Energy Engineering, Aalborg

Students in laboratory

Energy Engineering

Would you like to contribute to making energy environmentally friendly? To supply the world with energy in new ways? Ensure sustainable and cost-effective energy? The problems lie in the future, but the solutions must be found now! You can choose to study one or two semesters in the Bachelor's programme in Energy Engineering at Aalborg University.

At Aalborg University, we offer a study programme in Energy Engineering targeted at the demands and challenges which the future poses.

The programme is founded on research-based teaching and problem based project-organised learning. As a guest student, you will contribute to maintaining and strengthening a healthy environment. The Department of Energy Technology conducts research on alternative and environmentally friendly energy sources as well as on savings on energy consumption and optimisation of energy systems in all aspects.

The teaching is carried out in English, and hence, many international students study here. Therefore, aside from strong academic skills, you will also build a strong international profile within your area.

During each semester, courses constitute half the study time, while the other half has focus on project work carried out in groups – often working closely with the Department of Energy’s research environments and/or external companies.

This is a full-time study programme so you are required to be present at the university on a daily basis and spend the majority of your day there.

At the Department of Energy Technology, you will find a lot of well-equipped and modern laboratories enabling you to carry out exciting laboratory experiments and tests. These tests will verify the theoretical analysis, which you apply during the project work. The laboratories make it possible to perform realistic tests within the electrical, thermal, hydraulic and mechanical area, as they include advanced computer-based measurement and control facilities.


During the 5th and/or 6th semester, you choose a specialisation in one of the following areas:

Full curriculum for the programme

Electrical Energy

Knowledge of electrical energy is important for modern society to function well. Renewable power production and new energy saving apparatus are undergoing a fast development process to deal with environmental issues like global warming. The need for non-polluting energy systems like wind power and the use of electric cars for transportation, in order to reduce CO2 emissions and create a cleaner environment.

There is a need for Electrical Energy engineers experienced in:

  • environmentally friendly energy production and consumption
  • exploiting renewable energy sources like wind, solar and wave energy
  • developing energy-efficient systems and products for various applications
  • maintaining Denmark’s leading position within the area of energy.

academic content


The purpose of this semester is to solve problems concerning design and control of power electronic appliances. Control strategies are to be implemented using analog circuits, microcontrollers, digital signal processors or similar. The electrical interaction between the converter and the surrounding systems is to be analysed, and a business case of the power electronic device or system have to be developed as well. Testing of the studied equipment and control in the laboratory is an important part of the project.

Project examples:

  • Digital audio amplifier
  • Reactive power control using a power converter
  • Electro-Magnetic Interference reduction with a pacemaker
  • Harmonic interaction between a converter and an electrical machine
  • Wireless charging of electric vehicles


The objective of this semester is to study an electrical machine and/or an electric power system. The interaction with the surrounding system or the associated power electronics may also be included in the project. The primary focus is the steady-state analysis of the chosen electric machine or electric power system. Partial or complete dimensioning of the system may be needed in order to construct a realistic simulation model and test the proposed solutions. The aim is to gain a deeper knowledge about the different parts of the system and the overall functioning. The proposed solution is to be tested in the laboratory to validate the theoretical results.

Project examples:

  • Influence of grid connected wind generators on the power quality
  • Performance evaluation of induction machine
  • Maximum Power Point Tracking of photovoltaic cells connected to low voltage grids
  • Electric drivetrain generator for recumbent bikes
  • DC grid for renewable energy sources

continue on a Master of Science (MSc) programme

The Bachelor of Science (BSc) programme in Energy with specialisation in Electrical Energy gives access to the following MSc specialisations in Energy Engineering (Aalborg):

Electric components


Knowledge of mechatronics is important for a well-functioning modern society. For example, renewable power production techniques and existing energy conversion techniques are undergoing radical changes in order to generate, distribute and use energy in a better way than done today. Proper design and improvement of highly integrated and multi-disciplinary systems and components require knowledge of many engineering fields like e.g. mechanics, hydraulics, electronics and control systems: this is the cornerstone of engineers with specialization in Mechatronics.

Engineers with a degree in Mechatronics may for example work with detailed development and improvements of

  • environmentally friendly energy production and consumption systems and components
  • renewable energy sources like wind, solar and wave energy
  • energy-efficient systems and products for various applications in order to maintain Denmark’s strong position within energy technology and renewable energy.

academic content


Proper understanding of the operating principles is of fundamental importance for all system design. On this background the main focus in this semester theme is to analyse a specific mechatronic system that consists of different sub-systems. Mathematical models must be formulated that take all main characteristic of the multidisciplinary system into account. In this way experience is obtained with the operating principles and the analysis of e.g. power electronics, electrical actuators, simple mechanical components, sensors and transducers. Also, the dynamic control of a mechatronic system is part of the project theme. Laboratory work is also a core part of the theme.

Project examples:

  • Modelling and analysis of dual-link robotic manipulator for energy efficient motion control
  • Analysis and control performance improvement of valve for liquid cooling systems
  • Analysis of energy harvesting device for Internet of Things (IoT) applications


To solve a specific task, a mechatronic system must be designed in a systematic way. This requires evaluation and benchmarking of different possible solution in order to determine the
suitability of various technologies. A model-based design philosophy is used to find a solution that fulfill the task requirements taking practical limitations into account. The designed product or a sub-part of it are realized in the laboratory, tested and the performance is compared to the characteristics predicted by the model.

Project examples:

  • Design of miniature switching valve for energy efficiency fluid power converters
  • Design of gripper with force feedback for robot application
  • Vibration damping system for agriculture machinery

continue on a Master of Science (MSc) programme

The Bachelor of Science (BSc) programme in Energy Engineering with specialisation in Mechatronics gives access to the following MSc specialisations in Energy Engineering (Aalborg) and Sustainable Energy Engineering (Esbjerg):

Student in lab

Thermal energy

Thermal energy is a necessity in both the current and a future renewable energy supply. We require efficient heating (district heating, heat pumps, etc.) and cooling/refrigeration for dwellings and industrial processes. The efficient use of waste heat and utilisation of low temperature heat reservoirs through heat pumps is required to balance the increasing intermittent power production from for instance wind and solar power. Heat storage at low or high temperature serves as a cost efficient way of storing surplus electricity. Furthermore, the technologies enable us to match the future heat demand in case of urban densification and introduction of low energy buildings.

The efficient use of the limited biomass resources is another area where thermal energy systems will play a major role. The proper heat integration of for instance power-to-fuel-systems or systems intended to produce renewable chemicals through electrolysis and biomass, is a requirement.

Several industrial processes involve thermal conversion technologies. We need advanced heat integration technologies in order to save energy in these processes.

There is a need for thermal energy engineers experienced in:

  • environmentally friendly  heating, cooling and refrigeration systems
  • integrating renewable energy sources like wind and solar energy with thermal storages and the required complex thermal conversion technologies
  • developing energy efficient and heat integrated power-to-fuel or power-to-x systems
  • identifying and realizing energy savings in industrial thermal conversion processes
  • maintaining Denmark’s leading position within the area of thermal energy systems where we currently have a world-leading position in industry and a unique knowledge

academic content


The semester should give students competencies within the numerical modeling and optimisation of thermal systems operated in steady state mode. The system to be modelled can include any kind of thermal multi-component system or thermal cycle. This could be a power plant, an industrial energy system, a chemical processing plant etc.

Project examples:

  • Modelling and optimisation of hybrid low energy air-conditioning systems
  • Analysis, modelling, and optimisation of a combined heat and power plants
  • Optimisation of  the utilisation of exhaust gas from ships in organic Rankine cycles
  • Modelling and heat integration of electrolysis based power to fuel production systems
  • Modelling of complex fuel cell systems


The 6th semester is also the semester, where the students write their Bachelor of Science (BSc) Thesis. The objective of this semester is to provide knowledge about the construction of flow machines and components used in thermal energy systems. As a result of overall analysis, limitations due to the dynamic interactions on these systems are to be outlined. Environmental issues in relation to the thermal systems are to be considered. A typical project on this semester will also include experimental test to verify mathematical models.

Project examples:

  • Design, modelling and test of a vertical axis wind turbine
  • Investigation of clogging in wastewater pumps in part load
  • PIV analysis of the flow field around the tongue in a wastewater pump
  • Modelling and experimental investigations of gasturbines
  • Design and optimisation of impellers for centrifugal pumps
  • Development and test of advanced propellers for drones

continue on a MASTER OF SCIENCE (MSC) programme

The Bachelor of Science (BSc) programme in Energy Engineering with specialisation in Thermal Energy gives access to the following MSc specialisations in Energy Engineering (Aalborg) and Sustainable Energy Engineering (Esbjerg):


Read more

Student Counsellors

Jens Frydendahl Mygind  Nikolaj Helmer Kristensen

Jens Frydendahl Mygind and Nikolaj Helmer Kristensen are student counsellors for all the study programmes under the Study Board of Energy.

Jens and Nikolaj can e.g. guide about the content of the individual programme, study environment, exam rules, exemptions, etc.

Aalborg University (AAU) treats all your information with confidentiality.All student counsellors are under an obligation to maintain confidentiality and you can always contact us anonymously.

Meet us! Book an online or physical meeting with us

If you are interested in meeting us, we offer both online and physical meetings where we talk about life as a student at AAU. Feel free to ask about anything. No question is too big or small, and we are happy to answer everything from the content of the study programme over study jobs to how our canteen looks and works.

For us, it is important that you feel well-dressed to make the right study choice for you.

In practical terms, we make it so that you write to us, and then we will contact you to arrange further.


Fibigerstræde 16, room 3-008
DK-9220 Aalborg

opening hours

There are no fixed opening hours, but it is always possible to make an appointment by e-mail or phone.



Jens: +45 93 56 20 48
Nikolaj: +45 93 56 20 47


It is also possible to schedule a Skype meeting with Jens and Nikolaj. Please send us an e-mail for further details.

Response time

We strive to respond to your inquiry as soon as possible, but always within 5 days.