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Crystal structure inside calcium fluoride with an implanted muon
Credit: SJB

Professor Stephen Blundell

Professor of Physics

Research theme

  • Quantum materials

Sub department

  • Condensed Matter Physics

Research groups

  • Muons and magnets
Stephen.Blundell@physics.ox.ac.uk
Telephone: 01865 (2)72347
Clarendon Laboratory, room 108
  • About
  • Books
  • Teaching
  • Research
  • Publications

Angle-dependent magnetoresistance oscillations and fermi surface recordering at high magnetic fields in /spl alpha/-(ET)/sub 2/KHg(SCN)/sub 4/

Institute of Electrical and Electronics Engineers (IEEE) (1994) 178-178

Authors:

J Caulfield, SJ Blundell, J Singleton, A House, L Du Croo De Jongh, PTJ Hendriks, JAAJ Perenboom, W Hayes, M Kurmoo, P Day
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Observation of a magnetic transition in para-pyridyl nitronyl nitroxide using zero-field μSR

Solid State Communications 92:7 (1994) 569-572

Authors:

SJ Blundell, PA Pattenden, RM Valladares, FL Pratt, T Sugano, W Hayes

Abstract:

We report the observation of a magnetic transition at around 90 mK in the nitronyl nitroxide radical system para-pyridyl nitronyl nitroxide (p-PYNN) in zero applied field using the muon-spin rotation (μSR) technique. © 1994.
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STRUCTURE INDUCED MAGNETIC-ANISOTROPY BEHAVIOR IN CO/GAAS(001) FILMS

J APPL PHYS 73:10 (1993) 5948-5950

Authors:

SJ BLUNDELL, M GESTER, JAC BLAND, C DABOO, E GU, MJ BAIRD, AJR IVES
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Magnetic coupling in Fe/Cr/Fe sandwich structures directly observed by polarised neutron reflection

Journal of Magnetism and Magnetic Materials 123:3 (1993) 320-324

Authors:

JAC Bland, RD Bateson, NF Johnson, SJ Blundell, VS Speriosu, S Metin, BA Gurney, J Penfold

Abstract:

We have used polarised neutron reflection to directly determine the vector orientation of the individual Fe layer average magnetisations in an antiferromagnetically coupled 50 ÅFe/15 ÅCr/50 ÅFe sandwich structure prepared by sputtering. The spin dependent neutron wave in the multilayer structure is represented by a two component spinor and the resulting reflected intensity is found to be highly sensitive to variations in the orientations of the layer-dependent magnetisation vectors, permitting the preferred orientation of the average magnetisation in each Fe layer to be studied. The saturated state is found to correspond to a uniform ferromagnetic alignment of the Fe layer magnetisations. At low field, we are able to assess the degree to which the magnetic alignment is fully antiparallel, and conclude that our results are consistent with the development of a multidomain structure. © 1993.
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POLARIZED NEUTRON REFLECTION AS A PROBE OF INPLANE MAGNETIZATION VECTOR ROTATION IN MAGNETIC MULTILAYERS

J MAGN MAGN MATER 121:1-3 (1993) 185-188

Authors:

SJ BLUNDELL, JAC BLAND
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