetric ratios w.r.t. the lung and possible applications, including but not limited to analysis of follow-up CT scans and infection distributions in the lobes and segments correlated with clinical findings were discussed.
AI assistance improved radiologists' performance in distinguishing COVID-19 from non-COVID-19 pneumonia on chest CT and assess radiologist performance without and with AI assistance.
An open-source set of algorithms called CovidCTNet that successfully differentiates Covid-19 from community-acquired pneumonia (CAP) and other lung diseases and increases the accuracy of CT imaging detection to 90% compared to radiologists (70%).
A randomized generative adversarial network (RANDGAN) is proposed that detects images of an unknown class (COVID-19) from known and labelled classes (Normal and Viral Pneumonia) without the need for labels and training data from the unknown class of images (CO VID-19).
The model works in two stages: in the first stage, Mask R-CNN is trained to localize and detect two types of lesions in images, and in the second stage, these detections are fused to classify the whole input image.
A lightweight Mask R-CNN model that segments areas with the Ground Glass Opacity and Consolidation in chest CT scans using truncated ResNet18 and ResNet34 nets with a single layer of Feature Pyramid Network as a backbone net is introduced.
This paper compares the models for the detection and segmentation of Ground Glass Opacity and Consolidation in chest CT scans and analyzes the effect of Non-Maximum Suppression of overlapping object predictions, both on the segmentation and classification accuracy.
A model that fuses instance segmentation, Long Short-Term Memory Network and Attention mechanism to predict COVID-19 and segment chest CT scans, and is trained in one shot.
A new framework to identify infection at a voxel level (identification of healthy lung, consolidation, and ground-glass opacity) and visualize the progression of COVID-19 using sequential low-dose non-contrast CT scans is proposed and a longitudinal segmentation network is devised that utilizes the reference scan information to improve the performance of disease identification.
Adding a benchmark result helps the community track progress.