Vascular Biomechanics and Mechanobiology

Jessica Wagenseil studies cardiovascular mechanics, focusing on cardiovascular development, extracellular matrix proteins, and microstructurally-based constitutive modeling. This research is critical for improving clinical interventions for elastin-related diseases and designing advanced protocols for the construction of tissue-engineered blood vessels.

Research Areas

Jessica Wagenseil studies cardiovascular mechanics, specifically focusing on cardiovascular development, extracellular matrix proteins, and microstructurally-based constitutive modeling . This research is critical for testing clinical interventions for elastin-related diseases and designing improved protocols for the construction of tissue-engineered blood vessels.

Biomechanics & Mechanobiology

Investigates how mechanobiology and biomechanics of the large arteries contribute to normal cardiovascular function during development and abnormal function in disease states.

Biomedical & Biological Imaging

Utilizes advanced imaging techniques to study cardiovascular mechanics and development , providing insights into how the arterial wall remodels to maintain heart function.

Biomedical, Bio-inspired, and Bio-derived Materials

Develops bio-inspired materials to optimize and improve protocols for building tissue-engineered blood vessels.

Cardiovascular Engineering

Analyzes the mechanical behavior of large, elastic arteries during development and disease to understand how the arterial wall maintains appropriate properties for heart function.

3D rendering of a multi-chip semiconductor package, with stacked processor dies mounted on a transparent interposer with copper interconnects above a green circuit board with solder balls. 3D rendering of a multi-chip semiconductor package, with stacked processor dies mounted on a transparent interposer with copper interconnects above a green circuit board with solder balls.

Biomechanics & Mechanobiology

Investigates how mechanobiology and biomechanics of the large arteries contribute to normal cardiovascular function during development and abnormal function in disease states.

Biomedical & Biological Imaging

Utilizes advanced imaging techniques to study cardiovascular mechanics and development , providing insights into how the arterial wall remodels to maintain heart function.

Biomedical, Bio-inspired, and Bio-derived Materials

Develops bio-inspired materials to optimize and improve protocols for building tissue-engineered blood vessels.

Cardiovascular Engineering

Analyzes the mechanical behavior of large, elastic arteries during development and disease to understand how the arterial wall maintains appropriate properties for heart function.

Funding

University of Utah logo University of Utah logoNIH logo NIH logoNSF logo NSF logoThe Marfan Foundation The Marfan FoundationAmerican Heart Association American Heart Association