My research focuses on the intersection of nanophotonics and quantum optics, with an emphasis on advancing integrated quantum technologies. The aim is to enhance the performance, stability, and scalability of photonic quantum devices while minimising their environmental impact.

Key Research Areas

• Nanophotonics and Quantum Optics: Development of methods to integrate quantum optical components, improving system performance and miniaturisation.

• Nano-Optics and Plasmonics: Investigation of light interactions with nanostructures, utilising plasmonic effects to improve sensitivity and functionality in photonic devices.

• Waveguide Quantum Electrodynamics (QED): Study of quantum emitters coupled with optical waveguides for directional photon-emitter coupling.

• Single-Photon Sources and Nanoscale Quantum Sensors: Focus on developing and optimising single-photon sources, crucial for quantum networking and sensing applications.

• Spin-Optic Coupling in Nanophotonics: Investigation of nanophotonic interfaces, including plasmonic and metasurface resonators, to enhance spin-optic coupling for improving spin-based quantum sensing and networking.

• Photonic Crystals and Integrated Photonics: Design and fabrication of photonic crystals and integrated devices to enhance light-matter interactions for compact quantum optical circuits.

• Atomic Defects in Nanomaterials: Investigation of optical and spin properties of defect centres in nanomaterials, such as diamond nanocrystals and hexagonal boron nitride (hBN), for integrated quantum technologies.

• Low-Temperature Spectroscopy and Confocal Imaging: Use of advanced techniques to study the properties and interactions of quantum emitters, aiming to improve the stability and performance of quantum devices.

Research Impact and Applications

The research contributes to advancements in quantum communication, computing, and sensing technologies. By integrating quantum emitters with nanofabrication techniques, the goal is to enable the scalable implementation of quantum systems for real-life applications.

Collaboration and Opportunities

Collaborations with academic and industrial partners are welcomed. For those interested in pursuing a PhD, postdoctoral position, or research collaboration, please contact [email protected].

Teaching

• Level 3 OPT1: Optical Fibre Communications and Waveguides
• Level 4 PHY4001: MSci Projects
• Level 4 PHY4010: Physics of Nanomaterials - Plasmonics