The role of artificial intelligence in assessing the progression of fibrosing lung diseases

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Abstract

Introduction. The widespread use of artificial intelligence (AI) programs during the COVID-19 pandemic to assess the exact volume of lung tissue damage has allowed them to train a large number of radiologists. The simplicity of the program for determining the volume of the affected lung tissue in acute interstitial pneumonia, which has density indicators in the range from -200 HU to -730 HU, which includes the density indicators of "ground glass" and reticulation (the main radiation patterns in COVID-19) allows you to accurately determine the degree of prevalence process. The characteristics of chronic interstitial pneumonia, which are progressive in nature, fit into the same density framework.

Аim. To аssess AI's ability to assess the progression of fibrosing lung disease using lung volume counting programs used for COVID-19 and chronic obstructive pulmonary disease.

Results. Retrospective analysis of computed tomography data during follow-up of 75 patients with progressive fibrosing lung disease made it possible to assess the prevalence and growth of interstitial lesions.

Conclusion. Using the experience of using AI programs to assess acute interstitial pneumonia in COVID-19 can be applied to chronic interstitial pneumonia.

About the authors

Aleksandra A. Speranskaia

Pavlov First Saint Petersburg State Medical University

Author for correspondence.
Email: a.spera@mail.ru
ORCID iD: 0000-0001-8322-4509

д-р мед. наук, проф., проф. каф. рентгенологии и радиационной медицины с рентгенологическим и радиологическим отделениями

Russian Federation, Saint Petersburg

References

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Supplementary files

Supplementary Files
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2. Fig. 1. Patient M., 65 years old. Idiopathic pulmonary fibrosis (IPF). Computer tomography (CT) with an assessment of the extent of the lesion from 03.03.2020 – the volume of the affected lung tissue – 18.07%, which is 0.98 liters out of 5.45 liters (total lung capacity) (a, b, c). Control CT from 13.07.2020 – an increase in clinical symptoms, an increase in the volume of the affected lung tissue – 19.62%, 1.05 liters out of 5.35 liters (d, e, f). Control CT from 22.12.2020 – an increase in the volume of the affected lung tissue – 21.92%, 1.08 liters from 4.92 liters (g, h, i). Control CT from 06.09.2021 – stabilization of the process against the background of therapy – 20.97%, 1.12 liters out of 5.37 liters (j, k, l). In the period from 03.2020 to 12.2020, there is a decrease in DLCO by 16% (from 70% from D to 54% from D).

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3. Fig. 2. Patient L., 63 years old. IPF. CT with an assessment of the extent of the lesion dated 21.01.2017 – visually (a), using the artificial intelligenc (AI) program: the volume of interstitial damage of the lung tissue (в, d) – 28.67%, which is 1.20 liters out of 4.18 liters (total lung capacity), the volume of cystic-bullous transformation of lung tissue (c, d) – 3.98%, which is 0.16 liters of 4.18 liters (total lung capacity), the total volume of the lesion is 32.65%. Control CT with an assessment of the extent of the lesion from 14.09.2021 – visually (e), using the AI program: the volume of interstitial damage to the lung tissue (f, h) – 33.24%, which is 1.46 liters out of 4.40 liters (total lung capacity), the volume of cystic-bullous transformation of lung tissue (g, h) – 6.41%, which is 0.28 liters of 4.40 liters (total lung capacity), the total lesion volume is 39.65%. In the period from 2017 to 2021, there is a decrease in DLCO by 18% (from 41% from D to 23% from D).

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4. Fig. 3. The graphic image of life has been used at all times: Pushkin's graphic self-portraits – aging and the appearance of traits of wisdom.

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