Efficient Segmentation for Left Atrium With Convolution Neural Network Based on Active Learning in Late Gadolinium Enhancement Magnetic Resonance Imagingopen accessEfficient Segmentation for Left Atrium With Convolution Neural Network Based on Active Learning in Late Gadolinium Enhancement Magnetic Resonance Imaging
- Other Titles
- Efficient Segmentation for Left Atrium With Convolution Neural Network Based on Active Learning in Late Gadolinium Enhancement Magnetic Resonance Imaging
- Authors
- Cho, Yongwon; Cho, Hyungjoon; Shim, Jaemin; Choi, Jong-Il; Kim, Young-Hoon; Kim, Namkug; Oh, Yu-Whan; Hwang, Sung Ho
- Issue Date
- 19-9월-2022
- Publisher
- KOREAN ACAD MEDICAL SCIENCES
- Keywords
- Active Learning; Cardiac Image Analysis; Convolutional Neural Network; Deep Learning; Human-in-the-Loop; Magnetic Resonance Images
- Citation
- JOURNAL OF KOREAN MEDICAL SCIENCE, v.37, no.36, pp.1 - 12
- Indexed
- SCIE
SCOPUS
KCI
- Journal Title
- JOURNAL OF KOREAN MEDICAL SCIENCE
- Volume
- 37
- Number
- 36
- Start Page
- 1
- End Page
- 12
- URI
- https://scholar.korea.ac.kr/handle/2021.sw.korea/145744
- DOI
- 10.3346/jkms.2022.37.e271
- ISSN
- 1011-8934
- Abstract
- Background: To propose fully automatic segmentation of left atrium using active learning with limited dataset in late gadolinium enhancement in cardiac magnetic resonance imaging (LGE-CMRI).Methods: An active learning framework was developed to segment the left atrium in cardiac LGE-CMRI. Patients (n = 98) with atrial fibrillation from the Korea University Anam Hospital were enrolled. First, 20 cases were delineated for ground truths by two experts and used for training a draft model. Second, the 20 cases from the first step and 50 new cases, corrected in a human-in-the-loop manner after predicting using the draft model, were used to train the next model; all 98 cases (70 cases from the second step and 28 new cases) were trained. An additional 20 LGE-CMRI were evaluated in each step.Results: The Dice coefficients for the three steps were 0.85 +/- 0.06, 0.89 +/- 0.02, and 0.90 +/- 0.02, respectively. The biases (95% confidence interval) in the Bland-Altman plots of each step were 6.36% (-14.90-27.61), 6.21% (-9.62-22.03), and 2.68% (-8.57-13.93). Deep active learning-based annotation times were 218 +/- 31 seconds, 36.70 +/- 18 seconds, and 36.56 +/- 15 seconds, respectively.Conclusion: Deep active learning reduced annotation time and enabled efficient training on limited LGE-CMRI.
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Collections - Graduate School > Department of Biomedical Sciences > 1. Journal Articles
- College of Medicine > Department of Medical Science > 1. Journal Articles
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