This 4/5-year course is based on physics but includes content from chemistry and biology to give an important appreciation of how all the sciences have new effects to be observed and new applications to be discovered.
Combining interdisciplinary teaching with cutting edge research, this flagship course will train the next generation of nanotechnologists. The course is associated with the London Centre for Nanotechnology, a joint venture between Imperial College London and UCL, allowing a wider choice of collaborative opportunities.
Nanophotonics is a stream within the university's MSc in Physics which is where the science and technology of nanotechnology and photonics meet, delivering the manipulation and control of light on the nanoscale.
The main research topics are: Nanomagnetic Logic Devices; Nanoscale Hall-probe Devices; Technology for Preventing Forgery; Smart Nanoparticles for Targeted Cancer Treatment; Fundamental Properties of Nanoscale Magnetism.
Today physicists at King's are developing new ways to study the molecular processes in biological cells which cause cancer and other diseases, working to understand how the focus between the individual atoms and molecules on the nanoscale shape our macroscopic world, and continuing Maxwell's work in the unification of physics.
Gain experience of research in the rapidly developing interdisciplinary areas of biophotonics, nanomaterials and nanophotonics, X-ray physics and computational modelling. Consists of taught components plus a research project. Ideal preparation for a higher physics degree or careers in scientific research or the financial sector.
The Quantum Technology Centre contains state-of-the-art nanofabrication facilities, supported by molecular beam epitaxy reactors for atomic layer-by-layer growth of semiconductor nanostructures and devices. Fabrication techniques available include electron-beam lithography using a dedicated electron-beam writer, plasma processing and thin-film deposition. Electronic structures are measured at temperatures down to 10 mK and below by means of DC, microwave and pulse techniques. Photonic structures are characterized using a variety of specialist (0-17 Tesla) magneto-optics and (4-300 K) spectroscopy techniques, x-ray diffraction, electron microscopy and atomic force microscopy methods.