Positions AvailableMultiple PhD graduate research assistantships are available. See this flyer for more information or contact the PI with questions.
Materials are highly complex mechanical systems; visible material behavior is the macroscopic manifestation of innumerable mechanical processes taking place at multiple length and time scales. The vast number of degrees of freedom make it impossible to simulate every atom for a material of any appreciable size. Thus a different approach is required for large-scale models. Although many macroscopic models exist and are sufficient for many applications, their range of validity is inherently limited to those cases for which experimental data is available. Therefore to truly understand and predict the broad range of complex material behavior, it is necessary to model large scale responses based on small-scale phenomena.
Accurate physics-based material models are in high demand in the modern technological and scientific communities, as materials research drives innovation in applications ranging from from microchips to airplanes. A multidisciplinary approach is needed to develop new models based on methods in mechanics, mathematics, materials science, and engineering. The overarching goal is to understand the mechanics of materials, to model the behavior mathematically, and to use these models to predict and simulate material behavior for scientific and engineering purposes.
National Science Foundation
MRI: Acquisition of a high performance computing cluster for next-generation computational science in Southern Colorado
Acquisition and deployment of a computational cluster for high performance scienctific computation
Office of Naval Research
Mesoscale and continuum modeling of solid-phase propellant coupled to gas-phase to determine continuum burn rates in AP/HTPB
Invesitgating the solid and fluid mechanics of solid rocket propellant
Lawrence Berkeley Nat'l Lab
Improving the performance of the AMReX MLMG solver
Building computational tools to support solid mechanics with block structured AMR solvers
Simulating microstructure at high temperature to create stronger and lighter materials
Determining how temperature changes material microstructure