Quantum nanophotonics and collective effects
Light transport and storage in coupled quantum systems, non-radiative collective quantum states, and the generation of entangled photons.
Quantum nanophotonics and optomechanics
We study the interaction of light, sound, and matter in resonant nanostructures - from collective quantum states to optical and acoustic forces, nonlinear metasurfaces, and reconfigurable photonic devices. Joining theory, numerical design, and experiment, we turn fundamental wave physics into platforms for new technologies.
Research directions
We group our work into six connected directions — from quantum optics to opto- and acoustomechanics.
Nonlinear nanophotonics
Nanostructures engineering with enhanced nonlinear optical response, including second-harmonic generation (SGH).
Opto- and acoustomechanics
Optical and acoustic forces, including effects mediated by surface waves, optical binding, and the transfer of linear and angular momentum from light and sound to matter.
Metamaterials and metasurfaces
Dielectric and hybrid platforms (BIC and high-Q states) to steer emission, nonlinear effects, and photonic flows.
Thermo- and photoinduced processes
Heating and photoresponses control in nanophotonics to deliver stable and adaptive optical devices.
AI integration in nanophotonics
Machine learning with photonic platforms for autonomous design, characterization, and optimization of nanostructures.
Projects 2026
Active research projects.
Project "AcoustoLab"
Development of a laboratory for opto- and acousto-mechanical research, including the design of novel types of acoustic resonators.
Laboratory WebsiteFlagship Project "Quantum Nanophotonics for Next-Gen Communication"
Studies in waveguide QED and quantum light states for integration into next-generation communication platforms
Applied Project on Photonic Sensors
Development of hybrid MoS₂–Si sensors with photo- and thermo-induced spectral tuning.
AI for Nanophotonics Design
Integration of artificial intelligence for inverse nanophotonic design and optimization of nonlinear optical processes.