This Project Grant award from the National Science Foundation (NSF) Division of Chemical, Bioengineering, Environmental, and Transport Systems (CFDA 47.041 - Engineering) supports a $320,155 research project at Purdue University to investigate the complex flow and transport processes within microvascular networks and their impact on vascular remodeling. The key objectives are to develop a novel computational model integrated with high-resolution imaging data to gain fundamental understanding...
The National Science Foundation awarded a $542,441 Project Grant to the Texas A&M Engineering Experiment Station to develop a validated hybrid echocardiography-computational fluid dynamics framework for patient-specific cardiac assessment under the Engineering (47.041) federal grant program. The project aims to create a computational pipeline using standard echocardiography scans to model cardiac flow and function, and compute in vivo mechanical and electrophysiological properties for...
The University of Wisconsin-Milwaukee received a $298,509 project grant award from the National Science Foundation Division of Electrical, Communications and Cyber Systems under the Engineering federal grant program (CFDA 47.041). The three-year award will support research to enhance 4D-flow MRI through deep data assimilation for hemodynamic analysis of cardiovascular flows. Specifically, the University will collaborate on developing enhanced medical imaging techniques using data assimilation...
This $760,046 federal Project Grant award from the National Science Foundation's (NSF) Computer and Information Science and Engineering (CISE) program (CFDA 47.070) supports the development of a computationally-efficient multiscale modeling framework that integrates machine learning and artificial intelligence to predict structural and functional changes in the heart due to disease progression. The project aims to build fundamental understanding of heart disease by combining techniques from...
This four-year, $1.1 million Project Grant from the National Science Foundation's Computer and Information Science and Engineering program will fund the development of physics-informed machine learning techniques to analyze dynamic blood flow from static subtraction computed tomographic angiography imaging. The University of Wisconsin-Milwaukee will train graduate students in deep learning methods and engage undergraduates and local high school students, particularly those from...
This $512,000 National Science Foundation project grant to Angioinsight, Inc. supports the development of reduced order modeling methods to estimate fractional flow reserve (FFR) values using angiographic data. The NSF Division of Industrial Innovation awarded this grant under the Engineering program (CFDA 47.041) to advance the diagnosis of coronary artery disease. Specifically, the one-year project beginning June 15, 2022 will develop and calibrate a reduced order model leveraging graph theory...
This $100,000 Project Grant from the National Science Foundation's Mathematical and Physical Sciences program (CFDA 47.049) will support research at the University of Southern California to improve understanding of heart-brain interactions and develop diagnostic monitoring devices. Over a five-year period from April 2022 through March 2027, the grantee will investigate hemodynamic mechanisms through which the heart, aorta and brain dynamically influence one another. Using experimental,...
This $200,000 Project Grant award from the National Science Foundation's Computer and Information Science and Engineering (CFDA 47.070) program will fund the development of advanced computational methods to create high-fidelity, fast-running digital twins of patient hearts and cardiovascular medical devices. The project aims to deliver: 1) novel machine learning algorithms for accurate digital twin geometry reconstruction from 3D medical images, 2) an efficient inverse method to identify in vivo...
This federal Project Grant award from the National Science Foundation's (NSF) Computer and Information Science and Engineering (CISE) program (CFDA 47.070) provides $439,954 to Michigan State University (MSU) to develop advanced computational models of the heart that leverage machine learning and artificial intelligence. The goal is to create a multiscale modeling framework that can predict structural and functional changes in the heart due to disease conditions like pathological fibrosis. The...
This Project Grant award from the National Institutes of Health (NIH) Office of the Director under the Trans-NIH Research Support program (CFDA 93.310) provides $150,000.00 to the University of Notre Dame to develop an AI-augmented, image-based hemodynamic modeling platform. The key objectives are to automate the transformation of medical images into 3D computational models, enable fast surrogate simulations of blood flow and cardiovascular dynamics, and quantify modeling uncertainties. This...
The National Science Foundation (NSF) awarded a 3-year, $567,284 Project Grant under the Engineering program (CFDA 47.041) to Purdue University to develop a scalable Bayesian methodology for reconstructing cardiovascular hemodynamic flow fields and cardiac structure from advanced medical imaging modalities like phase-contrast MRI, 4D flow MRI, and color Doppler echocardiography. The research aims to overcome limitations in current imaging techniques, such as inaccurate velocity flow reconstruction and lack of quantified uncertainty, in order to provide clinicians with a more comprehensive and accurate picture of blood flow patterns to aid diagnosis, risk assessment, treatment planning, and management of heart disease. The project will formulate the inverse problem within an information field theory framework, explore parameterizations of time-varying hemodynamic fields, devise scalable numerical algorithms to characterize the joint posterior distributions, and validate the methodology using synthetic, in vitro, and in vivo data. The expected outcome is a next-generation statistical methodology that can solve the hemodynamics field and physical parameter estimation problem with quantified uncertainty, ultimately leading to more effective and personalized treatment plans for heart disease patients.