Ali, S and Dmitrieva, M and Ghatwary, N and Bano, S and Polat, G and Temizel, A and Krenzer, A and Hekalo, A and Guo, YB and Matuszewski, B and Gridach, M and Voiculescu, I and Yoganand, V and Chavan, A and Raj, A and Nguyen, NT and Tran, DQ and Huynh, LD and Boutry, N and Rezvy, S and Chen, H and Choi, YH and Subramanian, A and Balasubramanian, V and Gao, XW and Hu, H and Liao, Y and Stoyanov, D and Daul, C and Realdon, S and Cannizzaro, R and Lamarque, D and Tran-Nguyen, T and Bailey, A and Braden, B and East, JE and Rittscher, J (2021) Deep learning for detection and segmentation of artefact and disease instances in gastrointestinal endoscopy. In: Medical Image Analysis, 70 .
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Abstract
The Endoscopy Computer Vision Challenge (EndoCV) is a crowd-sourcing initiative to address eminent problems in developing reliable computer aided detection and diagnosis endoscopy systems and suggest a pathway for clinical translation of technologies. Whilst endoscopy is a widely used diagnostic and treatment tool for hollow-organs, there are several core challenges often faced by endoscopists, mainly: 1) presence of multi-class artefacts that hinder their visual interpretation, and 2) difficulty in identifying subtle precancerous precursors and cancer abnormalities. Artefacts often affect the robustness of deep learning methods applied to the gastrointestinal tract organs as they can be confused with tissue of interest. EndoCV2020 challenges are designed to address research questions in these remits. In this paper, we present a summary of methods developed by the top 17 teams and provide an objective comparison of state-of-the-art methods and methods designed by the participants for two sub-challenges: i) artefact detection and segmentation (EAD2020), and ii) disease detection and segmentation (EDD2020). Multi-center, multi-organ, multi-class, and multi-modal clinical endoscopy datasets were compiled for both EAD2020 and EDD2020 sub-challenges. The out-of-sample generalization ability of detection algorithms was also evaluated. Whilst most teams focused on accuracy improvements, only a few methods hold credibility for clinical usability. The best performing teams provided solutions to tackle class imbalance, and variabilities in size, origin, modality and occurrences by exploring data augmentation, data fusion, and optimal class thresholding techniques. © 2021 The Authors
Item Type: | Journal Article |
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Publication: | Medical Image Analysis |
Publisher: | Elsevier B.V. |
Additional Information: | Copyright for this article belongs to Elsevier. |
Keywords: | Computer aided diagnosis; Data fusion; Endoscopy; Learning systems, Accuracy Improvement; Computer-aided detection and diagnosis; Gastrointestinal endoscopies; Gastrointestinal tract; Generalization ability; State-of-the-art methods; Thresholding techniques; Visual interpretation, Deep learning |
Department/Centre: | Autonomous Societies / Centres > Society for Innovation and Development |
Date Deposited: | 12 Mar 2021 08:36 |
Last Modified: | 12 Mar 2021 11:14 |
URI: | http://eprints.iisc.ac.in/id/eprint/68391 |
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