Research
Exploring complex flow fields.
With over 18 years of experience in fluid dynamics and unsteady aerodynamics, my research has focused on providing high-fidelity modeling and rigorous validation for complex aerospace systems.
My core expertise lies in the integration of Computational Fluid Dynamics (CFD) with advanced experimental validation. Utilizing High-Performance Computing (HPC) and coupled six-degree-of-freedom (6DOF) simulations, I specialize in analyzing highly separated flow fields and multi-body interactions. I continue to advance these methodologies through my research and collaborations with colleagues, sponsors, and industry partners.
Active Research Projects
Complex Separating Aerial Vehicle with Modeling and Simulation
Modeling and simulation of unstable bodies in high-speed flight regimes using coupled frameworks.
CFD Analysis of Fontan Procedure for Children with Single Ventricle Heart Disease
Investigation of CFD modeling and simulation of the Fontan procedure for children with single ventricle heart disease.
Investigation of Hybrid UAS
Modeling and simulation of hybrid UAS and projectiles.
Current Lab Members
Griffin David
Graduate Research Assistant
UAS Design
Thomas Webster
Undergraduate Research Assistant
Computational Fluid Dynamics
Completed Research Projects
Characterization of Fault Tolerant Behavior and Flight Capabilities Following a Non-Lethal Intercept Strike
Create better understanding of the aerodynamics and flight capabilities of damaged states for naval systems following a non-lethal intercept strike.
Cultivating Inclusive Identities of Engineers and Computer Scientists
Identify how engineering and computer science students develop inclusive identities in the context of their academic and professional experiences.
Naval Special Warfare (NSW) Diver Thermal Human Inteface
Improve comfort for submerged NSW divers by developing a thermal human interface to mitigate cold water exposure.
Small form-factor, Relocatable, Unattended Ground Sensor (IMAGRS)
Development of a small form-factor, relocatable, unattended ground sensor (IMAGRS) for military applications.
Biologically Inspired Unsteady Aerodynamics
Critical study of bird flight aerodynamics using high-speed video to inform biologically inspired design.
Leading-Edge Vortex Active Flow Control on Pitching Airfoils
Synchronized PIV and CFD studies on active flow control via dynamic roughness on pitching airfoils.
Lab Alumni and Alumnae