Ongoing Projects
Our group is focusing on the cutting-edge technologies in materials science, photonics, and nanofabrication. We specialize in the synthesis of advanced materials such as perovskite nanocrystals, traditional II-VI and III-V quantum dots, cabron dots, and many others. We further explore the potential of nanomaterials in electrocatalysis and photovoltaics, aiming to enhance energy conversion. A significant part of our work is devoted to the development of the new materials for LEDs and photodetectors, both in the visible and in the NIR spectral range. Through these interdisciplinary efforts, we are committed to advancing the understanding and application of nanomaterials to address global technoligical challenges.
Catalysis
We are investigating the catalytic properties of MXenes, halide perovskites, topological insulators, and covalent-organic frameworks. Our approach involves engineering defects, doping with single and dual atoms, modifying surfaces through ligand chemistry, and designing nanoheterostructures.
Read our recent works on catalysis:
Infrared Optoelectronics
Our research group is at the forefront of developing HgTe QDs for infrared devices, emphasizing the enhancement of their performance and applicability in various technological domains. We are exploring new ways to synthesize HgTe QDs and better control their shape, size, and ligand composition, aiming to improve their morphological and spectral properties to meet the strict requirements of infrared optoelectronics.
Read our recent works on HgTe:
Luminescent Transparent Wood
An emerging topic in our group is utilization of nature-inspired photonic materials for solar harvesting and lighting applications. In particular, we study the unique scattering properties of transparent wood and it can dramatically boost the efficiency of luminescent solar concentrators.
Perovskite LEDs
Our group's major focus is on developing advanced perovskite LEDs, particularly spin-LEDs, due to their promising applications in optical communication, biological imaging, and quantum information processing. By implementing chiral perovskite nanocrystals, we aim to enhance the efficiency, brightness, and color purity of these light sources.
Read our recent works on perovskite LEDs: