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Wesam Al Attar singularity evaluation-infinity: a predictive simulation framework for motor intent collapse in
1Department of Medical Rehabilitation Sciences, College of Applied Medical Sciences, Umm Al-Qura University, Makkah, Saudi Arabia.
The new Wesam Al Attar Singularity evaluation-infinity (WASe-∞) framework predicts athletic injury by integrating neuromuscular, cognitive, and coordination factors. Simulation results show strong predictive accuracy, paving the way for proactive injury prevention.
Area of Science:
- Sports Medicine
- Biomechanics
- Motor Control
Background:
- Maintaining motor intent stability under physiological stress is crucial for sustainable athletic performance.
- Current injury prediction methods often overlook integrated physiological system dynamics, focusing instead on isolated biomechanical markers.
Purpose of the Study:
- To develop and validate the Wesam Al Attar Singularity evaluation-infinity (WASe-∞) framework for predicting motor intent collapse.
- Integrate neuromuscular, cognitive, and coordination factors into a unified risk assessment model for athletes.
- Establish clear pathways for empirical validation of the developed framework.
Main Methods:
- Employed a rigorous simulation-based approach using biomechanics datasets.
- Integrated five physiological domains via a weighted convergence equation with optimized coefficients.
- Validated the foundational model using 60 simulated athlete profiles across four sports, generating 360,000 data points.
Main Results:
- The WASe-∞ framework demonstrated strong predictive performance (AUC=0.930) in simulations.
- Risk stratification identified realistic distributions: 20.5% low, 58.2% moderate, 20.0% high, and 1.4% critical risk.
- Sport-specific differences were observed, aligning with epidemiological data on injury prevalence.
Conclusions:
- The WASe-∞ framework provides a theoretically robust foundation for empirical validation in human athletic populations.
- Simulation-based validation confirms theoretical validity and offers benchmarks for real-world studies.
- The framework is poised for integration with sensor technologies, advancing proactive injury prevention.
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