Malignant lymphoma is a cancer originating in the lymphatic system and affecting various lymphatic tissues. With its increasing incidence, accurate reporting and analysis are becoming increasingly critical. The integration of artificial intelligence, particularly deep learning, has revolutionized cancer detection and prognosis. Automated histopathology image analysis using deep learning minimizes observer variability and reveals previously unnoticed features.
This research aims to enhance malignant lymphoma classification by improving model accuracy and image quality through preprocessing, autoencoders, and data augmentation. A convolutional neural network (CNN) was optimized using hyperparameter tuning for superior performance. The model was trained on a Kaggle dataset consisting of 3,740 PNG images (224x224x3), employing techniques such as histogram equalization, median filtering, and Gaussian filtering to enhance image quality and feature visibility.
Autoencoders were used to refine the encoding and decoding processes, significantly improving classification accuracy. The optimal CNN model was trained for 100 epochs with a batch size of 32 and a learning rate of 0.001, achieving a training loss of 0.1884 and an accuracy of 99.2%. During validation, the model attained a loss of 0.4271 and an accuracy of 97.7%. On test data, the model achieved a loss of 0.3820 and an accuracy of 98%. Additionally, a web-based tool developed using Flask and Python demonstrated a classification probability match of 98.81%.
This study highlights the potential of CNN-based approaches to enhance lymphoma diagnosis accuracy and efficiency, thereby alleviating the workload on radiologists.
Keywords: Malignant Lymphoma; Deep Learning; Convolutional Neural Network; Image Preprocessing; Autoencoders