In this specialisation you will learn the basic theoretical and hands-on skills for simulating and evaluating aerodynamic flow cases of different complexity, including heat management, where learning methodology is a central part.

A key area within aeronautical engineering is analysing and understanding how fluid motion and heat transfer interact with the aircraft (both for external and internal flows) and try to explore ways to systematically improve its performance. A vital part of this development process is modelling and simulation using numerical methods like Computational Fluid Dynamics (CFD).

A group of different types of machinery models.

Simulation-based

Technological development has shifted product development toward a highly digital and integrated environment, where expensive experiments increasingly are replaced by simulation-based frameworks. As a result, greater emphasis is placed on the engineer's ability to construct accurate models and interpret simulation results effectively for specific applications. This, in turn, requires a strong grasp of the relevant physical principles and an awareness of the capabilities and limitations/assumptions of simulation tools.

Models and modelling

Within this specialisation you will learn how to assess the reliability your numerical models (i.e.model verification, validation and uncertainty quantification), by adopting these concepts on simpler as well as more advance engineering flow problems. Throughout our CFD course package, you will e.g. learn how to setup of perform low-fidelity (but cost-efficient) steady-state turbulence modelling all the way up to high-fidelity, turbulence resolving methods using local supercomputing resources. Here, you will become familiar with several industrial-relevant tools such as Ansys CFX/Fluent, OpenFOAM, STAR-CCM+, and COMSOL Multiphysics.

Four different views of a car model in different colors.

Career opportunities

Upon completing the specialisation, you will have the expertise required to tackle challenging and meaningful problems in both the private and public sectors globally. It also serves as a solid starting point for students interested in research careers. Many graduates start out as computational engineers in industry and later advance to positions such as specialists or managers. Career prospects are strong, with demand for skilled CFD-engineers within the field, and in general, expected to rise in the coming years.

Master's Programme in Aeronautical Engineering