This study develops a physics-informed neural network (PINN) model to predict stress distribution in a simplified spinal disc structure. The model incorporates 3D spatial inputs and enforces equilibrium conditions through a custom loss function. Trained on synthetic elasticity-based data, it achieves an MAE of 0.026 and an R-2 of 74.6%. Stress patterns under various loading conditions were visualized, with peak stress occurring at z = 1 under top compression. Results demonstrate PINNs' potential for biomechanical modeling, improving predictive accuracy in spinal biomechanics and informing clinical interventions.
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[31]
Yildiz N.T., Kocaman H., Yildirim H., Canli M., An investigation of machine learning algorithms for prediction of temporomandibular disorders by using clinical parameters, Medicine (Baltimore), 103, 41, (2024)
[31]
Yildiz N.T., Kocaman H., Yildirim H., Canli M., An investigation of machine learning algorithms for prediction of temporomandibular disorders by using clinical parameters, Medicine (Baltimore), 103, 41, (2024)