MRI-based Identification and Classification of Major Intracranial Tumor Types by Using a 3D Convolutional Neural Network: A Retrospective Multi-institutional Analysis

被引:33
作者
Chakrabarty, Satrajit [1 ]
Sotiras, Aristeidis [2 ,3 ]
Milchenko, Mikhail [4 ]
LaMontagne, Pamela [4 ]
Hileman, Michael [4 ]
Marcus, Daniel [4 ]
机构
[1] Washington Univ, Dept Elect & Syst Engn, 1 Brookings Dr, St Louis, MO 63130 USA
[2] Washington Univ, Sch Med, Dept Radiol, St Louis, MO USA
[3] Washington Univ, Sch Med, Inst Informat, St Louis, MO USA
[4] Washington Univ, Sch Med, Mallincicrodt Inst Radiol, St Louis, MO USA
基金
美国国家卫生研究院;
关键词
MR-Imaging; CNS; Brain/Brain Stem; Diagnosis/Classification/Application Domain; Supervised Learning; Convolutional Neural Network; Deep Learning Algorithms; Machine Learning Algorithms;
D O I
10.1148/ryai.2021200301
中图分类号
TP18 [人工智能理论];
学科分类号
081104 ; 0812 ; 0835 ; 1405 ;
摘要
Purpose: To develop an algorithm to classify postcontrast T1-weighted MRI scans by tumor classes (high-grade glioma, low-grade glioma [LGG], brain metastasis, meningioma, pituitary adenoma, and acoustic neuroma) and a healthy tissue (HLTH) class. Materials and Methods: In this retrospective study, preoperative postcontrast T1-weighted MR scans from four publicly available datasets-the Brain Tumor Image Segmentation dataset (n = 378), the LGG-1p19q dataset (n = 145), The Cancer Genome Atlas Glioblastoma Multiforme dataset (n = 141), and The Cancer Genome Atlas Low Grade Glioma dataset (n = 68)-and an internal clinical dataset (n = 1373) were used. In all, a total of 2105 images were split into a training dataset (n = 1396), an internal test set (n = 361), and an external test dataset (n = 348). A convolutional neural network was trained to classify the tumor type and to discriminate between images depicting HLTH and images depicting tumors. The performance of the model was evaluated by using cross-validation, internal testing, and external testing. Feature maps were plotted to visualize network attention. The accuracy, positive predictive value (PPV), negative predictive value, sensitivity, specificity, F1 score, area under the receiver operating characteristic curve (AUC), and area under the precision-recall curve (AUPRC) were calculated. Results: On the internal test dataset, across the seven different classes, the sensitivities, PPVs, AUCs, and AUPRCs ranged from 87% to 100%, 85% to 100%, 0.98 to 1.00, and 0.91 to 1.00, respectively. On the external data, they ranged from 91% to 97%, 73% to 99%, 0.97 to 0.98, and 0.9 to 1.0, respectively. Conclusion: The developed model was capable of classifying postcontrast T1-weighted MRI scans of different intracranial tumor types and discriminating images depicting pathologic conditions from images depicting HLTH. Supplemental material is available for this article. (C) RSNA, 2021.
引用
收藏
页数:10
相关论文
共 50 条
[31]   A comprehensive review of 3D convolutional neural network-based classification techniques of diseased and defective crops using non-UAV-based hyperspectral images [J].
Noshiri, Nooshin ;
Beck, Michael A. ;
Bidinosti, Christopher P. ;
Henry, Christopher J. .
SMART AGRICULTURAL TECHNOLOGY, 2023, 5
[32]   Deep convolutional neural network-based segmentation and classification of difficult to define metastatic spinal lesions in 3D CT data [J].
Chmelik, Jiri ;
Jakubicek, Roman ;
Walek, Petr ;
Jan, Jiri ;
Ourednicek, Petr ;
Lambert, Lukas ;
Amadori, Elena ;
Gavelli, Giampaolo .
MEDICAL IMAGE ANALYSIS, 2018, 49 :76-88
[33]   SDS-Net: A lightweight 3D convolutional neural network with multi-branch attention for multimodal brain tumor accurate segmentation [J].
Wu, Qian ;
Pei, Yuyao ;
Cheng, Zihao ;
Hu, Xiaopeng ;
Wang, Changqing .
MATHEMATICAL BIOSCIENCES AND ENGINEERING, 2023, 20 (09) :17384-17406
[34]   Prediction of anticancer drug resistance using a 3D microfluidic bladder cancer model combined with convolutional neural network-based image analysis [J].
Tak, Sungho ;
Han, Gyeongjin ;
Leem, Sun-Hee ;
Lee, Sang-Yeop ;
Paek, Kyurim ;
Kim, Jeong Ah .
FRONTIERS IN BIOENGINEERING AND BIOTECHNOLOGY, 2024, 11
[35]   Enhancing Clinical Assessment of Skin Ulcers with Automated and Objective Convolutional Neural Network-Based Segmentation and 3D Analysis [J].
Cavazzana, Rosanna ;
Faccia, Angelo ;
Cavallaro, Aurora ;
Giuranno, Marco ;
Becchi, Sara ;
Innocente, Chiara ;
Marullo, Giorgia ;
Ricci, Elia ;
Secco, Jacopo ;
Vezzetti, Enrico ;
Ulrich, Luca .
APPLIED SCIENCES-BASEL, 2025, 15 (02)
[36]   Identification of rock mass discontinuity from 3D point clouds using improved fuzzy C-means and convolutional neural network [J].
Guangyin Lu ;
Bei Cao ;
Xudong Zhu ;
Zishan Lin ;
Dongxin Bai ;
Chuanyi Tao ;
Yani Li .
Bulletin of Engineering Geology and the Environment, 2024, 83
[37]   Identification of rock mass discontinuity from 3D point clouds using improved fuzzy C-means and convolutional neural network [J].
Lu, Guangyin ;
Cao, Bei ;
Zhu, Xudong ;
Lin, Zishan ;
Bai, Dongxin ;
Tao, Chuanyi ;
Li, Yani .
BULLETIN OF ENGINEERING GEOLOGY AND THE ENVIRONMENT, 2024, 83 (05)
[38]   Creating Historical Building Models by Deep Fusion of Multi-Source Heterogeneous Data Using Residual 3D Convolutional Neural Network [J].
Hu, Wenfa ;
Hu, Ruiqi .
INTERNATIONAL JOURNAL OF ARCHITECTURAL HERITAGE, 2024, 18 (09) :1377-1393
[39]   Cross-Domain Correspondence for Sketch-Based 3D Model Retrieval Using Convolutional Neural Network and Manifold Ranking [J].
Jiao, Shichao ;
Han, Xie ;
Xiong, Fengguang ;
Sun, Fusheng ;
Zhao, Rong ;
Kuang, Liqun .
IEEE ACCESS, 2020, 8 :121584-121595
[40]   Decoding 3D Representation of Visual Imagery EEG using Attention-based Dual-Stream Convolutional Neural Network [J].
Ahn, Hyung-Ju ;
Lee, Dae-Hyeok .
10TH INTERNATIONAL WINTER CONFERENCE ON BRAIN-COMPUTER INTERFACE (BCI2022), 2022,