Work at the forefront of global photonics and advanced materials research:
We are seeking students with a good understanding of physics and a degree in a related discipline to work with us on a variety of inter-related projects under major nanophotonics research programmes funded by the EPSRC (£5.6M) and the European Research Council (€2.6M).
You will join a strong international team of students, postdoctoral and academic staff working together on aspects of cutting-edge nanophotonics research – seeking to understand, control and utilize light and light-matter interactions at the sub-wavelengths scale. A remarkable range of new phenomena is found in this regime, with wide-ranging potential applications in, for example, telecommunications, metrology, sensing, defence, super-resolution imaging, and data storage.
Our projects are an opportunity to develop advanced skills in experimental photonics, computational electromagnetic modelling, application of machine learning and AI, electron and optical microscopy and nanofabrication. It is expected that students will publish a number of papers in leading academic journals and present their work at major international conferences as their research progresses.
Find out more about life as a postgraduate student at the Optoelectronics Research Centre, and the support available (including generous stipends for UK students) at https://www.orc.soton.ac.uk/phd.
The projects will be supervised by the team of Professor Nikolay Zheludev FRS, Professor Kevin MacDonad, Dr Eric Plum, Dr Nikitas Papasimakis, Dr Vassili Fedotov, Dr Jun-Yu (Bruce) Ou, and Dr Yjie Shen. See more details at www.nanophotonics.org.uk/niz/people/
Please direct informal enquiries to Professor Zheludev and Dr Plum including a copy of your CV.
Currently available PhD projects:
This project will develop new concepts of optical imaging, metrology and device functionality at the atomic scale leveraging recent advances in topology, the structuring of optical fields, metamaterials, and artificial intelligence.
This project will advance optics and electromagnetism in the first radically new direction to emerge since Hertz, Marconi, Popov and Tesla originally developed technology for generating, detecting, and communicating with transverse electromagnetic waves. It will study the generation, propagation and interaction with matter of “Flying Toroids” - a new type of light pulses.
The balance among elastic, electromagnetic and quantum forces changes dramatically at the nanometre scale. This project will explore the remarkable range of functional materials and devices that can be reconfigured with light and electromagnetic forces.
This project will develop a new class of nano-electro-mechanical systems, which will incorporate liquid crystals acting as a functional component. We envisage applications in smart, dynamically adaptable (and field-programmable) optical materials and sensors.
This project will develop bulk metamaterials (and their planar versions, metasurfaces) of palpable size with variable compositions and extraordinary optical properties by utilizing programmable and controllable self-assembly of nanomaterials via DNA scaffolds.