Nuclear Engineering (BS)
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Nuclear engineers work in nuclear systems research, design, development, testing, operation, environmental protection, and marketing. The Bachelor of Science program prepares graduates for positions in industry, national laboratories, or for graduate study. The curriculum incorporates basic sciences and engineering, with emphasis on mathematics and physics, followed by course work in nuclear science and technology. Design concepts are introduced in numerous nuclear engineering courses throughout the curriculum to provide an integrated educational experience, cap-stoned by senior nuclear projects involving reactors and radiation systems. Attention is also given to the efficient utilization of energy resources and to the environmental aspects of nuclear energy. Computers are widely used throughout the curriculum.
The nuclear engineering program is accredited by the Engineering Accreditation Commission of ABET, , andÌýleads to the degree of Bachelor of Science in Nuclear Engineering. Advanced undergraduates who desire to attend graduate school at NC State may enter a combined 5-year BS/MNE professional program or BS/MS bachelor/master degree program during their senior year which will culminate at the end of their fifth year with both the Bachelor of Science in Nuclear Engineering and the Master of Nuclear Engineering or the Master of Science degrees, respectively.
Plan Requirements
Nuclear Engineering (BS): 123 Total Units
| First Year | ||
|---|---|---|
| Fall Semester | Hours | |
| °ä±áÌý101 | Chemistry - A Molecular Science 1 | 3 |
| °ä±áÌý102 | General Chemistry Laboratory 1 | 1 |
| ·¡Ìý101 | Introduction to Engineering & Problem Solving 2 | 1 |
| ·¡Ìý115 | Introduction to Computing Environments | 1 |
| ·¡±·³ÒÌý101 | Academic Writing and Research 2 | 4 |
| ²Ñ´¡Ìý141 | Calculus I 1 | 4 |
| Ìý | Hours | 14 |
| Spring Semester | ||
| CSCÌý113 | Introduction to Computing - MATLAB | 3 |
| MAÌý241 | Calculus II 1 | 4 |
| PYÌý205 &ÌýPYÌý206 | Physics for Engineers and Scientists I and Physics for Engineers and Scientists I Laboratory 1 | 4 |
| Select one of the following: | 3 | |
| Introduction to Agricultural & Resource Economics | Ìý | |
| Introduction to Agricultural & Resource Economics | Ìý | |
| Principles of Microeconomics | Ìý | |
| Fundamentals of Economics | Ìý | |
| EÌý102 | Engineering in the 21st Century | 2 |
| Ìý | Hours | 16 |
| Second Year | ||
| Fall Semester | ||
| MAEÌý206 | Engineering Statics | 3 |
| MAÌý242 | Calculus III | 4 |
| NEÌý201 | Introduction to Nuclear Engineering | 2 |
| PYÌý208 &ÌýPYÌý209 | Physics for Engineers and Scientists II and Physics for Engineers and Scientists II Laboratory | 4 |
| Advanced Communication Elective | 3 | |
| Ìý | Hours | 16 |
| Spring Semester | ||
| MAEÌý208 | Engineering Dynamics | 3 |
| MAÌý341 | Applied Differential Equations I | 3 |
| NEÌý202 | Radiation Sources, Interaction and Detection 2 | 4 |
| Ìý | Hours | 10 |
| Third Year | ||
| Fall Semester | ||
| MAEÌý201 | Engineering Thermodynamics I | 3 |
| MAÌý401 | Applied Differential Equations II | 3 |
| NEÌý301 | Fundamentals of Nuclear Engineering 2 | 3 |
| ISEÌý311 | Engineering Economic Analysis | 3 |
| Ìý | Hours | 12 |
| Spring Semester | ||
| MAEÌý308 | Fluid Mechanics | 3 |
| MSEÌý201 | Structure and Properties of Engineering Materials | 3 |
| NEÌý400 | Nuclear Reactor Energy Conversion | 4 |
| NEÌý401 | Reactor Analysis and Design | 3 |
| NEÌý403 | Nuclear Reactor Laboratory | 2 |
| Ìý | Hours | 15 |
| Fourth Year | ||
| Fall Semester | ||
| NEÌý402 | Reactor Engineering | 4 |
| NEÌý404 | Radiation Safety and Shielding | 3 |
| NEÌý406 | Nuclear Engineering Senior Design Preparation | 1 |
| NE Elective | 3 | |
| NEÌý409 | Nuclear Materials | 3 |
| NEÌý412 | Nuclear Fuel Cycles | 3 |
| NEÌý418 | Nuclear Power Plant Instrumentation | 3 |
| NEÌý431 | Nuclear Waste Management | 3 |
| NEÌý490 | Health Physics and Radiological Emergency Response | 3 |
| NEÌý521 | Principles of Radiation Measurement | 3 |
| NEÌý523 | Computational Transport Theory | 3 |
| NEÌý528 | Introduction to Plasma Physics and Fusion Energy | 3 |
| NEÌý529 | Plasma Physics and Fusion Energy II | 3 |
| NEÌý533 | Nuclear Fuel Performance | 3 |
| NEÌý541 | Nuclear Nonproliferation Technology and Policy | 3 |
| NEÌý550 | Introduction to Atomistic Simulations | 3 |
| NEÌý577 | Multiscale Two-phase Flow Simulations | 3 |
| NEÌý509 | Nuclear Materials | 3 |
| NEÌý512 | Nuclear Fuel Cycles | 3 |
| NEÌý531 | Nuclear Waste Management | 3 |
| NEÌý590 | Health Physics and Radiological Emergency Response | 3 |
| Technical Elective | 3 | |
| Ìý | Hours | 65 |
| Spring Semester | ||
| NEÌý405 | Reactor Systems | 3 |
| NEÌý408 | Nuclear Engineering Design Project | 3 |
| Engineering Technical Elective | 3 | |
| Ìý | Hours | 9 |
| Ìý | Total Hours | 157 |
| 1 | A grade of C or higher is required. |
| 2 | A grade of C- or higher is required. |
| Code | Title | Hours | Counts towards |
|---|---|---|---|
| GEP Courses | |||
| GEP Humanities | 6 | ||
| GEP Social Sciences | 3 | ||
| GEP Health and Exercise Studies | 2 | ||
| GEP Additional Breadth (Humanities/Social Sciences/Visual and Performing Arts) | 3 | ||
| GEP Interdisciplinary Perspectives | 3 | ||
| GEP U.S. Diversity (verify requirement) | |||
| GEP Global Knowledge (verify requirement) | |||
| Foreign Language Proficiency (verify requirement) | |||
| Total Hours | 17 | ||
Advanced Communication Elective
| Code | Title | Hours | Counts towards |
|---|---|---|---|
| COMÌý110 | Public Speaking | 3 | |
| COMÌý112 | Interpersonal Communication | 3 | |
| COMÌý211 | Argumentation and Advocacy | 3 | |
| ENGÌý288 | Fiction Writing | 3 | |
| ENGÌý289 | Poetry Writing | 3 | |
| ENGÌý316 | Introduction to News and Article Writing | 3 | |
| ENGÌý331 | Communication for Engineering and Technology | 3 | |
| ENGÌý332 | Communication for Business and Management | 3 | |
| ENGÌý333 | Communication for Science and Research | 3 | |
| FLAÌý201 | Intermediate Arabic I | 3 | |
| FLAÌý202 | Intermediate Arabic II | 3 | |
| FLCÌý201 | Intermediate Chinese I | 3 | |
| FLCÌý202 | Intermediate Chinese II | 3 | |
| FLFÌý201 | Intermediate French I | 3 | |
| FLFÌý202 | Intermediate French II | 3 | |
| FLGÌý201 | Intermediate German I | 3 | |
| FLGÌý202 | Intermediate German II | 3 | |
| FLIÌý201 | Intermediate Italian I | 3 | |
| FLIÌý202 | Intermediate Italian II | 3 | |
| FLJÌý201 | Intermediate Japanese I | 3 | |
| FLJÌý202 | Intermediate Japanese II | 3 | |
| FLJÌý203 | Intermediate Japanese Conversation | 1 | |
| FLJÌý204 | Intermediate Japanese II Conversation | 1 | |
| FLNÌý201 | Intermediate Hindi-Urdu I | 3 | |
| FLNÌý202 | Intermediate Hindi-Urdu II | 3 | |
| FLPÌý201 | Intermediate Portuguese I | 3 | |
| FLRÌý201 | Intermediate Russian I | 3 | |
| FLRÌý202 | Intermediate Russian II | 3 | |
| FLSÌý201 | Intermediate Spanish I | 3 | |
| FLSÌý202 | Intermediate Spanish II | 3 | |
| GRKÌý201 | Intermediate Greek I | 3 | |
| GRKÌý202 | Intermediate Greek II | 3 | |
| LATÌý201 | Intermediate Latin I | 3 | |
| LATÌý202 | Intermediate Latin II | 3 | |
| PERÌý201 | Intermediate Persian I | 3 | |
| PERÌý202 | Intermediate Persian II | 3 |
NE Electives
| Code | Title | Hours | Counts towards |
|---|---|---|---|
| MSEÌý409 | Nuclear Materials | 3 | |
| MSEÌý509 | Nuclear Materials | 3 | |
| NEÌý409 | Nuclear Materials | 3 | |
| NEÌý412 | Nuclear Fuel Cycles | 3 | |
| NEÌý418 | Nuclear Power Plant Instrumentation | 3 | |
| NEÌý509 | Nuclear Materials | 3 | |
| NEÌý512 | Nuclear Fuel Cycles | 3 | |
| NEÌý521 | Principles of Radiation Measurement | 3 | |
| NEÌý528 | Introduction to Plasma Physics and Fusion Energy | 3 | |
| PYÌý528 | Introduction to Plasma Physics and Fusion Energy | 3 |
Technical Electives
| Code | Title | Hours | Counts towards |
|---|---|---|---|
| CHÌý315 | Quantitative Analysis | 3 | |
| CHÌý331 | Introductory Physical Chemistry | 4 | |
| CSCÌý302 | Introduction to Numerical Methods | 3 | |
| CSCÌý427 | Introduction to Numerical Analysis I | 3 | |
| MAÌý405 | Introduction to Linear Algebra | 3 | |
| MAÌý427 | Introduction to Numerical Analysis I | 3 | |
| PYÌý341 | Relativity, Gravitation and Cosmology | 3 | |
| PYÌý411 | Mechanics I | 3 | |
| PYÌý414 | Electromagnetism I | 3 | |
| PYÌý415 | Electromagnetism II | 3 | |
| PYÌý511 | Mechanics I | 3 | |
| PYÌý514 | Electromagnetism I | 3 | |
| PYÌý515 | Electromagnetism II | 3 | |
| PYÌý525 | Computational Physics | 3 | |
| STÌý370 | Probability and Statistics for Engineers | 3 | |
| STÌý371 | Introduction to Probability and Distribution Theory | 3 |
Engineering Technical Electives
| Code | Title | Hours | Counts towards |
|---|---|---|---|
| Engr Tech Elective | |||
| BMEÌý217 | Biomedical Electronics Laboratory | 1 | |
| BMEÌý301 | Human Physiology : Electrical Analysis | 4 | |
| BMEÌý302 | Human Physiology: Mechanical Analysis | 4 | |
| BMEÌý315 | Biotransport | 3 | |
| BMEÌý325 | Biochemistry for Biomedical Engineers | 3 | |
| BMEÌý335 | Biomaterials | 3 | |
| BMEÌý342 | 3 | ||
| BMEÌý345 | Biomedical Solid Mechanics | 3 | |
| BMEÌý355 | Biocontrols | 3 | |
| BMEÌý365 | Linear Systems in Biomedical Engineering | 3 | |
| BMEÌý375 | Biomedical Microcontroller Applications | 3 | |
| BMEÌý385 | Bioinstrumentation | 3 | |
| BMEÌý398 | Biomedical Engineering Design and Manufacturing II | 2 | |
| BMEÌý462 | Biomaterials Characterization | 3 | |
| CEÌý301 | Civil Engineering Surveying and Geomatics | 3 | |
| CEÌý305 | Introduction to Transportation Engineering | 3 | |
| CEÌý324 | 1 | ||
| CEÌý325 | Structural Analysis I | 3 | |
| CEÌý327 | Reinforced Concrete Design | 3 | |
| CEÌý332 | Civil Engineering Materials | 3 | |
| CEÌý339 | Civil Engineering Systems | 3 | |
| CEÌý342 | Engineering Behavior of Soils and Foundations | 4 | |
| CEÌý365 | Construction Equipment and Methods | 3 | |
| CEÌý367 | Mechanical and Electrical Systems in Buildings | 3 | |
| CEÌý373 | Fundamentals of Environmental Engineering | 3 | |
| CEÌý378 | Environmental Chemistry and Microbiology | 4 | |
| CEÌý381 | Hydraulics Systems Measurements Lab | 1 | |
| CEÌý383 | Hydrology and Urban Water Systems | 3 | |
| CEÌý390 | 1 | ||
| CEÌý437 | Civil Engineering Computing | 3 | |
| CHEÌý311 | Transport Processes I | 3 | |
| CHEÌý312 | Transport Processes II | 3 | |
| CHEÌý315 | Chemical Process Thermodynamics | 3 | |
| CHEÌý316 | Thermodynamics of Chemical and Phase Equilibria | 3 | |
| CHEÌý330 | Chemical Engineering Lab I | 4 | |
| CHEÌý331 | Chemical Engineering Lab II | 2 | |
| CHEÌý395 | Professional Development Seminar | 1 | |
| ECEÌý301 | Linear Systems | 3 | |
| ECEÌý302 | Microelectronics | 4 | |
| ECEÌý303 | Electromagnetic Fields | 3 | |
| ECEÌý305 | Principles of Electromechanical Energy Conversion | 3 | |
| ECEÌý306 | Introduction to Embedded Systems | 3 | |
| ECEÌý308 | Elements of Control Systems | 3 | |
| ECEÌý309 | Data Structures and Object-Oriented Programming for Electrical and Computer Engineers | 3 | |
| ECEÌý310 | Design of Complex Digital Systems | 3 | |
| ECEÌý331 | Principles of Electrical Engineering | 3 | |
| ECEÌý380 | Engineering Profession for Electrical Engineers | 1 | |
| ECEÌý381 | Engineering Profession for Computer Engineers | 1 | |
| ECEÌý383 | Introduction to Entrepreneurship and New Product Development | 1 | |
| ECEÌý384 | Practical Engineering Prototyping | 3 | |
| ISEÌý311 | Engineering Economic Analysis | 3 | |
| ISEÌý315 | Introduction to Computer-Aided Manufacturing | 1 | |
| ISEÌý316 | Manufacturing Engineering I - Processes | 3 | |
| ISEÌý352 | Fundamentals of Human-Machine Systems Design | 3 | |
| ISEÌý361 | Deterministic Models in Industrial Engineering | 3 | |
| ISEÌý362 | Stochastic Models in Industrial Engineering | 3 | |
| MAEÌý302 | Engineering Thermodynamics II | 3 | |
| MAEÌý305 | Mechanical Engineering Laboratory I | 1 | |
| MAEÌý306 | Mechanical Engineering Laboratory II | 1 | |
| MAEÌý310 | Heat Transfer Fundamentals | 3 | |
| MAEÌý315 | Dynamics of Machines | 3 | |
| MAEÌý316 | Strength of Mechanical Components | 3 | |
| MAEÌý351 | Aerodynamics II | 3 | |
| MAEÌý352 | Experimental Aerodynamics II | 1 | |
| MAEÌý361 | Dynamics & Controls | 3 | |
| MAEÌý371 | Aerospace Structures I | 3 | |
| MAEÌý372 | Aerospace Vehicle Structures Lab | 1 | |
| MSEÌý301 | Introduction to Thermodynamics of Materials | 3 | |
| MSEÌý355 | Electrical, Magnetic and Optical Properties of Materials | 3 | |
| MSEÌý360 | Kinetic Processes in Materials | 3 | |
| NE Elective | |||
| MSEÌý409 | Nuclear Materials | 3 | |
| MSEÌý509 | Nuclear Materials | 3 | |
| NEÌý409 | Nuclear Materials | 3 | |
| NEÌý412 | Nuclear Fuel Cycles | 3 | |
| NEÌý418 | Nuclear Power Plant Instrumentation | 3 | |
| NEÌý509 | Nuclear Materials | 3 | |
| NEÌý512 | Nuclear Fuel Cycles | 3 | |
| NEÌý521 | Principles of Radiation Measurement | 3 | |
| NEÌý528 | Introduction to Plasma Physics and Fusion Energy | 3 | |
| PYÌý528 | Introduction to Plasma Physics and Fusion Energy | 3 | |
Semester Sequence
This is a sample.
| First Year | ||
|---|---|---|
| Fall Semester | Hours | |
| °ä±áÌý101 | Chemistry - A Molecular Science 1 | 3 |
| °ä±áÌý102 | General Chemistry Laboratory 1 | 1 |
| ·¡Ìý101 | Introduction to Engineering & Problem Solving 2 | 1 |
| ·¡Ìý115 | Introduction to Computing Environments | 1 |
| ·¡±·³ÒÌý101 | Academic Writing and Research 2 | 4 |
| ²Ñ´¡Ìý141 | Calculus I 1 | 4 |
| GEP Health and Exercise Studies | 1 | |
| Ìý | Hours | 15 |
| Spring Semester | ||
| CSCÌý113 | Introduction to Computing - MATLAB | 3 |
| MAÌý241 | Calculus II 1 | 4 |
| PYÌý205 | Physics for Engineers and Scientists I 1 | 3 |
| PYÌý206 | Physics for Engineers and Scientists I Laboratory | 1 |
| Select one of the following Economics courses: | 3 | |
| Fundamentals of Economics | Ìý | |
| Principles of Microeconomics | Ìý | |
| Introduction to Agricultural & Resource Economics | Ìý | |
| EÌý102 | Engineering in the 21st Century | 2 |
| Ìý | Hours | 16 |
| Second Year | ||
| Fall Semester | ||
| MAEÌý206 | Engineering Statics | 3 |
| MAÌý242 | Calculus III | 4 |
| NEÌý201 | Introduction to Nuclear Engineering | 2 |
| PYÌý208 | Physics for Engineers and Scientists II | 3 |
| PYÌý209 | Physics for Engineers and Scientists II Laboratory | 1 |
| Advanced Communication Elective | 3 | |
| Ìý | Hours | 16 |
| Spring Semester | ||
| MAEÌý208 | Engineering Dynamics | 3 |
| MAÌý341 | Applied Differential Equations I | 3 |
| NEÌý202 | Radiation Sources, Interaction and Detection 2 | 4 |
| GEP Requirement | 3 | |
| GEP Requirement | 3 | |
| Ìý | Hours | 16 |
| Third Year | ||
| Fall Semester | ||
| MAEÌý201 | Engineering Thermodynamics I | 3 |
| MAÌý401 | Applied Differential Equations II | 3 |
| NEÌý301 | Fundamentals of Nuclear Engineering 2 | 3 |
| ISEÌý311 | Engineering Economic Analysis | 3 |
| GEP Requirement | 3 | |
| Ìý | Hours | 15 |
| Spring Semester | ||
| MAEÌý308 | Fluid Mechanics | 3 |
| MSEÌý201 | Structure and Properties of Engineering Materials | 3 |
| NEÌý400 | Nuclear Reactor Energy Conversion | 4 |
| NEÌý401 | Reactor Analysis and Design | 3 |
| NEÌý403 | Nuclear Reactor Laboratory | 2 |
| GEP Health and Exercise Studies | 1 | |
| Ìý | Hours | 16 |
| Fourth Year | ||
| Fall Semester | ||
| NEÌý402 | Reactor Engineering | 4 |
| NEÌý404 | Radiation Safety and Shielding | 3 |
| NEÌý406 | Nuclear Engineering Senior Design Preparation | 1 |
| NE Elective | 3 | |
| Technical Elective | 3 | |
| Ìý | Hours | 14 |
| Spring Semester | ||
| NEÌý405 | Reactor Systems | 3 |
| NEÌý408 | Nuclear Engineering Design Project | 3 |
| Engineering Technical Elective | 3 | |
| GEP Requirement | 3 | |
| GEP Requirement | 3 | |
| Ìý | Hours | 15 |
| Ìý | Total Hours | 123 |
| 1 | A grade of C or higher is required. |
| 2 | A grade of C- or higher is required. |
Career Opportunities
Nuclear power reactor operation continues with ninety eight reactors operating in the nation, increasing our reliance upon nuclear energy as a substitute for energy from fossil fuels. Development of advanced fission and fusion reactors offers the potential of vast new energy sources. Industrial and medical applications of radiation continue to increase in diverse industries. Demand for nuclear engineers is on the rise within the electric power industry and national laboratories, naval reactors, and other industries. According to the National Society of Professional Engineers, nuclear engineers are among the top five best compensated of the engineering disciplines.