
Wilson-Cook Chaired Professor in Engineering Design
BS and MS, materials, 1970
ScD, materials, 1974 Massachusetts Institute of Technology
Find out more about Professor Olson's Research
We are integrating fundamental principles of processing/structure/property/ performance relations within a systems engineering framework. Science-based design produces dynamic, multilevel, structured systems for new materials. Mechanistic models for both displacive martensitic and diffusional precipitation reactions are provided from theoretical and experimental study of first-order phase transformations in model alloy systems. We apply kinetics-based constitutive relations for martensitically transforming materials to numerical modeling of shape memory behaviors and transformation toughening mechanisms in ductile solids. These incorporate interactions with microvoid nucleation processes and plastic flow localization.
Our interdisciplinary collaborations include quantum-mechanical investigations of the chemical basis of intergranular fracture resistance. We integrate principles into materials system designs through computational thermodynamics and numerical kinetic modeling. Prototype high-performance alloy steels have demonstrated record property combinations, and the design methodology is now being extended to intermetallic composites, ceramics, and polymers, including biomimetic design concepts.
First-principles determination of the effects of phosphorus and boron on iron grain boundary cohesion [with R. Wu and A. J. Freeman]. Science 265(5170): 376-80 (1994).
Computational design of hierarchically structured materials. Science 277(5330): 1237-42 (1997). /p>
Designing a new naterial world, Science 288(5468): 993-8 (2000).