Research

The QUANTUM-THz project represents a groundbreaking effort to enhance security systems using advanced Terahertz (THz) imaging technology powered by quantum materials. Unlike traditional X-rays, Terahertz radiation offers a powerful and safe alternative for detecting threats, as it can penetrate various materials without the risks associated with ionizing radiation, making it ideal for non-invasive security scanning

PRIN PLANET investigates the plasmonic properties of topological nodal-line semimetals, NiSe and CoSe, for advanced energy conversion. These materials have unique electronic structures that enable topologically protected plasmon modes. The project examines monolayers and nanoparticles to compare plasmonic behaviors at different scales. It emphasizes their anisotropic electromagnetic response, enhancing solar radiation interaction. Using Electron Energy Loss Spectroscopy (EELS), it provides insights into plasmonic excitations and their interactions, driving the development of novel plasmonic technologies.

IVANHOE utilizes new materials known as transition-metal trichalcogenides (TMTCs) to make hydrogen production more cost-effective. These materials are more affordable and stable compared to platinum. We aim to enhance the efficiency of our hydrogen production process. We will subject the new materials to real-world conditions to ascertain their viability for large-scale implementation.

Quantum materials have unique properties at the atomic level that make them incredibly efficient at conducting electricity and facilitating chemical reactions. These properties could make green hydrogen production more efficient and affordable. The bilateral collaboration integrates the proficiency of the Italian team in fabricating and validating quantum materials with the specialized expertise of the Singaporean team in performing simulations for real-world effectiveness.

ENTANGLE harnesses quantum materials to revolutionize seawater desalination and mineral recovery, contributing to a circular economy and environmental protection. The project utilizes an interdisciplinary approach combining advanced computational models, cutting-edge material synthesis techniques, and innovative experimental setups.

The EXBRINER Programme aims to deliver high-quality training to a talented cohort of ten Doctoral Candidates, fostering collaboration in a cross-sectoral and multidisciplinary environment to promote the development of next-generation membrane technologies for sustainable exploitation of desalination brine resources.