Dedicated theorist specialized in heat transfer for solid mechanics and fluid dynamics. Mathematical and problem solving skills used to build theoretical simulations for material damage and aerodynamics. Highly experienced in formulating experimental procedures and material testing. Strong ability to interoperate experimental results for significance.
Built simulations for dynamic loading conditions and formed theory for thermodynamically consistent material damage mechanisms. Focusing on adiabatic shear band formation, growth, and localization as well as dislocation based plasticity in rolled homogenous alloy steel.
Designed and ran experimental procedures on quasi-static loading for rolled homogenous alloy steel.
Analysis on both quasi-static and dynamic experimental procedures at various environmental conditions.
Monthly reports generated and presented to a team of colleagues from various institutions.
Developed theory for Low-Induction wind turbine blades to increase power generation. Developed aerodynamic models to validate theory and showed an effective increase in power generation versus an optimally efficient design.
Built annual energy yield models to examine rotor design productivity under a statistical range of environmental conditions.