Total mentored projects: 15
Discovering how glass can form new structures during ballistic impact will protect the lives of warfighters with molecular dynamics.
Using 3D models and presentations will lead to a higher comprehension level of fundamental concepts for engineers.
Developing machine learning solutions for materials science will allow the faster production of better materials used everywhere.
Discovering the optimal cooling rate for silica glass to absorb energy under high-pressure shock will protect the warfighters of tomorrow.
Developing machine learning solutions for materials science will allow the faster production of better materials in all applications.
Investigating the shock-compression behavior of silica glass will improve the development of plate glass in armor applications.
Understanding a material's ability to deform plastically is fundamental in creating secure structures.
Studying the fracture speed in a glassy polymer as a function of electric resistance and temperature can improve a variety of products.
Mapping the behavior of glassy material fractures allows us to build materials and mechanisms over time that are sustainable, safe and efficient.
Investigating the temperature field evolution during resistance spot welding can improve the durability of electric car batteries.
Examining properties like temperature resistance, strength and toughness in plastics will increase the potential for developing stronger materials.
Studying the effect of materials and design on alignment of small satellite thrusters will help improve mission success and accessibility.