Research

Research Approach

Our research focuses on understanding and engineering interfaces where materials interact with their environment. By combining materials design, synthesis, characterization and application-oriented testing, we develop functional materials that address challenges in sustainable energy and resource efficiency.

Three Research Themes

1 - Carbon capture & utilization

Reactive interfaces for capturing, storing and transforming carbon dioxide

We investigate reactive interfaces that enable carbon dioxide to be captured, stored and converted into useful materials. Our research explores carbon dioxide adsorption, mineralisation and fluid–mineral interactions, including the use of bio- and waste-derived materials and polymer-mediated crystallisation to transform captured carbon dioxide into functional carbonate materials. By coupling carbon removal with materials production and resource valorisation, we aim to develop practical pathways towards a more circular carbon economy.

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2 - Adaptive & responsive materials

Materials and interfaces that respond to their environment and external stimuli

We develop materials that respond to external stimuli by changing their shape, thermal behaviour or optical and surface properties. Our research includes electroactive shape-memory polymer composites, thermochromic coatings, adaptive and stimuli-responsive surfaces, and multifunctional materials designed for applications ranging from wearable technologies and healthcare to energy-efficient buildings and material protection. By engineering interfaces between polymers, particles and functional phases, we seek to create materials that actively adapt to their environment while maintaining or improving performance and durability.

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3 - Energy & Electrochemistry

Interfacial engineering for sustainable energy storage and electrochemical technologies

We engineer interfaces that control ion transport, charge transfer and stability in next-generation energy materials and electrochemical systems. Our research focuses on zinc-ion batteries and other beyond-lithium technologies, including biopolymer electrolytes, electrode–electrolyte interfaces and sustainable carbon materials derived from bio-based feedstocks. By designing materials and interfaces for improved performance, durability and sustainability, we aim to enable safer and more resource-efficient energy storage technologies.

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Research Capabilities

Our research is supported by a broad range of capabilities for materials synthesis, interface engineering, advanced characterization and performance testing. These facilities allow us to connect materials design and processing with their chemical, physical and functional properties.