Optimized Deep Learning Techniques for Pneumonia Detection: Improving Accuracy and Efficiency with Differential Evolution and Hybrid Models
摘要
This work investigates improvements in pneumonia detection by utilizing deep learning models with chest radiograph images, focusing on both accuracy and interpretability. The study highlights the feasibility of computer-aided diagnosis (CAD) systems that rely on deep learning-based feature extraction and classification models to provide accurate, interpretable, and efficient pneumonia diagnosis. Such systems have significant implications for both high-resource health care settings, where precision and speed are critical, and low-resource environments, where reliable automated tools can support limited medical expertise. In this implementation, a differential evolution (DE) algorithm is employed to enhance feature selection for pneumonia detection from chest X-ray images. The primary objective is to optimize a high-dimensional dataset by identifying the most informative features, thereby improving the overall performance of classification models. The proposed two-stage feature selection method, which incorporates the Voting Differential Evolution (VDE) algorithm, achieved an impressive 98.67% accuracy while successfully reducing feature dimensions by 19.93%.