Overview

Electrical and electronic technologies underpin nearly every facet of modern civilization, driving innovations from clean power systems to advanced global communications. The BEng (Hons) Electrical and Electronic Engineering at the University of Sheffield prepares students to solve pressingly complex technological issues across diverse global sectors. Instruction is delivered by active academic researchers whose ongoing partnerships with industrial leaders directly shape the curriculum. Undergraduates apply fundamental theories through hands-on project work in state-of-the-art facilities, including specialist engineering laboratories in The Diamond building and the creative iForge Makerspace. As the degree progresses, students undertake embedded research projects within specialist groups to solve real-world technical problems. This program suits inquisitive individuals eager to design sustainable solutions for urgent global challenges in electric transport, healthcare, and artificial intelligence. Graduates leave equipped with high-level technical expertise, research experience, and practical engineering skills required for successful careers across technical and commercial industries.

What You'll Learn

Analysis and design of direct and alternating current electrical circuits and networks

Semiconductor electronics, electronic devices, and microelectronic circuit manufacturing

Power system engineering, electrical machines, and modern power electronic converters

Digital systems engineering, hardware design, and logic circuit architecture

Principles of signal processing, communications electronics, and high-frequency systems

Advanced engineering mathematics, computational modeling, and system simulation techniques

Embedded hardware development, automation, and intelligent system control

Practical engineering design methodologies applied within dedicated makerspace and laboratory environments

Learning Outcomes

By completing this program, students develop an extensive understanding of electrical and electronic principles spanning from microscopic semiconductor devices to macroscale power distribution networks. Learners gain the capacity to critically evaluate complex engineering challenges, applying analytical methodologies to design reliable technical solutions for real-world issues in renewable energy, healthcare systems, electric transport, and artificial intelligence. Through extensive practical experimentation in specialized laboratories and prototyping environments, students master hands-on skills in circuit construction, computer-aided simulation, hardware debugging, and system testing. Furthermore, the flexible curriculum empowers undergraduates to specialize in advanced domains such as high-frequency communication, semiconductor engineering, or digital systems design. Ultimately, graduates possess the technical rigour, creative problem-solving capability, and professional engineering mindset necessary to lead innovative projects across research and industrial sectors.