Current research degree projects

Explore our current postgraduate research degree and PhD opportunities.
Explore our current postgraduate research degree and PhD opportunities.
This interdisciplinary project aims to develop chip-based, microscale optical resonators for quantum technologies. Optical resonators strongly enhance the interaction between matter and light and integrating them on a microchip will allow scalable quantum computing, communication, and sensing.
Magnetometers are crucial in aerospace, geological mapping, and drone technology. 天发娱乐棋牌_天发娱乐APP-官网|下载 innovative project leverages distributed quantum sensing, implemented on an array of optomechanical metasurfaces, to create room-temperature, chip-scale remote magnetometers with high signal-to-noise sensing capabilities in complex environments.
This project will investigate a novel nano-opto-electro-mechanical (NOEM) qubit that has been realised on a nanoscale suspended beam, controlled electrically and read out via optical interaction.
An exceptional point is a singularity point in the energy bands of non-Hermitian systems, which possesses exponential sensitivity to external perturbations. Such exceptional points appear in open quantum optical systems such as nanocavities, nanomechanical resonators, and quantum interferometers. This project aims to build exceptional points in quantum optical systems and use them for sensing applications.
A novel nano-opto-electro-mechanical (NOEM) tunable SiC entangled photon source will be developed for future on-chip quantum photonic circuits technology. Design optimisation, device fabrication and single photon measurements are planned to prove the working principle and tunability of the device.
Metal halide perovskite nanocrystals are a promising platform for classical and quantum light emitters. They have great potential for single-photon emitters, which are key building blocks for quantum communication networks. This project combines synthesis, optical characterisation, and NMR studies of metal halide perovskite quantum dots and their optimisation for quantum emitters.
The aim of the project is to develop a novel platform technology for quantum reservoir computing, a promising approach for quantum neural networks where quantum information can be used as data in machine learning algorithms.
Perovskite quantum dots show great potential for tunable light emitters. In particular, they can be employed as single-photon emitters, which are key building blocks for quantum communication networks. This project will study the fundamental photophysics behind photon emission of perovskite semiconductor nanoparticles and develop new platforms for quantum technologies.
This project will develop detectors for topologically structured light at the few- and single-photon level, enabling applications in imaging, metrology, and telecommunications.
Inhomogeneities degrade the performance of atom interferometers used for inertial and magnetic sensing. Optimal Control allows the design of laser pulse shapes that restore interferometer fidelity. This project will extend optimal control design beyond individual pulses to entire interferometer sequences and systems, and explore curious artefacts.