Our research seeks to answer a fundamental question: How can novel nanomaterials enable the next generation of energy-efficient technologies?

We use first-principles calculations, density functional theory (DFT), and multi-scale computational modeling to discover and design two-dimensional (2D) materials with tailored electronic, magnetic, optical, and catalytic properties. Our work spans nanoelectronics, quantum materials, energy storage, energy conversion, and heterostructure engineering, bridging fundamental materials science with practical applications.

By combining computational materials discovery with atomistic simulations, we aim to accelerate the development of sustainable materials for future electronic and energy technologies.

We are always looking for talented graduate students to join our group. If you are interested in pursuing a PhD in our group and wish to apply for a studentship (e.g., from your home country), please contact me via e-mail. I would be happy to discuss potential projects and applications with you!