Mechanics and Materials
Projects begin from a rigorous foundation of nonlinear particle and continuum mechanics theory to perform theoretical, computational, and experimental studies. The ultimate aim is to reveal universal insights on the properties and response of today’s emerging advanced materials and structures.
Graduates from this work go on to successful careers as professors and leaders in government and industry.
Real-world Impact
Breaking new ground in advanced materials and nonlinear mechanics holds tremendous promise for many aspects of our daily lives. Some examples include improved structural materials for buildings and ground, air, and space vehicles; new medical and electronic device capabilities; improved sensors and actuators; and enhanced energy harvesting materials efficiency.
Renowned Research Faculty
The Mechanics and Materials research area advances the intersection of solid mechanics, materials science, biomechanics, and modern engineering. Nationally recognized for their expertise in hard and soft material characterization, shape memory alloy behavior, multiscale computational methods, and instability phenomena, our AEM faculty lead research in phase transformations, dynamic and biomaterials, and smart systems—frequently authoring widely-used textbooks and research monographs.
Our research-intensive instruction equips students with a deep understanding of foundational theoretical and applied mechanics through hands-on, experiential learning. Although the nonlinear theories covered apply to all materials, they are particularly critical to studying today's emerging advanced materials, biological tissues, and reconfigurable structures. Much of this area’s molecular research is driven by the KIM Initiative (and its flagship OpenKIM project), which develops state-of-the-art software for atomistic simulations—currently used by more than 520 research teams across 43 countries.
Faculty in this Area