3260 papers • 126 benchmarks • 313 datasets
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These leaderboards are used to track progress in brain-image-segmentation-3
Use these libraries to find brain-image-segmentation-3 models and implementations
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A deep neural network architecture, FusionNet, is introduced with a focus on its application to accomplish automatic segmentation of neuronal structures in connectomics data, which results in a much deeper network architecture and improves segmentation accuracy.
This work proposes the non-local U-Nets, which are equipped with flexible global aggregation blocks, for biomedical image segmentation, and shows that the proposed models achieve top performances with fewer parameters and faster computation.
Proposed CNN based segmentation approaches demonstrate how 2D segmentation using prior slices can provide similar results to 3D segmentations while maintaining good continuity in the 3D dimension and improved speed.
The network is trained on 5,000 T1-weighted brain MRI scans from the UK Biobank Imaging Study that have been automatically segmented into brain tissue and cortical and sub-cortical structures using the standard neuroimaging pipelines and demonstrates very good reproducibility of the original outputs while increasing robustness to variations in the input data.
This work proposes a novel method based on Generative Adversarial Networks (GANs) to train a segmentation model with both labeled and unlabeled images, which prevents over-fitting by learning to discriminate between true and fake patches obtained by a generator network.
This paper proposes an alternative strategy that combines a conventional probabilistic atlas-based segmentation with deep learning, enabling one to train a segmentation model for new MRI scans without the need for any manually segmented images.
ROAM is proposed, a \textit{random layer mixup}, which encourages the network to be less confident for interpolated data points at randomly selected space, and hence it avoids over-fitting and enhances the generalization ability.
The evaluation demonstrates that both neural networks can segment neonatal brains, achieving previously reported performance and will be continuously retrained over an increasingly larger repertoire of neonatal brain data and be made available through the Canadian Neonatal Brain Platform.
A novel model for white matter lesions into a previously validated generative model for whole-brain segmentation is integrated, showing robust performance in white matter lesion segmentation while simultaneously segmenting dozens of other brain structures from multi-contrast brain MRI scans of multiple sclerosis patients.
Preliminary experiments on three longitudinal datasets indicate that the proposed method produces more reliable segmentations and detects disease effects better than the cross-sectional method it is based upon.
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