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Quantum oscillations

Amalia Coldea

Professor of Physics

Research theme

  • Quantum materials

Sub department

  • Condensed Matter Physics

Research groups

  • Quantum matter in high magnetic fields
amalia.coldea@physics.ox.ac.uk
Telephone: 01865 (2)82196
Clarendon Laboratory, room 264,265,253,,162,152.1,166 (office)
  • About
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  • Prizes, awards and recognition
  • Publications

Quenched nematic criticality and two superconducting domes in an iron-based superconductor

Nature Physics Springer Science and Business Media LLC 16:1 (2020) 89-94

Authors:

Pascal Reiss, David Graf, Amir A Haghighirad, William Knafo, Lo茂c Drigo, Matthew Bristow, Andrew J Schofield, Amalia I Coldea

Optimization of superconducting properties of the stoichiometric CaKFe4As4

Supercond. Sci. Technol. 33 (2020) 025003 IOP Publishing (2019)

Authors:

Shiv J Singh, Simon J Cassidy, Matthew Bristow, Stephen Blundell, Simon J Clarke, AI Coldea

An ideal Weyl semimetal induced by magnetic exchange

Physical review B: Condensed matter and materials physics American Physical Society 100 (2019) 201102(R)

Authors:

J-R Soh, F De Juan, M Vergniory, N Schroeter, M Rahn, DY Yan, J Jiang, M Bristow, P Reiss, J Blandy, Y Guo, Y Shi, T Kim, A McCollam, S Simon, Y Chen, A Coldea, Andrew Boothroyd

An ideal Weyl semimetal induced by magnetic exchange

Physical Review B: Condensed Matter and Materials Physics American Physical Society (2019)

Authors:

J-R Soh, FD Juan, Vergniory, NBM Schr枚ter, MC Rahn, DY Yan, M Bristow, PA Reiss, JN Blandy, YF Guo, YG Shi, TK Kim, A McCollam, SH Simon, Y Chen, AMALIA Coldea, AT Boothroyd

Abstract:

Weyl semimetals exhibit exceptional quantum electronic transport due to the presence of topologically-protected band crossings called Weyl nodes. The nodes come in pairs with opposite chirality, but their number and location in momentum space is otherwise material specific. Following the initial discoveries there is now a need for better material realizations, ideally comprising a single pair of Weyl nodes located at or very close to the Fermi level and in an energy window free from other overlapping bands. Here we propose the layered intermetallic EuCd$_2$As$_2$ to be such a system. We show that Weyl nodes in EuCd$_2$As$_2$ are magnetically-induced via exchange coupling, emerging when the Eu spins are aligned by a small external magnetic field. The identification of EuCd$_2$As$_2$ as a model magnetic Weyl semimetal, evidenced here by ab initio calculations, photoemission spectroscopy, quantum oscillations and anomalous Hall transport measurements, opens the door to fundamental tests of Weyl physics.

Suppression of superconductivity and enhanced critical field anisotropy in thin flakes of FeSe

(2019)

Authors:

Liam Farrar, Matthew Bristow, Amir A Haghighirad, Alix McCollam, Simon J Bending, Amalia I Coldea

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