Research Directions

The State Key Laboratory of Optical Quantum Materials explores quantum materials, photonic systems and integrated quantum technologies through interdisciplinary research spanning materials synthesis, quantum phenomena, optical physics and device integration, the laboratory develops new platforms for exploring and controlling quantum states.
By combining these research directions, we aim to uncover new quantum phenomena, develop controllable quantum platforms and establish foundations for future optical and quantum technologies.

Major Research Directions

Photonics, Metamaterials and Applications

Developing advanced photonic structures, metamaterials and integrated optical systems for sensing, communication and intelligent photonic technologies.

Metamaterials Nanophotonics Integrated Photonics Optical Devices

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Light–Matter Interaction and Quantum Control

Exploring interactions between light and advanced materials to reveal and control quantum phenomena.

Quantum Materials Light–Matter Interaction Excitons Quantum Control

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Emerging Quantum Degrees of Freedom

Exploring new quantum states and phenomena in quantum systems to advance fundamental quantum science, quantum information and sensing technologies.

Quantum Phenomena Quantum Simulation Quantum Systems Topological Physics

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Advanced Materials Growth and Integration

Developing advanced quantum material growth, functional modification and scalable integration technologies for quantum and photonic devices.

Molecular Epitaxy Single Crystal Growth Functional Materials Integration

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Photonics, Metamaterials and Applications

RESEARCH AREA 01

Photonics, Metamaterials and Applications

Developing advanced photonic structures, metamaterials and integrated optical systems for sensing, communication and intelligent photonic technologies.

Overview

This research area focuses on developing advanced photonic structures, metamaterials and integrated optical systems for controlling and manipulating light. Through the design of engineered optical materials and structures, researchers explore new photonic functionalities and platforms for future optical technologies.

Research Focus

Metamaterials

Metamaterials are artificially engineered structures designed to achieve unique optical properties and provide new approaches for controlling electromagnetic responses and light propagation.

Nanophotonics

Nanophotonics investigates the interaction between light and nanoscale structures, enabling precise control of optical fields and advanced photonic functionalities.

Integrated Photonics

Integrated photonics focuses on combining optical components into compact platforms for efficient generation, manipulation and detection of optical signals.

Applications and Outlook

Potential applications include optical sensing, photonic communication, optical information technologies and advanced photonic devices. Future development of this field relies on new materials, nanoscale optical control and integrated photonic architectures.