Hybrid CNN models for precision brain tumour detection and classification using multi-modal MRI scans

The Brain tumours cause a dark shadow on millions of lives worldwide, challenging early detection for a prospect at brighter outcomes. Unfortunately, traditional methods often fall short, resorting to invasive strategy or grappling with constraint in sensitivity and accuracy. Fortunately, the inception of deep learning paints a confident picture, with transfer learning make an appearance as a formidable tool in the fight contra these malignant masses. This work delves into the exhilarating intersection of transfer learning and brain tumour finding, aiming to exploit the wisdom obtained from vast image datasets for the comfort of medical imaging. Alternatively of painstakingly training deep learning prototype from scratch, we propose piggybacking on the pre-existing skill of giants like ResNet and VGG16. These prototypes, honed on millions of pictures, hold within them the lots of extracting intricate attribute and discerning subtle patterns. By scrupulously fine-tuning these prototypes on specialized brain tumour datasets, we desire to unlock their true volume for accurately pinpointing malignant development even within the complex tapestry of a brain scan. Our research starts with conclave high-resolution medical images, like MRI scans, from trustworthy sources. Each scan will be handling with care, meticulously pre-processed to make sure the model receives clear and compatible information. Then, the pre-trained models, each with their individual strengths and quirks, will step onto the stage. The proposed methodology experiment with various architectures and fine-tuning strategies, carefully modifying the dials to coax out the highest performance. To judge their success, rely on a rigorous set of metrics, meticulously measuring their accuracy in identifying tumours, their sensitivity in capturing even the tiniest growths, and their specificity in avoiding false alarms. This is just the beginning of the story, the first step on a potentially life-changing journey.

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Publication Details

Journal
IET conference proceedings.
Published
2026-02-01
DOI
https://doi.org/10.1049/icp.2025.4748
Primary Topic
Brain Tumor Detection and Classification
Type
article
Field-Weighted Citation Impact
0.00
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article

Hybrid CNN models for precision brain tumour detection and classification using multi-modal MRI scans

Yeswanth Hanumanthu, Stella J., D. Lilly Evangelin, R. Jeen Retna Kumar et al.
IET conference proceedings.
Brain Tumor Detection and Classification
article

Hybrid CNN models for precision brain tumour detection and classification using multi-modal MRI scans

Yeswanth Hanumanthu, Stella J., D. Lilly Evangelin, R. Jeen Retna Kumar, Babitha Lincy R., D. Ferlin Deva Shahila
article en

Abstract

The Brain tumours cause a dark shadow on millions of lives worldwide, challenging early detection for a prospect at brighter outcomes. Unfortunately, traditional methods often fall short, resorting to invasive strategy or grappling with constraint in sensitivity and accuracy. Fortunately, the inception of deep learning paints a confident picture, with transfer learning make an appearance as a formidable tool in the fight contra these malignant masses. This work delves into the exhilarating intersection of transfer learning and brain tumour finding, aiming to exploit the wisdom obtained from vast image datasets for the comfort of medical imaging. Alternatively of painstakingly training deep learning prototype from scratch, we propose piggybacking on the pre-existing skill of giants like ResNet and VGG16. These prototypes, honed on millions of pictures, hold within them the lots of extracting intricate attribute and discerning subtle patterns. By scrupulously fine-tuning these prototypes on specialized brain tumour datasets, we desire to unlock their true volume for accurately pinpointing malignant development even within the complex tapestry of a brain scan. Our research starts with conclave high-resolution medical images, like MRI scans, from trustworthy sources. Each scan will be handling with care, meticulously pre-processed to make sure the model receives clear and compatible information. Then, the pre-trained models, each with their individual strengths and quirks, will step onto the stage. The proposed methodology experiment with various architectures and fine-tuning strategies, carefully modifying the dials to coax out the highest performance. To judge their success, rely on a rigorous set of metrics, meticulously measuring their accuracy in identifying tumours, their sensitivity in capturing even the tiniest growths, and their specificity in avoiding false alarms. This is just the beginning of the story, the first step on a potentially life-changing journey.

IET conference proceedings.Vol. 2025(43)
Vel Tech Rangarajan Dr. Sagunthala R&D Institute of Science and Technology (IN), Loyola University Maryland (US), Xavier Institute of Communications (IN), Sri Eshwar College of Engineering
Openalex Percentile: Top 72%
Brain Tumor Detection and Classification
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