This study introduces a new hybrid deep learning method that integrates Gabor filtering for the improvement in texture feature extraction, the Vision Transformer framework for extraction of the global context dependency and fine-grained spatial features, and a novel Gated Mamba to enhance feature classification efficiency.
Abstract
Brain tumor classification from MRI is an important task in medical image analysis. This study introduces a new hybrid deep learning method that integrates Gabor filtering for the improvement in texture feature extraction, the Vision Transformer (ViT) framework for extraction of the global context dependency and fine-grained spatial features, and a novel Gated Mamba to enhance feature classification efficiency. The framework was first evaluated in-distribution on the Kaggle dataset, which contains 5712 slices of brain MRI images from four different classes using accuracy, precision, recall, F1-score, AUC, Std, and 95% confidence intervals (CIs), with a mean image-level accuracy of 99.62%. Because the Kaggle dataset is known to be near-saturated and no patient identifiers are available, this in-distribution result is treated as a sanity check rather than a measure of clinical generalization; pHash deduplication was used to remove visually identical images, but this does not provide patient-level grouping, and residual patient-level leakage cannot be fully excluded. The central evaluation of this study is therefore a cross-dataset validation on the “figshare brain mri” dataset, which uses a different scanner and acquisition protocol and was never used during training and model selection; the proposed model on this dataset achieves 87.23% accuracy with reasonable confidence intervals, a decline of 12.39 percentage points relative to the in-distribution result that reflects the domain-shift gap typical of this task. The proposed hybrid approach performs competitively against established methods in-distribution, while the cross-dataset results highlight generalization challenges that motivate the failure analysis and limitations discussed in this paper.
The findings demonstrate the potential of combining complementary transfer-learning models with preprocessing, ensemble fusion, and explainable artificial intelligence for automated brain tumor classification from MRI images.
Ahmed Thijeel· Alkadhim Journal for Compute...· 0 citations
Accurate and timely classification is essential for brain tumor treatment planning. Classical machine learning (ML) with handcrafted features on moderate-sized datasets is under-represented, despite deep learning (DL) dominating medical image analysis.
This study proposes a paradigm-agnostic comparison of cl...
The proposed explainable deep learning framework shows great promise of helping clinical diagnosis of brain tumors to be reliable and transparent, by integrating with AI.
Mohd. Yousuf, Joy Chowdhury, Susmoy Chowdhury et al.· American Journal of Applied...· 0 citations
A two-stage deep learning pipeline for brain tumor classification from MRI images is proposed that integrates normal/abnormal screening, detailed classification, visual explanation, and web-based access within a single two-stage pipeline.
Nikil Kumaran K, D. Mohanapriya, R. Kumuthaveni· International Journal of Sci...· 0 citations
The findings show that the proposed framework can offer reliable, precise, and interpretable tumor detection and is thus a promising tool in the field of computer-assisted diagnosis and clinical decision support used in neuroimaging studies.
Arshad Hashmi, Muzammil Hussain, Anas W. Abulfarj et al.· Scientific Reports· 0 citations
Brain tumors constitute a significant global health challenge, and accurate, timely diagnosis is critical for effective treatment planning. Manual interpretation of magnetic resonance imaging (MRI) remains time-consuming, error-prone and subject to inter-observer variability. The objective of this study was to develop...
Adukwu Nasiru Ukwuteno, G. Obunadike, B. T. Mashi· Journal of Basics and Applie...· 0 citations
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