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.

Electrical and Electronic Engineering Fundamentals provides a solid grounding in the fundamentals of electrical and electronic engineering. 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.

Engineering Materials. This is a new module. Further information about this module will be added when available.

Foundations of 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.

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.

Programming 1 provides a practical introduction to the fundamentals of software development. You will be introduced to the analytical techniques and processes which are essential for specifying, designing and implementing applications. Practical sessions will develop skills and knowledge relevant to today’s industrial needs through the use of modern, widely used programming languages. Software development is essentially a problem-solving activity and provides an excellent opportunity for the development of analytical skills and the synthesis of solutions. Promoting computational thinking, the module will teach you how to tackle large problems by breaking them down into a sequence of smaller, more manageable issues.

Applied Mathematics for 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.

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.

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.

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.

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.

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.

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.

Engineering Research and Development Methods ensures that you are fully prepared for undertaking an engineering research and development project. The module will equip you with various skills and techniques which will help you to plan and proceed with your project with confidence. You will be shown how to discover work that is relevant to your project and critically appraise its relevance. The World Wide Web is a rich source of information and you will be shown how to tap into the valuable resources that are in the public domain. You will learn how to organise and disseminate your findings to as wide an audience as possible. To conclude, you will present your work in a written report and give an oral presentation to your peers.

Engineering 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. The project will be executed independently under the guidance of a supervisor. In exceptional circumstances group projects may be permitted as long as individual deliverables are clearly identified and this has been agreed with the Module Leader and Supervisor. You will conduct in-depth work on a substantial issue, including researching and analysing the problem and finding and realising a solution.

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 and manufacturing processes. and apply design tools such as 2D and 3D modelling.

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.