Aerospace Sciences

Gain insights into nonlinear control and optimization-based methods for robust and data-driven control.   

Uncover advanced mathematical exposition of classical fluid dynamics with elements of the physics and theory of fluid-structure interaction.

Develop a deeper understanding of the relationship between design, manufacturing processing and materials properties and become familiar with the different types of manufacturing processes.

Learn the theory and practice of aeroelasticity in fixed-wing aircraft and become familiar with the most common models used for aeroelastic analysis.

Explore the unique flow physics experienced by vehicles travelling at hypersonic speeds in an atmosphere.

Understand the operational aspects of commercial aviation and assessing how they affect design decisions and, eventually, its environmental impacts and costs. 

Gain a better understanding of the physics and governing equations of fluid dynamics.

Gain an understanding of the basic principles for the analysis and design of aerofoils and wings and learn about quantitative design.

Gain a solid foundation of the theory and implementation of primarily 1D numerical methods for computational fluid dynamics.

Explore the key technological advances and principles needed to achieve greener aviation. Become familiar with the main design challenges associated with achieving this goal.

Gain an in-depth understanding of the theory and practice of finite element methods, and how to apply them to solve real-life structural problems.

Explore popular machine learning and artificial intelligence (AI) algorithms used in the Aerospace research and industry.

Gain theoretical and practical understanding of AI models such as deep neural networks and unsupervised learning algorithms. 

Explore the mechanics of composite materials and foams and learn best practice for analysing lightweight structures.

Apply orbital mechanics and rigid body mechanics to a wide range of problems in non-atmospheric flight.

Learn about the challenge of sustainable aviation, using the analytical and computational tools employed by scientists, engineers, and regulators worldwide to monitor and minimize net damages. 

Develop your foundational knowledge and physical understanding to critically assess turbulent modules relevant to research and industry.

Conduct aerodynamic and thermodynamic analysis of propulsion systems for high-speed flight.

Uncover the advanced analytical techniques used to characterise the properties of polymers, fibres and fibre-matrix interfaces.

Learn the key numerical methods used for solving the governing equations of fluid dynamics for aerodynamic design.

Cultivate your knowledge of the latest composite innovations including nanophase reinforced composites and multifunctional composites.

Explore how design optimisation methods can be used to improve engineering performance. 

Learn how modern mathematical techniques are used to predict conditions when laminar-turbulent transition takes place.

Build proficiency in the use of the C++ programming language and the skills to be able to write efficient parallel programs.

Explore the theory and design of rotorcraft and vertical take-off and landing (VTOL) vehicles, including their aerodynamics, dynamics, and performance. 

Develop your understanding of methodologies for spacecraft structure design, from launchers to satellite platforms to habitable inflatable modules.

Learn industry standard methodology for spacecraft systems analysis and design.

Gain an in-depth knowledge of the fundamentals of safe design and learn to apply damage detection techniques to different types of structures.

Learn about engineering systems and how to apply their tools to the design of UAVs.