Public Health

Detection of pneumonia in children through chest radiographs using artificial intelligence in a low-resource setting: A pilot study

PLOS

PLOS

Research Authors: Taofeeq Oluwatosin Togunwa, Abdulhammed Opeyemi Babatunde, Oluwatosin Ebunoluwa Fatade, Richard Olatunji, Godwin Ogbole, Adegoke FaladeTogunwa et al. conducted a pilot study aimed at developing and testing an AI model to detect pneumonia from chest radiographs (CXRs) in children under the age of 5. The model was trained with an open-source dataset of CXRs from pediatric patients at the University of California, San Diego, to differentiate scans as normal or pneumonia. The model was first assessed using an internal subset of U.S. data, where it showed strong performance with an accuracy of 86%, precision of 0.83, recall of 0.98, F1-score of 0.79, and an AUC of 0.93. When tested on an external dataset of 190 Nigerian CXRs, labeled by two blinded radiologists as the reference standard, the model’s performance decreased to 58% accuracy, 0.62 precision, 0.48 recall, 0.68 F1-score, and an AUC of 0.65. These results show a high potential for using AI to improve the diagnosis of pneumonia in children, but also highlight the discrepancy in applying models trained in advanced healthcare settings to low-income communities.

Research Authors: Taofeeq Oluwatosin Togunwa, Abdulhammed Opeyemi Babatunde, Oluwatosin Ebunoluwa Fatade, Richard Olatunji, Godwin Ogbole, Adegoke FaladeTogunwa et al. conducted a pilot study aimed at developing and testing an AI model to detect pneumonia from chest radiographs (CXRs) in children under the age of 5. The model was trained with an open-source dataset of CXRs from pediatric patients at the University of California, San Diego, to differentiate scans as normal or pneumonia. The model was first assessed using an internal subset of U.S. data, where it showed strong performance with an accuracy of 86%, precision of 0.83, recall of 0.98, F1-score of 0.79, and an AUC of 0.93. When tested on an external dataset of 190 Nigerian CXRs, labeled by two blinded radiologists as the reference standard, the model’s performance decreased to 58% accuracy, 0.62 precision, 0.48 recall, 0.68 F1-score, and an AUC of 0.65. These results show a high potential for using AI to improve the diagnosis of pneumonia in children, but also highlight the discrepancy in applying models trained in advanced healthcare settings to low-income communities.

AIIM Authors: Rithu Girish, Shiv Patel

AIIM Authors: Rithu Girish, Shiv Patel

Publication Date: Sep 24, 2025

Publication Date: Sep 24, 2025

Comprehensive Summary

Togunwa et al. conducted a pilot study aimed at developing and testing an AI model to detect pneumonia from chest radiographs (CXRs) in children under the age of 5. The model was trained with an open-source dataset of CXRs from pediatric patients at the University of California, San Diego, to differentiate scans as normal or pneumonia cases. The model was first assessed using an internal subset of U.S. data, where it showed high performance with 86% accuracy, 0.83 precision, 0.98 recall, 0.79 F1-score, and an AUC of 0.93. When tested on an external dataset of 190 Nigerian CXRs, labeled by two blinded radiologists as the reference standard, the model’s performance decreased to 58% accuracy, 0.62 precision, 0.48 recall, 0.68 F1-score, and an AUC of 0.65. These results show a high potential for using AI to improve the diagnosis of pneumonia in children, but also highlight the discrepancy in results when applying models trained in advanced healthcare settings to low-income communities.

Outcomes and Implications

Pneumonia remains the leading cause of death among children in underserved countries. Responsible for over 700,000 deaths annually, it is a critical public health concern. This problem is majorly attributed to the limited access in diagnostic imaging education and the lack of advanced technology in developing countries. AI serves as a promising solution to this health crisis, specifically in enhancing pneumonia diagnosis through analyzing CXRs. However, while Togunwa et al.’s AI model demonstrated a strong performance in analyzing the U.S. dataset, it showed reduced accuracy when faced with Nigerian CXRs. These discrepancies were likely caused by differences in imaging equipment and techniques between both countries, which affected image resolution and limited the model’s ability to perform with the same accuracy. This emphasizes the importance of adapting AI systems to local communities by building region-specific imaging databases and bridging the technological gap between high and low-income countries. This is especially important in improving early detection and reducing mortality rates in resource-limited areas including Sub-Saharan Africa.

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