Combining MRI and cognitive evaluation to classify concussion in university athletes
Monica T Ly1,2,3, Samantha E Scarneo-Miller4,5, Adam S Lepley4,6
1Department of Psychological Sciences, University of Connecticut, Storrs, CT, USA. monicaly@gmail.com.
Brain Imaging and Behavior
|May 31, 2022
Summary
Objective concussion detection is improved by combining neuroimaging and cognitive tests. Machine learning algorithms integrating MRI and cognitive data reliably identify concussion sequelae in athletes.
Area of Science:
- Neuroscience
- Medical Imaging
- Sports Medicine
Background:
- Current concussion assessment tools lack objectivity and reliability.
- Neurological injury detection requires advanced diagnostic methods.
- University athletes are a key population for concussion research.
Purpose of the Study:
- To develop and evaluate algorithms for objective concussion detection.
- To integrate neuroimaging and cognitive measures for improved accuracy.
- To assess the reliability of multi-modal data in diagnosing acute concussion.
Main Methods:
- Multi-site study involving diffusion tensor imaging and resting state functional MRI.
- Cognitive assessments including concentration and delayed memory tests.
- Machine learning models (logistic regression, support vector machines) trained on athlete data (29 concussed, 48 controls).
Main Results:
- Concussed athletes showed greater symptoms, poorer concentration, and delayed memory.
- Lower functional connectivity was observed in frontoparietal and visual networks in concussed athletes.
- Combined MRI (mean diffusivity) and cognitive data achieved 74% accuracy and 64% sensitivity.
Conclusions:
- Algorithms integrating multi-modal data reliably detect concussion-related neurobiological changes.
- This approach offers an objective and reliable tool for concussion assessment and diagnosis.
- Combining neuroimaging with cognitive performance enhances concussion detection capabilities.
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