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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

Will Spin-Relaxation Times in Molecular Magnets Permit Quantum Information Processing?

Physical Review Letters 98 (2007) 057201 4pp

Authors:

A Ardavan, John J.L. Morton, Olivier Rival, Stephen J. Blundell
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Characterization of the crystal and magnetic structures of the mixed-anion coordination polymer Cu(HCO2)(NO3)(pyz) {pyz = Pyrazine} by X-ray diffraction, ac magnetic susceptibility, dc magnetization, muon-spin relaxation, and spin dimer analysis.

Inorg Chem 46:1 (2007) 213-220

Authors:

JL Manson, T Lancaster, JA Schlueter, SJ Blundell, ML Brooks, FL Pratt, CL Nygren, H-J Koo, D Dai, M-H Whangbo

Abstract:

The mixed-anion coordination polymer Cu(HCO2)(NO3)(pyz) was synthesized, its crystal structure was determined by X-ray diffraction, and its magnetic structure was characterized by ac susceptibility, dc magnetization, muon-spin relaxation, and spin dimer analysis. The crystal structure consists of five-coordinate Cu2+ ions that are connected through syn-anti bridging mu-HCO2- and mu-pyz ligands to form a highly corrugated two-dimensional layered network. Bulk magnetic measurements show a broad maximum in chi(T) at 6.6 K. The HCO2- and pyz ligands mediate ferromagnetic and antiferromagnetic spin exchange interactions between adjacent Cu2+ ions with the spin exchange parameters J/kB = 8.17 and -5.4 K, respectively (H = -JSigmaSi x Sj). The muon-spin relaxation data show a transition to a long-range magnetic ordering below TN = 3.66(3) K. For T < TN, the M(H) and chi'ac measurements provide evidence for a field-induced spin-flop transition at 15.2 kOe. That Cu(HCO2)(NO3)(pyz) undergoes a long-range magnetic ordering is an unexpected result because the one-dimensional Cu(NO3)2(pyz) and three-dimensional Cu(HCO2)2(pyz) compounds display linear chain antiferromagnetism with no long-range magnetic ordering down to 2 K.
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A muon-spin relaxation study of BiMnO3

JOURNAL OF PHYSICS-CONDENSED MATTER 19:37 (2007) ARTN 376203

Authors:

T Lancaster, SJ Blundell, PJ Baker, FL Pratt, W Hayes, I Yamada, M Azuma, M Takano
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Dissipation in the superconducting state of κ-(BEDT-TTF)2Cu(NCS)2

PHYSICAL REVIEW B 76:1 (2007) ARTN 014506

Authors:

Liang Yin, Moon-Sun Nam, James G Analytis, Stephen J Blundell, Arzhang Ardavan, John A Schlueter, Takahiko Sasaki
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Muon spin rotation of organic compounds

(2007) 179-208
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