Machine learning-based ischemic stroke detection and categorization with non-invasive plantar pressure data
View abstract on PubMed
Summary
This summary is machine-generated.This study introduces a machine learning algorithm using foot pressure signals for automatic stroke detection. The non-invasive method achieves 99.19% accuracy, offering a cost-effective and reliable screening tool.
Area Of Science
- Biomedical Engineering
- Neurology
- Machine Learning
Background
- Stroke diagnosis relies on expensive imaging and manual assessments, leading to delays and potential errors.
- There is a critical need for accessible, cost-effective, and automated stroke detection methods.
Purpose Of The Study
- To develop and validate a machine learning-based screening algorithm for stroke detection.
- To utilize non-invasive foot pressure signals as a cost-effective alternative to traditional diagnostic methods.
Main Methods
- A machine learning algorithm was developed using foot pressure signals recorded during walking.
- Empirical Fourier Decomposition and a novel set of biomarkers were used to analyze pressure distribution.
- The ReliefF algorithm, support vector machine, and K-nearest neighbors were employed for feature selection and classification.
Main Results
- The algorithm was evaluated on 82 subjects (36 stroke patients, 46 controls) using 198 foot plantar sensors.
- An average accuracy rate of 99.19% was achieved, demonstrating high detection performance.
- The method showed robust performance against clinical factors, including stroke side and blood pressure status.
Conclusions
- The proposed method offers a unique, reliable, and cost-effective automatic stroke detection solution.
- It successfully identifies stroke using a minimal set of biomarkers from toe and finger regions.
- This approach has the potential to significantly improve early stroke diagnosis and patient management.

