Professor A Huxley
Andrew is a member of the following School research institute and research areas:
Prof Huxley's research is into quantum states formed from strongly correlated electrons.
Such states include superconductivity, different forms of magnetism, modulated or reduced symmetry electronic structures and topological states.
This research includes synthesis of high purity crystals, and the development and use of low-temperature laboratory based apparatus and central facility experiments to elucidate how such states may be brought about and to guide the discovery of new materials and potentially new types of state.
Huxley is best known for his work on non-conventional superconductivty and in particular the formation of superconductivity in ferromagnets. He was awarded a Royal Society Wolfson Merit award in 2006. He was a research scientist at CEA-Grenoble France from 1994-2006 and was appointed to the Chair of Physics at Edinburgh in 2006.
- Course organiser: Junior Honours Thermodynamics : 2007-2012
- Course organiser: Senior Honours Condensed Matter Physics : 2012-current
- Course organiser: CM-DTC graduate course in superconductivity : 2009-current
- Joint course organiser: CM-DTC graduate course in magnetism : 2012-current
- contributor: CM-DTC graduate course in probes of condensed matter : 2009-current
Andrew currently offers the following PhD project opportunities:
- Composition tuning with solid state electro-transport to look for new states in superconductors.
- Experimental and Theoretical Investigation of Spatially Modulated Magnetic Phases Near to Quantum Criticality
- Listening to quantum criticality
- Low-temperature Magneto-Kerr Microscopy
- Magnetic Measurements to Probe Unconventional Superconductors
- Unconventional Superconductivity with 1/2 quantum vortices
- Very High Pressures
- Weighing the Superconducting Condensate
- Physical Review B, 102, 15
- Journal of Physics: Condensed Matter, 32, 41
- JPS Conference Proceedings, The Physical Society of Japan, 30
- Possible topological contribution to the anomalous Hall effect of non-collinear ferromagnet Fe3Sn2 DOI, Physical Review B: Condensed Matter and Materials Physics, 100, 17
- Physical Review B: Condensed Matter and Materials Physics, 95, 14, p. 1-5