4.6 Article

BHCNet: Neural Network-Based Brain Hemorrhage Classification Using Head CT Scan

Journal

IEEE ACCESS
Volume 9, Issue -, Pages 113901-113916

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/ACCESS.2021.3102740

Keywords

Hemorrhaging; Computed tomography; Brain modeling; Deep learning; Medical diagnostic imaging; Magnetic resonance imaging; Head; Brain hemorrhage; image classification; deep learning; CNN; image augmentation; CT scan

Funding

  1. Deanship of Scientific Research at King Khalid University, Abha, Saudi Arabia, through the Large Research Groups Program [GRP. 2/177/2021]

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A new deep learning model for brain hemorrhage classification was proposed, utilizing image augmentation and dataset imbalancing techniques to design a unique neural network architecture. Experimental results showed that by imbalancing the dataset, the performance of the CNN model surpassed that of hybrid models, significantly improving accuracy.
Brain Hemorrhage is the eruption of the brain arteries due to high blood pressure or blood clotting that could be a cause of traumatic injury or death. It is the medical emergency in which a doctor also need years of experience to immediately diagnose the region of the internal bleeding before starting the treatment. In this study, the deep learning models Convolutional Neural Network (CNN), hybrid models CNN + LSTM and CNN + GRU are proposed for the Brain Hemorrhage classification. The 200 head CT scan images dataset is used to boost the accuracy rate and computational power of the deep learning models. The major aim of this study is to use the abstraction power of deep learning on a set of fewer images because in most crucial cases extensive datasets are not available on the spot. The image augmentation and imbalancing the dataset methods are adopted with CNN model to design a unique architecture and named as Brain Hemorrhage Classification based on Neural Network (BHCNet). The performance of the proposed approach are analyzed in terms of accuracy, precision, sensitivity, specificity and F1-score. Further, the experimental results are evaluated by comparative analyses of the balanced and imbalanced dataset with CNN, CNN + LSTM and CNN + GRU models. The promising results are achieved with CNN by imbalancing the dataset and gain highest accuracy that outperforms the hybrid CNN + LSTM and CNN + GRU models. The results reveals the effectiveness of the proposed model for accurate prediction to save the life of the patient in the meantime and fast employment in the real life scenario.

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