Courses
Course Descriptions
Undergraduate Courses
Fundamentals of nuclear physics, reactor principles, and radiation applications
Nuclear reactor design principles, neutron diffusion theory, and criticality analysis
Advanced neutron transport theory and reactor physics calculations
Interaction mechanisms of radiation with matter
Principles and techniques of radiation detection and measurement
Applications of nuclear physics principles to engineering problems
Signal processing techniques for nuclear instrumentation
Experimental methods in thermal-hydraulics for nuclear systems
Materials science applied to nuclear reactor components
Fundamentals of plasma physics for fusion energy applications
Computational methods for solving engineering problems
Radiation protection principles and dose assessment
Comprehensive design project integrating nuclear engineering disciplines
Graduate Courses
Monte Carlo methods for radiation particle transport simulation
Advanced topics in reactor thermal-hydraulic analysis
Advanced reactor physics and neutron transport methods
Deterministic methods for particle transport calculations
Methods and tools for reactor core design optimization
Methodologies for nuclear reactor safety assessment
Advanced neutron physics and applications
Design and development of radiation sensors
Advanced radiation measurement systems
Physics principles applied to medical diagnosis and therapy
Biological effects of ionizing radiation
Nuclear fuel design, performance, and management
Radioactive waste treatment, storage, and disposal
Engineering principles for fusion power systems
Analysis methods for two-phase flow phenomena in nuclear systems