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Volume: 11 Issue 05 May 2025
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Early Detection Of Brain Stroke For Medical Imaging Through Cnn And Image Analysis
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Author(s):
Sivesh Kumar Ar | Atheeq Basha S | Karthick P
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Keywords:
Brain Stroke, CNN, Neural Imaging ,Stroke Classification, Neuro Imaging, Deep Learning, Stoke , Computer Aided Analysis, Automated Stroke Diagnosis.
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Abstract:
The Early Detection Of Brain Strokes Is Critical For Improving Patient Outcomes And Minimizing Long-term Disabilities. Timely Diagnosis Can Significantly Reduce The Risk Of Brain Damage By Enabling Swift Medical Intervention. This Research Proposes A Deep Learning-based Approach For The Early Detection Of Brain Stroke From Medical Imaging Data Using Convolutional Neural Networks (CNNs). Today, Stroke Diagnosis Is Largely Based On Neuroimaging Methods Like Magnetic Resonance Imaging (MRI) And Computed Tomography (CT) Scans. Nevertheless, The Interpretation Of Such Medical Images Is Usually Dependent On Skilled Radiologists And Can Be Time-consuming, Resulting In Delayed Diagnosis, Particularly In Urgent Cases Or Where There Is A Shortage Of Specialist Medical Staff. Additionally, Manual Interpretation Is Prone To Variability And Human Error. Such Limitations Have Created The Need For Automated, Consistent, And Effective Diagnostic Systems. Over The Past Few Years, Artificial Intelligence (AI), Especially Deep Learning (DL), Has Been Very Promising In The Area Of Medical Imaging. Convolutional Neural Networks (CNNs), Which Are One Type Of Deep Learning Architectures Developed Specifically For Image Analysis, Have Had Impressive Success In Object Detection, Classification, And Segmentation Tasks. CNNs Learn Spatial Hierarchies Of Features From Input Images Automatically, Which Explains Why They Are Suitable For Detecting Patterns And Abnormalities In Medical Scans That Can Point Towards Stroke. This Study Emphasizes The Use Of CNNs For Automated Brain Stroke Detection And Classification From Medical Imaging Data. The Methodology Includes Data Collection And Preprocessing Of Images, Designing A CNN Architecture That Suits Medical Image Classification, And Training The Model To Identify Normal Brain Images, Ischemic Strokes, And Hemorrhagic Strokes. Preprocessing Operations Like Image Standardization, Noise Filtering, And Data Resampling Are Important To Improve The Performance And Generalization Ability Of The Model. The Performance Of The Model Is Tested With Metrics Like Accuracy, Sensitivity, Specificity, And Confusion Matrix Analysis To Ensure Its Clinical Applicability.
Other Details
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Paper id:
IJSARTV11I4103407
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Published in:
Volume: 11 Issue: 4 April 2025
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Publication Date:
2025-04-29
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