BSc (Hons) Electrical and Electronic Engineering including an Industrial Year Bachelor's degree at the University of Nottingham

Get hands-on with the first-year individual practical design project. In this module, across eight dedicated project weeks, you'll construct an autonomous vehicle platform and develop your own solutions for multiple engineering challenges. As well as building on the theoretical knowledge acquired from the other modules, you'll build skills in circuit design, programming and troubleshooting. It's a chance to apply your learning in a practical setting while developing the problem-solving mindset e

Prepare for your future as a professional engineer. Discover how modern engineers shape the world responsibly, tackle global challenges, champion sustainability and drive inclusive innovation. This module introduces technical themes and engineering disciplines that are driving modern engineering. As you study these diverse themes, you'll engage in discussion with your peers, conduct independent research and learn how to present your findings confidently, preparing you for your continuing studies

Develop core mathematical tools essential for solving real-world engineering problems. In this module, you'll apply techniques such as calculus, complex numbers and vectors to simplify electrical networks and describe electromagnetic fields. Rather than focusing on formal proofs, the emphasis is on using mathematics as a practical toolset to support your work in electronics, systems and signal processing.

Understand the essential principles of electronic and information systems, from digital logic to amplifiers, filters and semiconductor devices. You'll explore how signals behave, where noise comes from and how communication systems operate. Simulation tools help bring circuit behaviour to life and reinforce your analysis skills. This module builds a solid platform for future work in electronics, communications and digital systems.

Develop your programming skills in an engineering context. This module teaches how to analyse problems and develop code to solve them, using structured approaches that translate across platforms. You'll work on practical tasks that show how software supports engineering design, testing and control. These foundational skills are applied throughout the degree in both individual and group projects.

Explore the foundations of electrical power systems and how energy is generated, transmitted and used. You'll learn to analyse circuits, understand AC and DC behaviour, and study how core components like transformers and machines operate. The module also introduces future-facing topics like renewable integration and the challenges of building modern power networks. It sets the groundwork for further study in energy systems and infrastructure.

Connect your technical learning with the broader role of engineers in the world. Led by expert researchers, you'll explore research that is shaping our future society and examine real-world applications and breakthroughs. At the same time, you'll delve into topics including ethics, regulation and sustainability, allowing you to gain a vital appreciation of the wider societal aspects of the engineering profession.

Explore the software engineering techniques behind high-quality, reliable code. This module introduces object-oriented programming using C++, showing how design decisions affect long-term software performance and maintenance. You'll develop structured, reusable code and understand key principles like modularity, encapsulation and inheritance. This prepares you to build software systems used in control, modelling and embedded applications.

Learn how electrical energy is managed, converted and controlled in real systems. You'll explore power electronics, renewable technologies, electrical machines and the fundamentals of control engineering. This module shows how different energy technologies are connected and provides the theoretical and practical grounding for specialist study in energy systems and power electronics.

Develop your understanding of the technologies behind modern electronic and communication systems. This module focuses on the theoretical design and analysis of analogue and digital circuits, including transistor-based circuits, logic systems and filtering techniques. It also builds on your knowledge of communication systems and explores how noise and interference affect signal integrity. You'll build the skills needed to evaluate system behaviour and understand the building blocks of more compl

Work in teams to design and prototype an electronic system. You'll apply your understanding of circuit design, microcontrollers and programmable logic to develop a working system. Alongside technical skills, the project builds teamwork, communication and project management abilities - preparing you for more advanced design modules and professional project work.

Design and build a functional power electronics converter as part of a team. This lab-based project lets you demonstrate your understanding of circuits, magnetic components and testing to accomplish a real engineering task. You'll gain hands-on experience in system development while strengthening skills in collaboration and technical communication.

Learn how to build and analyse mathematical models of engineering systems. This module covers dynamic systems, digital systems, numerical methods and data analysis - giving you the tools to simulate and solve real engineering problems. You'll also use software tools to apply these techniques practically.

Subject to you meeting the relevant requirements, this year will be spent in industry. The placement year opportunity enables you to take what you've learned and apply it to real projects in a professional working environment. You will be supported by a placement tutor in securing a position and they will keep in touch during the year to see how you are getting on. The placement year can provide you with a source of income and can even lead to a job offer before you've graduated.

Explore the design of transistor amplifiers and high-frequency microwave circuits. This module covers topics in two parts; part one will focus on BJT and MOSFET amplifier behaviour in low and high frequency. This covers differential amplifiers, active loads, current mirror design and noise in integrated circuits. In part two, the focus will be directed to; transmission lines, network analysis and microwave device design using industry-standard tools. You will gain hands-on experience with BJT am

Engineers working in industry usually find that they become involved in extended practical or theoretical projects. This module provides an opportunity for you to work in a similar situation. You'll indicate your project preferences then work under the supervision of an expert member of staff to write a dissertation on your work and present it publicly. You'll have weekly individual tutorial with your project supervisor, but otherwise you'll be expected to work alone.

Develop the professional and interpersonal skills essential for a successful engineering career. This module focuses on communication, teamwork, project management and ethical considerations in engineering practice. You will explore industry standards, legal responsibilities and sustainable practices, preparing you to navigate complex challenges in professional environments. Through group projects and presentations, this module provides a foundation for leadership and collaboration in the workpl

Delve into the world of VLSI and digital integrated circuit design, with a focus on CMOS technology and system-level performance. This module explores how logic gates are implemented on silicon and how design decisions shape the behaviour of modern chips. You'll learn to analyse and optimise digital circuits using industry-relevant simulation tools, gaining insight into the challenges of high-speed, low-power hardware design. Whether you're aiming for roles in microelectronics, system-on-chip de

Explore advanced mathematical techniques for solving complex engineering problems. This module covers matrix operations, eigenproblems, signal processing and transforms, and data compression, with applications in system modelling and simulation. Learn how to optimise engineering models using singular value decomposition, wavelets and iterative approaches. Learn to compress and represent your data using complementary transforms – such as for square-wave data – or using Principal Component Analysi

Explore the power of Natural Language Processing, master regression analyses, and unravel the efficiencies of YOLO for object detection. Combining theory with hands-on Python-based lab sessions, this module ensures a practical understanding and even offers a Python primer class for non-Python programmers. Perfect for engineers eager to harness data and AI tools effectively.

Delve into the world of cybersecurity with a focus on software, network and data security. You will learn to identify and mitigate software vulnerabilities, explore encryption principles and examine network risks through practical lab exercises and real-world demonstrations. From secure application development to network penetration testing, this module equips you to address contemporary cybersecurity challenges in engineering systems.

Discover the principles of modern digital communication systems, including analogue-to-digital conversion, data compression and error correction. With practical coursework on JPEG compression and line coding, you will gain a deep understanding of information theory and channel capacity. This module prepares you to design efficient communication systems for modern applications, from high-bandwidth communication to internet connectivity, ensuring minimal errors and optimised data transmission.

Gain critical knowledge of electrical machines and drive systems, from induction and synchronous machines to AC and switched reluctance drives. This module emphasises practical design and application, helping you specify and optimise machines and drives for diverse applications such as robotics and electric vehicles. Topics include fundamental performance, design considerations, regulations, and the integration of machine and drive technology into overall systems.