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This module will introduce you to what it means to be a professional engineer by supporting you through the process of tackling a typical, practical, engineering problem. Through a series of structured, timely activities you will integrate the fundamental knowledge, taught in a separate, concurrent module, with the skills and capabilities expected of modern engineers. In conjunction with a similar integrative project in the Spring semester, you will develop a holistic view of mechanical engineering that will provide a solid foundation for the rest of your degree, and your subsequent career, giving you the ability and confidence to address open-ended, engineering problems in a proficient and effective manner.

This module will provide you with further insight into what it means to be a professional engineer by supporting you through the process of tackling a typical, practical, engineering problem. Through a series of structured, timely activities you will integrate the fundamental knowledge, taught in a separate, concurrent module, with the skills and capabilities expected of modern engineers, building upon feed forward from a similar integrative project in the Autumn semester. In conjunction with the Autumn project, you will develop a holistic view of mechanical engineering that will provide a solid foundation for the rest of your degree, and your subsequent career, giving you the ability and confidence to address open-ended, engineering problems in a proficient and effective manner.

This module also includes a focused, week-long, cross-faculty interdisciplinary design activity aimed at equipping students with essential teamwork, design, problem-solving, and communication skills. Particular attention is paid to employability, sustainability, and inclusivity. Through real-life engineering projects, students are introduced to tackling complex challenges.

In conjunction with a similar module that runs in the Spring semester, this module will provide you with the fundamental knowledge and understanding that will underpin the rest of your mechanical engineering degree. This module focuses on statics, solid mechanics and manufacturing processes; you will learn about these topics from first principles and observe them as phenomena in the laboratory. You will then have the opportunity to apply them to a practical engineering problem in a separate, concurrent integrative project module.

In conjunction with a similar module that runs in the Autumn semester, this module will provide you with the fundamental knowledge and understanding that will underpin the rest of your mechanical engineering degree. This module focuses on dynamics, fluids, gases and thermofluids; you will learn about these topics from first principles and observe them as phenomena in the laboratory. You will then have the opportunity to apply them to a practical engineering problem in a separate, concurrent integrative project module.

This module aims to reinforce students' previous knowledge and to develop new basic mathematical techniques needed to support the engineering subjects taken at Levels 1 and 2. It also provides a foundation for the Level 2 mathematics courses in the appropriate engineering department. The module is delivered via online lectures, reinforced with weekly interactive problem classes.

Preparation for Practice is a core module to support your transition into early-career graduate life. You will:
i. explore your professional responsibilities and values, and evidence them in your portfolio, alongside your strengths;
ii. learn to identify, prioritise, and respond to your areas for development in a professional context; and
iii. evidence commitment to your professional development by undertaking an independent development activity, such as skills training, experience, or career development work.
The aim is for you to leave with a strong profile as an engineering graduate, and a clear sense of how to work towards your next professional goal.

This module aims to provide you with an overview of the state-of-the-art approach for modelling the musculoskeletal system from a biomechanical point of view. The course starts with a brief review of vectors and tensors, followed by anatomy and physiology of the musculoskeletal system. You will then be introduced to a range of modelling and experimental methods applied to a variety of bones and muscles. More specialised topics will be introduced towards the end of the course giving examples where biomechanical models can be used in various clinical applications.

The module aims to provide students with an understanding of how experimental techniques can be used to solve industrial engineering problems. The students will be introduced to the theory behind, and practice of, a range of measurement techniques, common to static and dynamic problems, through a combination of lectures and labs and tutorial sessions. Working in small groups the students will be tasked to design and execute a suitable experiment to address an industrially relevant problem; analysing data and making informed decisions within the context of the problem.

The module aims to provide students with a thorough understanding of the principles of finite element modelling and its application to solve industrial engineering problems. A set of industry-relevant problems will be provided to students along with experimental results for model validation. Students will be allocated one of their preferred projects and will have to devise a modelling strategy to solve their particular problem. Knowledge will be drawn from lectures introducing the theory behind advanced finite element modelling (e.g. for non-linear problems including contact, material behaviour and large deformation)

Many practicing engineers use tribology regularly without a true understanding of its importance and its role in engineering design. This module introduces fundamental science that explains surface phenomena of wear, friction and lubrication. Students learn through industrial case studies, techniques to assess a range of engineering and machine contacts, from bearings to hip joints and banana skins! Theoretical and practical techniques will cover contact mechanics, friction, wear and lubricant films in hydrodynamic and elasto-hydrodynamic lubrication regimes. Students will learn to evaluate failure mechanisms and compare key design features that can be used to diagnose failure as well as improve design.

The module introduces advanced subjects in fluid mechanics and focuses on the theory and applications of the fundamental physical laws governing fluid flows. The Navier-Stokes and the continuity equations are revisited and the energy and the general Scalar Transport Equations for fluid flows will be derived. Creeping flows, laminar/turbulent boundary layer flows, shock and expansion waves, drag rise and supersonic aerofoils, etc. will be discussed. A key skill developed is problem solving in the area of advanced fluid mechanics through how equations, models and boundary conditions may be adapted and simplified to describe a wide variety of engineering fluid flows.

In this module we will explore how linear/nonlinear structures vibrate and how we can model them in order to understand and optimise their complex behaviour both analytically and numerically. We will uncover the behaviour of theoretical nonlinear models and we will explore and evaluate the fascinating world of advanced dynamics, random vibration, nonlinear systems and chaos through lectures and dedicated reading. We link advanced engineering with concepts from physics and maths that are of core importance in the new era of engineering, considering structures from light aerospace structures to offshore wind turbines and space shuttles. Furthermore, we will discover the world of Hamiltonian mechanics by capturing its fundamental physics. The learning will be supported by dedicated tutorial sessions.

This module will provide you with a comprehensive introduction to Additive Manufacturing (3D Printing), providing you with an insight into the technologies themselves, when and how they might be applied, and the broader economic, social and industrial context within which these techniques sit. Our aim is to provide you with an understanding of the underlying principles and considerations relevant to this area, so that you are able to apply this knowledge confidently and effectively during your future career.

In this course students are introduced to advanced conventional manufacturing processes including sheet/bulk metal forming and Machining operations and the relevant mechanics of the processes and materials deformation. Analytical modelling techniques are also introduced and their applications are explained in order to determine the deformation of materials under the applied loads. Fundamentals of deformation and relevant force calculations together with mechanics of machining in metallic materials will be covered as the secondary manufacturing operations. The module provides a greater range and depth of knowledge related to the deformation of materials and process analysis in primary and secondary manufacturing operations using theoretical and experimental learning methods. The students will be equipped with tools to analyse and design manufacturing operations utilising various manufacturing methods within a wider engineering context.

Students work in interdisciplinary teams to create solutions to a real problem provided by a real customer. Typically the customer will be a member or members of the community e.g. children with disabilities, terminally ill people, etc. Student teams learn how to solicit needs from user interviews and go on to create (and where possible prototype) solutions that meet functional, commercial and social requirements. Teams pitch their concept and business start up proposals to an invited audience and assessors.

This module enhances students' foundational knowledge by introducing a more specialist Level 7 understanding of major aero propulsion devices. For example, the rocket design will be mastered from the design lessons and innovations of the rockets of historical importance. The more in depth analysis of the alternative air breathing engines such as ramjet, scramjet, and synergistic air-breathing rocket engine will be investigated. Then the advanced gas turbine off-design performance will be analysed. The advanced gas turbine combustion will also be investigated. Finally, the recent explosive development of electric/hybrid propulsion and aircraft will be examined.

Transition from undergraduate engineering to real-world application is the focus of Railway Engineering and Sustainable Transport. This module introduces the interdisciplinary field of railway transport through application of mechanical engineering in the context of creating a sustainable transport system. Linking engineering fundamentals to application in the rail industry it focuses on skills and expertise needed to make rail transport and its operation resilient to technological, demographic, economic, social and environmental change.

Evaluation and problem solving for rail transport issues provides context for developing widely applicable transferable skills. These include justification of engineering decisions through evaluation of data, and assessment of engineering's economic and social impacts. Themes are explored using a local field trip.

This module aims to provide you with an overview of state-of-the-art modelling approaches used to study the cardiovascular system from a biomechanical perspective. The module starts with a brief review of relevant principles and theories in fluid mechanics, followed by anatomy and physiology of the cardiovascular system, including blood rheology and vessel tissue mechanics. The second part gives you an overview of the modelling, analytical and experimental methods applied to several parts of the cardiovascular system. The final part will focus on more specialised topics, like the application of modelling techniques to investigate correlations with disease.

Biomechanics of human movement is the science concerned with the internal and external forces acting on the human body and the effects produced by these forces. This module will teach the students both the kinematics (the branch of biomechanics of entailing the study of movement from a geometrical point of view) and kinetics (the branch of biomechanics investigating what causes a body to move the way it does) of human movement and leverage on practical laboratory sessions to expose them to the most advanced technologies to measure and model the associated mechanical phenomena of interest.

This module aims to enable students to create designs which meet the needs of the present generation without compromising the ability of future generations to meet their own needs (environmental, social and economic). The module aims to engage students in a range of sustainable design tools through lectures, seminars and research in small groups. Group research is shared with other students through student led presentations. The development of sustainable design knowledge in this module culminates in a final multidisciplinary, group project, devising a plan to regenerate a local area sustainably. This will involve fieldwork to survey the site.

This module introduces you to the importance of innovation in manufacturing and service organisations whose primary business activity is engineering and/or technology. Innovation management is introduced as the thoughtful combination of new product/process development and change management. Through case studies, theoretical frameworks, and tools you will come to understand innovation at multiple scales: international, national, regional, organisational and team, with particular emphasis on how organisations manage and exploit the commercial risks and opportunities inherent in innovation, and how project teams and engineers can respond to innovation challenges effectively. The module is aimed at engineering students of any discipline.

This module will introduce students to the rapidly changing landscape of conventional power generation. The course will provide a greater depth and range of specialist knowledge for advanced plant design for the future including carbon capture. This will provide a foundation for leadership and a wider appreciation of future conventional power station design. Students will become knowledgeable in the sources of pollutants and mitigation techniques employed by the industry and a wider appreciation of social and environmental considerations. The course will permit the students to engage in fundamental design of key components in power generation (burners, boilers) as well as in the simulation of carbon capture plant.

The module is designed to give students an introduction to human factors and user-centred design and how they are used within the design process (alongside engineering analysis, manufacturing considerations, marketing etc.). The module concentrates on developing an understanding of how populations are characterised and how that influences design decisions. It gives an overview of the theory and practices surrounding design with humans before asking students to apply those theories in a series of case studies. The module gives students an opportunity to work within a team and learn from peers as they tackle the case studies.

This module covers the area of engineering related to aeroelasticity and safety by means of analytical techniques and study cases. The students will develop a fundamental knowledge of aeroelasticity and its implications for aircraft design and operation and evaluate aircraft loading; be able to analyse different manoeuvres using heave/pitch aircraft models; and be able to calculate internal loads in different manoeuvres. The course will provide students with an understanding of aeroelastic phenomena including flutter and divergence. This course provides the methodology and techniques for prediction/detection of a number of aeroelastic effects.

Computer-aided engineering is now fundamental in almost any engineering analysis, and system and process design. This module will focus on the advanced computational modelling and simulation of flow and heat transfer phenomena and processes encountered in energy, aerospace and other engineering systems. You will develop knowledge of numerical heat transfer and compressible flow solution fundamentals, and the ability to use computational fluid dynamics (CFD) to solve liquid/solid conjugate heat transfer, thermo-fluids problems with/without phase change, and unsteady, variable-density and compressible flow problems. You will gain an in-depth knowledge in, and learn to apply CFD to, an industry-relevant problem in a specific technological application in the aerospace, nuclear and energy sectors.

Industrial automation has become an important feature today, especially in this age of rapid production and high
precision. Knowledge and skill in this area has therefore become increasingly necessary. This module aims to give you the opportunity to interact directly with devices such as sensors and actuators through Human Machine Interfaces (HMI) and PC; gather, process and monitor data locally or at remote locations; configure the hardware and program the latest version of Programmable Logic Controllers (PLC) used in industries. You will have the opportunity to learn PID controllers and their applications in industry.

This module gives an overview of current and future technology for the oil and gas industry. It includes the origins of petroleum and its refining, as well as introduction to biofuels.
This module covers:
- the origins, types and quality of refinery feedstock and products
- detailed analysis of various sections of petroleum processing in refineries
- introduction to advanced topics in petrochemical engineering such as catalyst development, desulphurisation, pollution control and hydrogen production
- details on key biofuels and their strategic importance and the technological challenges of viable large scale production

The module provides an introduction to the theory and practical aspects of nuclear reactors for power (electricity) production. This includes those aspects of physics which represent the source of nuclear energy and the factors governing its release, as well as the key issues involved in the critical operation of nuclear cores. The relation of the science underlying successful operation with the needs for fuel preparation and engineering designs is emphasised. The module aims to provide students with a clear grasp of the aspects relevant to the design and operation of nuclear reactors along with an understanding of the principles of reactor design. The module will cover the techniques used to prepare nuclear fuels and process spent fuel. Students will develop an understanding of the present and future roles of nuclear reactors in energy provision.

Materials production technologies are often energy intensive resulting in high CO2 emissions as well as other environmental impacts. Many of these materials are also essential in enabling the green transition. This module will examine methods for carbon reduction across a range of the materials industries including steelmaking, bulk glass production and cement manufacture. The development of new production technologies and/or alternative compositions will be examined. This will be supported by a consideration of life cycle assessment and the potential for industrial symbiosis approaches for minimising the overall environmental impact of materials manufacturing processes. 

The overall aims of the module are to develop your knowledge and understanding of a) the environmental impacts of a range of current and novel materials production processes and b) potential approaches, and their technological limitations, to the decarbonisation of a range of materials production processes, c) the use of life cycle analysis in assessing the environmental impacts of materials processing routes.

This module is designed to provide you with an understanding of both the design and manufacture of polymer composites and is presented in two sections. First, the design of composites is taught via tutorials on classical laminate theory. An extended series of worked examples provides you with the basic tools you need to design effective composite parts. Second, the manufacture of composites is taught via lectures. You will learn multiple routes for making composite parts alongside practical issues such as defects, machining/joints, failure, testing and non destructive testing, repair and SMART composites.

Medical devices bring great benefit to patients, but it is essential to ensure that such devices are fit for purpose. This module explores the principles of regulation, and demonstrates how two of the world's largest regulatory frameworks (European and American) reduce risks and ultimately benefit the patient, the user and the manufacturer. You will simulate companies operating in this area, and learn the roles of Quality Standards, CE Marking, Notified Bodies, Competent Authorities and other key agencies. You will develop appreciation for the changing regulatory landscape, with special attention to the emerging use of computational modelling in this context.

This module aims to provide you with an overview of the state-of-the-art approach for modelling the musculoskeletal system from a biomechanical point of view. The course starts with a brief review of vectors and tensors, followed by anatomy and physiology of the musculoskeletal system. You will then be introduced to a range of modelling and experimental methods applied to a variety of bones and muscles. More specialised topics will be introduced towards the end of the course giving examples where biomechanical models can be used in various clinical applications.

This module aims to provide you with an overview of state-of-the-art modelling approaches used to study the cardiovascular system from a biomechanical perspective. The module starts with a brief review of relevant principles and theories in fluid mechanics, followed by anatomy and physiology of the cardiovascular system, including blood rheology and vessel tissue mechanics. The second part gives you an overview of the modelling, analytical and experimental methods applied to several parts of the cardiovascular system. The final part will focus on more specialised topics, like the application of modelling techniques to investigate correlations with disease.

Biomechanics of human movement is the science concerned with the internal and external forces acting on the human body and the effects produced by these forces. This module will teach the students both the kinematics (the branch of biomechanics of entailing the study of movement from a geometrical point of view) and kinetics (the branch of biomechanics investigating what causes a body to move the way it does) of human movement and leverage on practical laboratory sessions to expose them to the most advanced technologies to measure and model the associated mechanical phenomena of interest.