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Students
Tuition Fee
Start Date
Medium of studying
Duration
Program Facts
Program Details
Degree
Masters
Major
Materials Engineering | Nuclear Engineering
Area of study
Engineering
Course Language
English
About Program

Program Overview


The Master of Science in Materials and Nuclear Engineering (M.S.M.N.E.) program provides a comprehensive foundation in materials or nuclear engineering, with tracks in materials performance or applied nuclear science. The program emphasizes hands-on learning, critical thinking, and research opportunities, preparing graduates for careers in research, design, and development in various industries. Graduates are highly sought after by employers in national laboratories, government agencies, and private companies.

Program Outline

Degree Overview:


Overview:

The Master of Science in Materials and Nuclear Engineering (M.S.M.N.E.) degree program is designed to provide students with a solid foundation in either applied nuclear science and engineering, with an emphasis on used fuel management, criticality, or radiation detection, or material science and engineering, with an emphasis on materials performance. The program consists of two master's degree tracks: Materials Engineering and Nuclear Engineering.


Objectives:

The objectives of the M.S.M.N.E. program are to:

  • Provide students with a strong foundation in the fundamental principles of materials and nuclear engineering
  • Prepare students for careers in research, development, and design in the fields of materials and nuclear engineering
  • Develop students' critical thinking and problem-solving skills
  • Foster students' creativity and innovation
  • Prepare students for lifelong learning and professional development

Program Description:

The Materials Engineering track consists of a core curriculum in material science, metallurgy, and materials performance, which is to be augmented by advanced level classes in corrosion engineering, physical metallurgy, mechanical metallurgy, mechanics of materials, and nuclear materials. The Nuclear Engineering track consists of a core curriculum in applied nuclear science and engineering, coupled with advanced classes in the student's sub-discipline. The Nuclear Engineering track has an online option.


Outline:


Materials Engineering Track:

  • Core Curriculum (9 credits):
  • ME 622 - Nanomaterials for Energy Applications
  • ME 630 - Corrosion Engineering
  • ME 646 - Composite Materials
  • ME 695 - Special Topics in Engineering
  • ME 732 - Mechanical Metallurgy
  • ME 734 - Fracture of Engineering Materials
  • ME 741 - Energy and Variational Methods in Applied Mechanics I
  • Electives (18 credits):
  • Courses from within the College of Engineering
  • Courses from outside the College of Engineering with advisor approval
  • Design Project (3 credits):
  • ME 796 - Design Project in Mechanical Engineering

Nuclear Engineering Track:

  • Core Curriculum (9 credits):
  • ME 655 - Fundamentals of Nuclear Engineering
  • ME 706 - Convective Heat Transfer
  • ME 754 - Introduction to Nuclear Criticality Safety
  • ME 755 - Nuclear Criticality Safety Engineering
  • ME 756 - Monte Carlo Methods in Nuclear Engineering
  • ME 757 - Radiation Monitoring and Safeguards Systems
  • ME 758 - Accelerator Applications in Nuclear Engineering
  • ME 760 - Waste Management and The Nuclear Fuel Cycle
  • ME 762 - Nuclear Power Engineering
  • ME 763 - Nuclear Reactor Analysis
  • PHYS 631 - Nuclear and Elementary Particle Physics
  • RDCH 701 - Applied Nuclear Physics
  • Electives (18 credits):
  • Courses from within the College of Engineering
  • Courses from outside the College of Engineering with advisor approval
  • Design Project (3 credits):
  • ME 796 - Design Project in Mechanical Engineering

Assessment:


Non-Thesis Track:

  • Comprehensive exam/design project
  • Track graduates career shortly after graduation

Thesis Track:

  • Thesis defense (oral exam)
  • Track graduates career shortly after graduation

Teaching:


Teaching Methods:

The M.S.M.N.E. program uses a variety of teaching methods, including lectures, discussions, problem-solving sessions, and laboratory experiments.


Faculty:

The M.S.M.N.E. program is taught by a team of experienced and dedicated faculty members who are experts in their fields.


Unique Approaches:

The M.S.M.N.E. program offers a number of unique approaches to teaching, including:

  • A focus on hands-on learning through laboratory experiments and design projects
  • A strong emphasis on critical thinking and problem-solving skills
  • Opportunities for students to work with faculty members on research projects

Careers:


Potential Career Paths:

Graduates of the M.S.M.N.E. program are prepared for a wide range of careers in the fields of materials and nuclear engineering, including:

  • Research and development
  • Design and analysis
  • Testing and evaluation
  • Manufacturing
  • Sales and marketing
  • Technical writing
  • Patent law

Opportunities:

Graduates of the M.S.M.N.E. program are in high demand by a variety of employers, including:

  • National laboratories
  • Government agencies
  • Private companies
  • Universities

Outcomes:

Graduates of the M.S.M.N.E. program have a strong track record of success in their careers. Many graduates have gone on to hold leadership positions in their fields.

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