PRELIMINARY RESULTS OF CLINICAL TESTING OF A NEW INTELLECTUAL PROGRAM ESPER.SCOLIOSIS FOR AUTOMATIC DIAGNOSIS OF SCOLIOSIS ON FRONTAL RADIOGRAPHS

  • D.Kh.I. Kassab Saint Petersburg State University. University embankment, 7–9, Saint Petersburg, Russian Federation, 199034 https://orcid.org/0000-0001-5085-6614
  • I.G. Kamyshanskaya City Mariinsky Hospital. Liteyny Ave., 56, Saint Petersburg, Russian Federation, 191014
  • L.V. Shcheglova City Mariinsky Hospital. Liteyny Ave., 56, Saint Petersburg, Russian Federation, 191014
  • S.V. Trukhan Esper LLC, Russian Federation, Moscow region, Krasnogorsk, Uspenskaya str. 24
  • N.F. Kotova City Mariinsky Hospital. Liteyny Ave., 56, Saint Petersburg, Russian Federation, 191014
  • N.A. Ladogubets Saint Petersburg State University. University embankment, 7–9, Saint Petersburg, Russian Federation, 199034
Keywords: scoliosis, X-ray, artificial intelligence, spine, artificial neural networks

Abstract

Introduction. Scoliosis is a lateral curvature of the spine with torsion of the vertebral bodies and their posterior elements. Cobb’s angle is considered the “gold standard” for diagnosis of scoliosis on frontal radiographs and it is defined by the most tilted vertebrae toward the apex of the curve (end vertebrae). To measure Cobb’s angle the doctor, have to apply manually lines parallel to the end vertebrae. Variability of Cobb’s angle measurements is a current disadvantage of this method. Esper.Scoliosis is an automatic program that is based on machine learning. The aim of the study is to confirm that using program Esper. Scoliosis is in keeping with accuracy metrics. It can detect vertebrae form TI–LV, as well as four points of each vertebral body, according to which the program can construct the angle and determine the degree of scoliosis automatically. Materials and methods. 120 X-ray images were collected retrospectively from the archive of St. Petersburg State Medical Institution “Mariinskaya hospital” and the Federal Scientifi c Centre of Rehabilitation of the Disabled n.a. G.A. Albrecht. The data set consists of 60 images without scoliosis and 60 images with different grades of scoliosis from 1 to 4 that were distributed evenly (15 X-ray for each grade). Results. The results of the index test (the new program) were compared to a reference test (radiologist conclusion), and a standard set of metrics was calculated (sensitivity, specificity, accuracy and the area under ROC curve). Conclusion. Our study shows that Esper.Scoliosis system has a high accuracy in diagnosing scoliosis (ROC AUC = 0.9). Based on this clinical test, it is recommended to use program Esper.Scoliosis in clinical practice as an objective tool for determining the degree of scoliosis.

References

Beekman C.E., Hall V. Variability of scoliosis measurement from spinal roentgenograms. Phys Ther. 59, № 6 (Jun 1979): 764-5.

Kassab D., Kamyshanskaya I, Pershin A. Automatic scoliosis angle measurement using deep learning methods, how far we are from clinical application: A narrative review. Medicine 16, no. 2 (2021): 85–94.

Negrini S., Donzelli S., Aulisa A.G. et al. 2016 SOSORT guidelines: orthopaedic and rehabilitation treatment of idiopathic scoliosis during growth. (Scoliosis) 13, no. 3 (2018).

Prestigiacomo F.G., Hulsbosch M.H.H.M., Bruls V.E.J., Nieuwenhuis J.J. Itra- and inter-observer reliability of Cobb angle measurements in patients with adolescent idiopathic scoliosis. Spine deformity 10, № 1 (2022): 79–86.

Syed A.B., Zoga A.C. Artificial Intelligence in Radiology: Current Technology and Future Directions. Semin Musculoskelet Radiol 22, № 5 (Nov 2018): 540-545.

Sorantin E., Grasser M.G., Hemmelmayr A., Tschauner -S., Hrzic F., Weiss V., Lacekova J., Holzinger A. The augmented radiologist: artificial intelligence in the practice of radiology. Pediatr Radiol. (Springer Science and buisness Media) 52, № 11 (Oct 2022): 2074-2086.

Tang A., Tam R., Cadrin-Chênevert A. et al. Canadian Association of Radiologists White Paper on Artificial Intelligence in Radiology. Can Assoc Radiol J. 69, № 2 (2018): 120-135.

Wang Т. GE Healthcare imagination at work Intelligent Tools For A Productive Radiologist Workflow : How Machine Learning Enriches Hanging Protocols. 2013

Published
2024-07-02
How to Cite
Kassab, D., Kamyshanskaya, I., Shcheglova, L., Trukhan, S., Kotova, N., & Ladogubets, N. (2024). PRELIMINARY RESULTS OF CLINICAL TESTING OF A NEW INTELLECTUAL PROGRAM ESPER.SCOLIOSIS FOR AUTOMATIC DIAGNOSIS OF SCOLIOSIS ON FRONTAL RADIOGRAPHS. Medicine: Theory and Practice, 8(4), 135-139. https://doi.org/10.56871/MTP.2023.14.81.019
Section
Статьи

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