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Magnetic skyrmions
Credit: TH

Professor Thorsten Hesjedal FInstP

Professor of Condensed Matter Physics

Research theme

  • Quantum materials

Sub department

  • Condensed Matter Physics

Research groups

  • Topological Magnetism Group
Thorsten.Hesjedal@physics.ox.ac.uk
  • About
  • Publications

Magnetic Cr doping of Bi2Se3: Evidence for divalent Cr from x-ray spectroscopy

Physical Review B American Physical Society (APS) 90:13 (2014) 134402

Authors:

AI Figueroa, G van der Laan, LJ Collins-McIntyre, S-L Zhang, AA Baker, SE Harrison, P Schönherr, G Cibin, T Hesjedal
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Preparation of layered thin film samples for angle-resolved photoemission spectroscopy

Applied Physics Letters AIP Publishing 105:12 (2014) 121608

Authors:

SE Harrison, B Zhou, Y Huo, A Pushp, AJ Kellock, SSP Parkin, JS Harris, Y Chen, T Hesjedal
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Magnetic ordering in Cr-doped Bi 2 Se 3 thin films

EPL (Europhysics Letters) IOP Publishing 107:5 (2014) 57009-57009

Authors:

LJ Collins-McIntyre, SE Harrison, P Schönherr, N-J Steinke, CJ Kinane, TR Charlton, D Alba-Veneroa, A Pushp, AJ Kellock, SSP Parkin, JS Harris, S Langridge, G van der Laan, T Hesjedal
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Three dimensional magnetic abacus memory

Scientific Reports Nature Publishing Group 4:1 (2014) 6109

Authors:

Shilei Zhang, JingYan Zhang, Alexander Baker, ShouGuo Wang, GuangHua Yu, Thorsten Hesjedal

Abstract:

Stacking nonvolatile memory cells into a three-dimensional matrix represents a powerful solution for the future of magnetic memory. However, it is technologically challenging to access the data in the storage medium if large numbers of bits are stacked on top of each other. Here we introduce a new type of multilevel, nonvolatile magnetic memory concept, the magnetic abacus. Instead of storing information in individual magnetic layers, thereby having to read out each magnetic layer separately, the magnetic abacus adopts a new encoding scheme. It is inspired by the idea of second quantisation, dealing with the memory state of the entire stack simultaneously. Direct read operations are implemented by measuring the artificially engineered ‘quantised’ Hall voltage, each representing a count of the spin-up and spin-down layers in the stack. This new memory system further allows for both flexible scaling of the system and fast communication among cells. The magnetic abacus provides a promising approach for future nonvolatile 3D magnetic random access memory.
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Comparison of Au and TiO2 based catalysts for the synthesis of chalcogenide nanowires

Applied Physics Letters AIP Publishing 104:25 (2014) 253103

Authors:

P Schönherr, D Prabhakaran, W Jones, N Dimitratos, M Bowker, T Hesjedal
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