Summary
Join an exciting research project focused on transforming renewable lignocellulosic waste into Sustainable Aviation Fuel (SAF). This work addresses the critical need to decarbonise air travel and reduce dependence on fossil fuels by developing innovative catalytic processes. You will explore catalyst design, optimise reaction conditions, and contribute to creating scalable, cost-effective solutions for producing high-quality SAF. This project offers a unique opportunity to advance your skills in sustainable chemistry and make a meaningful impact on the future of green aviation while working in a dynamic research environment at the University of Leeds.
Full descriptionThis PhD project offers an exciting opportunity for research and innovation into transforming lignocellulosic waste into Sustainable Aviation Fuel (SAF). As the aviation industry seeks to reduce its carbon footprint, SAF represents a promising solution to decarbonise air travel. This research will explore efficient catalytic processes to convert renewable biomass into high-performance jet fuels, helping to meet global sustainability goals. With SAF offering a pathway to net-zero emissions, developing cost-effective, scalable production methods is crucial to achieving a sustainable future for aviation.
The successful applicant will join an enthusiastic research team at the School of Chemical and Process Engineering at the University of Leeds. Working at the Chemical Engineering-Chemistry interface, the successful applicant will gain hands-on experience in developing novel catalytic materials and advanced analytical tools, including spectroscopic and microscopic techniques through our state-of-the-art facilities at Bragg Centre for Materials Research. They will also have the opportunity to attend national and international conferences during their PhD studies. Equipped with knowledge and skills related to heterogeneous catalysis and applied green chemistry, the PhD graduate will be able to work in various sectors, from catalyst manufacturing industry and nanomaterials to the rapidly growing bioenergy and biochemicals.
