Fundamental Understanding of Transport Under Reactor Extremes (FUTURE)

Professor Peter Hosemann

The Fundamental Understanding of Transport Under Reactor Extremes (FUTURE) project is an ambitious research initiative aimed at advancing our understanding of transport processes under reactor extremes. The project is led by Blas Uberuaga, from Los Alamos National Laboratory and Professor Peter Hosemann at UC Berkeley, an expert in the field of nuclear engineering and materials science with UVA, PNNL, UTSA, NCSU, ASU as partners.

The FUTURE project represents a major step forward in our understanding of transport processes under reactor extremes and it has the potential to significantly impact the future of nuclear energy. The project aims to address several key challenges facing the nuclear industry, including improving the safety and efficiency of nuclear reactors, as well as reducing their environmental impact.

One of the primary goals of the FUTURE project is to develop the fundamental understanding of old and new materials that can withstand the extreme conditions found in reactor cores. These conditions include high temperatures, radiation exposure, and mechanical stresses. The project aims to identify new materials that can be used in reactor components, such as fuel cladding and coolant pumps, that are more resistant to these extremes.

Another key aspect of the FUTURE project is the development of advanced computational models for predicting transport processes under reactor extremes. These models will help researchers better understand how materials behave in these conditions, and they will enable the design of safer and more efficient nuclear reactors.

Overall, the FUTURE project represents a major advancement in our understanding of transport processes under reactor extremes. The project has the potential to significantly impact the future of nuclear energy by improving the safety and efficiency of nuclear reactors, reducing their environmental impact, and advancing our understanding of the effects of radiation on matter.

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