University Of Greenwich Collaborates On £4M Engineering & Physical Sciences Research Council Venture

ARCANE focuses on miniaturisation of high-pressure turbine castings that are critical for environmentally friendly hybrid electric long-range flight. These blades are manufactured as Nickel superalloy single crystals with incredible properties that allow operation at extreme conditions. However, even the smallest imperfection in the microstructure can render the blade useless, and

ARCANE focuses on miniaturisation of high-pressure turbine castings that are critical for environmentally friendly hybrid electric long-range flight. These blades are manufactured as Nickel superalloy single crystals with incredible properties that allow operation at extreme conditions. However, even the smallest imperfection in the microstructure can render the blade useless, and miniaturisation brings about great challenges to prevent their formation.
At Greenwich, the Computational Science and Engineering Group in the Faculty of Engineering and
Science will use their state-of-the-art mathematical modelling and computational simulation tools to
develop the underpinning scientific understanding to mitigate defect formation and to then design new
ways to reliably manufacture this new generation of blades.
Dr Andrew Kao, Director of the Centre for Advanced Simulation and Modelling:
“The way defects form in turbine blades is a complex multi-physics process involving microscale
solidification, fluid dynamics and structural mechanics. We have spent decades developing numerical
tools to meet this challenge.”

Leave a Reply

Your email address will not be published. Required fields are marked *