Cranfield University

What you'll study

The programme develops a rigorous understanding of the physical and mathematical principles that govern the dynamic response of aerospace vehicles and components. Teaching combines analytical modelling, numerical simulation and experimental methods to give you practical skills in predicting and influencing dynamic behaviour.

• Fundamental modules: flight mechanics and stability, linear and nonlinear dynamics, system identification, vibration and structural dynamics.
• Control and guidance: classical and modern control theory, guidance and autopilot design, robust and optimal control for aerospace applications.
• Aeroelasticity and unsteady aerodynamics: coupled aero-structural dynamics, flutter prediction, gust response and methods for control of aeroelastic instabilities.
• Computational and experimental methods: time-domain and frequency-domain simulation, use of CFD and reduced-order models, wind-tunnel testing, sensor and instrumentation techniques.
• Specialist options and applications: rotorcraft and fixed-wing dynamics, spacecraft attitude dynamics, flight simulation, manoeuvre and handling qualities assessment.
• Group and individual projects: team-based design and experimental exercises plus a substantial individual MSc project that typically addresses an industrial or research problem and may be carried out with an industry partner or a Cranfield research centre.

Core delivery methods include lectures, laboratory work in Cranfield’s flight simulation and structural dynamics facilities, computer-based simulation classes and case studies drawn from current aerospace practice.

Entry requirements

Applicants are normally expected to hold a degree in aerospace engineering, mechanical engineering, aeronautical engineering, physics, mathematics or a closely related subject. A strong honours degree (equivalent to a UK second-class upper/2:1 or higher) is typically required. Candidates with a lower classification but significant relevant industrial experience may be considered.

Applicants whose first language is not English will need to demonstrate proficiency through an approved English language test or an equivalent qualification accepted by the university. Shortlisted applicants may be asked for academic references and, where appropriate, to discuss their background and motivation with a programme tutor.

Career prospects

Graduates go on to technical and engineering roles in civilian and defence aerospace sectors, as well as to research and academic careers. Typical roles include:

• flight dynamics engineer or handling qualities specialist
• control systems and guidance engineer
• aeroelasticity and structural dynamics engineer
• simulation and modelling engineer for vehicle dynamics
• test and instrumentation engineer in flight-test or wind-tunnel programmes
• further study at doctoral level in dynamics, control or multidisciplinary aerospace research

Employers commonly include major aircraft and engine manufacturers, systems integrators, aerospace consultancies, research laboratories and defence organisations that value the programme’s emphasis on validated modelling and experimental verification.

Why study at Cranfield University

Cranfield has a long-standing, industry-focused reputation in aerospace engineering and a campus dedicated to postgraduate education and applied research. The university provides access to specialised facilities that directly support the study of dynamics: flight simulation suites, structural dynamics and vibration laboratories, wind tunnels and high-fidelity computational resources.

The programme benefits from close links with industry and government research bodies, enabling project work driven by real engineering problems and opportunities for collaboration with organisations across the aerospace supply chain. Teaching staff bring practical experience in flight testing, aeroelastic research and control systems development, giving students direct exposure to the skills and methods used in professional practice.