MEng (Hons) Electronic and Electrical Engineering (Industrial) Integrated Master's degree at the University of Leeds

You'll be introduced to key electronic components, the basic concepts of electronic circuit analysis and design, and the basic principles of electronic circuit test and measurement.

During this module, you'll learn about the fundamental physical concepts that underpin the design and operation of electronic devices and electrical systems.

This module introduces you to the fundamentals of communication systems and how the internet works. You'll learn about the different building blocks and protocols that are used to implement both wired and wireless communication links. You'll also build the skills to apply programming tools (MATLAB) to model communication signals and systems.

You'll be introduced to the fundamentals of digital electronics, logic circuits, C++ and microcontrollers. You'll gain insight into the development, simplification and simulation of combinational and sequential logic circuits, and develop an understanding of their place within typical microcontroller architectures. You'll also learn how to interface with various electronic components and develop your own project-based embedded system.

Develop your knowledge and understanding of the key mathematical principles necessary to underpin your education in engineering. On completion of this module, you should be able to apply mathematical methods, tools and notations to the analysis and solution of engineering problems.

You'll explore the concepts of logical algorithm design and numerical mathematics, and the application of logical algorithms to solve numerical mathematics problems in engineering. Application includes practical implementation in the form of programming logical algorithms.

Develop essential skills in interpreting circuit diagrams, building the corresponding physical prototype and using laboratory instruments to test and evaluate the circuit. You'll also have an opportunity to learn important practical laboratory skills and engage in a team design project.

Gain the necessary skills and knowledge to design and build a variety of electronic circuits and systems. Throughout this module, you'll learn the concept of 'signal conditioning' and practical implementation of amplifiers, filters and signal detectors, focusing on the real characteristics of operational amplifiers and the behaviour of circuits and components at high frequencies. The module also explores the use of analogue to digital conversion in the context of embedded systems, digital interf

Develop your knowledge and understanding of the properties of the semiconductor materials and devices used for transistors and optoelectronic devices. You'll gain an understanding of the principles of semiconductor physics, including an introduction to quantum mechanics and the design and analysis of important representative devices.

You'll cover fundamental concepts, models and principles related to the field of communication, using analytical tools for the design of modern communications systems, including Fourier analysis and signal processing, as well as the statistical treatment of signals. The module aims to provide you with a theoretical framework for understanding various aspects and components of communication systems and technologies.

This module will challenge you to design a prototype product within a tightly constrained set of software tools and hardware components. You'll be equipped to proficiently write, compile, run and debug C++ programs using standard techniques. It involves implementing diverse embedded software techniques on microcontrollers, emphasising the refining of diverse project skills in embedded systems design projects. The major objective is to develop proficiency in programming a state-of-the-art microco

Building on the digital electronics covered in year 1, you'll be taught how to implement digital designs onto programmable hardware using industry-standard tools, as well as simulate and verify designs before and after implementation. This module covers the study of microprocessors and FPGAs, providing a deep insight into computer architectures. Starting from transistors, you'll learn how to design your own computer and how to write computer programs in assembly language and binary machine code.

Develop the appropriate analytical skills and knowledge to design electrical power converters whilst gaining an understanding of power electronic conversion techniques, including the basic converters (DC-DC, AC-DC and DC-AC). You'll learn the methods of circuit analysis applicable to switched mode circuits and become familiar with the properties of the relevant semiconductor devices.

Learn the principles of high-frequency electronic systems and the theory and practice of modern radiofrequency (RF) and microwave circuit design.

Get introduced to the principles of electromechanical conversion with a focus on both DC and AC electric machines. This module covers the operation of electric machines, starting from basic electromechanical conversion principles to their numerous applications and visiting different machine types and designs. You'll be equipped with the necessary skills to select and analyse appropriate electric machines for different applications.

Gain an understanding of the theory and practice of control systems, including linear systems analysis using Laplace transforms and transfer functions, the transient response of feedback systems and stability criteria.

The Individual Engineering Project module is a simulation/hands-on experience that allows you to apply your engineering knowledge to investigate a real-world problem through a major independent technical project. You're expected to plan, design and execute the project, demonstrating your ability to manage time and resources effectively. You'll be under the supervision of an academic specialist who'll support and guide you throughout. The project encourages independent thinking, problem solving a

Explore the key aspects of working in a professional engineering environment and managing engineering activity. You'll develop a good understanding of the importance of engineering to society as well as the need to consider ethical, societal and environmental issues that accompany new technologies. You'll also learn about other topics relating to professional engineering such as quality management, risk management, innovation management, finance, intellectual property and data protection.

Learn the principles of digital audio, images and video, and digital content transmission systems.

You'll be introduced to the key principles of advanced digital communications systems, including pulse shaping, channel characteristics and multiple-access techniques in cellular mobile and optical communications systems.

Learn about the fundamentals of power system modelling, analysis and operation. You'll build an understanding of the various layers and components in modern power networks and how power systems are operated.

Professional engineers need to have a sound knowledge of how the engineering industry operates, including the different roles within companies, the operation of supply chains, legal and contractual issues and much more. This knowledge is vital for individual career planning. This module aims to help you develop a detailed understanding of the global engineering industry and will assist you in making appropriate career plans. You'll learn about diverse roles within the workplace, focusing on topi

In this Team Engineering Project, you'll work in a group of 3 or 4 to investigate and define a problem, utilising your technical knowledge gained in previous years of study to identify a solution. Work will be split into individual parts whilst coming together as a team. You'll present your findings through both verbal and written communication, supervised by an academic specialist who'll support and guide you throughout. Whilst this module will develop your teamworking skills, you'll also be en