Our multidisciplinary team is comprised of faculty biomedical engineers, neuroscientists and clinicians that recreate eld relevant injury conditions and investigate brain injury in a holistic manner.
Research
Research Themes
Characterization of Shock Tubes
Parametric Approach
End Effects
Measurement Techniques
Design Principles
Dose-response Curve
Nano-Technology & Nano Particles
Blast Testing of Helmet and PPE
Animal injury models
Cavitation
Pharmaceutical Grade Drug Delivery/Testing in Animals
Neurophysiology and Behavioral Outcomes
Biomedical and Molecular Characterization
Blood-Brain Barrier Damage
Computational Material Science
Mechanics of Nano, Bio and Structural Materials and Structures
Finite Deformation
Nonlinear Finite Elements
Superplasticity
Composites
High-Velocity Impact
Interfaces in Solids
Thermal Properties of Nanoscale Composites
Projects
"Characterization of the mechanisms causing blast-induced brain injury”, US Army medical command/Henry Jackson Foundation
"Primary Blast Injury Criteria for Animal/Human Models using Field Validated Shock Tubes”, US Army Materials and Medical Command
“Development of methodology for standardized testing under blast loading conditions using modular shock tube”, Program Executive Office, Aberdeen Proving Grounds
“Fundamental Understanding of the Mechanism of Cavitation, One of the Possible Mechanisms of Blast-Induced Traumatic Brain Injury using Surrogate Models”, Office of Naval Research
"Experimental and Computational Studies of Blast and Blunt Traumatic Brain Injury", Army Research Laboratory
"Divergent mechanisms of early cellular injury in high-rate blast and slow im", New Jersey Commission on Brain Injury
"Biofidelic Rat Testing Device (RTD) to Measure Blast Exposure and Loadings for TBI", CFD Research Corporation Under STTR