Voxel-based plaque classification in coronary intravascular optical coherence tomography images using decision trees

被引:6
|
作者
Kolluru, Chaitanya [1 ]
Prabhu, David [1 ]
Gharaibeh, Yazan [1 ]
Wu, Hao [1 ]
Wilson, David L. [1 ,2 ]
机构
[1] Case Western Reserve Univ, Dept Biomed Engn, Cleveland, OH 44106 USA
[2] Case Western Reserve Univ, Dept Radiol, Cleveland, OH 44106 USA
来源
MEDICAL IMAGING 2018: COMPUTER-AIDED DIAGNOSIS | 2018年 / 10575卷
关键词
optical coherence tomography; atherosclerosis; machine learning; decision tree;
D O I
10.1117/12.2293226
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
Intravascular Optical Coherence Tomography (IVOCT) is a high contrast, 3D microscopic imaging technique that can be used to assess atherosclerosis and guide stent interventions. Despite its advantages, IVOCT image interpretation is challenging and time consuming with over 500 image frames generated in a single pullback volume. We have developed a method to classify voxel plaque types in IVOCT images using machine learning. To train and test the classifier, we have used our unique database of labeled cadaver vessel IVOCT images accurately registered to gold standard cryo-images. This database currently contains 300 images and is growing. Each voxel is labeled as fibrotic, lipid-rich, calcified or other. Optical attenuation, intensity and texture features were extracted for each voxel and were used to build a decision tree classifier for multi-class classification. Five-fold cross-validation across images gave accuracies of 96 % +/- 0.01 %, 90 +/- 0.02% and 90 % +/- 0.01 % for fibrotic, lipid-rich and calcified classes respectively. To rectify performance degradation seen in left out vessel specimens as opposed to left out images, we are adding data and reducing features to limit overfitting. Following spatial noise cleaning, important vascular regions were unambiguous in display. We developed displays that enable physicians to make rapid determination of calcified and lipid regions. This will inform treatment decisions such as the need for devices (e.g., atherectomy or scoring balloon in the case of calcifications) or extended stent lengths to ensure coverage of lipid regions prone to injury at the edge of a stent.
引用
收藏
页数:6
相关论文
共 50 条
  • [41] Effect of alirocumab on coronary plaque in patients with coronary artery disease assessed by optical coherence tomography
    Gao, Fei
    Wang, Zhi Jian
    Ma, Xiao Teng
    Shen, Hua
    Yang, Li Xia
    Zhou, Yu Jie
    LIPIDS IN HEALTH AND DISEASE, 2021, 20 (01)
  • [42] Management and Outcome of Patients With Acute Coronary Syndrome Caused by Plaque Rupture Versus Plaque Erosion: An Intravascular Optical Coherence Tomography Study
    Hu, Sining
    Zhu, Yinchun
    Zhang, Yingying
    Dai, Jiannan
    Li, Lulu
    Dauerman, Harold
    Soeda, Tsunenari
    Wang, Zhao
    Lee, Hang
    Wang, Chao
    Zhe, Chunyang
    Wang, Yan
    Zheng, Gonghui
    Zhang, Shaosong
    Jia, Haibo
    Yu, Bo
    Jang, Ik-Kyung
    JOURNAL OF THE AMERICAN HEART ASSOCIATION, 2017, 6 (03):
  • [43] The Role of Intracoronary Plaque Imaging with Intravascular Ultrasound, Optical Coherence Tomography, and Near-Infrared Spectroscopy in Patients with Coronary Artery Disease
    Vu Hoang
    Grounds, Jill
    Pham, Don
    Virani, Salim
    Hamzeh, Ihab
    Qureshi, Athar Mahmood
    Lakkis, Nasser
    Alam, Mahboob
    CURRENT ATHEROSCLEROSIS REPORTS, 2016, 18 (09)
  • [44] Automatic segmentation of intravascular optical coherence tomography images for facilitating quantitative diagnosis of atherosclerosis
    Wang, Zhao
    Kyono, Hiroyuki
    Bezerra, Hiram G.
    Wilson, David L.
    Costa, Marco A.
    Rollins, Andrew M.
    OPTICAL COHERENCE TOMOGRAPHY AND COHERENCE DOMAIN OPTICAL METHODS IN BIOMEDICINE XV, 2011, 7889
  • [45] Retinal disease classification based on optical coherence tomography images using convolutional neural networks
    Stanojevic, Masa
    Draskovic, Drazen
    Nikolic, Bosko
    JOURNAL OF ELECTRONIC IMAGING, 2023, 32 (03)
  • [46] Assessment of Coronary Atherosclerosis using Optical Coherence Tomography
    Kubo, Takashi
    Tanaka, Atsushi
    Ino, Yasushi
    Kitabata, Hironori
    Shiono, Yasutsugu
    Akasaka, Takashi
    JOURNAL OF ATHEROSCLEROSIS AND THROMBOSIS, 2014, 21 (09) : 895 - 903
  • [47] Automated classification of normal and Stargardt disease optical coherence tomography images using deep learning
    Shah, Mital
    Ledo, Ana Roomans
    Rittscher, Jens
    ACTA OPHTHALMOLOGICA, 2020, 98 (06) : E715 - E721
  • [48] Classification of Retinal Diseases in Optical Coherence Tomography Images Using Artificial Intelligence and Firefly Algorithm
    Ozdas, Mehmet Batuhan
    Uysal, Fatih
    Hardalac, Firat
    DIAGNOSTICS, 2023, 13 (03)
  • [49] Optical coherence tomography and coronary angioscopy assessment of healed coronary plaque components
    Kimura, Shigeki
    Cho, Shunmo
    Misu, Yoshiki
    Ohmori, Mari
    Tateishi, Ryo
    Kaneda, Toshio
    Yamakami, Yosuke
    Shimada, Hiroshi
    Manno, Tomoko
    Isshiki, Ami
    Shimizu, Masato
    Fujii, Hiroyuki
    Suzuki, Makoto
    Sasano, Tetsuo
    INTERNATIONAL JOURNAL OF CARDIOVASCULAR IMAGING, 2021, 37 (10) : 2849 - 2859
  • [50] Relationships of coronary culprit-plaque characteristics with duration of diabetes mellitus in acute myocardial infarction: an intravascular optical coherence tomography study
    Sheng, Zhaoxue
    Zhou, Peng
    Liu, Chen
    Li, Jiannan
    Chen, Runzhen
    Zhou, Jinying
    Song, Li
    Zhao, Hanjun
    Yan, Hongbing
    CARDIOVASCULAR DIABETOLOGY, 2019, 18 (01)