Advancing Structured m-MOFs for Enhanced Carbon Capture and Removal in Industrial Applications - PhD Cranfield University in United Kingdom

This fully funded PhD opportunity at Cranfield University, under the EPSRC-funded EnerHy Centre for Doctoral Training (CDT), focuses on advancing structured monolithic metal-organic frameworks (m-MOFs) for enhanced carbon capture and removal in industrial applications. The project is conducted in collaboration with Immaterial, a Cambridge-based company pioneering MOF technology for industrial decarbonisation.

Metal-organic frameworks (MOFs) are recognised for their exceptional surface areas, tunable pore structures, and chemical versatility, making them highly effective for gas adsorption and separation. The 2025 Nobel Prize in Chemistry highlighted their significance in net-zero and industrial decarbonisation efforts. This research aims to optimise m-MOFs for industrial gas stream separations, combining experimental characterisation and performance testing with advanced computational fluid dynamics (CFD) modelling and dynamic process simulation.

Key objectives include designing and characterising m-MOFs with tailored properties, developing CFD models to support reactor and process design, and testing performance under realistic operating conditions such as pressure swing and temperature swing adsorption. The project will address challenges related to stability, regeneration efficiency, and integration of MOFs, supporting scalable and efficient carbon capture solutions aligned with global net-zero targets.

The successful candidate will join a vibrant research community within the EnerHy CDT, benefit from substantial training and development opportunities, and collaborate closely with Immaterial, including potential training at their site. Responsibilities include designing experiments, developing models, planning research, conducting literature reviews, disseminating findings through journals and conferences, and exploring industrial-scale integration of m-MOFs.

Funding covers an annual tax-free stipend of £20,780 and tuition fees for home students, with additional support for attending international conferences, workshops, and networking events. Applicants must hold a first or second class UK honours degree or equivalent in Chemical Engineering, Mechanical Engineering, Fluid Mechanics, or a related Engineering discipline. Practical experience in laboratory or industrial settings is preferred. Eligibility for funding requires classification as a home student.

Applications are reviewed as received, so early submission is recommended. For further information, contact Dr Ali Nabavi at [email protected]. Apply online via the provided link.