Cranfield University

What you'll study

This MSc develops the thermofluid and combustion knowledge needed to understand, analyse and improve gas turbine systems used in thermal power and industrial power generation. The programme combines taught modules with hands-on laboratory and test-rig work and a substantial individual research or industry project.

• Core engineering topics: advanced thermodynamics and gas turbine cycles, combustion fundamentals, heat transfer and cooling, turbomachinery aerodynamics and component matching.
• Performance and diagnostics: thermodynamic performance analysis, part-load behaviour, emissions and efficiency optimisation, condition monitoring and failure modes.
• Design and modelling: gas path and component design, blade/channels cooling strategies, computational methods for turbomachinery (CFD) and multidisciplinary design considerations.
• Experimental skills: engine and rig testing, measurement techniques, data acquisition and uncertainty analysis using on‑site test cells and laboratory facilities.
• Systems and integration: combined-cycle and hybrid power plant integration, system control and transient behaviour relevant to grid and industrial operation.
• Project: a major individual research or industry-linked project in thermal power applications of gas turbines, allowing students to apply theory to real engineering problems.

Entry requirements

Applicants are normally expected to hold a good honours degree in mechanical engineering, aerospace engineering, energy engineering, physics or a closely related engineering/physical sciences subject. Applicants with a lower second-class degree may be considered where they can demonstrate relevant industrial experience or additional professional qualifications.

Competence in core subjects such as thermodynamics, fluid mechanics, heat transfer and a basic familiarity with mathematics and numerical methods is important. International applicants will need to meet English language requirements appropriate to postgraduate study; evidence of recent industrial experience, employer sponsorship or a strong academic record strengthens an application.

Career prospects

Graduates go on to roles across the power and turbomachinery sectors, including thermal power generation, gas turbine original equipment manufacturers (OEMs), industrial gas turbine operators and engineering consultancies. Typical roles include:

• Gas turbine performance engineer or test engineer
• Combustion or emissions engineer
• Turbomachinery design engineer (blades, vanes, cooling systems)
• Condition monitoring and reliability engineer for power plants
• Systems integration engineer for combined-cycle or hybrid plants
• R&D engineer or PhD candidate in propulsion, power systems or advanced combustion

The programme’s practical focus and industry project element are designed to make graduates attractive to employers seeking engineers who can move quickly from analysis to testing and implementation.

Why study at Cranfield University

Cranfield is known for its vocationally focused engineering masters and close industry engagement. The university offers practical exposure to gas turbine testing and laboratory work, small cohort sizes that enable personalised supervision, and a project-focused curriculum that connects directly with employer needs. Teaching is delivered by staff with industrial and research experience and the course emphasises hands-on skills, test-rig experience and computational analysis that are immediately applicable in gas turbine and power generation careers.