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. 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 research includes developing sustainable solutions for retrofitting buildings to meet net-zero targets, improving insulation, heat recovery, and managing off-grid systems.
The research within the aeronautical engineering includes investigating new technological solutions to aircraft sustainable design and performance. Numerical and experimental tools have been made available to conduct study on aerodynamic improvement to aircraft high-lift systems, looking into hydrogen propulsion configuration for emission reduction, and design optimisation of aerodynamic systems for an efficient and sustainable operation.
Our staff portfolio includes delivering high impact projects in the area of intelligent and digital manufacturing. This includes research in robotics, manufacturing information interoperability for establishing digital twins, 5 axis CNC programming and vector-based post processor development, composite manufacturing and metrology
Our research significantly contributes to the product development field, with a strong focus on inter/multidisciplinary collaborative product and process innovation, as highlighted in our REF UoA12 Impact case. In collaboration with UoA9 (Physics), we have developed advanced opto-mechanical systems, such as Microwave Plasma coating systems and gas sensors, alongside bio-medical technologies for bone cell growth using nano-vibrations. We also have a strong record in delivering Knowledge Transfer Partnership (KTP) projects, including expertise in composites for Phoenix and vision-assisted robotic systems for Helia Photonics. Additionally, our remanufacturing research has aided GCC in evaluating street-light housing imports.
At ISEEUWS, our research in Project and Quality Management priorities sustainable approaches for effective engineering and operational practices. In Engineering and Operations Management, we explore methods to optimise resources and reduce environmental impact, balancing productivity with sustainability. In Project, Programme, and Portfolio Management, we develop frameworks that align responsible project delivery with time and cost management, supporting efficient and sustainable outcomes.
Our work in Risk Management includes identifying environmental and operational risks, allowing organisations to manage challenges proactively and overcome them eventually. Through Lean Six Sigma, we study continuous improvement practices that aim to minimise waste, reduce defects, and enhance efficiency, promoting greener and streamlined operations. The research also addresses Industry 4.0 technologies, such as IoT, automation, and data analytics, to support advanced, sustainable manufacturing and project management practices. By combining these areas, we aim to develop practical solutions that support both business growth and responsible environmental management., contributing to a sustainable future for industries and communities.
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ISEE is at the forefront of innovative research in sustainable engineering, energy harvesting, and renewable energy systems. Our research is industry-focused and aims to deliver real-world solutions for reducing carbon footprints, improving energy efficiency, and creating equitable energy access for all. We have a successful track record of developing innovative products and processes through our underpinning research while working with our industry partners.
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