Renewable Energy Resources and the Energy Systems

Postgraduate course

Course description

Objectives and Content

Objectives

The course aims to provide students with a fundamental introduction to energy resources, with a particular emphasis on renewable energy sources. Students will learn the key principles of how these resources can be utilized, as well as receive an introduction to various forms of energy storage.

The course also covers the structure of energy systems, with focus on the electricity sector, and provides an introduction to both business economics and socio-economic analyses related to energy production. In addition, important topics such as social acceptance, the role of public administration, and energy justice will be addressed.

Content

The first half of the course focuses on renewable energy resources and the principles behind their utilization, with particular emphasis on solar energy, wind power, and hydropower. Other energy sources, such as nuclear power and fossil fuels, will be covered more briefly.

The second part of the course explores how energy systems are structured—from generation and consumption to transmission and distribution. Students will be introduced to electricity pricing and how political and economic instruments can be used to regulate the energy market. In addition, the course covers the principles of business economics and social economic analysis related to the costs and revenues of electricity production. Key concepts such as net present value, levelized cost of energy, and system costs will be introduced and discussed. The course concludes with modules on the importance of social acceptance and legitimacy, as well as the role of public governance.

Learning Outcomes

On completion of the course the student should have the following learning outcomes defined in terms of knowledge, skills, and general competence:

Knowledge

The student

  • can explain different energy resources and their relative roles in national and global energy supply
  • can describe how energy is used and the corresponding requirements for energy supply
  • can assess the potential future use of various energy sources
  • can understand how electricity is priced
  • can be familiar with the principles for calculating business and social economic costs and revenues related to electricity production
  • can understand the different dimensions of social acceptance, including socio-political acceptance, community acceptance, and market acceptance

Skills

The student

  • can use basic terminology and expressions within the field of energy
  • can perform calculations on the available energy from various resources and the corresponding efficiencies in converting them to electricity
  • can estimate energy costs and revenues related to electricity production

General competence

The student

  • can apply critical thinking and physical understanding to assess the challenges and opportunities related to the utilization of energy resources and the planning of energy systems
  • can communicate with others about the physical, technical, economic and social aspects of different energy resources and energy conversion

Full-time/Part-time

Part time

ECTS Credits

10 ECTS

Level of Study

Semester of Instruction

Spring

Place of Instruction

Web based
Required Previous Knowledge

This is a master's level course, and you must therefore document that you meet both of the following admission requirements:

  • A technical engineering degree or other natural science-based education at a minimum bachelor's level (3 years / at least 180 ECTS credits).
  • A minimum of two years of full-time relevant work experience.

Extensive and highly relevant work experience beyond the minimum requirement of two years may, upon further assessment, replace up to one year of the educational requirement (equivalent to 60 ECTS credits).

Recommended Previous Knowledge
None
Credit Reduction due to Course Overlap
None
Access to the Course
Access to course wil be given by application through UiBVidere
Teaching and learning methods

The course is delivered online via the University of Bergen’s learning platform, Mitt UiB, which you will gain access to once you are admitted as a student. There you will find the syllabus, video lectures, exercises, discussion forums, and other learning resources. The academic content is divided into modules, each corresponding to one week of work. Each module concludes with a test that must be passed.

In addition to the modules, students will work on a semester project.

There will be one in-person gathering and two to three online meetings with the other participants in the afternoons during the semester.

The course is worth 10 ECTS credits, with a total workload of approximately 250 hours.

All modules and the semester project must be passed in order to be eligible for the final exam.

Compulsory Assignments and Attendance
All modules and the semester project must be passed i order to be eglible for the final exam.
Forms of Assessment
Written home exam in Inspera (4 hours).
Grading Scale
Pass / Fail
Assessment Semester
Assessment only in semester with teaching
Course Evaluation
The course will be evaluated by the students in accordance with the quality assurance system at UiB and the department.
Examination Support Material
None
Programme Committee
The programme board is responsible for the academic content and structure of the study programme.
Course Coordinator
You fint course responsible and administrative contact person on Mitt UiB
Course Administrator
The Faculty of Science and Technology by Geophysic Institute has the responsibility for the course