This module supports and broadens your learning through practical experiments and application of mathematical knowledge. As an engineer or mathematician you’ll need to develop a variety of experimental and transferable skills as part of your education and ongoing professional development.  

You’ll study topics such as: 

• Mechanical laboratory experiments 

• Electrical and electronic practical work and skills 

• Mathematical case studies with real-world problems 

• Town planning and traffic management  

• Monitoring natural phenomena 

• How to design experiments 

• How to deal with experimental errors 

• Scientific writing 

This module introduces you to core topics in science, physics and mathematics. You’ll develop an awareness of mathematics contexts and your ability to apply mathematics appropriately. 

You’ll study topics such as:  

• Numbers and order of operations 

• Algebra, mathematical functions and solving simple equations 

• Geometry including trigonometry of right-angled triangles 

• Vector addition and resolution 

• Technology for calculations and plot graphs  

• Ohm's Law and capacitance 

• LR, CR and LCR circuits  

• AC theory  

• SI units and motion in a straight line (rectilinear) 

• Forces, friction and equilibrium 

This module consolidates your previous learning, developing further essential skills in science, physics and mathematics. You’ll study mathematical, electrical and mechanical areas of the subject with a structured approach to problem solving.   

You’ll study topics such as:   

• Functions and product, quotient, chain rules, gradients, min/max problems 

• Integration by function, parts, substitution and integrals 

• Velocity and acceleration problems 

• Trigonometric graphs, equations and sine/cosine rules 

• Logarithmic and exponential functions and graphs 

• Inverse and simultaneous equations using matrices 

• Electronics for measurement, diodes, power supplies and sensors 

• Op amps, analogue to digital converters and microcontrollers  

• Circular motion, work, energy, power and simple harmonic motion 

• Specific and latent heat, changes of state, expansion/contraction 

This module studies the physical and chemical principles underpinning materials science, introducing the structure, processing and characteristics of engineering materials. You’ll explore different manufacturing techniques, associated equipment and tooling, while developing your presentation and information skills.  

You’ll study topics such as: 

• Atomic and electronic structure of atoms 

• Chemical reactivity and electronic structure 

• Ionic bonding, crystals, compounds and covalent bonding  

• Characteristics and examples of organic compounds 

• Metallic bonding and conservation of mass in chemical reactions 

• Metals, organic polymers, ceramics and composites  

• Health, safety and solidification processes  

• Hot and cold metal working processes 

• Ceramic and polymer processing 

• Machining processes 

This module introduces the structured design process used to create engineering products.  This will be supplemented by learning how to create reliable, professional 3D CAD models. 

You will study topics such as: 

• The principles of Mechanical Engineering Design methods (a structured design process)

• Specification of Engineering elements supported by underpinning strength calculations

• 3D CAD modelling techniques using best practice to instil design intent 

• Robust 3D CAD solid model generation 

• Bottom up assembly modelling

• Orthographic projection drawings 

• CAD file management

This work experience module aims to develop  key knowledge and skills necessary to operate within an industrial engineering environment through two industrially inspired, applied projects. In addition to developing and practising important industrial and professional skills such as communication and project management, you will reflect on your knowledge acquisition and performance to develop a continued professional development (CPD) plan and create a CV ready for future placement and graduate job applications. 

You’ll study topics such as: 

• Management of projects 

• Management of engineering risk 

• Technical report writing 

• Practical workshop skills  

• Planning and recording continued professional development 

• Job applications and CV creation 

This module will introduce the study of the motion of solid bodies under the action of forces (Dynamics). You will study and apply engineering principles and concepts related to motion both in a straight line and in a curved path. In this module, you will also learn the basic principles of Thermodynamics, the branch of engineering science that deals with the relations between heat and other forms of energy.  You will further develop your mathematical knowledge together with laboratory, computational and analytical skills. Additionally, it will introduce you to a range of traditional and modern manufacturing processes at a preliminary level. 

You will study topics such as: 

• Newton's Laws of Motion

• First and Second Laws of Thermodynamics

• Combustion and heat engine cycles

• MATLAB and its application

• Primary and secondary manufacturing processes

This module introduces the fundamental principles and concepts of engineering sciences related to the behaviour and motion of solids and fluids that are subjected to forces. You will develop knowledge of maths topics and the mathematical skills required to analyse and solve simple engineering problems. Additionally, you will learn about engineering materials and their key characteristics. You will be supported in developing practical laboratory skills and the ability to write effective technical reports. 

You will study topics such as: 

• Forces, moments, static equilibrium 

• Stresses, strains and mechanical behaviour of engineering materials

• Properties of liquids and gasses, fluid statics

• Elementary fluid dynamics and fluid flow

• Arithmetic and algebra, introduction to calculus

• Types and properties of engineering materials and applications

Module Aim:  

This module, through an applied project, will provide students with the knowledge and skills necessary to design and develop engineering solutions that meet a combination of societal, user, business and customer needs.  

Students learn to apply an integrated or systems approach to complex problems, evaluate environmental and societal impacts, identify and analyse ethical concerns, and adopt an inclusive approach to engineering practice. 

Indicative content:  

• Identifying, understanding and defining the problem 

• Identifying system goals and constraints 

• Gain an appreciation of processor based system, sensors and programming. 

• Developing a solution that meets the system's goals and constraints 

• Evaluating the solution 

• Evaluate the environmental and societal impact of solutions to complex problems and minimise adverse impacts, while reflecting upon their career aspirations. 

This module builds upon concepts and practical approaches introduced at level 4 and will prepare you for sandwich placement and for level 6 project.    

Module Aim:  

This module aims to enhance knowledge on advanced concepts of dynamics and thermodynamics in the design and analysis of mechanical engineering components and systems as well as to build up the prerequisite knowledge and develop you to apply your knowledge for practical problems.  

You’ll study topics such as: 

• Plane kinematics of rigid bodies 

• Vibration and time response 

• Gyroscopic motion 

• Gas turbine and stream cycle  

• Heat pumps and refrigeration 

• Heat exchanger types 

This module is designed to strengthen your knowledge of the mechanics of solids and fluids gained during the first year and demonstrate its application to real engineering applications and systems. Additionally, it introduces control systems engineering, where you will practice applying control theory to the design of equipment. To support your learning, advanced maths topics and simulation software are introduced.  

You will study topics such as: 

• Stresses and strains in 3D 

• Mechanisms of structural failure 

• Mechanisms of heat transfer and heat exchangers 

• Matrix algebra and numerical methods 

• Closed-loop feedback control systems 

• Design and simulation using MATLAB and SIMULINK 

Module aim:  

This module will detail the purpose and specific application of key machine elements and mechanisms. Underpinning maths and engineering principles will be applied to determine the forces experienced by each component, which will be sized accordingly. The principles will be applied in the context of designing a typical engineering artefact. 

You will study topics such as:

• A structured design approach

• CAD software package used to produce layout sketches to test design ideas

• Use Standards 

• Develop free body diagrams 

• Calculate forces associated with components in a design 

• Balance of forces and power 

• Different types of power transmission 

• Select appropriate components for a design 

• Use CAD modelling package

This module builds on the science, mathematics and mechanical engineering principles threads running through the course. It aims to enable you to apply advanced engineering calculations and simulation techniques to support the design and analysis of complex, real-world engineering systems.  This will involve using the numerical tools of computational fluid dynamics (CFD) and finite element analysis (FEA).  In the process, you will develop your critical thinking and problem-solving skills, as well as general mechanical engineering competence.  

You will study topics such as: 

• Thermal and fluid machines and devices 

• Turbomachinery design, applications, and performance optimisation 

• Elastic-plastic structural analysis, fatigue, and fracture mechanics 

• CFD modelling and simulation 

• FEA modelling and simulation 

Your individual final year project is the apex of your academic journey, offering a platform to apply the wealth of knowledge and skills gathered throughout your degree to real-world linked problems. This module requires your creativity, problem-solving capabilities, and the ability to navigate new material independently in whichever field you choose to specialise in. 

This module allows you to: 

• Undertake in-depth research in a topic of your choosing

• The opportunity to work alongside cutting-edge researchers 

• Create a body of work that can support you into further study, or work in a field that interests you

Develop solid foundations for undertaking a self-managed academic research project. On this module you will develop the skills and understanding you will need to complete your dissertation project to the highest level. Through lectures, guided reading and one-to-one discussions with your project supervisor you will design a design a path through to successful completion of an extensive research project including developing the project management skills you will need to achieve this. 

You’ll study topics such as 

• The life cycle of a project 

• Reviewing academic literature 

• Quality management 

• Project management techniques and tools 

• Research ethics 

• Intellectual property rights