Gilmorehill Campus
Year 1
Build core engineering foundations through a shared curriculum covering mathematics, dynamics, materials, and thermodynamics. You’ll also develop practical skills in electronics, manufacturing, and engineering design, preparing you to analyse energy systems and low-carbon technologies.
Year 2
Develop essential knowledge in thermodynamics, fluid mechanics, mechanical design, and power electronics, supported by engineering mathematics and hands-on application. You’ll be introduced to renewable energy systems, sustainability, and civil engineering concepts such as geology and surveying.
Year 3
Advance your expertise in energy systems engineering, including control, heat transfer, and power engineering. You’ll apply simulation, instrumentation, and data analysis in design-focused projects, culminating in an integrated team project tackling real-world energy challenges.
Year 4
Undertake advanced study in energy engineering, combining a substantial individual research project with optional modules in areas such as power systems, thermofluids, environmental engineering, and emerging technologies including artificial intelligence and optimisation.
Year 5
Develop advanced expertise in energy systems, including energy conversion, waste heat recovery, and emerging approaches such as power-to-X. You’ll complete a major individual project and explore professional and entrepreneurial practice, with options in advanced control, electrical energy systems, and sustainability.
2027 entry requirements
Standard entry: 6 Highers at AAAAAA (by end S6 with min AAABB after S5) including Maths and Engineering Science or Physics at AA.
September
Degree
MEng
Full time
H801
5 years
College of Science and Engineering
James Watt School of Engineering
10