J
J. Paul Attfield
Researcher at University of Edinburgh
Publications - 275
Citations - 8641
J. Paul Attfield is an academic researcher from University of Edinburgh. The author has contributed to research in topics: Perovskite (structure) & Neutron diffraction. The author has an hindex of 43, co-authored 264 publications receiving 7130 citations. Previous affiliations of J. Paul Attfield include Kyoto University & Spanish National Research Council.
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High-temperature neutron diffraction study of the cation ordered perovskites TbBaMn2O5+x and TbBaMn2O5.5-y
TL;DR: In this paper, the miscibility of TbBaMn{sub 2}O{sub 5+x} and Tb BaMn[sub 2]O{ sub 5.5-y] has been investigated at 100-600deg.
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Preparation of Bulk-Phase Nitride Perovskite LaReN3 and Topotactic Reduction to LaNiO2-Type LaReN2
TL;DR: In this article, a perovskite nitride LaReN 3 through azide-mediated oxidation at high pressure is reported, which has a triclinic structure resulting from orbital ordering with strong spin-orbit coupling distortions.
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Orbital Molecules in the New Spinel GaV2O4.
TL;DR: GaV2O4, a new vanadium spinel, was synthesized and powder diffraction and X-ray total scattering studies reveal that the low-temperature phase of this material is structurally distorted and features ordered pairs of three- and four-atom vanadium clusters.
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Chemical pressure in functional materials.
TL;DR: The concept of chemical pressure is a lattice internal force caused by lattice strain with chemical modifications and arouses great interest due to its diversity and efficiency to synthesize new compounds and tune functional materials as mentioned in this paper .
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Magnetic correlation in the square-lattice spin system (CuBr)Sr 2 Nb 3 O 10 : A neutron diffraction study
S. M. Yusuf,Anup Kumar Bera,Clemens Ritter,Yoshihiro Tsujimoto,Yoshihiro Tsujimoto,Yoshitami Ajiro,Hiroshi Kageyama,J. Paul Attfield +7 more
TL;DR: In this article, a novel in-plane, helical antiferromagnetic ordering, characterized by the propagation vector $k$ = (0 3/8 1/2), has been confirmed from the appearance of magnetic Bragg peaks below 7.5 K. The observed helical AFM structure differs from the ground state predicted theoretically from the ${J}_{1}$-${J}-2}-model as well as from experimentally reported states for other quantum $S=1$/2 square-lattice systems.