Pneumonia, a respiratory infection with the potential for life-threatening consequences, impacts millions of individuals globally. Ensuring patients receive the best possible care and positive outcomes relies on swift and accurate diagnoses Deep learning, which involves studying chest X-rays, has the potential to automate diagnostic procedures. This not only enhances efficiency but also adds a human touch to healthcare, making it more personalized and empathetic and has garnered attention a study shows utilizing a huge dataset of chest X-ray and CT scan sourced from Kaggle, a leading platform, aimed to and validate the deep-learning models in diagnosing pneumonia based on medical imaging data. The study employed various deep learning frameworks, combining convolutional neural networks (CNNs) such as VGG16. The deep learning models went through extensive training, validation, and testing using the dataset. We thoroughly evaluated their effectiveness by examining metrics such as precision and recall, we evaluate effectiveness by taking into account metrics such as responsiveness (the true positive rate), specificity (the true negative rate), and the area under the receiver operating characteristic curve (AUC-ROC). To make things more understandable, we also explored how well the models could give us insights we could interpret. For this, we used techniques like Grad-CAM to highlight specific areas in the images that influenced their predictions. To make the results more meaningful, we also wanted to understand why the models were making certain predictions. Furthermore, we carefully adjusted the attributes of deep learning models during the training phase, aiming for optimal configurations that would enhance their accuracy in making predictions. In simple terms, our game plan included training the models with a lot of care, handling the dataset thoughtfully, and thoroughly checking how well the models were doing. The goal was to make sure these smart models weren’t just right but also trustworthy and could give us useful insights.

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Comparison and Analysis for Pneumonia Detection Using Deep Learning Models

  • Ajay Kumar Sahu,
  • Shivani Dubey,
  • Vikas Singhal,
  • Kishan Kumar Pathak,
  • Prajjawal Mishra,
  • Ashok Gupta,
  • Abhay Kumar

摘要

Pneumonia, a respiratory infection with the potential for life-threatening consequences, impacts millions of individuals globally. Ensuring patients receive the best possible care and positive outcomes relies on swift and accurate diagnoses Deep learning, which involves studying chest X-rays, has the potential to automate diagnostic procedures. This not only enhances efficiency but also adds a human touch to healthcare, making it more personalized and empathetic and has garnered attention a study shows utilizing a huge dataset of chest X-ray and CT scan sourced from Kaggle, a leading platform, aimed to and validate the deep-learning models in diagnosing pneumonia based on medical imaging data. The study employed various deep learning frameworks, combining convolutional neural networks (CNNs) such as VGG16. The deep learning models went through extensive training, validation, and testing using the dataset. We thoroughly evaluated their effectiveness by examining metrics such as precision and recall, we evaluate effectiveness by taking into account metrics such as responsiveness (the true positive rate), specificity (the true negative rate), and the area under the receiver operating characteristic curve (AUC-ROC). To make things more understandable, we also explored how well the models could give us insights we could interpret. For this, we used techniques like Grad-CAM to highlight specific areas in the images that influenced their predictions. To make the results more meaningful, we also wanted to understand why the models were making certain predictions. Furthermore, we carefully adjusted the attributes of deep learning models during the training phase, aiming for optimal configurations that would enhance their accuracy in making predictions. In simple terms, our game plan included training the models with a lot of care, handling the dataset thoughtfully, and thoroughly checking how well the models were doing. The goal was to make sure these smart models weren’t just right but also trustworthy and could give us useful insights.