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Deep Learning for the Automatic Quantification of Pleural Plaques in Asbestos-Exposed Subjects

Objective: This study aimed to develop and validate an automated artificial intelligence (AI)-driven quantification of pleural plaques in a population of retired workers previously occupationally exposed to asbestos. Methods: CT scans of former workers previously occupationally exposed to asbestos w...

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Autores principales: Benlala, Ilyes, De Senneville, Baudouin Denis, Dournes, Gael, Menant, Morgane, Gramond, Celine, Thaon, Isabelle, Clin, Bénédicte, Brochard, Patrick, Gislard, Antoine, Andujar, Pascal, Chammings, Soizick, Gallet, Justine, Lacourt, Aude, Delva, Fleur, Paris, Christophe, Ferretti, Gilbert, Pairon, Jean-Claude, Laurent, François
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8835296/
https://www.ncbi.nlm.nih.gov/pubmed/35162440
http://dx.doi.org/10.3390/ijerph19031417
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author Benlala, Ilyes
De Senneville, Baudouin Denis
Dournes, Gael
Menant, Morgane
Gramond, Celine
Thaon, Isabelle
Clin, Bénédicte
Brochard, Patrick
Gislard, Antoine
Andujar, Pascal
Chammings, Soizick
Gallet, Justine
Lacourt, Aude
Delva, Fleur
Paris, Christophe
Ferretti, Gilbert
Pairon, Jean-Claude
Laurent, François
author_facet Benlala, Ilyes
De Senneville, Baudouin Denis
Dournes, Gael
Menant, Morgane
Gramond, Celine
Thaon, Isabelle
Clin, Bénédicte
Brochard, Patrick
Gislard, Antoine
Andujar, Pascal
Chammings, Soizick
Gallet, Justine
Lacourt, Aude
Delva, Fleur
Paris, Christophe
Ferretti, Gilbert
Pairon, Jean-Claude
Laurent, François
author_sort Benlala, Ilyes
collection PubMed
description Objective: This study aimed to develop and validate an automated artificial intelligence (AI)-driven quantification of pleural plaques in a population of retired workers previously occupationally exposed to asbestos. Methods: CT scans of former workers previously occupationally exposed to asbestos who participated in the multicenter APEXS (Asbestos PostExposure Survey) study were collected retrospectively between 2010 and 2017 during the second and the third rounds of the survey. A hundred and forty-one participants with pleural plaques identified by expert radiologists at the 2nd and the 3rd CT screenings were included. Maximum Intensity Projection (MIP) with 5 mm thickness was used to reduce the number of CT slices for manual delineation. A Deep Learning AI algorithm using 2D-convolutional neural networks was trained with 8280 images from 138 CT scans of 69 participants for the semantic labeling of Pleural Plaques (PP). In all, 2160 CT images from 36 CT scans of 18 participants were used for AI testing versus ground-truth labels (GT). The clinical validity of the method was evaluated longitudinally in 54 participants with pleural plaques. Results: The concordance correlation coefficient (CCC) between AI-driven and GT was almost perfect (>0.98) for the volume extent of both PP and calcified PP. The 2D pixel similarity overlap of AI versus GT was good (DICE = 0.63) for PP, whether they were calcified or not, and very good (DICE = 0.82) for calcified PP. A longitudinal comparison of the volumetric extent of PP showed a significant increase in PP volumes (p < 0.001) between the 2nd and the 3rd CT screenings with an average delay of 5 years. Conclusions: AI allows a fully automated volumetric quantification of pleural plaques showing volumetric progression of PP over a five-year period. The reproducible PP volume evaluation may enable further investigations for the comprehension of the unclear relationships between pleural plaques and both respiratory function and occurrence of thoracic malignancy.
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spelling pubmed-88352962022-02-12 Deep Learning for the Automatic Quantification of Pleural Plaques in Asbestos-Exposed Subjects Benlala, Ilyes De Senneville, Baudouin Denis Dournes, Gael Menant, Morgane Gramond, Celine Thaon, Isabelle Clin, Bénédicte Brochard, Patrick Gislard, Antoine Andujar, Pascal Chammings, Soizick Gallet, Justine Lacourt, Aude Delva, Fleur Paris, Christophe Ferretti, Gilbert Pairon, Jean-Claude Laurent, François Int J Environ Res Public Health Article Objective: This study aimed to develop and validate an automated artificial intelligence (AI)-driven quantification of pleural plaques in a population of retired workers previously occupationally exposed to asbestos. Methods: CT scans of former workers previously occupationally exposed to asbestos who participated in the multicenter APEXS (Asbestos PostExposure Survey) study were collected retrospectively between 2010 and 2017 during the second and the third rounds of the survey. A hundred and forty-one participants with pleural plaques identified by expert radiologists at the 2nd and the 3rd CT screenings were included. Maximum Intensity Projection (MIP) with 5 mm thickness was used to reduce the number of CT slices for manual delineation. A Deep Learning AI algorithm using 2D-convolutional neural networks was trained with 8280 images from 138 CT scans of 69 participants for the semantic labeling of Pleural Plaques (PP). In all, 2160 CT images from 36 CT scans of 18 participants were used for AI testing versus ground-truth labels (GT). The clinical validity of the method was evaluated longitudinally in 54 participants with pleural plaques. Results: The concordance correlation coefficient (CCC) between AI-driven and GT was almost perfect (>0.98) for the volume extent of both PP and calcified PP. The 2D pixel similarity overlap of AI versus GT was good (DICE = 0.63) for PP, whether they were calcified or not, and very good (DICE = 0.82) for calcified PP. A longitudinal comparison of the volumetric extent of PP showed a significant increase in PP volumes (p < 0.001) between the 2nd and the 3rd CT screenings with an average delay of 5 years. Conclusions: AI allows a fully automated volumetric quantification of pleural plaques showing volumetric progression of PP over a five-year period. The reproducible PP volume evaluation may enable further investigations for the comprehension of the unclear relationships between pleural plaques and both respiratory function and occurrence of thoracic malignancy. MDPI 2022-01-27 /pmc/articles/PMC8835296/ /pubmed/35162440 http://dx.doi.org/10.3390/ijerph19031417 Text en © 2022 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Benlala, Ilyes
De Senneville, Baudouin Denis
Dournes, Gael
Menant, Morgane
Gramond, Celine
Thaon, Isabelle
Clin, Bénédicte
Brochard, Patrick
Gislard, Antoine
Andujar, Pascal
Chammings, Soizick
Gallet, Justine
Lacourt, Aude
Delva, Fleur
Paris, Christophe
Ferretti, Gilbert
Pairon, Jean-Claude
Laurent, François
Deep Learning for the Automatic Quantification of Pleural Plaques in Asbestos-Exposed Subjects
title Deep Learning for the Automatic Quantification of Pleural Plaques in Asbestos-Exposed Subjects
title_full Deep Learning for the Automatic Quantification of Pleural Plaques in Asbestos-Exposed Subjects
title_fullStr Deep Learning for the Automatic Quantification of Pleural Plaques in Asbestos-Exposed Subjects
title_full_unstemmed Deep Learning for the Automatic Quantification of Pleural Plaques in Asbestos-Exposed Subjects
title_short Deep Learning for the Automatic Quantification of Pleural Plaques in Asbestos-Exposed Subjects
title_sort deep learning for the automatic quantification of pleural plaques in asbestos-exposed subjects
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8835296/
https://www.ncbi.nlm.nih.gov/pubmed/35162440
http://dx.doi.org/10.3390/ijerph19031417
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