AI-Powered Stroke Diagnosis System: Methodological Framework and Implementation

This study introduces an AI-based framework for stroke diagnosis that merges clinical data and curated imaging data. The system utilizes traditional machine learning and advanced deep learning techniques to tackle dataset imbalances and variability in stroke presentations. Our approach involves rigorous data preprocessing, feature engineering, and ensemble techniques to optimize the predictive performance. Comprehensive evaluations demonstrate that gradient-boosted models outperform in accuracy, while CNNs enhance stroke detection rates. Calibration and threshold optimization are utilized to align predictions with clinical requirements, ensuring diagnostic reliability. This multi-modal framework highlights the capacity of AI to accelerate stroke diagnosis and aid clinical decision making, ultimately enhancing patient outcomes in critical care.

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Publication Details

Journal
Future Internet
Published
2025-05-02
DOI
https://doi.org/10.3390/fi17050204
Citations
6
Primary Topic
Brain Tumor Detection and Classification
Type
article
Field-Weighted Citation Impact
5.05

Funders

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article

AI-Powered Stroke Diagnosis System: Methodological Framework and Implementation

Dušanka Bošković, Andrejs Romānovs, Marta Narigina, Yuri Merkuryev et al.
6 citations
Future Internet
Brain Tumor Detection and Classification
5.05
article

AI-Powered Stroke Diagnosis System: Methodological Framework and Implementation

Dušanka Bošković, Andrejs Romānovs, Marta Narigina, Yuri Merkuryev, Agris Vindecs
article en
6 citations

Abstract

This study introduces an AI-based framework for stroke diagnosis that merges clinical data and curated imaging data. The system utilizes traditional machine learning and advanced deep learning techniques to tackle dataset imbalances and variability in stroke presentations. Our approach involves rigorous data preprocessing, feature engineering, and ensemble techniques to optimize the predictive performance. Comprehensive evaluations demonstrate that gradient-boosted models outperform in accuracy, while CNNs enhance stroke detection rates. Calibration and threshold optimization are utilized to align predictions with clinical requirements, ensuring diagnostic reliability. This multi-modal framework highlights the capacity of AI to accelerate stroke diagnosis and aid clinical decision making, ultimately enhancing patient outcomes in critical care.

Future InternetVol. 17(5)
University of Sarajevo (BA), Riga Technical University (LV)
European Commission, Rīgas Tehniskā Universitāte
Openalex Percentile: Top 5%
Brain Tumor Detection and Classification
5.05
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