Course code: PRO-2801

Fuel Cells and Hydrogen

Apply between July 20 and August 9
Campus Narvik, Tromsø and Online course
Semester / Year Autumn 2026
Duration 1 semester
Level Videregående emner, nivå II
Credits 10

About the course

The course can be taken as a single course.

Syllabus will cover the following points:

  • Primary energy reserves, global warming, fossil fuel substitution, environment pollution and protection, nuclear and renewable energy perspective
  • Hydrogen: properties, conversion factor between often used physical dimensions, terminology
  • Hydrogen production pathways: thermo chemical processes, water electrolysis, water photolysis, photo biological processes
  • Hydrogen storage methods
  • Hydrogen safety
  • Background; Fuel cell basis, components & operation of fuel cell; Classification & types of cell; Applications
  • Review of Thermodynamics & Thermodynamics of Fuel cell
  • Review of Electrochemistry & Electrochemical kinetics
  • Fuel Cell characterization
  • Fuel cell component and Design issues
  • Fuel cell applications, codes and environmental effects
  • Fuel cell modelling and simulation

Admission requirements

General study qualification with Mathematics R1+R2 and Physics FYS1.

Application code: 9391

Objectives of the course

After passing the course, students will have the following learning outcomes:

Knowledge and understanding:

The candidate will have knowledge of:

  • The fundamentals characteristics of hydrogen.
  • Techniques for hydrogen production, storage and utilisation
  • The basic electrochemical principles of hydrogen fuel cells,
  • Basic fuel cell design concepts and fuel cell systems concepts,
  • How fuel cells are used for every day purposes: in portable and stationary use.
  • The various terminologies used in hydrogen and fuel cell technologies

Skills

The candidate should be able to:

  • Choose appropriate fuel cell technology for a particular application.
  • Perform calculations to design a basic fuel cell system including material selection, cooling systems and supply rates of reactants.
  • Establish a circuit model and a mathematical model of the fuel cell and analyse its performance using mathematical and computational techniques.
  • List and describe the main possible hydrogen production pathways in particular relation to biomass and solar energy.
  • Describe how hydrogen can be used to complement renewable energy technologies in terms of supply and demand matching.

General competence

The candidate shall have general competence in:

  • Problem solving skills applied to hydrogen system design.
  • Communication skills developed through assessed work and class discussions.
  • Students will be able to apply the gained knowledge and skills independently in any particular situation by demonstrating the ability to cooperate, responsibility, capacity for reflection and critical thinking in studies and profession.

Credit reduction

If you pass the examination in this course, you will get an reduction in credits (as stated below), if you previously have passed the following courses:

  • ITE1905 Solar cell technology and Fuel cells & hydrogen 5 ects

Teaching methods

Lectures and exercises/lab work in 4 sessions/week

Compulsory tasks comprised of numerical calculations, design work, and home project exercise and reporting (written and/or oral presentation).

All organized teaching, course literature, and handouts are considered as course material. Exam questions are based upon this.

Guest lectures may occur. Voluntary quizzes may occur.

Audio and video of what takes place in the classroom will be recorded by Panopto, and will be made available live to course participants. Relevant links will also be published on Canvas.

There will be a meeting week (samlingsuke) for online students to conduct exercises/lab work. Online students must attend at least one day during the meeting week to complete exercises/lab work.

Language of instruction and examination

English will be used as the main instruction language in the course.

English will be used as the main language in the exam, but students will be allowed to answer exam questions in Norwegian if they prefer.

Schedule

The schedules are normally finalized and published well in advance of the start of the semester, often a few weeks beforehand. This gives students the opportunity to organize their studies and prepare for upcoming activities.

It is recommended to check the schedule regularly, as changes may occur.

Information to incoming exchange students

This course is open to incoming exchange students.

Study Level: Bachelor's

Admission prerequisites:
To take this course, you must first meet the requirements listed in the “Admission requirements” section above.

For details on how to apply for exchange, course selection guidelines, or to contact the Incoming Admissions Team, please visit: Admissions for Student Exchange.

Examination

Exams
Off campus exam Hand in: 25.11.2026 12:00 Hand out: 25.11.2026 09:00 Duration: 3 Hours Weighting: 6/10 Grade:
A–E, fail F
Portfolio Hand in: 20.11.2026 14:00 Weighting: 4/10 Grade:
A–E, fail F

Everything you need to know about before, during, and after the exam; registration, absence, appeals, and diplomas: UiT Exams homepage

More info about the portfolio

  • Students need to do research work that will be defined during the first half of the course. This work is to be presented in the form of an essay/project report.
  • Practical lab project for all students. This work is handed in as a lab report.
  • 4 assignments such as questions and exercises are given.

All parts of the assessment must be passed independently of each other in order to pass the course.

Re-sit examination

A re-sit exam will be arranged for this course only for the off campus exam.

Previous years and semesters

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Responsible unit: Institutt for industriell teknologi