BEng Electrical Engineering

The Bachelor of Engineering in Electrical Engineering prepares graduates for professional design, technical leadership, and engineering roles across the power, energy, electronics, and technology sectors. Built upon a foundation of calculus, differential equations, linear algebra, and physics, the curriculum develops mastery in fundamental circuit analysis, network theorems, signal dynamics, electromagnetic fields, Maxwell’s equations, and engineering materials.

The program delivers thorough instruction in electronic and embedded digital systems. Students examine analogue semiconductor devices—including operational amplifiers, rectifiers, and filters—alongside digital logic, combinational and sequential circuit design, and hardware description languages. Coursework advances to microprocessors, microcontrollers, real-time embedded systems, Internet of Things (IoT) hardware, sensors, signal conditioning, and printed circuit board (PCB) design using electronic design automation tools.

Comprehensive coverage of energy conversion and power infrastructure is central to the program. Students analyze electrical machines, transformers, AC/DC drives, and power electronics, including switched-mode converters and inverters. The curriculum covers generation, transmission, high-voltage engineering, protection switchgear, fault analysis, smart grid automation, distributed generation, renewable energy systems (solar PV and wind), battery energy storage, and electric vehicle powertrain integration.

Students gain advanced skills in system modeling, control theory, and communications. The curriculum addresses classical PID feedback loops, modern state-space representation, programmable logic controllers (PLCs), SCADA, and robotics. This is paired with continuous and digital signal processing (DSP), analogue and digital telecommunications, radio frequency (RF) propagation, cellular networks, optical fiber communications, and industrial data network protocols.

Digital tools and data-driven methods are integrated throughout the program. Students utilize software for circuit simulation, electromagnetic modeling, control analysis, and power flow computation. They also study applied machine learning and data analytics for predictive maintenance, fault diagnosis, and intelligent energy management, while embedding sustainability, lifecycle carbon reduction, and low-power engineering practices into their design solutions.

Hands-on laboratory testing, prototyping, and field investigations culminate in a major Final-Year Electrical Engineering Capstone Project. Students define a complex technical problem, conduct research, develop schematics, run simulations, construct a physical or simulated prototype, verify safety and regulatory compliance, and present their findings. Graduates emerge ready for professional practice within power utilities, automation firms, telecommunication networks, transport engineering, and technology consultancies.