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Pneumonia and tuberculosis detection with chest x-ray images and medical records using deep learning techniques

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Pneumonia and tuberculosis are the major public health problems worldwide. These diseases affect the lungs, and if they are not diagnosed properly in time, they can become a fatal health problem. Chest x-ray images are widely used to detect and diagnose Pneumonia and Tuberculosis disease. Detection of Pneumonia and Tuberculosis from chest x-ray images is difficult and requires experience due to the similar pathological features of the diseases. Sometimes a misdiagnosis of the disease occurs due to this similarity. Several researchers used deep learning and machine learning techniques to solve this misdiagnosis problem. However, these studies used the chest x-ray images only to develop Pneumonia and Tuberculosis disease detection models. But using the chest x-ray images alone cannot necessarily lead to accurate disease detection and classification. In the traditional or manual approach, medical records are required to support and correctly interpret the chest x-ray images in the appropriate clinical context. This study develops a multi-input Pneumonia and Tuberculosis detection model using chest x-ray images and medical records to follow the clinical procedure. The study applied a Convolutional Neural Network for the chest x-ray image data and a Multilayer perceptron for the medical record data to develop the models. We implemented feature-level concatenation to join the output feature vectors from the Convolutional Neural Network and a Multilayer perceptron for the development of the disease detection model. For the purpose of comparison, we also developed image-only and medical record-only models. Consequently, the image-only model gives an accuracy of 92.68%, the medical record-only model results in 98.72% accuracy, and the combined model accuracy is improved to 99.61%. In general, the study shows that the fusion of the chest x-ray and the medical records leads to better accuracy and is more similar to the clinical approach.
Title: Pneumonia and tuberculosis detection with chest x-ray images and medical records using deep learning techniques
Description:
Pneumonia and tuberculosis are the major public health problems worldwide.
These diseases affect the lungs, and if they are not diagnosed properly in time, they can become a fatal health problem.
Chest x-ray images are widely used to detect and diagnose Pneumonia and Tuberculosis disease.
Detection of Pneumonia and Tuberculosis from chest x-ray images is difficult and requires experience due to the similar pathological features of the diseases.
Sometimes a misdiagnosis of the disease occurs due to this similarity.
Several researchers used deep learning and machine learning techniques to solve this misdiagnosis problem.
However, these studies used the chest x-ray images only to develop Pneumonia and Tuberculosis disease detection models.
But using the chest x-ray images alone cannot necessarily lead to accurate disease detection and classification.
In the traditional or manual approach, medical records are required to support and correctly interpret the chest x-ray images in the appropriate clinical context.
This study develops a multi-input Pneumonia and Tuberculosis detection model using chest x-ray images and medical records to follow the clinical procedure.
The study applied a Convolutional Neural Network for the chest x-ray image data and a Multilayer perceptron for the medical record data to develop the models.
We implemented feature-level concatenation to join the output feature vectors from the Convolutional Neural Network and a Multilayer perceptron for the development of the disease detection model.
For the purpose of comparison, we also developed image-only and medical record-only models.
Consequently, the image-only model gives an accuracy of 92.
68%, the medical record-only model results in 98.
72% accuracy, and the combined model accuracy is improved to 99.
61%.
In general, the study shows that the fusion of the chest x-ray and the medical records leads to better accuracy and is more similar to the clinical approach.

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