Research
Optical Science of Nanomaterials
We study the optical phenomena of nanomaterials, with a focus on atomically thin (two-dimensional) materials. These materials, only a few atoms thick, exhibit optical properties fundamentally different from conventional three-dimensional materials. By precisely stacking different atomic layers, we can artificially create novel physical properties and functionalities.
Leveraging cutting-edge optical measurement techniques and nanofabrication technologies, we aim to understand and control light-matter interactions at the atomic level. Our research spans from fundamental physics exploration to the development of new optical functionalities.
Research Themes
Design of Nanostructures
We precisely stack and process atomically thin materials to create artificial nanostructures that do not exist in nature. By controlling the interaction between light and matter, we aim to explore novel optical phenomena and functionalities.
Nonlinear Phenomena via Symmetry Control
By combining atomically thin materials with different symmetries, we create nanostructures with symmetries that cannot be achieved in bulk crystals. Through this approach, we aim to realize new nonlinear optical responses.
Quantum Optical Phenomena
In atomically thin materials stacked at specific angles, moire potentials form quantum two-level systems. We are working on observing and controlling quantum optical phenomena using these systems.
Facilities
❯Lab Equipment
Coming soon
❯IMS Shared Facilities
The following equipment is available at IMS →