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Dr Alex Murray


Alexander Murray DPhil (Oxon) MEng MRes

Research Fellow and Engineering Manager


Dr. Alexander Murray currently holds the post of Research Fellow and Engineering Manager at the Oxford Thermofluids Institute. His research focuses on technologies relating to reducing greenhouse gas emission in the aviation industry and more broadly. His research interests include sustainable aviation including hydrogen-based propulsion architectures, advanced gas turbine cooling and material technologies, and carbon capture technologies.

Alexander completed his Master’s in Engineering Science at the University of Oxford, where he was a member of Wadham College. He then joined the newly established EPSRC CDT in Gas Turbine Aerodynamics at the University of Cambridge where he undertook a Master of Research degree. On completion of this, he returned to the University of Oxford to undertake his Doctor of Philosophy degree under the supervision of Professor Peter Ireland at the Oxford Thermofluids Institute. His research was performed in collaboration with Rolls-Royce plc and investigated novel cooling technologies for gas turbine applications.

Oxford Thermofluids Institute


Alexander’s research interests focus on technologies that reduce greenhouse gas emissions in the aviation industry. This includes investigating hydrogen-based prolusion architectures as a basis for sustainable aviation. His research – in collaboration with industry and academic partners – also focuses on increasing the efficiency of current gas turbine engines via both advancements in turbine cooling systems and the use of advanced materials. Such advancements in turbine cooling potentially permit significant reductions in engine fuel consumption, thereby reducing carbon emissions. He is also involved in investigating carbon capture technologies that have the potential to reverse the effects of climate change.

More generally, his research interests pertain to aerodynamics and heat transfer, with emphasis on both experimental and computational methods. On the latter, he has an active interest in developing low order methods that can drastically reduce computational resource requirements, helping to vastly reduce the costs associated with heat exchanger system design such as those employed in turbine applications.

Alexander's research interests have also branched out into investigating ceramic matrix composites and the mechanical strength of turbine cooling systems under thermal load in collaboration with the University’s Solid Mechanics Group. The work is relatively novel in the field and something he hopes to further develop. Additionally, he is involved in a multi-institutional research project exploring methods of manufacturing high performance cooling systems.

As part of his current role, Alexander is Chief Engineer, and researcher, on the multi-institutional, £7.34 million UK-EPSRC Transpiration Cooling Systems grant.

Current Projects

  • EPSRC Transpiration Cooling Systems 
    Research into the aerothermal and mechanical aspects of transpiration cooling systems for gas turbine applications
    Research into Ceramic Matrix Composite technology
    Research into aerodynamics of the core of the gas turbine to improve efficiency

Research Groups

Current Research Interests

  • Sustainable Aviation
  • Aerothermal Design
  • Turbine Cooling Systems
  • Heat Exchanger Design
  • Carbon Capture System
  • Heat Transfer Experimental Methods
  • Computational Fluids Dynamics and Low Order Methods
  • Thermomechanical Design


  • Jiang, Y., Murray, A. V., Ireland, P. T., & di Mare, L. (2021). Mesh Sensitivity of RANS Simulations on Film Cooling Flow. International Journal of Heat and Mass Transfer, Forthcoming
  • Courtis, M., Murray, A. V., Coulton, B., Ireland, P. T., & Mayo, I. (2021). Influence of Spanwise and Streamwise Film Hole Spacing on Adiabatic Film Effectiveness for Effusion-Cooled Gas Turbine Blades. International Journal of Turbomachinery, Propulsion and Power, 6(3), 37.
  • Murray, A. V., Ireland, P. T., & Romero, E. (2021). An Experimentally Validated Low-Order Model of the Thermal Response of Double-Wall Effusion Cooling Systems for High-Pressure Turbine Blades. Journal of Turbomachinery, 143(11), 111015.
  • Murray, A. V., Ireland, P. T., & Romero, E. (2020). Experimental and Computational Methods for the Evaluation of Double-Wall, Effusion Cooling Systems. Journal of Turbomachinery, 142(11), 111003.
  • Jiang, Y., Murray, A. V., Ireland, P. T., & di Mare, L. (2020). Coolant Jets Interaction in Effusion Cooling System: Experimental and Numerical Study. Journal of Turbomachinery, 142(9), 091007.
  • Elmukashfi, E., Murray, A. V., Ireland, P. T., & Cocks, A. C. (2020). Analysis of the Thermomechanical Stresses in Double-Wall Effusion Cooled Systems. Journal of Turbomachinery, 142(5), 051002.
  • Murray, A. V., Ireland, P. T., Romero, E, & Rawlinson, A. J. (2020). Double-wall Geometry, Patent Application Number 16720412, US
  • Murray, A. V., Ireland, P. T., & Romero, E. (2019). Development of a steady-state experimental facility for the analysis of double-wall effusion cooling geometries. Journal of Turbomachinery, 141(4), 041008.
  • Ngetich, G. C., Murray, A. V., Ireland, P. T., & Romero, E. (2019). A three-dimensional conjugate approach for analyzing a double-walled effusion-cooled turbine blade. Journal of Turbomachinery, 141(1), 011002.
  • Murray, A. V., Ireland, P. T., Wong, T. H., Tang, S. W., & Rawlinson, A. J. (2018). High Resolution Experimental and Computational Methods for Modelling Multiple Row Effusion Cooling Performance. International Journal of Turbomachinery, Propulsion and Power, 3(1), 4.
  • Murray, A. V., Ireland, P. T., & Rawlinson, A. J. (2017, June). An Integrated Conjugate Computational Approach for Evaluating the Aerothermal and Thermomechanical Performance of Double-Wall Effusion Cooled Systems. In Turbo Expo: Power for Land, Sea, and Air (Vol. 50886, p. V05BT22A015). American Society of Mechanical Engineers.