Funding
- NIH R01 (2018-2023)
- NSF CAREER, BRIGE etc. (2009-2019)
- Edgerton Innovation Award, UNL College of Engineering (2013)
- US Army Research Office (ARO, 2009-2012)
- NASA Nebraska Space Grant (2009-2012)
- SD Board of Regents Competitive Research Grant (2008)
Fibrotic tissue stretch as an index for lumen gain
To develop in silico experiments and physical measurements for elucidating issues in stent deployment in highly calcified lesions and establishing guidelines for treatment
To apply machine learning methods for quantifying calcification
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DOI: https://doi.org/10.1016/j.jmbbm.2021.104609
Stent Mechanotransduction: role of solid mechanics & hemodynamics
To understand the mechanism of in-stent restenosis from multiple scales (cell, tissue, organ) and multiphysics ( blood-artery interactions).
Traumatic injury due to Blast or Impact
To characterize the blast or impact induced brain damage and optic nerve damage
To develop mechanical measures using integrated experimental and computational approaches.
To identify the role of protective gears
Image assisted analysis
To transform 2D images data, such as CT , MRI or microscopy, to 3D solid model with the utmost accuracy and flexibility, and perform a variety of design and analysis on the 3D model.
Multiscle Material Chracterization
To characterize the mechanical properties of the native & engineered tissue including cells and fibers, and identify the threshold of tissue/cell injuries
Quantification of fiber networks
To optimize the microenvironment of cells and design future clinical relevant biomaterials.
Nanocomposites
To design and optimize the composition of nanocomposite for a targeted performance/function.
