Academic Profile : Faculty
Prof Christos Panagopoulos
Professor, School of Physical & Mathematical Sciences
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Prof Christos Panagopoulos is currently in the School of Physical and Mathematical Sciences. He received his Ph.D. from the University of Cambridge (Trinity College). He has published over 140 research articles, educated 61 researchers many of whom are established professionals in academia and industry, and delivered 130 invited plenaries and talks at conferences, and 112 colloquia and seminars.
He has an avid interest in writing review and popular articles. These include Reviews of Modern Physics: Colloquium “Emergent properties in plane view: Strong correlations at oxide interfaces" (2014); Nature: Review “Emergent phenomena induced by spin orbit coupling at surfaces and interfaces” (2016); Nature Reviews Physics: Perspective “Physical foundations of magnetic skyrmions" (2020); Physics Today “The emergence of magnetic skyrmions” (2020). He has also organised 21 international conferences and workshops.
He has an avid interest in writing review and popular articles. These include Reviews of Modern Physics: Colloquium “Emergent properties in plane view: Strong correlations at oxide interfaces" (2014); Nature: Review “Emergent phenomena induced by spin orbit coupling at surfaces and interfaces” (2016); Nature Reviews Physics: Perspective “Physical foundations of magnetic skyrmions" (2020); Physics Today “The emergence of magnetic skyrmions” (2020). He has also organised 21 international conferences and workshops.
(1) Low-dimensional superconductivity.
(2) Emergent behaviour in frustrated, glassy, or disordered systems.
(3) Spin topology in non-collinear quantum magnets.
(4) Designing hybrid quantum architectures for quantum technologies. Including, new computational paradigms for topological gate-based quantum computers.
(5) Building novel instrumentation to probe such materials in parameter spaces inaccessible to commercial apparatus.
(2) Emergent behaviour in frustrated, glassy, or disordered systems.
(3) Spin topology in non-collinear quantum magnets.
(4) Designing hybrid quantum architectures for quantum technologies. Including, new computational paradigms for topological gate-based quantum computers.
(5) Building novel instrumentation to probe such materials in parameter spaces inaccessible to commercial apparatus.
- Ultrafast Metadevice-Circuit QED Interface: Towards Scaled-up Quantum Computers
- Quantum Geometric Advantage
- Large thermal Hall effect in high temperature superconductors
- Quantum Geometric Advantage - Topological magnonics
Courses Taught
PH2101 Quantum mechanics I
PH1802 Foundations of physics II
PH6717 Experimental Methodology in Solid State Physics
PH1802 Foundations of physics II
PH6717 Experimental Methodology in Solid State Physics