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Location Sensitive Deep Convolutional Neural Networks for Segmentation of White Matter Hyperintensities

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abstract

The anatomical location of imaging features is of crucial importance for accurate diagnosis in many medical tasks. Convolutional neural networks (CNN) have had huge successes in computer vision, but they lack the natural ability to incorporate the anatomical location in their decision making process, hindering success in some medical image analysis tasks. In this paper, to integrate the anatomical location information into the network, we propose several deep CNN architectures that consider multi-scale patches or take explicit location features while training. We apply and compare the proposed architectures for segmentation of white matter hyperintensities in brain MR images on a large dataset. As a result, we observe that the CNNs that incorporate location information substantially outperform a conventional segmentation method with hand-crafted features as well as CNNs that do not integrate location information. On a test set of 46 scans, the best configuration of our networks obtained a Dice score of 0.791, compared to 0.797 for an independent human observer. Performance levels of the machine and the independent human observer were not statistically significantly different (p-value=0.17).

fields

eess.IV 1

years

2019 1

verdicts

UNVERDICTED 1

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Fully-automated deep learning-powered system for DCE-MRI analysis of brain tumors

eess.IV · 2019-07-18 · unverdicted · novelty 6.0

An end-to-end DL pipeline automates DCE-MRI analysis for brain tumors, introduces a cubic vascular input function model that lowers fitting error, and processes scans in under 3 minutes on one GPU while claiming state-of-the-art accuracy on BraTS and QIBA benchmarks plus 44 clinical cases.

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  • Fully-automated deep learning-powered system for DCE-MRI analysis of brain tumors eess.IV · 2019-07-18 · unverdicted · none · ref 13 · internal anchor

    An end-to-end DL pipeline automates DCE-MRI analysis for brain tumors, introduces a cubic vascular input function model that lowers fitting error, and processes scans in under 3 minutes on one GPU while claiming state-of-the-art accuracy on BraTS and QIBA benchmarks plus 44 clinical cases.