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Physics-Informed Hemodynamic Modeling for Data-Free Prediction and Sparse-Data Assimilation
Clinical decision-making for coronary intervention relies mainly on angiography and fractional flow reserve (FFR). However, angiography is two-dimensional and lacks depth information for 3D lesion characterization, while FFR provides only a single functional index, offering limited hemodynamic insight. Among existing methods, numerical analysis is computationally expensive, whereas learning-based approaches require extensive supervision and often lack physical consistency. To address these limitations, we propose physics-informed hemodynamic modeling, an integrated deep learning framework for
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Evidence & attribution
- arXiv · AI, language, vision and robotics · 2026-09-16T18:02:24.000Z
- arXiv · Artificial Intelligence · 2026-09-16T18:02:24.000Z
First collected: 2026-09-19T20:26:32.566Z. This is not the publication date.