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Functional Materials and Energy Devices Group (FMED)
Research & Discoveries
Our research centers on the discovery, synthesis, and advanced characterisation of functional materials—specifically halide perovskites, nanostructured metal oxides, 2D layered double hydroxides, molecular complexes, and emerging semiconductors—to pioneer next-generation optoelectronic and energy technologies. We leverage these materials to develop high-efficiency solar photovoltaics (PV), photo- and X-ray detectors, LEDs, and solar-driven (photo)electrochemical systems for green hydrogen production and CO₂ reduction. Join us as we push the boundaries of materials science to drive innovation in sustainable energy technologies and contribute to a Net Zero future.
Research Overview, Themes & Scientific Directions
At the Functional Materials and Energy Devices (FMED) Lab, we bridge fundamental materials science with advanced device engineering to address pressing global energy and environmental challenges. By controlling structure and chemical functionality at the nanoscale, we translate novel material discoveries into scalable, high-performance applications. Our multidisciplinary approach spans the entire development pipeline—from low-cost chemical synthesis and in-depth spectroscopic characterisation to advanced device fabrication and long-term operational testing—paving the way for next-generation optoelectronics and clean energy conversion and storage technologies.
Materials Discovery, Synthesis, and Characterisations
We specialize in the rational design, synthesis, and fundamental characterisation of novel functional materials, including halide perovskites, nanostructured metal oxides, 2D layered double hydroxides, and molecular complexes. Utilizing scalable, low-cost solution processing, we tune material properties at the nanoscale to unlock superior optoelectronic and catalytic functionality for next-generation energy conversion applications.
Optoelectronic Devices
We engineer high-performance optoelectronic devices by harnessing tailor-made semiconductors and advanced interface architectures. Our research spans high-efficiency solar photovoltaics, solid-state lighting and displays, and ultra-sensitive photo- and X-ray detectors. By bridging fundamental semiconductor physics with robust device integration, we enhance efficiency, operational stability, and scalable manufacturing for clean energy and sensing technologies.
Green Fuels & (Photo)Electrocatalysis
We develop advanced (photo)electrochemical systems and heterogeneous electrocatalysts for solar-driven energy conversion, accelerating the global transition to a Net Zero future. Our research focuses on water oxidation, green hydrogen production, and CO₂ reduction. By converting abundant natural resources into clean, storable fuels and chemical feedstocks, we create sustainable technologies for clean energy storage and environmental remediation.