Understanding the structural and functional behavior of biological materials is key to designing better bio-compatible systems such as implant, implantable sensors, therapeutic methods and wearable devices for various enabling functions. Understanding of how biological materials evolve and self-organize is …
Nano-electronic, nano-photonic, piezoelectric and piezomagnetic materials show strongly coupled and often nonlinear behavior. Design of devices based on these material systems aims to utilize the nano/micro-scale, nonlinear and strongly correlated effects to enhance various aspects of performance and expand …
Nanostructures and nanostructured composite form of materials have physical properties, which are most often very different from their bulk form. Often in Nature, this type of nanostructured materials gives rise to important properties in earth and planetary structural consolidation …
Extreme environments involving superheated, nuclear-ionization radiations or electron gas interactions with materials lead to challenging problems in understanding material response. While experimental studies are not straightforward, mathematical models and computer simulations can provide important insights. Finding engineering solutions to …
Our research in the areas of material and structures aims to develop and apply predictive modeling and simulation techniques and design materials at nano, micro and macroscopic scales for application in aerospace structures and others such as electronic devices, …
