edgepflow said:
Tennessee has a very good NE program. After your BENE, consider a MS in mechanical engineering.
UTK really does have a good program, and they are still building it up.
http://catalog.utk.edu/content.php?catoid=2&navoid=107 (use prefixes NE, ME, MSE and click on filter)
With respect to achieving a BS, MS and PhD in NE, it's reasonable if one wishes to focus in nuclear energy. For a second major, I'd recommend Mech Eng, Mat Sci, or Physics, and particularly classes that are heavy in computation. I've actually prefer a blend of applied and theoretical, but not necessarily to the QM/QP/SR level, although it's possible for certain areas.
Consider a course like ME 452 - Finite Element Analysis
3 Credit Hours
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Conversion of fundamental conservation principles in mechanics to simulation form via finite element implementation. Applications in heat transfer, solid mechanics, mechanical vibrations, fluid mechanics and heat/mass transport. Extensive computer lab experiments using Matlab-based and commercial software systems.
Recommended Background: 321, 344, and 363.
If at all possible, one should look for expsosure to codes like ANSYS or ABAQUS.
This is a hot area right now, and very relevant to current and advanced nuclear power systems, and also to non-nuclear systems at high temperature.
MSE 612 - Computational Plasticity and Micromechanics
3 Credit Hours
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Computational modeling and simulation methods will be introduced with applications in plasticity, fracture and fatigue, microstructural evolution, and material instability in engineering structural materials. Topics include the classic finite element method based on constitutive modeling, cohesive interface model, discrete dislocation dynamics, atomistic/continuum coupling techniques, and current research areas that are pertinent to the research efforts at UT and ORNL.
along with
MSE 650 - Mechanical Behavior of Solids at Elevated Temperatures
3 Credit Hours
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Metals, ceramics, polymers, and composites will be included. Topics include: temperature effect on stress-strain behavior, anelasticity, damping, creep, creep mechanisms, strengthening at high temperatures, creep rupture, deformation map and engineering application, environmental effects, high-temperature indentation, high temperature plastic forming, superplasticity, creep-fatigue interaction, life prediction. Provides scientific knowledge to face and solve material problems encountered in high temperature applications.
(DE) Prerequisite(s): 511 and 512.