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Model development study demonstrates physics-guided tensor analysis and deep learning enhance long-bone fracture screening on 2D X-rays, suggesting improved triage in primary care.
OrthoVector AI is an experimental biomedical research prototype designed to explore physics-guided feature extraction for fracture screening on standard 2D long-bone X-rays. Addressing diagnostic delays in resource-constrained primary care settings, the system combines classical biomechanical principles with deep learning. By applying local structure tensors grounded in Wolff’s Law, the engine analyzes directional trabecular alignment to highlight structural coherence loss and localized vector anomalies. These tensor metrics are fused with a fine-tuned ResNet-50 classifier outputs to generate a composite risk assessment. The framework includes explicit clinical limitation disclaimers, highlighting reduced reliability in complex joint spaces compared to long-bone shafts. This upload includes the technical manuscript outlining the mathematical foundation, dual-signal risk engine architecture, and empirical baseline validations.
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Adhikari et al. (2026) studied this question.
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