Interested in a career as an engineer but can’t decide on a specialism? Join our BEng (Hons) Engineering degree and gain a broad understanding of Engineering. Study the many topics that contribute to the discipline on a course designed in conjunction with employers in industry.
Our BEng (Hons) Engineering degree has been designed to meet the interdisciplinary needs of the industry. Packed with optional modules, the course gives you the flexibility to study topics that interest you most. Studying the broader subject of engineering is one of the most popular routes, and this course also meets the academic requirements needed to achieve Incorporated Engineer (IEng) status.
You’ll study topics including electrical and electronic engineering, mechanical engineering and robotics. In the final year of study we’ll teach you the engineering research and development methods you’ll need to succeed in your end-of-course independent multidisciplinary research and development project.
You’ll graduate with an understanding of the different topics that contribute to the engineering discipline, as well as other supporting subjects related to computer science.
In Year 1 we’ll cover the foundations that will ensure your success throughout the course. We’ll provide an introduction to computer programming and computer aided design. You’ll also study introductory mathematics in an engineering context, and the fundamentals of electrical and electronic engineering. You’ll also start to develop the soft skills needed by a professional engineer and have the option to explore specialist study in either electronic circuits or engineering materials.
Computer-Aided Engineering immerses you in computer-based techniques that support the processes of design and simulation applied to engineering problems. This module provides you with an opportunity to develop an understanding and experience of commercially available engineering software and its practical applications to solve complex engineering problems. You will investigate the use of computer-aided design and simulation tools for a variety of engineering applications and develop skills in a variety of computer-aided design and simulation programs.
Module code: CIS1706
Credits: 20
Electrical and Electronic Engineering Fundamentals
Electrical and Electronic Engineering Fundamentals provides a foundation of electrical and electronic engineering fundamentals covering series and parallel networks, DC circuit theory, electrical circuits, and electronic systems. You will explore concepts covering voltage and current, as well as characterisation of resistance, capacitance and inductance. You will also investigate the operation and performance characteristics of electronic components, such as operational amplifiers, diodes and transistors, using analytical and experimental techniques.
Module code: ENG1200
Credits: 20
Foundations in Engineering Mathematics
Foundations in Engineering Mathematics provides an overview of the most important mathematical concepts and methods which are relevant to engineering. Mathematics is an essential component of engineering and it is at the core of many engineering analysis techniques and concepts. The module focuses on mathematical methods in algebra, geometry, trigonometry, complex numbers, differential and integral calculus, and matrices. You will explore real-world, cutting-edge applications and methods of mathematics, from engineering to physics and mechanics.
Module code: ENG1202
Credits: 20
Professional Practice in Engineering 1
Professional Practice in Engineering 1 provides a fundamental starting point for engineering students. Building a base of knowledge to begin your journey to becoming a professional engineer, you will receive a grounding in how professional bodies underpin their practice. You will be introduced to the engineering profession and basic laboratory skills, gaining hands-on experience with equipment. You will also be made aware of relevant regulatory requirements governing engineering activities in the context of particular areas of specialisation.
Module code: ENG1609
Credits: 20
Programming 1
Programming 1 provides a practical introduction to the fundamentals of computer programming. You will be introduced to computational thinking - a problem solving approach that underpins programming, the basics of algorithmic design and the analytical techniques and processes essential for specifying, designing and implementing simple software systems. The module will teach you how to tackle large problems by breaking them down into a sequence of smaller, more manageable issues. This is a foundation module for which no previous experience in programming is required.
Electronic Circuits and Logic introduces you to basic semiconductors and the use of transistors as an amplifier and a switch. Amplifiers will be discussed within a variety of applications. When thinking about digital electronics, logic level models, logic gates and the application of digital logic circuits will be introduced. Digital logic circuits are an essential component of every electronic device including computers, smartphones, and tablets. They are used to build engineering designs that deliver various computational outcomes. This module introduces you to the operation, design and application of simple analogue and digital circuits. You will also develop the capability to use electronic circuits to solve simple engineering problems.
Module code: ENG1003
Credits: 20
Engineering Materials
Engineering Materials provides a foundation of mechanical engineering fundamentals covering material structures, the types of materials and their mechanical behaviour. Through a series of lectures, together with a range of practical laboratory sessions to help reinforce material discussed in lectures and gain hands on experience in the use of test and measurement equipment and simulation tools, students will use a problem-solving approach to explore classical concepts in materials engineering. The module begins with an introduction to the structures of materials, in describing the crystalline solids, defects and disorders, and atomic bonding. The different types of materials are then described and characterised. The causes and preventions of mechanical failure are then analysed, in considering elastic and plastic deformation, creep and fatigues and toughening and stiffening mechanisms. Students will learn how to characterise the performance of mechanical behaviour and develop the capability to apply different types of materials to solve simple engineering problems.
Module code: ENG1201
Credits: 20
In Year 2 we’ll build on some of the topics you’ve studied in Year 1. This will include the development of your professional engineering skills and advanced mathematical concepts. You’ll get to shape the rest of your second year by choosing from an array of optional modules. Topics on offer include Robotics and AI, Fluid Mechanics, and Thermodynamics.
Applied Mathematicsfor Engineering provides a comprehensive overview of the important mathematical concepts and methods relevant to engineering. Mathematics is an essential component of engineering and is at the core of many engineering analysis techniques and concepts. Mathematical methods in algebra, geometry, trigonometry, complex numbers, differential and integral calculus and matrices will be introduced, with emphasis on how they relate to a variety of real-world problems in engineering, including manufacturing, pharmaceuticals and agriculture.
Module code: ENG2207
Credits: 20
Professional Practice in Engineering 2
Professional Practice in Engineering 2 fosters professional practice and employability skills. This will be achieved by simulating, as accurately as possible, what it’s like to work in a given engineering specialism. You will be introduced to the world of work via a simulated work environment or project. This will involve being given live briefs and/or being placed into teams that represent fictional companies and being asked to produce real products or engage in realistic work-related activity. This employer-derived simulation or project will enable you to experience working as part of a large team, including the challenges that can occur when trying to complete high-quality, complicated engineering work to schedule.
Advanced Programming equips you with an overview of the design and operation of the principal components of a computer system and how they interact with each other. You will be introduced to microcontroller/microcomputer programming and gain an understanding of instruction types, addressing modes, and the stack. The importance of microcontroller/microcomputer programming in computer systems cannot be underestimated despite the prevalence of high-level languages. It facilitates access to special instructions for processors and direct manipulation of hardware which is gaining increasing importance with the proliferation of Internet of Things (IoT) devices with limited computing and energy resources. This module will provide you with an insight into the skills needed to serve this growing market. You will learn how to support subroutines, exceptions and interrupts, writing simple programs that handle these functionalities and solve straightforward problems.
Module code: CIS2725
Credits: 20
Antennas and Radiowave Propagation
Antennas and Radiowave Propagation presents the theoretical principals and practical considerations behind the transmission, propagation and reception of radio waves. Through a series of lectures and practical laboratory sessions, you will gain hands-on experience in the use of test and measurement equipment and simulation tools. The module begins with analysis of the natural forces that enable electromagnetic waves to be transmitted over the air, before focusing on the characteristics of different types of antenna. You will then discover the different mechanisms which determine how a radio wave propagates through the air and additionally examine various ways of modelling the transmission environment.
Module code: ENG2203
Credits: 20
Applied Industrial Automation
Applied Industrial Automation develops your expertise in various aspects of control theory and robotic programming in industrial applications. This includes using multi-sensors to collect environmental measurements, designing control strategies and making smart process decisions by finding optimal solutions. You will gain a practical understanding of the key concepts of robotic programming including its hardware, architecture and software solutions.
Module code: CIS2721
Credits: 20
Biomechanics
Biomechanics provides an overall introduction to the subject, in bringing together the principles of mechanics and how these can be applied to representation of the human body. Human movement is analysed, including the introduction of terms such as posture and balance and joint mobility. Musculoskeletal system mechanics are discussed, including biomechanics of bone and ligaments and muscle characterisation. You will develop an understanding of linear and angular kinematics and kinetics associated with human motion. Fluid mechanics are also addressed with reference to the cardiovascular system.
Module code: ENG2008
Credits: 20
Biomedical Instrumentation and Control
Biomedical Instrumentation and Control offers you the opportunity to understand the body's control phenomenon and the voltages that the body produces. You will analyse electrodes that can be used for recording and measuring body potentials. There will be an opportunity to familiarise with various devices used for sensing and measurement purposes. You will familiarise and apply control theory and concepts as well as the available technologies within biomedical engineering. Major learning components will include the bio potentials and their origin, signals, amplifiers, sensors, transducers, monitoring systems, signal conditioning and modulation techniques. This module will help develop your critical thinking and analytical skills and provide a solid basis for further study for the industry or advanced postgraduate level study.
Module code: ENG2009
Credits: 20
Control Systems
Control Systems can be found in every-day applications, from controlling the room temperature of our homes to maintaining speed and direction in autonomous vehicles. Many industries rely heavily on the use of systems and equipment that are powered by mechanical principles, electronics, computers and control systems. In this module you will use a problem-solving approach to explore classical concepts in control engineering, covering open and closed loop systems, system response, modelling and analysis. You will learn how to design, test and measure the performance of control systems in a lab setting.
Module code: ENG2201
Credits: 20
Control Systems and Instrument Engineering
Control Systems and Instrument Engineering is designed to produce engineers who are knowledgeable about, and competent to employ, new and emerging technologies that are crucial to maintaining modern society’s competitive industries, many of which rely heavily on the use of systems and equipment that are powered by mechanical principles, electronics, computers and control systems. Increasingly, engineers are required to design and develop machinery with computer, mechanical and electronic controls. This module will equip you with a range of skills required to design and maintain innovative solutions to automated modern industrial systems. You will be introduced to the fundamentals of integrated circuit engineering, intelligent design and control systems, the Internet of Things and other topics relevant to a multidisciplinary field which combines electronics, instrumentation, software and control engineering.
Module code: CIS2724
Credits: 20
Electrical Machines
Electrical Machines are in everyday use, from electric toothbrushes, drills and screwdrivers, to powering the next generation of electric autonomous vehicles. The module starts by considering what natural forces are used to covert electric power into motion, with a review of electromagnetism, Faraday’s Law and Maxwell’s equations. Motors are then characterised in terms of rotational force, also known as torque, and energy conversion. You will also consider how a motor can be represented as an equivalent electric circuit. The module will model and analyse the different types of motors associated with DC and AC operation, including permanent magnet, shunt and induction.
Module code: ENG2202
Credits: 20
Fluid Mechanics
Fluid Mechanics introduces you the theoretical principles and practical considerations behind fluid mechanics. A series of lectures and practical laboratory sessions will provide you with hands-on experience in fluid mechanics, fluid statics, kinematics of fluid motion and the energy of moving fluids. You will learn how to design, test and measure the characteristics of fluids in a laboratory setting. The module begins with a presentation of the properties of fluids, including viscosity, surface tension and vapour pressure. The characteristics of fluid statics, when a fluid is at rest or stationary, including pressure, buoyancy and stability, will be addressed. You will also analyse the kinematics of fluid motion, including steady and unsteady flows, as well as the energy of moving fluid, including Bernoulli’s equation and its applications.
Module code: ENG2204
Credits: 20
Foundations of Robotics & Artificial Intelligence
Foundations of Robotics & Artificial Intelligence recognises that the fields of artificial intelligence (AI) and robotics are expanding rapidly with exciting innovations being built to automate our world. The foundations of robotics and AI have roots in the work of Alan Turing investigating the boundary between human intelligence and computers. This module examines how AI techniques and principles from biological systems can be applied to robots to control behaviour and sense environments. You will develop an understanding of the theoretical problems, such as behaviour and the basics of learning techniques, inherent in robotics and use pre-built robots to design, implement and test different control and perceptual systems. Gaining expertise in various aspects of robotic programming, you will use multi-sensors to collect environmental measurements, design control strategies and make smart decisions by finding optimal solutions.
Module code: CIS2719
Credits: 20
Power Electronics
Power Electronics develops your understanding of the principles associated with low power and high power devices and circuits, with an emphasis on the control and conversion of electrical power. In power electronics, you will learn about the operation of low power and high power electronic devices, including thyristors, power metal–oxide–semiconductor field-effect transistors (MOSFETs), and power amplifiers. The performance of step-up and step-down DC to DV converters and DC to AC inverters will be explored using analytical and experimental techniques.
Module code: ENG2200
Credits: 20
Signal Processing
Signal Processing introduces you to the fundamental principles of signal processing, from the underpinning theories and mathematics to practical applications, with an emphasis on developing problem-solving techniques via theoretical/computational activities. Beginning with signal analysis to help you understand the signal representations in both the time and frequency domain, you will go on to explore various modulation schemes for analogue and digital-signal transmissions, evaluating their performance in terms of signal-to-noise ratio, bandwidth requirement and error performance.
Module code: ENG2006
Credits: 20
Structural and Solid Mechanics
Structural and Solid Mechanics outlines the theoretical principles and practical considerations behind the solid mechanics. Materials behave differently under different stress conditions so, in order to prevent accidents and damages, it is essential to determine the behavioural characteristics of solids under consideration for a particular application. This includes determining their dynamic properties and structural flexibility. Understanding the laws of physics and their applications in modern day machinery is one of the fundamental requirements of a mechanical engineer. For engineers, structural and solid mechanics provide essential knowledge to compute stresses, strain and deformation of solids. The prediction, description and explanation of physical properties of materials are key elements in applied engineering. This module provides you with the opportunity to discover the behavioural characteristics of static and dynamic engineering systems through the investigation of stresses, strains, bending, deflections and torsion.
Module code: ENG2206
Credits: 20
Thermodynamics
Thermodynamics provides an overview of the most important thermodynamic concepts, laws and applications. Thermodynamics is the science that deals with heat and work and the properties of substances that bear a relation to heat and work. This module introduces you to the fundamental concepts linked to engineering thermodynamics, the principles of thermodynamic laws, and the practical applications of thermodynamics. In particular, the module will focus on real-world applications and methods from engineering to physics and mechanics. You will be exposed to cutting-edge applications of thermodynamics, including those related to contemporary research.
Module code: ENG2205
Credits: 20
In Year 3, you can continue to tailor your studies to your interests through the choice of optional modules. You might explore manufacture and design, electric motors and power drives, or mechatronics, to name a few. We’ll also teach you the methods you’ll need to succeed in researching and developing an engineering project, as well as the importance of commercial awareness within engineering. Finally, you’ll bring all of your learning together in a major individual project that will showcase your skills and knowledge.
Engineering Research and Development Methods ensures that you are fully prepared for undertaking an engineering research and development project. Graduate engineers will spend a significant amount of their career working on projects and the ability to manage and plan work is an important aspect of an engineer’s skills portfolio. You will be introduced to research tools that are available for effectively conducting an engineering project, such as Microsoft Project. This module will equip you with essential project management and planning skills, which will enable you to undertake your engineering project with confidence.
Module code: ENG3200
Credits: 20
Engineering Management and Enterprise
Engineering Management and Enterprise equips you with a practical understanding of engineering management techniques and the necessary systems and philosophies for successful project implementation. You will gain a detailed understanding of the actions that an organisation needs to take to deal with opportunities, threats, challenges and unexpected events emerging from and within their external and internal environments. The module provides an understanding of how quality engineering techniques can be implemented throughout the product and manufacturing life cycle, while also offering a wider view of the context in which state-of-the-art products are designed and subsequently proceed into the market or the work environment. In addition to this, you will gain an overview of how total quality management (TQM) can be used to strategic advantage to exceed customer requirements and facilitate process improvement.
Module code: ENG3207
Credits: 20
Multidisciplinary Engineering Research and Development Project
MultidisciplinaryEngineering Research and Development Project gives you the opportunity to show individual creativity and originality, apply your knowledge and skills, and demonstrate the ability to undertake an individual project through investigative research, problem-solving, effective communication and management. You will be able to demonstrate your ability to undertake an individual multidisciplinary project and investigate in some depth an issue of particular interest. The project will be executed independently under the guidance of a supervisor whilst you develop your ability to manage and critically evaluate your own work. You will conduct in-depth work on a substantial issue, including researching and analysing the problem and finding and realising a solution.
Advanced Control Engineering presents the theoretical principles and practical considerations behind the implementation and operation of advanced control systems. Through a series of lectures and practical laboratory sessions, you will gain hands-on experience of using test and measurement equipment and simulation tools in advanced control engineering. The module will cover digital equivalents, z-transformations, stability and frequency response, root locus, controllers design, compensators including phase-lead and phase-lag, and digital control systems design. You will learn how to design, test and measure the performance of digital control systems in a laboratory setting.
Module code: ENG3203
Credits: 20
Advanced Robotics and Artificial Intelligence
Advanced Robotics and Artificial Intelligence models and analyses human and robot behaviour, including human-robot interaction and collaboration. You will develop an understanding of the basic principles about how to design user-friendly human-robot interaction systems. As artificial intelligence and robotics become more integrated into our daily life, simplifying many everyday tasks, it is hard to imagine how we could manage without them. Artificial intelligence, robotics, machine learning and deep learning are transforming heavily regulated industries, such as automotive, food and agriculture, constructions, healthcare and life sciences, financial services and trading. Over the last decade, substantial progress has been achieved. This module will explore human-robot interaction and etiquette through three fundamental questions about communication between a human and a robot. How should a robot move differently in the presence of a human? How should it understand hints in terms of postures and eye emotions? How should it learn from user feedback? This module will answer these questions and reveal the scale of the impact of human-robot interaction systems on modern society.
Module code: CIS3419
Credits: 20
Autonomous Secure Systems and Smart Devices
Autonomous Secure Systems and Smart Devices introduces you to the theory and practical aspects of developing secure, smart and autonomous digital devices, from smart phones and wearable fitness-tracking technology to household controllers and voice interaction personalised assistants. Over the past decade, our digital world has drastically changed with a wide range of digital devices now being integrated into everyday tasks. Such devices have the ability to communicate with each other, generating vast amounts of data, and adapt their behaviour according to user preferences. This module will introduce you to the design and implementation of these autonomous secure systems and smart devices, modelling key ubiquitous computing properties and smart architecture models, as well as data analytics and machine learning methods on sensor data and security management of smart devices. You will gain the skills and confidence to design, implement and evaluate a software system that can be embedded into a smart and secure digital device.
Module code: CIS3418
Credits: 20
Electric Motors and Power Drives
Electric Motors and Power Drives presents the theoretical principals and practical considerations behind the operation of electrical motors and drive systems found in consumer appliances, transport, manufacturing and various industrial processes. An understanding of the design and operation of electric motors is becoming an increasingly important part of electrical and mechanical engineering, as research and innovation is now intensifying on developing efficient and powerful electric motors for the automotive industry. Through a series of lectures and practical laboratory sessions, you will gain hands-on experience in the use of test and measurement equipment and simulation tools, learning how to design, test and measure the performance of electric motors in a laboratory setting. Adopting a problem-solving approach, you will explore classical concepts in electrical motors and drive systems, including circular force and electro-mechanical energy, as well as operating capabilities. The module will introduce you to the characteristics of various types of DC and AC motors, as well as the different drive systems that are used to control their operation.
Module code: ENG3202
Credits: 20
Embedded Systems
Embedded Systems today form the largest percentage of computer systems in service. They are greater in number than all other types of computer systems put together. Almost all moderately intelligent devices we use or rely upon, from domestic appliances to mobile telephones, motor vehicles, most automated consumer products, dispensers and toys, contain one or more microcontroller devices. These embedded systems are mostly not seen, tucked away in often unreachable and environmentally unfriendly locations. They are often expected to function for long periods of time, for example many years, without fault, attention or maintenance. As a result, they demand some unique engineering requirements. This module explores the principles of embedded systems as essential tools for enabling many other advanced technologies which can be seen or experienced every day. You will be introduced to the basics of the hardware and software unique to microcontrollers as core components of embedded systems. You will program a microcontroller and apply this skill to communicate with or control external devices.
Module code: CIS3421
Credits: 20
IoT Security
IoT Security equips you with a deep understanding of the security concepts on the Internet of Things (IoT). Applications for the IoT include use in smart homes, healthcare systems, environmental monitoring and industrial controls, incorporating various technologies such as embedded systems, wireless sensor networks, and energy harvesting techniques. This has led to a range of IoT devices which each feature a distinct set of security risks and vulnerabilities. This module will equip you with an insight into the security challenges accompanying this growing market of IoT systems and applications. You will develop the capability to understand potential security risks and design secure IoT architectures. This will include IoT operating systems and platforms, low power IoT communications, IoT identity and access management, and IoT threat modelling, and more. You will gain a deep understanding of how the information stored, processed or transmitted in IoT systems is protected from unauthorised access or modification, while also being introduced to the future trends in IoT infrastructures, architectures and applications.
Module code: CIS3166
Credits: 20
Manufacture and Design
Manufacture and Design recognises that to convert a manufacturing problem into a solution or an idea into a physical artefact, a careful product design is necessary. For engineers, it is important to have knowledge and understanding of material selection, design and manufacturing processes involved in the entire process. Manufacturing and design involves assessing and predicting difficulties in manufacturing, product behaviour in service, and product competency in service. In addition, minimum cost, enhanced performance and failure pre-emption are also the key for a useful product. Keeping in view all of these factors, the module will equip you with a sound understanding of the product design process, including design fundamentals, user needs and regulatory standards. You will explore the properties of materials and manufacturing processes. and apply design tools such as 2D and 3D modelling.
Module code: ENG3204
Credits: 20
Mechatronics
Mechatronics introduces you to the theoretical principles and practical considerations behind mechatronic systems. As industry is becoming more intelligent, innovative and autonomous, mechatronics applications are becoming increasingly important. From assembly lines, vending machines and robotics, to anti-lock braking systems and guided vehicles, mechatronics is extensively being used for merging and creating new designs. In this module, you will study various commonly used mechanical and electrical sensors and systems to create machines and systems. You will have the opportunity to learn and apply skills to model mechatronic systems. Setting up example systems and their interfaces will enable you to gain hands-on expertise. You will examine the design process, actuating systems, motion types and a range of mechanical sensors, while also applying and using industrial programmable logic controllers for the modelling of mechatronic systems.
Module code: ENG3205
Credits: 20
Medical Image Processing
Medical Image Processing provides an introduction to medical image processing and its applications in Biomedical Engineering. The module will focus on the theory of image processing and how to use it to analyse the medical images and further integrate to the current healthcare system. You will gain a theoretical understanding and hands on experience of medical image processing. You will be introduced to key areas of medical image processing such as: Analysis; Enhancement; Visualization. Medical image processing is a subject that handles the complete data flow in the modern medical imaging system, as part of this module you will be introduced to the management of medical image data.
Module code: ENG3002
Credits: 20
Medical Robotics
Medical Robotics brings together the principles of robotics and artificial intelligence and how these can be applied to medical applications. You will study an overview of the history of robotics when used for healthcare and medical applications and discuss the regulatory bodies and frameworks that apply to the use of medical robotics. You will be taught an overview of how to model and analyse human and robot behaviour in an algorithmic way. You will develop the basic principles of how to design user-friendly human-robot interaction systems and identify the challenges associated with human-robot collaboration.
Module code: ENG3001
Credits: 20
Microprocessor and Sensor Systems Applications in Engineering
Microprocessor and Sensor Systems Applications in Engineering provides an overview of sensor-centric microcontrollers and microprocessors. Sensory systems are gaining more and more importance in our everyday lives due to their increasing applications and uses, ranging from personal healthcare and navigation systems to large scale industrial and scientific applications. The module provides you with an insight into how sensory systems and applications need to meet critical sensor and processing requirements. You will also discover the different applications of sensor systems, from remote controls to electronic locks, electronic thermometers, keyboard interfaces and electronic tape measures. You will be introduced to sensor types, interfacing considerations and input signals and learn how to design and build a microcontroller/microprocessor and sensor system that addresses a specific application.
Module code: CIS3424
Credits: 20
Power Systems
Power Systems examines how electricity is generated, transmitted and distributed to our homes, places of work and recreation. The module adopts a problem-solving approach to explore technical concepts in power systems engineering, covering electrical power transmission, generation, distribution, and fault protection. You will consider the types of transformer which are used to generate electricity. The transmission line, which is used to transport power through a network, will be characterised in terms of its resistance, capacitance and inductance. You will discover how power is distributed before exploring what faults may occur on a network and what means of protection can be put in place to safeguard the operation of such a network.
Module code: ENG3201
Credits: 20
Where your course includes optional modules, these are to provide an element of choice within the course curriculum. The availability of optional modules may vary from year to year and will be subject to minimum student numbers being achieved. This means that the availability of specific optional modules cannot be guaranteed. Optional module selection may also be affected by timetabling requirements. Some restrictions on optional module choice or combinations of optional modules may apply.
How you'll study
We design our teaching methods in consultation with some of the leading employers in the region. You’ll be taught in our engineering and computing laboratories for many of your classes, and we focus on your activities as a way of learning.
Our lessons are highly interactive allowing you to look at practical applications of concepts and study real life cases. You will work with your peers in workshops, seminars, group tutorials and practical exercises, enabling you to expand the essential people skills to complement your technical ability.
On a full-time basis, teaching will typically take place over two to three days per week.
Timetables for your first week are normally available at the end of August prior to enrolment in September. You can expect to receive your timetable for the rest of the academic year during your first week. Please note that while we make every effort to ensure that timetables are as student-friendly as possible, scheduled teaching can take place on any day of the week. Wednesday afternoons are normally reserved for sports and cultural activities.
How you'll be assessed
The methods of assessment vary from module to module and may consist of coursework, portfolios and exams. We want you to develop the ability to work effectively both independently and as part of a team, therefore assessment includes both of these forms, though the emphasis is strongly on individual work.
Who will be teaching you
You will be taught by staff who are passionate about student learning and development, while also benefitting from guest lectures delivered by industry experts. The programme team are specialists in engineering and computing and are active researchers. Their research feeds directly into the teaching of the programme, ensuring that you will learn about the latest developments within subjects while gaining the skills and knowledge required to meet industrial needs.
Academic staff are also regular contributors to conferences and journals, frequently engaging with the wider business and academic environment in disseminating knowledge and delivering impact.
Entry criteria
Entry requirements
Typical offer 112-120 UCAS tariff points achieved through A levels, BTEC, International Baccalaureate, Access Diploma, T Level, or Irish Leaving Certificate. This must include A Level Mathematics at Grade C or above or equivalent.
For students studying BTEC a BTEC Extended Diploma in Engineering is preferred. Typical offers will be DMM, with grade Merit or above in one of the following units:
to solve engineering problems
engineering mathematics
You should also have GCSE English Language at Grade C or Grade 4 or above, or equivalent.
Example offers
Qualification
Requirement
A Level
BBC-BBB.
BTEC Extended Diploma (or combination of BTEC QCF qualifications)
Distinction, Merit, Merit (DMM).
T Level
Overall grade of Merit.
International Baccalaureate (IB)
We are happy to accept IB qualifications which achieve the required number of UCAS Tariff points.
Access to Higher Education Diploma
45 credits at Level 3, for example 15 credits at Distinction and 30 credits at Merit or 24 credits at Distinction and 21 credits at Merit. The required total can be attained from various credit combinations.
Please note, the above examples may differ from actual offers made. A combination of A Level and BTEC awards may also be accepted.
If you have a minimum of two A Levels (or equivalent), there is no maximum number of qualifications that we will accept UCAS points from. This includes additional qualifications such as Extended Project Qualification (EPQ), AS Levels that haven't been continued to A Level, and General Studies AS or A Level awards.
English language requirements
International students require IELTS 6.0, with a score no lower than 5.5 in each individual component, or an equivalent English language qualification.
If your current level of English is half a band, one band, or one-and-a-half bands lower, either overall or in one or two elements, you may want to consider our Pre-Sessional English course.
Please see our international student pages for further information about how to apply as a prospective international student.
Should you accept an offer of a place to study with us and formally enrol as a student, you will be subject to the provisions of the regulations, rules, codes, conditions and policies which apply to our students. These are available at www.edgehill.ac.uk/studentterms.
Did you know?
If you join a full time undergraduate degree at Edge Hill University, we will guarantee you the
offer of a room in our halls of residence for the first year of your course.
The Department of Engineering is based in the state-of-the-art £13m Tech Hub. This purpose-built development offers highly contemporary suites of outstanding facilities for Engineering and Physics, as well as Computing and IT students. Our modern engineering teaching laboratories are equipped with a range of industry-standard, test and measurement equipment, and leading analytical software.
There are dedicated specialist laboratories for materials engineering, electrical motors, and electronic engineering, in addition to an abundance of computer facilities and a large, horseshoe-shaped Harvard style lecture theatre.
Where you'll study
Tech Hub
Learning resources
Learning resources include oscilloscopes, signal generators, digital multimeters, Arduino and Raspberry Pi microprocessors, a tensile tester machine, electronics training kits, single and 3-phase transformers, a 3-D printer, and robotic arm kits, plus MATLAB and SolidWorks software platforms.
Teaching and learning are supported by the web-based platform Blackboard Ultra Virtual learning Environment. The library is well-stocked with recommended print books and e-books and subscribes to high-impact technical e-Journals. The university subscribes to LinkedIn Learning, which provides free and unlimited access to thousands of high-quality online courses and video tutorials written by industry experts.
Assistive and accessible technologies include Read&Write text to speech software, Caption Ed to facilitate ease of note taking, and a mind mapping tool. The university provides specific workshops on academic skills for students who have specific learning difficulty or disability.
EU/EEA and Swiss students who have settled or pre-settled status under the EU Settlement Scheme, as well as Irish nationals, may be eligible for the UK tuition fee rate.
Financial support
Subject to eligibility, UK students joining this course can apply for a Tuition Fee Loan from the Government to cover the full cost of tuition fees. UK students enrolling on the course may also be eligible to apply for additional funding to help with living costs.
Please view the relevant Money Matters guide for comprehensive information about the financial support available to eligible UK students.
EU/EEA and Swiss students who have settled or pre-settled status under the EU Settlement Scheme may be eligible to apply for financial support. Irish nationals can ordinarily apply to Student Universal Support Ireland (SUSI).
If you are an EU student who does not have settled or pre-settled status, or are an international student from a non-EU country, please see our international student finance pages.
Your future career
An Engineering degree opens the door to a variety of career options. Graduates find opportunities for careers in areas including; electronic engineering, electrical engineering, manufacturing, mechanical engineering, network design, energy and power generation, project management and systems analysis.
Graduates can move into a wide variety of organisations including academic institutions, engineering consultancies and design practices, energy suppliers, government agencies, product developers, research organisations, and telecommunications operators.
Course changes
Every effort has been made to ensure the accuracy of this information, however our courses are subject to ongoing review and development. Changing circumstances may necessitate alteration to, or the cancellation of, courses.
Changes may be necessary to comply with the requirements of professional bodies, revisions to subject benchmarks statements, to keep courses updated and contemporary, or as a result of student feedback. We reserve the right to make variations if we consider such action to be necessary or in the best interests of students.
Track changes to this course
Part time route - 2 November 2023
Part time route removed for September 2024 entry.
Work placement opportunity - 17 October 2023
Work placement opportunity removed as a course feature.
Facilities - 12 September 2023
‘The Hatchery’ removed from the facilities section.
Entry requirement information - 29 August 2023
Additional information about preferred BTEC courses added to the entry requirements.
Part time course length - 21 August 2023
Part time course length changed from 4.5 years to 6 years.
