IALS: Innovative Approach for Lung Segmentation Applying Artificial Intelligence and Deep Learning

The automated segmentation of lungs within chest CT scans remains crucial for many medical applications that require disease diagnosis and treatment design. The presented deep incremental learning (DIL) system addresses fundamental limitations that arise during lung segmentation processes. The exceptional segmentation outcomes result from the neural network structure which includes masked RCNN+UNet for tissue segmentation and GAN+VARMA for classification. Medical literature identifies lung tissue structures as difficult to study because they present irregular forms and complex structures. The task of obtaining precise segmentation proves very challenging. The application of masked RCNN+UNet enables shape control and improves segmentation precision of the lung system. The DIL function helps maintain improved features within segmented images. The applied framework enables improved performance through DSC and MAE and JI metrics evaluation. Experimental evidence shows that the new framework achieves superior performance compared to current top-ranking methods for lung segmentation. The proposed framework exhibits excellent precision and detection efficiency with a DSC value of 0.96 and JI value of 0.93 and a low MAE $\lt 0.01$. The new extraction method could advance medical image examination systems within healthcare settings.

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Publication Details

Published
2025-02-07
DOI
https://doi.org/10.1109/iccece61355.2025.10940152
Primary Topic
COVID-19 diagnosis using AI
Type
article
Field-Weighted Citation Impact
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article

IALS: Innovative Approach for Lung Segmentation Applying Artificial Intelligence and Deep Learning

Mohammad Alamgir Hossain, Fazal Imam Shahi, Abdulwahab M. Suliman, Mohammad Shahid Kamal et al.
COVID-19 diagnosis using AI
article

IALS: Innovative Approach for Lung Segmentation Applying Artificial Intelligence and Deep Learning

Mohammad Alamgir Hossain, Fazal Imam Shahi, Abdulwahab M. Suliman, Mohammad Shahid Kamal, Sadia Husain, John Martin, Yasir Ahmad, Mohammad Mazedul Huq Talukdar
article en

Abstract

The automated segmentation of lungs within chest CT scans remains crucial for many medical applications that require disease diagnosis and treatment design. The presented deep incremental learning (DIL) system addresses fundamental limitations that arise during lung segmentation processes. The exceptional segmentation outcomes result from the neural network structure which includes masked RCNN+UNet for tissue segmentation and GAN+VARMA for classification. Medical literature identifies lung tissue structures as difficult to study because they present irregular forms and complex structures. The task of obtaining precise segmentation proves very challenging. The application of masked RCNN+UNet enables shape control and improves segmentation precision of the lung system. The DIL function helps maintain improved features within segmented images. The applied framework enables improved performance through DSC and MAE and JI metrics evaluation. Experimental evidence shows that the new framework achieves superior performance compared to current top-ranking methods for lung segmentation. The proposed framework exhibits excellent precision and detection efficiency with a DSC value of 0.96 and JI value of 0.93 and a low MAE $\lt 0.01$. The new extraction method could advance medical image examination systems within healthcare settings.

University of Bisha (SA), Jazan University (SA)
Openalex Percentile: Top 90%
COVID-19 diagnosis using AI
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