course-details-portlet

TEP4132

Fundamentals of Nuclear Power Engineering

New from the academic year 2026/2027

Assessments and mandatory activities may be changed until September 20th.

Credits 7.5
Level Third-year courses, level III
Course start Spring 2027
Duration 1 semester
Language of instruction English
Location Trondheim
Examination arrangement School exam

About

About the course

Course content

This course provides a comprehensive introduction to the science and engineering of nuclear power plants. Students will learn the fundamental principles of nuclear physics, reactor physics, and nuclear thermal-hydraulics, and how these disciplines integrate in the design and operation of modern reactor systems. The course offers a systems-level overview of how nuclear energy is converted into electricity,

Learning outcome

Knowledge

  • The student has knowledge of the fundamental principles of nuclear physics and the process of nuclear fission.
  • The student understands the basic concepts of nuclear reactor physics, including neutron life cycle, criticality, and reactivity control.
  • The student has knowledge of nuclear thermal-hydraulics, heat generation, and heat removal processes in reactor systems.
  • The student understands the main components and operational principles of nuclear power plants, including reactor types, safety systems, and energy conversion cycles.
  • The student is familiar with the role of nuclear power in the broader energy system, including efficiency, sustainability, and safety considerations.

Skills

  • The student can perform basic calculations related to reactor physics, such as neutron balance, multiplication factor, and energy release.
  • The student can analyze simple thermal-hydraulic processes and estimate heat transfer, flow regimes, and cooling performance in reactor systems.
  • The student can interpret plant schematics and identify the main subsystems involved in power conversion and safety operation.
  • The student can compare nuclear power technologies with alternative energy systems using relevant performance indicators (e.g., energy density, capacity factor, and environmental impact).

General competence

  • The student can explain how the disciplines of physics, thermodynamics, and engineering integrate in the design and operation of nuclear power plants.
  • The student can evaluate the advantages and challenges of nuclear energy in the context of national and global energy needs.
  • The student is aware of the key safety principles, regulatory frameworks, and societal considerations influencing the development of nuclear power.

Learning methods and activities

Lectures, ordinary exercises and computer exercises. A minimum of 75% of the ordinary and computer exercises must be accepted.

Compulsory assignments

  • Exercises

Further on evaluation

Written exam with a duration of 4 hours which constitutes 100 % of the assessment basis in the course. Grade: Letter A-F. Re-sit examination in August. The Re-sit examination may be changed from a written to an oral examination. 9 out of 12 calculation exercises must be approved before the student can take the exam. Permitted examination aids: Support material code D. A specific basic calculator is allowed.

Course materials

Will be published at the start of the course.

Subject areas

  • Industrial Process Technology
  • Energy and Process Engineering

Contact information

Course coordinator

Lecturers

Department with academic responsibility

Department of Energy and Process Engineering

Examination

Examination

Examination arrangement: School exam
Grade: Letter grades

Ordinary examination - Spring 2027

School exam
Weighting 100/100 Examination aids Code D Duration 4 hours Exam system Inspera Assessment Place and room Not specified yet.

Re-sit examination - Summer 2027

School exam
Weighting 100/100 Examination aids Code D Duration 4 hours Exam system Inspera Assessment Place and room Not specified yet.