11354 modules
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FEEG6004 2030-31
Aeroacoustics
Whether reducing aircraft engine noise, improving vehicle refinement or designing quieter industrial equipment, understanding how airflow generates sound is essential for many areas of modern engineering. This module explores the fascinating interaction between fluid mechanics and acoustics, providing the knowledge needed to analyse and predict aerodynamic noise.
You will investigate the physical mechanisms responsible for aerodynamic sound generation and study how sound propagates through moving fluids. By bringing together concepts from fluid mechanics and acoustics, you will develop a deeper understanding of the complex interactions that influence the noise produced by high-speed flows. Throughout the module, you will strengthen your analytical and modelling skills while learning how engineers predict and reduce unwanted noise in practical engineering systems.
By the end of the module, you will be able to analyse aeroacoustic phenomena across a wide range of engineering applications, from aerospace and automotive engineering to industrial processes and consumer products, equipping you with specialist knowledge that is increasingly important in modern engineering design. -
FEEG6004 2026-27
Aeroacoustics
Whether reducing aircraft engine noise, improving vehicle refinement or designing quieter industrial equipment, understanding how airflow generates sound is essential for many areas of modern engineering. This module explores the fascinating interaction between fluid mechanics and acoustics, providing the knowledge needed to analyse and predict aerodynamic noise.
You will investigate the physical mechanisms responsible for aerodynamic sound generation and study how sound propagates through moving fluids. By bringing together concepts from fluid mechanics and acoustics, you will develop a deeper understanding of the complex interactions that influence the noise produced by high-speed flows. Throughout the module, you will strengthen your analytical and modelling skills while learning how engineers predict and reduce unwanted noise in practical engineering systems.
By the end of the module, you will be able to analyse aeroacoustic phenomena across a wide range of engineering applications, from aerospace and automotive engineering to industrial processes and consumer products, equipping you with specialist knowledge that is increasingly important in modern engineering design. -
FEEG6004 2031-32
Aeroacoustics
Whether reducing aircraft engine noise, improving vehicle refinement or designing quieter industrial equipment, understanding how airflow generates sound is essential for many areas of modern engineering. This module explores the fascinating interaction between fluid mechanics and acoustics, providing the knowledge needed to analyse and predict aerodynamic noise.
You will investigate the physical mechanisms responsible for aerodynamic sound generation and study how sound propagates through moving fluids. By bringing together concepts from fluid mechanics and acoustics, you will develop a deeper understanding of the complex interactions that influence the noise produced by high-speed flows. Throughout the module, you will strengthen your analytical and modelling skills while learning how engineers predict and reduce unwanted noise in practical engineering systems.
By the end of the module, you will be able to analyse aeroacoustic phenomena across a wide range of engineering applications, from aerospace and automotive engineering to industrial processes and consumer products, equipping you with specialist knowledge that is increasingly important in modern engineering design. -
FEEG6004 2027-28
Aeroacoustics
Whether reducing aircraft engine noise, improving vehicle refinement or designing quieter industrial equipment, understanding how airflow generates sound is essential for many areas of modern engineering. This module explores the fascinating interaction between fluid mechanics and acoustics, providing the knowledge needed to analyse and predict aerodynamic noise.
You will investigate the physical mechanisms responsible for aerodynamic sound generation and study how sound propagates through moving fluids. By bringing together concepts from fluid mechanics and acoustics, you will develop a deeper understanding of the complex interactions that influence the noise produced by high-speed flows. Throughout the module, you will strengthen your analytical and modelling skills while learning how engineers predict and reduce unwanted noise in practical engineering systems.
By the end of the module, you will be able to analyse aeroacoustic phenomena across a wide range of engineering applications, from aerospace and automotive engineering to industrial processes and consumer products, equipping you with specialist knowledge that is increasingly important in modern engineering design. -
FEEG6004 2029-30
Aeroacoustics
Whether reducing aircraft engine noise, improving vehicle refinement or designing quieter industrial equipment, understanding how airflow generates sound is essential for many areas of modern engineering. This module explores the fascinating interaction between fluid mechanics and acoustics, providing the knowledge needed to analyse and predict aerodynamic noise.
You will investigate the physical mechanisms responsible for aerodynamic sound generation and study how sound propagates through moving fluids. By bringing together concepts from fluid mechanics and acoustics, you will develop a deeper understanding of the complex interactions that influence the noise produced by high-speed flows. Throughout the module, you will strengthen your analytical and modelling skills while learning how engineers predict and reduce unwanted noise in practical engineering systems.
By the end of the module, you will be able to analyse aeroacoustic phenomena across a wide range of engineering applications, from aerospace and automotive engineering to industrial processes and consumer products, equipping you with specialist knowledge that is increasingly important in modern engineering design. -
SESA2022 2026-27
Aerodynamics
In this module the fundamental concepts of aerodynamics are introduced. The main focus is on inviscid, incompressible flow, but, viscous effects will also be covered. Finally, static stability of an aircraft is introduced. The lectures are complemented by laboratory sessions with relevance to the taught material. -
SESA2022 2028-29
Aerodynamics
In this module the fundamental concepts of aerodynamics are introduced. The main focus is on inviscid, incompressible flow, but, viscous effects will also be covered. Finally, static stability of an aircraft is introduced. The lectures are complemented by laboratory sessions with relevance to the taught material. -
SESM3040 2029-30
Aerodynamics
From high-speed aircraft and gas turbines to space vehicles and high-performance racing cars, understanding compressible fluid flow is essential for modern aerodynamic design. This module builds on your knowledge of fluid mechanics, introducing the behaviour of flows at high subsonic and supersonic speeds while developing the computational skills used to analyse complex aerodynamic problems.
You will investigate the principles of compressible flow and explore how factors such as Mach number, aerofoil geometry and angle of attack influence aerodynamic performance. Alongside the theoretical foundations, you will gain practical experience of Computational Fluid Dynamics (CFD), using industry-standard software to model and investigate aerodynamic flows through numerical simulation. Throughout the module, you will strengthen your ability to interpret simulation results critically and relate computational predictions to the underlying physical behaviour of fluid flows.
By the end of the module, you will be able to analyse compressible aerodynamic systems using both theoretical and computational methods, developing valuable skills for careers in aerospace, automotive, energy and high-performance engineering. -
SESA2022 2027-28
Aerodynamics
In this module the fundamental concepts of aerodynamics are introduced. The main focus is on inviscid, incompressible flow, but, viscous effects will also be covered. Finally, static stability of an aircraft is introduced. The lectures are complemented by laboratory sessions with relevance to the taught material. -
SESM3040 2030-31
Aerodynamics
From high-speed aircraft and gas turbines to space vehicles and high-performance racing cars, understanding compressible fluid flow is essential for modern aerodynamic design. This module builds on your knowledge of fluid mechanics, introducing the behaviour of flows at high subsonic and supersonic speeds while developing the computational skills used to analyse complex aerodynamic problems.
You will investigate the principles of compressible flow and explore how factors such as Mach number, aerofoil geometry and angle of attack influence aerodynamic performance. Alongside the theoretical foundations, you will gain practical experience of Computational Fluid Dynamics (CFD), using industry-standard software to model and investigate aerodynamic flows through numerical simulation. Throughout the module, you will strengthen your ability to interpret simulation results critically and relate computational predictions to the underlying physical behaviour of fluid flows.
By the end of the module, you will be able to analyse compressible aerodynamic systems using both theoretical and computational methods, developing valuable skills for careers in aerospace, automotive, energy and high-performance engineering.