3.HemoVision: Unmasking SCTA’s Dynamic Blood Flow with Deep Learning
This research project is focused on Scientific Machine Learning (SciML). the project integrates domain-specific models with cutting-edge artificial intelligence techniques. The work revolves around the amalgamation of structured scientific models, particularly differential equations, with the unstructured data-driven models inherent to machine learning. This synergy of scientific and data-driven approaches results in enhanced simulators that not only offer expedited computational performance but also provide more accurate approximations of complex systems.
The major innovation in this project is the development of a novel label-free, physics-informed machine/deep learning-based image processing method for estimating time-resolved, in-vivo blood flow velocities and relative pressure directly from unprocessed time-stamped sCTA sinograms. Currently, hemodynamic analysis in vascular diseases is limited by the accuracy and reliability of state-of-the-art methods for estimating blood flow velocities and relative pressures. This project, for the first time, will enable the resolution of dynamic blood flow velocity and relative pressure maps from inherently static subtraction computed tomographic angiography (sCTA) data.