Advanced Computational Methods for Aeronautics, Flow Management and Fluid-Structure Interaction
This taught postgraduate programme provides advanced training in computational methods, the underlying theory and physical principles, and appropriate experimental techniques for aeronautics and other sectors.
This degree is suitable for applicants who wish to enhance their Engineering training or to convert to an advanced engineering discipline from backgrounds in Mathematics, Physics or Computer Science.
Please note: We only award MSc qualifications. Postgraduate Certificates and Diplomas are not available in the Department of Aeronautics.
Why should I apply for this MSc?
The Department works closely with employers and industry - including Industrial Advisory Panels - to design a programme which ensures that students graduate with the technical knowledge, expertise and transferrable skills in demand by employers.
As a result, graduates of this MSc develop specialist skills and are highly sought after by employers in a broad spectrum of aerospace and non-aerospace industries.
For general enquiries about the programme please contact:
Senior Postgraduate (MSc) Administrator)
Telephone: +44 (0)20 7594 5066
Fax: +44 (0)20 7594 1974
Such non-aerospace industries include manufacture, technical consultancy, accountancy, and utilities and transport. For further information about what graduate destinations please see the following:
The facilities in the Department are of a high standard, with the latest industry-standard software available for students to use.
NB: Please note that this programme is largely computational in nature. There are some opportunities for practical work, such as the Design of Experiments module or as part of your Individual Research Project but this programme is primarily concerned with the major aspects of computational and theoretical fluid dynamics
Any successful applicants are strongly encouraged to take advantage of the Summer reading list for the programme.
The programme is accredited by the Royal Aeronautical Society.
Entry requirements (2019 entry)
PLEASE NOTE: Applications for 2019-20 are now closed.
Applicants should have been awarded, or expect to be awarded, a first class (1st) or upper second class (2:1) or equivalent degree in Engineering, Computer Science, Physics or Mathematics.
Questions about the application process? Please see our Frequently Asked Questions page.
Fees and funding
Links with industry and employers
Imperial College works closely with employers and industry through Industrial Advisory Panels to design a Master’s programme which provide graduates with technical knowledge, expertise and transferable skills, and to encourage students to take industrial individual projects.
The MSc has been designed to provide a breadth and depth of knowledge of computational fluid dynamics (CFD) that will be of relevance to a wide range of companies who develop or use CFD.
Aims and objectives
- To provide an advanced taught programme which covers the major aspects of computational and theoretical fluid dynamics in application to aeronautical engineering, with a high-level of applicability to non-aeronautical disciplines as well.
- To deliver a programme which has a strong emphasis on the development of knowledge and skills in relation to aerodynamics, computational fluid dynamics (CFD), structural analysis, control and flight mechanics. An integral component of the programme is the combination of aerodynamics and structural analysis.
- To attract academically talented and motivated home, EU and overseas students.
- To create graduates with a fundamental understanding of the programme material and the ability to apply their theoretical knowl edge to complex practical problems.
- To create students with a high-level of graduate employability.
- To ensure students have the ability to solve complex problems numerically, as opposed to simply using ‘black box’ commercial codes. As a result graduates can write and develop, rather than simply use, commercial packages.
- To support theoretical and computing knowledge and skills through the use of simple experiments.
- To ensure that the programme provides not only enhanced engineering training, but also encourages and provides opportunities for conversion to an advanced engineering discipline for graduates from disciplines such as Mathematics and Physics.
Content and structure
The programme is assessed by written examinations, computational lab work, reports, computing assignments and short online quizzes. The major individual research project is of about four months’ duration and forms a sig nificant part of the asses sment for the programme and must be completed by all students. Through links with industry, it is possible for projects to be supervised in part by staff from industry or to be carried out in industry.
Students begin their study with 5 non-examinable compulsory courses (introductory in nature) before completing a minimum of 12 units from a series of elective courses and undertaking a Major Individual Research Project.
Students are advised to take at least 19 units in order to be eligible for a Distinction on Completion of their MSc.
For a full list of modules on this programme, please visit our module descriptors page.