Next-Gen brain tumor classification: pioneering with deep learning and fine-tuned conditional generative adversarial networks.
Abdullah A AsiriMuhammad AamirTariq AliAhmad ShafMuhammad IrfanKhlood M MehdarSamar M AlqhtaniAli H AlghamdiAbdullah Fahad A AlshamraniOsama M AlshehriPublished in: PeerJ. Computer science (2023)
Brain tumor has become one of the fatal causes of death worldwide in recent years, affecting many individuals annually and resulting in loss of lives. Brain tumors are characterized by the abnormal or irregular growth of brain tissues that can spread to nearby tissues and eventually throughout the brain. Although several traditional machine learning and deep learning techniques have been developed for detecting and classifying brain tumors, they do not always provide an accurate and timely diagnosis. This study proposes a conditional generative adversarial network (CGAN) that leverages the fine-tuning of a convolutional neural network (CNN) to achieve more precise detection of brain tumors. The CGAN comprises two parts, a generator and a discriminator, whose outputs are used as inputs for fine-tuning the CNN model. The publicly available dataset of brain tumor MRI images on Kaggle was used to conduct experiments for Datasets 1 and 2. Statistical values such as precision, specificity, sensitivity, F1-score, and accuracy were used to evaluate the results. Compared to existing techniques, our proposed CGAN model achieved an accuracy value of 0.93 for Dataset 1 and 0.97 for Dataset 2.
Keyphrases
- convolutional neural network
- deep learning
- machine learning
- artificial intelligence
- air pollution
- resting state
- gene expression
- white matter
- magnetic resonance imaging
- functional connectivity
- big data
- contrast enhanced
- multiple sclerosis
- cerebral ischemia
- loop mediated isothermal amplification
- rna seq
- computed tomography
- sensitive detection
- single cell
- network analysis
- label free