Course - Energy Storage 2 - FENT2314
FENT2314
This course has academic overlap with the courses in the table above. If you take overlapping courses, you will receive a credit reduction in the course where you have the lowest grade. If the grades are the same, the reduction will be applied to the course completed most recently.
Energy Storage 2
Choose study year
Credits
7.5
Level
Intermediate course, level II
Course start
Autumn 2024
Duration
1 semester
Language of instruction
English
Location
Trondheim
Examination arrangement
School exam
About
About the course
Course content
- Management and storage of heat, mechanical, and electrical energy.
- Energy market, research, and application aspects (eg. Smart-grid, off-grid, Ragone plot, buffer concepts).
- Thermal energy storage, heat reservoirs, phase transition utilization and chemically bound heat (eg. A district heating network, solar heat).
- Mechanical energy storage: flywheel, pumps, turbines and heat recovery (eg air compression pump power, flywheels of various sizes).
- Electrochemical storage of electrical energy: important battery technologies and hydrogen technologies (incl. Lead-acid batteries, various Li-ion batteries, various technologies for electrolysis of water, different hydrogen storage technologies, and various fuel cells).
Learning outcome
- Knowledge : The candidate must understand - Concept and operation of available and relevant energy storage systems. - Comparison tools used in system evaluation. - Different needs within energy storage. - Cause and propagation of efficiency losses in various energy storage systems. - Manufacturing, testing and ageing of Li-ion batteries, fuel cells and electrolysis cells.
- Skills: The candidate is expected to be able to - explain the concept and operation of available and relevant energy storage systems. - calculate the efficiency of charging cycles for different energy storage systems. - design energy and power needs of simple hybrid systems based on output and energy capacity.
- General competence : The candidate is expected to manage basic principles for accessible and relevant energy storage systems and quantitatively and qualitatively be able to compare these. - The candidate knows how to produce and test Li-ion battery cells, fuel cells and electrolysis cells.
Learning methods and activities
Compulsory lectures, compulsory tutorials, and compulsory laboratory exercises.
- 5 mandatory laboratory exercises
- 3 out of 4 tutorial exercises.
Exercises must be approved to admitted access to examination.
Compulsory assignments
- Oblig
Further on evaluation
- Examination is written 4 hour (digital exam) which counts 100%:
-Marks: Letters AF, where F is fail.
- Permitted aids at the examination:
-No written or printed aids.
- Deferred exams are arranged in May/June, and the form of the exam can be changed from written to oral.
Recommended previous knowledge
- Energy Storage 1 or equivalent; Book: "Engineering Energy Storage" Chapters 6 (Electrochemical Energy Storage), 7 (Secondary Batteries), and 8 (Hydrogen for Energy Storage)
- Basic Chemistry, Physics and Mathematics
Course materials
- Book "Engineering Energy Storage", Chapters 1-5 - https://www.sciencedirect.com/book/9780128141007/engineering-energy-storage
- Distributed written academic materials on BlackBoard
-Review articles as appropriate
Credit reductions
Course code | Reduction | From |
---|---|---|
FENA2314 | 7.5 sp | Autumn 2019 |
FENG2314 | 7.5 sp | Autumn 2019 |
TEP4320 | 2.5 sp | Autumn 2024 |
Subject areas
- Engineering Subjects