Literature DB >> 32076658

Fully Automated Diagnosis of Anterior Cruciate Ligament Tears on Knee MR Images by Using Deep Learning.

Fang Liu1, Bochen Guan1, Zhaoye Zhou1, Alexey Samsonov1, Humberto Rosas1, Kevin Lian1, Ruchi Sharma1, Andrew Kanarek1, John Kim1, Ali Guermazi1, Richard Kijowski1.   

Abstract

PURPOSE: To investigate the feasibility of using a deep learning-based approach to detect an anterior cruciate ligament (ACL) tear within the knee joint at MRI by using arthroscopy as the reference standard.
MATERIALS AND METHODS: A fully automated deep learning-based diagnosis system was developed by using two deep convolutional neural networks (CNNs) to isolate the ACL on MR images followed by a classification CNN to detect structural abnormalities within the isolated ligament. With institutional review board approval, sagittal proton density-weighted and fat-suppressed T2-weighted fast spin-echo MR images of the knee in 175 subjects with a full-thickness ACL tear (98 male subjects and 77 female subjects; average age, 27.5 years) and 175 subjects with an intact ACL (100 male subjects and 75 female subjects; average age, 39.4 years) were retrospectively analyzed by using the deep learning approach. Sensitivity and specificity of the ACL tear detection system and five clinical radiologists for detecting an ACL tear were determined by using arthroscopic results as the reference standard. Receiver operating characteristic (ROC) analysis and two-sided exact binomial tests were used to further assess diagnostic performance.
RESULTS: The sensitivity and specificity of the ACL tear detection system at the optimal threshold were 0.96 and 0.96, respectively. In comparison, the sensitivity of the clinical radiologists ranged between 0.96 and 0.98, while the specificity ranged between 0.90 and 0.98. There was no statistically significant difference in diagnostic performance between the ACL tear detection system and clinical radiologists at P < .05. The area under the ROC curve for the ACL tear detection system was 0.98, indicating high overall diagnostic accuracy.
CONCLUSION: There was no significant difference between the diagnostic performance of the ACL tear detection system and clinical radiologists for determining the presence or absence of an ACL tear at MRI.© RSNA, 2019Supplemental material is available for this article. 2019 by the Radiological Society of North America, Inc.

Entities:  

Year:  2019        PMID: 32076658      PMCID: PMC6542618          DOI: 10.1148/ryai.2019180091

Source DB:  PubMed          Journal:  Radiol Artif Intell        ISSN: 2638-6100


  29 in total

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2.  Acute and chronic tears of the anterior cruciate ligament: differential features at MR imaging.

Authors:  T N Vahey; D R Broome; K J Kayes; K D Shelbourne
Journal:  Radiology       Date:  1991-10       Impact factor: 11.105

Review 3.  Verification bias: an under-recognized source of error in assessing the efficacy of MRI of the meniscii.

Authors:  Michael L Richardson; Jonelle M Petscavage
Journal:  Acad Radiol       Date:  2011-11       Impact factor: 3.173

4.  Deep convolutional neural network and 3D deformable approach for tissue segmentation in musculoskeletal magnetic resonance imaging.

Authors:  Fang Liu; Zhaoye Zhou; Hyungseok Jang; Alexey Samsonov; Gengyan Zhao; Richard Kijowski
Journal:  Magn Reson Med       Date:  2017-07-21       Impact factor: 4.668

5.  Deep Learning at Chest Radiography: Automated Classification of Pulmonary Tuberculosis by Using Convolutional Neural Networks.

Authors:  Paras Lakhani; Baskaran Sundaram
Journal:  Radiology       Date:  2017-04-24       Impact factor: 11.105

6.  Deep Learning Approach for Evaluating Knee MR Images: Achieving High Diagnostic Performance for Cartilage Lesion Detection.

Authors:  Fang Liu; Zhaoye Zhou; Alexey Samsonov; Donna Blankenbaker; Will Larison; Andrew Kanarek; Kevin Lian; Shivkumar Kambhampati; Richard Kijowski
Journal:  Radiology       Date:  2018-07-31       Impact factor: 11.105

7.  Comparing the areas under two or more correlated receiver operating characteristic curves: a nonparametric approach.

Authors:  E R DeLong; D M DeLong; D L Clarke-Pearson
Journal:  Biometrics       Date:  1988-09       Impact factor: 2.571

8.  Anterior cruciate ligament tears: evaluation of multiple signs with MR imaging.

Authors:  P L Robertson; M E Schweitzer; A R Bartolozzi; A Ugoni
Journal:  Radiology       Date:  1994-12       Impact factor: 11.105

9.  MR diagnosis of tears of anterior cruciate ligament of the knee: importance of ancillary findings.

Authors:  T R McCauley; M Moses; R Kier; J K Lynch; J W Barton; P Jokl
Journal:  AJR Am J Roentgenol       Date:  1994-01       Impact factor: 3.959

10.  3D convolutional neural networks for detection and severity staging of meniscus and PFJ cartilage morphological degenerative changes in osteoarthritis and anterior cruciate ligament subjects.

Authors:  Valentina Pedoia; Berk Norman; Sarah N Mehany; Matthew D Bucknor; Thomas M Link; Sharmila Majumdar
Journal:  J Magn Reson Imaging       Date:  2018-10-10       Impact factor: 4.813

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  25 in total

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Authors:  B Guan; F Liu; A Haj-Mirzaian; S Demehri; A Samsonov; T Neogi; A Guermazi; R Kijowski
Journal:  Osteoarthritis Cartilage       Date:  2020-02-06       Impact factor: 6.576

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Review 3.  Studying osteoarthritis with artificial intelligence applied to magnetic resonance imaging.

Authors:  Francesco Calivà; Nikan K Namiri; Maureen Dubreuil; Valentina Pedoia; Eugene Ozhinsky; Sharmila Majumdar
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Review 4.  Deep Learning for Lesion Detection, Progression, and Prediction of Musculoskeletal Disease.

Authors:  Richard Kijowski; Fang Liu; Francesco Caliva; Valentina Pedoia
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Review 5.  Musculoskeletal trauma and artificial intelligence: current trends and projections.

Authors:  Olga Laur; Benjamin Wang
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6.  Automatic Hip Fracture Identification and Functional Subclassification with Deep Learning.

Authors:  Justin D Krogue; Kaiyang V Cheng; Kevin M Hwang; Paul Toogood; Eric G Meinberg; Erik J Geiger; Musa Zaid; Kevin C McGill; Rina Patel; Jae Ho Sohn; Alexandra Wright; Bryan F Darger; Kevin A Padrez; Eugene Ozhinsky; Sharmila Majumdar; Valentina Pedoia
Journal:  Radiol Artif Intell       Date:  2020-03-25

7.  Deep Learning for Hierarchical Severity Staging of Anterior Cruciate Ligament Injuries from MRI.

Authors:  Nikan K Namiri; Io Flament; Bruno Astuto; Rutwik Shah; Radhika Tibrewala; Francesco Caliva; Thomas M Link; Valentina Pedoia; Sharmila Majumdar
Journal:  Radiol Artif Intell       Date:  2020-07-29

8.  Automatic Deep Learning-assisted Detection and Grading of Abnormalities in Knee MRI Studies.

Authors:  Bruno Astuto; Io Flament; Nikan K Namiri; Rutwik Shah; Upasana Bharadwaj; Thomas M Link; Matthew D Bucknor; Valentina Pedoia; Sharmila Majumdar
Journal:  Radiol Artif Intell       Date:  2021-01-20

Review 9.  Rapid Knee MRI Acquisition and Analysis Techniques for Imaging Osteoarthritis.

Authors:  Akshay S Chaudhari; Feliks Kogan; Valentina Pedoia; Sharmila Majumdar; Garry E Gold; Brian A Hargreaves
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Review 10.  Artificial Intelligence in the Management of Anterior Cruciate Ligament Injuries.

Authors:  Jason Corban; Justin-Pierre Lorange; Carl Laverdiere; Jason Khoury; Gil Rachevsky; Mark Burman; Paul Andre Martineau
Journal:  Orthop J Sports Med       Date:  2021-07-02
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