Department of Nuclear Science and Engineering (NSE) doctoral student Yue Fan has been selected for the 2013 Aneesur Rahman Postdoctoral Fellowship in the Materials Sciences Division of Argonne National Laboratory. The Argonne National Laboratory Named Fellowships are awarded to candidates who display outstanding ability in scientific or engineering research and who show definite promise of leadership in the research they pursue.
Fan’s PhD research with Associate Professor Bilge Yildiz and Professor Emeritus Sidney Yip in NSE at MIT focuses on developing and applying innovative computational paradigms to better understand long-time-scale evolution in irradiated materials, which is an important consideration for advanced reactors that are being designed for longer life times while operating in more extreme conditions of temperature, chemical activity and irradiation.
The interaction and migration of radiation-induced defects is a critical factor governing the microstructural evolution, which in turn determines the degradation of the structural material. Understanding how these defects evolve over long time scales (tens of years) is crucial for development of advanced materials. The essence of Fan’s approach to this challenge is to explore the potential energy landscape and the corresponding atomic trajectories of the system while the material dynamically evolves during irradiation. This method has been successfully applied to a series of studies, including the interaction mechanism between dislocation and obstacle under various conditions, and the strain rate effect on the yield strength of structural materials.
Fan’s PhD research with Associate Professor Bilge Yildiz and Professor Emeritus Sidney Yip in NSE at MIT focuses on developing and applying innovative computational paradigms to better understand long-time-scale evolution in irradiated materials, which is an important consideration for advanced reactors that are being designed for longer life times while operating in more extreme conditions of temperature, chemical activity and irradiation.
The interaction and migration of radiation-induced defects is a critical factor governing the microstructural evolution, which in turn determines the degradation of the structural material. Understanding how these defects evolve over long time scales (tens of years) is crucial for development of advanced materials. The essence of Fan’s approach to this challenge is to explore the potential energy landscape and the corresponding atomic trajectories of the system while the material dynamically evolves during irradiation. This method has been successfully applied to a series of studies, including the interaction mechanism between dislocation and obstacle under various conditions, and the strain rate effect on the yield strength of structural materials.
