CS2-Net: Deep Learning Segmentation of Curvilinear Structures in Medical
Imaging
- URL: http://arxiv.org/abs/2010.07486v2
- Date: Mon, 19 Oct 2020 14:39:41 GMT
- Title: CS2-Net: Deep Learning Segmentation of Curvilinear Structures in Medical
Imaging
- Authors: Lei Mou, Yitian Zhao, Huazhu Fu, Yonghuai Liu, Jun Cheng, Yalin Zheng,
Pan Su, Jianlong Yang, Li Chen, Alejandro F Frang, Masahiro Akiba, Jiang Liu
- Abstract summary: We propose a generic and unified convolution neural network for the segmentation of curvilinear structures.
We introduce a new curvilinear structure segmentation network (CS2-Net), which includes a self-attention mechanism in the encoder and decoder.
- Score: 90.78899127463445
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: Automated detection of curvilinear structures, e.g., blood vessels or nerve
fibres, from medical and biomedical images is a crucial early step in automatic
image interpretation associated to the management of many diseases. Precise
measurement of the morphological changes of these curvilinear organ structures
informs clinicians for understanding the mechanism, diagnosis, and treatment of
e.g. cardiovascular, kidney, eye, lung, and neurological conditions. In this
work, we propose a generic and unified convolution neural network for the
segmentation of curvilinear structures and illustrate in several 2D/3D medical
imaging modalities. We introduce a new curvilinear structure segmentation
network (CS2-Net), which includes a self-attention mechanism in the encoder and
decoder to learn rich hierarchical representations of curvilinear structures.
Two types of attention modules - spatial attention and channel attention - are
utilized to enhance the inter-class discrimination and intra-class
responsiveness, to further integrate local features with their global
dependencies and normalization, adaptively. Furthermore, to facilitate the
segmentation of curvilinear structures in medical images, we employ a 1x3 and a
3x1 convolutional kernel to capture boundary features. ...
Related papers
- Anatomy-guided Pathology Segmentation [56.883822515800205]
We develop a generalist segmentation model that combines anatomical and pathological information, aiming to enhance the segmentation accuracy of pathological features.
Our Anatomy-Pathology Exchange (APEx) training utilizes a query-based segmentation transformer which decodes a joint feature space into query-representations for human anatomy.
In doing so, we are able to report the best results across the board on FDG-PET-CT and Chest X-Ray pathology segmentation tasks with a margin of up to 3.3% as compared to strong baseline methods.
arXiv Detail & Related papers (2024-07-08T11:44:15Z) - Self-Supervised Alignment Learning for Medical Image Segmentation [26.114595114732644]
We propose a novel self-supervised alignment learning framework to pre-train the neural network for medical image segmentation.
The proposed framework consists of a new local alignment loss and a global positional loss.
Experimental results show that the proposed alignment learning is competitive with existing self-supervised pre-training approaches on CT and MRI datasets.
arXiv Detail & Related papers (2024-06-22T00:47:39Z) - Functional2Structural: Cross-Modality Brain Networks Representation
Learning [55.24969686433101]
Graph mining on brain networks may facilitate the discovery of novel biomarkers for clinical phenotypes and neurodegenerative diseases.
We propose a novel graph learning framework, known as Deep Signed Brain Networks (DSBN), with a signed graph encoder.
We validate our framework on clinical phenotype and neurodegenerative disease prediction tasks using two independent, publicly available datasets.
arXiv Detail & Related papers (2022-05-06T03:45:36Z) - Two-Stream Graph Convolutional Network for Intra-oral Scanner Image
Segmentation [133.02190910009384]
We propose a two-stream graph convolutional network (i.e., TSGCN) to handle inter-view confusion between different raw attributes.
Our TSGCN significantly outperforms state-of-the-art methods in 3D tooth (surface) segmentation.
arXiv Detail & Related papers (2022-04-19T10:41:09Z) - Neuroplastic graph attention networks for nuclei segmentation in
histopathology images [17.30043617044508]
We propose a novel architecture for semantic segmentation of cell nuclei.
The architecture is comprised of a novel neuroplastic graph attention network.
In experimental evaluation, our framework outperforms ensembles of state-of-the-art neural networks.
arXiv Detail & Related papers (2022-01-10T22:19:14Z) - Self-Supervised Graph Representation Learning for Neuronal Morphologies [75.38832711445421]
We present GraphDINO, a data-driven approach to learn low-dimensional representations of 3D neuronal morphologies from unlabeled datasets.
We show, in two different species and across multiple brain areas, that this method yields morphological cell type clusterings on par with manual feature-based classification by experts.
Our method could potentially enable data-driven discovery of novel morphological features and cell types in large-scale datasets.
arXiv Detail & Related papers (2021-12-23T12:17:47Z) - 3D Reconstruction of Curvilinear Structures with Stereo Matching
DeepConvolutional Neural Networks [52.710012864395246]
We propose a fully automated pipeline for both detection and matching of curvilinear structures in stereo pairs.
We mainly focus on 3D reconstruction of dislocations from stereo pairs of TEM images.
arXiv Detail & Related papers (2021-10-14T23:05:47Z) - 2D histology meets 3D topology: Cytoarchitectonic brain mapping with
Graph Neural Networks [0.8602553195689513]
Cytoarchitecture describes the spatial organization of neuronal cells in the brain.
It allows to segregate the brain into cortical areas and subcortical nuclei.
mapping boundaries between areas requires to scan histological sections at microscopic resolution.
arXiv Detail & Related papers (2021-03-09T07:09:42Z) - Visualization for Histopathology Images using Graph Convolutional Neural
Networks [1.8939984161954087]
We adopt an approach to model histology tissue as a graph of nuclei and develop a graph convolutional network framework for disease diagnosis.
Our visualization of such networks trained to distinguish between invasive and in-situ breast cancers, and Gleason 3 and 4 prostate cancers generate interpretable visual maps.
arXiv Detail & Related papers (2020-06-16T19:14:19Z)
This list is automatically generated from the titles and abstracts of the papers in this site.
This site does not guarantee the quality of this site (including all information) and is not responsible for any consequences.