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Papers/Lung Nodule Classification using Deep Local-Global Networks

Lung Nodule Classification using Deep Local-Global Networks

Mundher Al-Shabi, Boon Leong Lan, Wai Yee Chan, Kwan-Hoong Ng, Maxine Tan

2019-04-23Lung Nodule ClassificationComputed Tomography (CT)Transfer LearningGeneral ClassificationClassification
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Abstract

Purpose: Lung nodules have very diverse shapes and sizes, which makes classifying them as benign/malignant a challenging problem. In this paper, we propose a novel method to predict the malignancy of nodules that have the capability to analyze the shape and size of a nodule using a global feature extractor, as well as the density and structure of the nodule using a local feature extractor. Methods: We propose to use Residual Blocks with a 3x3 kernel size for local feature extraction, and Non-Local Blocks to extract the global features. The Non-Local Block has the ability to extract global features without using a huge number of parameters. The key idea behind the Non-Local Block is to apply matrix multiplications between features on the same feature maps. Results: We trained and validated the proposed method on the LIDC-IDRI dataset which contains 1,018 computed tomography (CT) scans. We followed a rigorous procedure for experimental setup namely, 10-fold cross-validation and ignored the nodules that had been annotated by less than 3 radiologists. The proposed method achieved state-of-the-art results with AUC=95.62%, while significantly outperforming other baseline methods. Conclusions: Our proposed Deep Local-Global network has the capability to accurately extract both local and global features. Our new method outperforms state-of-the-art architecture including Densenet and Resnet with transfer learning.

Results

TaskDatasetMetricValueModel
Lung Nodule ClassificationLIDC-IDRIAUC95.62Local-Global
Lung Nodule ClassificationLIDC-IDRIAccuracy88.46Local-Global
Lung Nodule ClassificationLIDC-IDRIAccuracy(10-fold)88.46Local-Global

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