Brain Tumor Radiogenomic Classification
Amr Mohamed, Mahmoud Rabea, Aya Sameh, Ehab Kamal

TL;DR
This study evaluates various deep learning models, including Vision Transformer and Xception, for predicting MGMT biomarker status in glioblastoma using multi-parametric MRI scans, achieving moderate accuracy.
Contribution
It compares multiple architectures on a radiogenomic classification challenge, highlighting the effectiveness of ViT3D and Xception models for this task.
Findings
ViT3D achieved an AUC of 0.6015
Xception achieved an AUC of 0.61745
Results validate the complexity of brain tumor radiogenomic classification
Abstract
The RSNA-MICCAI brain tumor radiogenomic classification challenge aimed to predict MGMT biomarker status in glioblastoma through binary classification on Multi parameter mpMRI scans: T1w, T1wCE, T2w and FLAIR. The dataset is splitted into three main cohorts: training set, validation set which were used during training, and the testing were only used during final evaluation. Images were either in a DICOM format or in Png format. different architectures were used to investigate the problem including the 3D version of Vision Transformer (ViT3D), ResNet50, Xception and EfficientNet-B3. AUC was used as the main evaluation metric and the results showed an advantage for both the ViT3D and the Xception models achieving 0.6015 and 0.61745 respectively on the testing set. compared to other results, our results proved to be valid given the complexity of the task. further improvements can be made…
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Taxonomy
TopicsBrain Tumor Detection and Classification · Radiomics and Machine Learning in Medical Imaging · AI in cancer detection
MethodsSparse Evolutionary Training · Multi-Head Attention · Attention Is All You Need · Depthwise Convolution · Absolute Position Encodings · Label Smoothing · Dropout · Pointwise Convolution · Average Pooling · Adam
