RESEARCH EXPERTISE
Energy Storage and Harvesting
Research under the theme of energy storage and conversion is split in two key areas:
(1) synthesis and characterisation of functional materials
(2) design and testing of energy storage and conversion devices. We are synthesising novel nanomaterials (two-dimensional and three-dimensional) for their use in range of energy and environmental applications particularly in next generation energy storage and conversion devices to find sustainable solutions of real-world problems.
Current research involves designing high power/high energy storage devices for their use in flexible, implantable and wearable electronic devices.
The research group focuses on the development and optimisation of energy systems, with an emphasis on improving efficiency and reducing carbon emissions. Key areas include power plant design, retrofitting for performance enhancement, and the optimisation of combined heat and power (CHP) systems. The group aims to improve energy efficiency by designing and optimising essential processes and equipment to reduce energy losses and maximise waste heat recovery.
Another unique area of research are Microalgae biorefineries; these are emerging as a pivotal technology in sustainable biofuel production. These systems utilize microalgae's capacity for wastewater treatment, effectively removing nutrients and contaminants while simultaneously capturing carbon dioxide emissions. Through various cultivation and extraction processes, microalgae can be converted into biodiesel and other biofuels, providing a renewable alternative to fossil fuels. Additionally, the biomass generated can be valorised into high-value chemicals, enhancing economic viability. By optimizing resource recovery and minimizing waste, microalgae biorefineries represent a multifaceted solution for sustainable energy production and environmental remediation, contributing to carbon neutrality goals and circular economy.
Additionally, the integration of renewable energy sources and the application of big data-driven optimisation algorithms are being explored as innovative approaches for creating sustainable energy systems. These technologies support the simulation and optimisation of energy systems.
Our expertise includes:
- Heat capture/recovery: Water, infrastructure
- Heat transfer and fluids
- Bio-energy
- Heat pumps
- Rechargeable batteries
- Supercapacitors
- Nanoporous carbon
- Transition metal oxides
- Hydrogen storage materials
- Hydrogen fuel cells
Staff
Current PhD
PhD opportunities