11312 modules
Page 236
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SESG6039 2025-26
Composites Engineering Design and Mechanics
This module provides an in depth coverage of the mechanics of fibre-reinforced polymer materials and structures. The core of the course encompass modelling of the 2D orthotropic lamina reduced from 3D continuum mechanics for anisotropic solids, classical laminate theory and the assumption of orthotropic material behaviour, structural modelling of composite beams and plates, and consideration of damage and prediction of failure. The students will gain an understanding of the deformation and failure behaviour of composite materials and structures through application to specific design applications in project work. The concepts of damage and failure will be introduced along with details of assessing material behaviour through mechanical testing and microscopic evaluations. A laboratory class will introduce the effects of manufacturing processes and material construction. Assignments based on the laboratory will enable student to analyse and predict the behaviour of specific materials configurations using a rational mechanics based approach. -
SESG6039 2028-29
Composites Engineering Design and Mechanics
This module provides an in depth coverage of the mechanics of fibre-reinforced polymer materials and structures. The core of the course encompass modelling of the 2D orthotropic lamina reduced from 3D continuum mechanics for anisotropic solids, classical laminate theory and the assumption of orthotropic material behaviour, structural modelling of composite beams and plates, and consideration of damage and prediction of failure. The students will gain an understanding of the deformation and failure behaviour of composite materials and structures through application to specific design applications in project work. The concepts of damage and failure will be introduced along with details of assessing material behaviour through mechanical testing and microscopic evaluations. A laboratory class will introduce the effects of manufacturing processes and material construction. Assignments based on the laboratory will enable student to analyse and predict the behaviour of specific materials configurations using a rational mechanics based approach. -
SESG6039 2026-27
Composites Engineering Design and Mechanics
Composite materials make modern engineering possible, enabling lighter, stronger and more efficient structures in aerospace, automotive, renewable energy and sporting applications. In this module, you will learn how fibre-reinforced composites behave, how their structure affects performance, and how engineers design with them confidently and safely.
You will explore the mechanics of fibre-reinforced polymer composites and learn how to model, analyse and predict the behaviour of composite laminates under complex loading conditions. You will study reduced lamina models, classical laminate theory, structural analysis, damage mechanisms and failure prediction, developing the analytical tools needed to understand deformation and structural performance. You will also take part in laboratory activities that introduce composite manufacturing, mechanical testing and material characterisation, helping you connect theory with real engineering behaviour.
By the end of the module, you will be able to analyse and evaluate composite structures with greater confidence, applying advanced materials knowledge to real design challenges across aerospace, automotive, maritime and renewable energy sectors. -
SESG6039 2031-32
Composites Engineering Design and Mechanics
Composite materials make modern engineering possible, enabling lighter, stronger and more efficient structures in aerospace, automotive, renewable energy and sporting applications. In this module, you will learn how fibre-reinforced composites behave, how their structure affects performance, and how engineers design with them confidently and safely.
You will explore the mechanics of fibre-reinforced polymer composites and learn how to model, analyse and predict the behaviour of composite laminates under complex loading conditions. You will study reduced lamina models, classical laminate theory, structural analysis, damage mechanisms and failure prediction, developing the analytical tools needed to understand deformation and structural performance. You will also take part in laboratory activities that introduce composite manufacturing, mechanical testing and material characterisation, helping you connect theory with real engineering behaviour.
By the end of the module, you will be able to analyse and evaluate composite structures with greater confidence, applying advanced materials knowledge to real design challenges across aerospace, automotive, maritime and renewable energy sectors. -
SESG6039 2030-31
Composites Engineering Design and Mechanics
Composite materials make modern engineering possible, enabling lighter, stronger and more efficient structures in aerospace, automotive, renewable energy and sporting applications. In this module, you will learn how fibre-reinforced composites behave, how their structure affects performance, and how engineers design with them confidently and safely.
You will explore the mechanics of fibre-reinforced polymer composites and learn how to model, analyse and predict the behaviour of composite laminates under complex loading conditions. You will study reduced lamina models, classical laminate theory, structural analysis, damage mechanisms and failure prediction, developing the analytical tools needed to understand deformation and structural performance. You will also take part in laboratory activities that introduce composite manufacturing, mechanical testing and material characterisation, helping you connect theory with real engineering behaviour.
By the end of the module, you will be able to analyse and evaluate composite structures with greater confidence, applying advanced materials knowledge to real design challenges across aerospace, automotive, maritime and renewable energy sectors. -
SESG6039 2029-30
Composites Engineering Design and Mechanics
Composite materials make modern engineering possible, enabling lighter, stronger and more efficient structures in aerospace, automotive, renewable energy and sporting applications. In this module, you will learn how fibre-reinforced composites behave, how their structure affects performance, and how engineers design with them confidently and safely.
You will explore the mechanics of fibre-reinforced polymer composites and learn how to model, analyse and predict the behaviour of composite laminates under complex loading conditions. You will study reduced lamina models, classical laminate theory, structural analysis, damage mechanisms and failure prediction, developing the analytical tools needed to understand deformation and structural performance. You will also take part in laboratory activities that introduce composite manufacturing, mechanical testing and material characterisation, helping you connect theory with real engineering behaviour.
By the end of the module, you will be able to analyse and evaluate composite structures with greater confidence, applying advanced materials knowledge to real design challenges across aerospace, automotive, maritime and renewable energy sectors. -
SESG6039 2027-28
Composites Engineering Design and Mechanics
Composite materials make modern engineering possible, enabling lighter, stronger and more efficient structures in aerospace, automotive, renewable energy and sporting applications. In this module, you will learn how fibre-reinforced composites behave, how their structure affects performance, and how engineers design with them confidently and safely.
You will explore the mechanics of fibre-reinforced polymer composites and learn how to model, analyse and predict the behaviour of composite laminates under complex loading conditions. You will study reduced lamina models, classical laminate theory, structural analysis, damage mechanisms and failure prediction, developing the analytical tools needed to understand deformation and structural performance. You will also take part in laboratory activities that introduce composite manufacturing, mechanical testing and material characterisation, helping you connect theory with real engineering behaviour.
By the end of the module, you will be able to analyse and evaluate composite structures with greater confidence, applying advanced materials knowledge to real design challenges across aerospace, automotive, maritime and renewable energy sectors. -
MUSI1017 2026-27
Composition Fundamentals
Composition Fundamentals will introduce you to a range of compositional techniques and principles. We will consider different ways of creating musical ideas and different approaches to structuring, varying and developing musical ideas. In particular, we will focus on harmonic practices and short musical forms across a variety of musical styles and practices including historical and contemporary art music, jazz, pop, and film. -
MUSI1017 2025-26
Composition Fundamentals
Composition Fundamentals will introduce you to a range of compositional techniques and principles. We will consider different ways of creating musical ideas and different approaches to structuring, varying and developing musical ideas. In particular, we will focus on harmonic practices and short musical forms across a variety of musical styles and practices including historical and contemporary art music, jazz, pop, and film. -
MUSI1017 2027-28
Composition Fundamentals
Composition Fundamentals will introduce you to a range of compositional techniques and principles. We will consider different ways of creating musical ideas and different approaches to structuring, varying and developing musical ideas. In particular, we will focus on harmonic practices and short musical forms across a variety of musical styles and practices including historical and contemporary art music, jazz, pop, and film.