Programmes
Mechanical Engineering
Master (2 years) of Science in Mechanical Engineering, 120 ECTS
Engineering| Institution | Aarhus University (AU) |
| Campus | Aarhus University School of Engineering |
| Duration | 2 years |
| Tuition per term (Non-EU/EAA/CH) | 14500 EUR |
| Tuition per term (EU/EAA/CH) | 0 EUR |
| Website | https://kandidat.au.dk/en/mechanical-engineering/ |
How do you design the blades of a wind turbine? How do you calculate the lifetime of a welded construction? How do you optimise the use of a robot? How to build a rocket engine? How do you improve the use of renewable energy? How do you design future energy systems? How do you take part in the rapid development of 3D printed materials? How do you analyse the dynamic performance of a racing car or off-road vehicle? How to use a digital twin in the manufacturing processes? These are just some of the questions you may be exploring on the MSc programme in Mechanical Engineering.
The teaching in the programme draws on the lecturers’ own research, and students have the opportunity to apply high-level theory and advanced simulations to practical issues, with scope for interdisciplinary collaboration. You will acquire a solid background in mechanical engineering fields such as continuum mechanics, composites, elasticity, plasticity, failure mechanisms, structural dynamics, fluid dynamics, energy storage, energy conversions, thermodynamics, and robotics.
You will also gain a deep understanding of the fundamentals of computational methods in mechanical engineering. Multibody dynamics, modal analysis, and computational fluid dynamics will form a core part of your study, using own-developed and commercial software such as the Finite Element Method.
The teaching in the programme draws on the lecturers’ own research, and students have the opportunity to apply high-level theory and advanced simulations to practical issues, with scope for interdisciplinary collaboration. You will acquire a solid background in mechanical engineering fields such as continuum mechanics, composites, elasticity, plasticity, failure mechanisms, structural dynamics, fluid dynamics, energy storage, energy conversions, thermodynamics, and robotics.
You will also gain a deep understanding of the fundamentals of computational methods in mechanical engineering. Multibody dynamics, modal analysis, and computational fluid dynamics will form a core part of your study, using own-developed and commercial software such as the Finite Element Method.
