Rate My Professor Peter Ireland

Professor Peter Ireland is the Donald Schultz Professor of Turbomachinery in the Department of Engineering Science at the University of Oxford, where he also directs the Oxford Thermofluids Institute. A Fellow of St Catherine's College and St Anne's College, he holds fellowships from the Royal Academy of Engineering (FREng) and the Institution of Mechanical Engineers (FIMechE). From 2007 to 2011, Ireland served as the UK Corporate Specialist in Heat Transfer at Rolls-Royce Aerospace, leading efforts on turbines, fuel cells, nuclear power, fire modelling, instrumentation, heat exchangers, power electronics cooling, and combustion projects. He is the co-founder of two spin-out companies from Oxford and provides consultancy in heat exchangers, cooling technologies, and zero-carbon aviation.

Ireland's research centers on convective heat transfer and cooling technologies essential for aero-engines and to decarbonise flight. His key areas include turbine cooling, fusion reactor cooling and high heat flux applications, transpiration cooling, heat transfer in advanced manufacturing, and jet engine installation research. He pioneered the application of temperature-sensitive liquid crystals for heat transfer measurements, a technique now utilized by the majority of major aero-engine manufacturers in developing and evaluating new turbine blade cooling systems. His contributions involve innovative experiments and instrumentation to measure heat transfer under extreme conditions in components for jet engines, fusion tokamaks, rockets, and F1 cars. As co-inventor of several high-performance turbine cooling systems deployed in industry and holder of over 25 patents, his work has profoundly impacted turbomachinery technologies. Ireland has supervised 34 DPhil doctoral graduates and currently leads a research group of 16 students and postdoctoral researchers. He has authored more than 230 peer-reviewed papers, including recent publications such as 'Heat transfer coefficients for fully developed internal flows with variable properties and dissipative heating', 'Towards a general design framework for external tubular solar receivers using pressurised gaseous or supercritical fluids', 'Viability of Fiber Optic Temperature Sensors Embedded Within Engine-Scale Turbine Blades', 'Detailed heat transfer measurements on rectangular channels with partial length 3D round-edged rib turbulators', and 'Thermal-Fluid Performance Degradation of Turbulators in Additively Manufactured Turbine Cooling'.