Classification of Migraine Using Static Functional Connectivity Strength and Dynamic Functional Connectome Patterns:
Weifang Nie1, Weiming Zeng1, Jiajun Yang2
1Lab of Digital Image and Intelligent Computation, Shanghai Maritime University, Shanghai 201306, China.
This study introduces a novel framework for migraine diagnosis using resting-state functional magnetic resonance imaging (RS-fMRI) data. Dynamic functional connectome patterns (DFCP) showed superior performance over static functional connectivity (sFC) in classifying migraine patients.
Area of Science:
- Neuroimaging
- Neurology
- Medical Diagnostics
Background:
- Migraine is a prevalent, chronic neurological disorder with poorly understood causes and a lack of objective diagnostic markers.
- Resting-state functional magnetic resonance imaging (RS-fMRI) is a promising tool for brain disorder research, but high-dimensional data presents challenges.
- Accurate classification and diagnosis of migraine remain difficult due to these limitations.
Purpose of the Study:
- To develop and evaluate an automatic recognition framework for classifying migraine sufferers from healthy controls.
- To compare the diagnostic utility of static functional connectivity (sFC) strength features versus dynamic functional connectome pattern (DFCP) features.
- To assess the combined performance of sFC and DFCP features for enhanced migraine classification.
Main Methods:
- Extracted static functional connectivity (sFC) strength and dynamic functional connectome pattern (DFCP) features from RS-fMRI data.
- Employed recursive feature elimination with support vector machine (SVM-RFE) for optimal feature selection.
- Utilized a support vector machine (SVM) classifier for training and testing the diagnostic framework.
Main Results:
- Dynamic functional connectome pattern (DFCP) features demonstrated significantly higher classification performance compared to static functional connectivity (sFC) strength features.
- The combination of sFC strength and DFCP features yielded the optimal classification performance, highlighting synergistic benefits.
- The proposed framework showed robust performance in differentiating individuals with migraine from healthy controls.
Conclusions:
- Dynamic functional connectome patterns offer a significant advantage for migraine classification over static functional connectivity.
- Combining static and dynamic functional connectivity features optimizes diagnostic performance in migraine.
- The developed RS-fMRI based classification framework shows potential for diagnosing migraine and possibly other neurological disorders.
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