3260 papers • 126 benchmarks • 313 datasets
3D medical imaging segmentation is the task of segmenting medical objects of interest from 3D medical imaging. ( Image credit: Elastic Boundary Projection for 3D Medical Image Segmentation )
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This work reformulates the task of volumetric (3D) medical image segmentation as a sequence-to-sequence prediction problem and introduces a novel architecture, dubbed as UNEt TRansformers (UNETR), that utilizes a transformer as the encoder to learn sequence representations of the input volume and effectively capture the global multi-scale information.
The field research, design and comparative deployment of a multimodal medical imaging user interface for breast screening is described and recommendations from the radiologists for guiding the future design of medical imaging interfaces are summarized.
A heterogeneous 3D network called Med3D is designed to co-train multi-domain 3DSeg-8 so as to make a series of pre-trained models which can accelerate the training convergence speed of target 3D medical tasks and improve accuracy ranging from 3% to 20%.
A fully automatic way to quantify tumor imaging characteristics using deep learning-based segmentation and test whether these characteristics are predictive of tumor genomic subtypes is proposed.
This work is the first to study subcortical structure segmentation on such large‐scale and heterogeneous data and yielded segmentations that are highly consistent with a standard atlas‐based approach, while running in a fraction of the time needed by atlas-based methods and avoiding registration/normalization steps.
This work investigates efficient and flexible elements of modern convolutional networks such as dilated convolution and residual connection, and proposes a high-resolution, compact Convolutional network for volumetric image segmentation.
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.
This paper developed an implementation of the Conditional Random Field as a Recurrent Neural Network layer which works for any number of spatial dimensions, input/output image channels, and reference image channels and concluded that the performance differences observed were not statistically significant.
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