11336 modules
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FEEG6010 2025-26
Advanced Finite Element Analysis
This module is aimed at providing exposure to and understanding of advanced, specialist areas of Finite Element Analysis and their underlying Solid/Structural Mechanics concepts. It then
concentrates on using this knowledge for solving discipline-specific engineering problems employing commercial Finite Element Analysis software. -
FEEG6010 2030-31
Advanced Finite Element Analysis
Modern engineering demands the ability to predict the behaviour of complex materials and structures efficiently and accurately. Learn advanced numerical techniques used to analyse the specialist engineering problems encountered in research and industry.
In this module, you will explore advanced solid and structural mechanics concepts, techniques for capturing nonlinear behaviour and advanced constitutive models for different materials. You will then undertake increasingly sophisticated finite element analyses using commercial engineering software, investigating complex structural behaviour, developing more advanced simulation strategies and strengthen your ability to interpret and validate numerical results. Particular emphasis is placed on selecting appropriate modelling approaches, understanding the assumptions behind advanced analyses and developing the professional judgement needed to produce reliable engineering predictions.
By the end of the module, you will be able to undertake advanced finite element analyses of complex engineering systems with confidence, preparing you for professional roles involving simulation-led design, structural analysis and engineering research in a wide range of fields. -
FEEG6010 2027-28
Advanced Finite Element Analysis
Modern engineering demands the ability to predict the behaviour of complex materials and structures efficiently and accurately. Learn advanced numerical techniques used to analyse the specialist engineering problems encountered in research and industry.
In this module, you will explore advanced solid and structural mechanics concepts, techniques for capturing nonlinear behaviour and advanced constitutive models for different materials. You will then undertake increasingly sophisticated finite element analyses using commercial engineering software, investigating complex structural behaviour, developing more advanced simulation strategies and strengthen your ability to interpret and validate numerical results. Particular emphasis is placed on selecting appropriate modelling approaches, understanding the assumptions behind advanced analyses and developing the professional judgement needed to produce reliable engineering predictions.
By the end of the module, you will be able to undertake advanced finite element analyses of complex engineering systems with confidence, preparing you for professional roles involving simulation-led design, structural analysis and engineering research in a wide range of fields. -
FEEG6010 2031-32
Advanced Finite Element Analysis
Modern engineering demands the ability to predict the behaviour of complex materials and structures efficiently and accurately. Learn advanced numerical techniques used to analyse the specialist engineering problems encountered in research and industry.
In this module, you will explore advanced solid and structural mechanics concepts, techniques for capturing nonlinear behaviour and advanced constitutive models for different materials. You will then undertake increasingly sophisticated finite element analyses using commercial engineering software, investigating complex structural behaviour, developing more advanced simulation strategies and strengthen your ability to interpret and validate numerical results. Particular emphasis is placed on selecting appropriate modelling approaches, understanding the assumptions behind advanced analyses and developing the professional judgement needed to produce reliable engineering predictions.
By the end of the module, you will be able to undertake advanced finite element analyses of complex engineering systems with confidence, preparing you for professional roles involving simulation-led design, structural analysis and engineering research in a wide range of fields. -
MATH3072 2027-28
Advanced Fluid Dynamics
Modelling fluid flow requires us first to extend vector calculus to include volumes that change with time. This will allow us to rephrase Newton’s second law of motion, that the force is equal to the time derivative of the linear momentum, in a way that can be applied to materials that flow and do not have a constant shape, i.e. to fluids. The final resulting equations are called the Navier-Stokes equations and are at the foundation of all fluid studies, from the microscopic motion of a bacterium to the hypersonic flow around a missile. In this module we will just touch on the simplest of the cases model by them: exact solutions of steady flows, water in a sloping channel, or of time dependent flows, driven by pulsating pressure (like blood flow). We will conclude by studying one of the most intriguing aspects of fluid dynamics, namely surface tension, the phenomenon responsible for the round shape of rain drops or soap bubbles. We will study its physical origin and how to model it in the context of the Navier-Stokes equations; we will finish by considering some fluid configurations where surface tension plays a dominant role (e.g. the capillary effect and soap bubbles). -
MATH3072 2029-30
Advanced Fluid Dynamics
Modelling fluid flow requires us first to extend vector calculus to include volumes that change with time. This will allow us to rephrase Newton’s second law of motion, that the force is equal to the time derivative of the linear momentum, in a way that can be applied to materials that flow and do not have a constant shape, i.e. to fluids. The final resulting equations are called the Navier-Stokes equations and are at the foundation of all fluid studies, from the microscopic motion of a bacterium to the hypersonic flow around a missile. In this module we will just touch on the simplest of the cases model by them: exact solutions of steady flows, water in a sloping channel, or of time dependent flows, driven by pulsating pressure (like blood flow). We will conclude by studying one of the most intriguing aspects of fluid dynamics, namely surface tension, the phenomenon responsible for the round shape of rain drops or soap bubbles. We will study its physical origin and how to model it in the context of the Navier-Stokes equations; we will finish by considering some fluid configurations where surface tension plays a dominant role (e.g. the capillary effect and soap bubbles). -
MATH3072 2028-29
Advanced Fluid Dynamics
Modelling fluid flow requires us first to extend vector calculus to include volumes that change with time. This will allow us to rephrase Newton’s second law of motion, that the force is equal to the time derivative of the linear momentum, in a way that can be applied to materials that flow and do not have a constant shape, i.e. to fluids. The final resulting equations are called the Navier-Stokes equations and are at the foundation of all fluid studies, from the microscopic motion of a bacterium to the hypersonic flow around a missile. In this module we will just touch on the simplest of the cases model by them: exact solutions of steady flows, water in a sloping channel, or of time dependent flows, driven by pulsating pressure (like blood flow). We will conclude by studying one of the most intriguing aspects of fluid dynamics, namely surface tension, the phenomenon responsible for the round shape of rain drops or soap bubbles. We will study its physical origin and how to model it in the context of the Navier-Stokes equations; we will finish by considering some fluid configurations where surface tension plays a dominant role (e.g. the capillary effect and soap bubbles). -
CHEM6173 2030-31
Advanced Functional Materials and Molecules
The course will provide a research-led overview of functional materials and co-ordination compounds, including synthetic routes and approaches to new compound discovery. Applications of compounds based on optoelectronic, magnetic and catalytic properties will be covered. -
CHEM6173 2029-30
Advanced Functional Materials and Molecules
The course will provide a research-led overview of functional materials and co-ordination compounds, including synthetic routes and approaches to new compound discovery. Applications of compounds based on optoelectronic, magnetic and catalytic properties will be covered. -
COMP6259 2030-31
Advanced Games Design and Development
This module extends the topics covered in the Game Design and Development module by looking at games design that uses more complex technology, or is situated in novel contexts. Students will get further practical experience of developing games within an industry-leading contemporary games engine, and are encouraged to consider games in a broad social and technical context.