The Experts below are selected from a list of 46122 Experts worldwide ranked by ideXlab platform
S Shamoto - One of the best experts on this subject based on the ideXlab platform.
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magnetovolume effect in mn3cu1 xgexn related to the magnetic structure neutron powder Diffraction Measurements
Physical Review B, 2008Co-Authors: Satoshi Iikubo, Katsuaki Kodama, K. Takenaka, S ShamotoAbstract:Magnetic structures in an antiperovskite system, ${\mathrm{Mn}}_{3}{\mathrm{Cu}}_{1\ensuremath{-}x}{\mathrm{Ge}}_{x}\mathrm{N}$, with a large magnetovolume effect above $x=0.15$ have been studied by neutron powder Diffraction Measurement. The present neutron study revealed that not only a cubic crystal structure but also a ${\ensuremath{\Gamma}}^{5g}$ antiferromagnetic spin structure are key ingredients of the large magnetovolume effect in this itinerant electron system. The large magnetovolume effect is possibly ascribed to the geometrical frustration originating from the corner-shared octahedra of the antiperovskite structure.
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magnetovolume effect in mn 3 cu 1 x ge x n related to the magnetic structure neutron powder Diffraction Measurements
Physical Review B, 2008Co-Authors: Satoshi Iikubo, Katsuaki Kodama, K. Takenaka, H Takagi, S ShamotoAbstract:Magnetic structures in an antiperovskite system, ${\mathrm{Mn}}_{3}{\mathrm{Cu}}_{1\ensuremath{-}x}{\mathrm{Ge}}_{x}\mathrm{N}$, with a large magnetovolume effect above $x=0.15$ have been studied by neutron powder Diffraction Measurement. The present neutron study revealed that not only a cubic crystal structure but also a ${\ensuremath{\Gamma}}^{5g}$ antiferromagnetic spin structure are key ingredients of the large magnetovolume effect in this itinerant electron system. The large magnetovolume effect is possibly ascribed to the geometrical frustration originating from the corner-shared octahedra of the antiperovskite structure.
Satoshi Iikubo - One of the best experts on this subject based on the ideXlab platform.
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magnetovolume effect in mn3cu1 xgexn related to the magnetic structure neutron powder Diffraction Measurements
Physical Review B, 2008Co-Authors: Satoshi Iikubo, Katsuaki Kodama, K. Takenaka, S ShamotoAbstract:Magnetic structures in an antiperovskite system, ${\mathrm{Mn}}_{3}{\mathrm{Cu}}_{1\ensuremath{-}x}{\mathrm{Ge}}_{x}\mathrm{N}$, with a large magnetovolume effect above $x=0.15$ have been studied by neutron powder Diffraction Measurement. The present neutron study revealed that not only a cubic crystal structure but also a ${\ensuremath{\Gamma}}^{5g}$ antiferromagnetic spin structure are key ingredients of the large magnetovolume effect in this itinerant electron system. The large magnetovolume effect is possibly ascribed to the geometrical frustration originating from the corner-shared octahedra of the antiperovskite structure.
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magnetovolume effect in mn 3 cu 1 x ge x n related to the magnetic structure neutron powder Diffraction Measurements
Physical Review B, 2008Co-Authors: Satoshi Iikubo, Katsuaki Kodama, K. Takenaka, H Takagi, S ShamotoAbstract:Magnetic structures in an antiperovskite system, ${\mathrm{Mn}}_{3}{\mathrm{Cu}}_{1\ensuremath{-}x}{\mathrm{Ge}}_{x}\mathrm{N}$, with a large magnetovolume effect above $x=0.15$ have been studied by neutron powder Diffraction Measurement. The present neutron study revealed that not only a cubic crystal structure but also a ${\ensuremath{\Gamma}}^{5g}$ antiferromagnetic spin structure are key ingredients of the large magnetovolume effect in this itinerant electron system. The large magnetovolume effect is possibly ascribed to the geometrical frustration originating from the corner-shared octahedra of the antiperovskite structure.
Katsuaki Kodama - One of the best experts on this subject based on the ideXlab platform.
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magnetovolume effect in mn3cu1 xgexn related to the magnetic structure neutron powder Diffraction Measurements
Physical Review B, 2008Co-Authors: Satoshi Iikubo, Katsuaki Kodama, K. Takenaka, S ShamotoAbstract:Magnetic structures in an antiperovskite system, ${\mathrm{Mn}}_{3}{\mathrm{Cu}}_{1\ensuremath{-}x}{\mathrm{Ge}}_{x}\mathrm{N}$, with a large magnetovolume effect above $x=0.15$ have been studied by neutron powder Diffraction Measurement. The present neutron study revealed that not only a cubic crystal structure but also a ${\ensuremath{\Gamma}}^{5g}$ antiferromagnetic spin structure are key ingredients of the large magnetovolume effect in this itinerant electron system. The large magnetovolume effect is possibly ascribed to the geometrical frustration originating from the corner-shared octahedra of the antiperovskite structure.
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magnetovolume effect in mn 3 cu 1 x ge x n related to the magnetic structure neutron powder Diffraction Measurements
Physical Review B, 2008Co-Authors: Satoshi Iikubo, Katsuaki Kodama, K. Takenaka, H Takagi, S ShamotoAbstract:Magnetic structures in an antiperovskite system, ${\mathrm{Mn}}_{3}{\mathrm{Cu}}_{1\ensuremath{-}x}{\mathrm{Ge}}_{x}\mathrm{N}$, with a large magnetovolume effect above $x=0.15$ have been studied by neutron powder Diffraction Measurement. The present neutron study revealed that not only a cubic crystal structure but also a ${\ensuremath{\Gamma}}^{5g}$ antiferromagnetic spin structure are key ingredients of the large magnetovolume effect in this itinerant electron system. The large magnetovolume effect is possibly ascribed to the geometrical frustration originating from the corner-shared octahedra of the antiperovskite structure.
K. Takenaka - One of the best experts on this subject based on the ideXlab platform.
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magnetovolume effect in mn3cu1 xgexn related to the magnetic structure neutron powder Diffraction Measurements
Physical Review B, 2008Co-Authors: Satoshi Iikubo, Katsuaki Kodama, K. Takenaka, S ShamotoAbstract:Magnetic structures in an antiperovskite system, ${\mathrm{Mn}}_{3}{\mathrm{Cu}}_{1\ensuremath{-}x}{\mathrm{Ge}}_{x}\mathrm{N}$, with a large magnetovolume effect above $x=0.15$ have been studied by neutron powder Diffraction Measurement. The present neutron study revealed that not only a cubic crystal structure but also a ${\ensuremath{\Gamma}}^{5g}$ antiferromagnetic spin structure are key ingredients of the large magnetovolume effect in this itinerant electron system. The large magnetovolume effect is possibly ascribed to the geometrical frustration originating from the corner-shared octahedra of the antiperovskite structure.
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magnetovolume effect in mn 3 cu 1 x ge x n related to the magnetic structure neutron powder Diffraction Measurements
Physical Review B, 2008Co-Authors: Satoshi Iikubo, Katsuaki Kodama, K. Takenaka, H Takagi, S ShamotoAbstract:Magnetic structures in an antiperovskite system, ${\mathrm{Mn}}_{3}{\mathrm{Cu}}_{1\ensuremath{-}x}{\mathrm{Ge}}_{x}\mathrm{N}$, with a large magnetovolume effect above $x=0.15$ have been studied by neutron powder Diffraction Measurement. The present neutron study revealed that not only a cubic crystal structure but also a ${\ensuremath{\Gamma}}^{5g}$ antiferromagnetic spin structure are key ingredients of the large magnetovolume effect in this itinerant electron system. The large magnetovolume effect is possibly ascribed to the geometrical frustration originating from the corner-shared octahedra of the antiperovskite structure.
Takuro Katsufuji - One of the best experts on this subject based on the ideXlab platform.
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opening of a charge gap with v trimerization in bav 10 o 15
Physical Review B, 2010Co-Authors: Tomomasa Kajita, Toshiharu Suzuki, Takuro Katsufuji, T Kanzaki, Jungeun Kim, Kenichi Kato, Masaki TakataAbstract:A structural phase transition at ${T}_{c}\ensuremath{\sim}130\text{ }\text{K}$ in ${\text{BaV}}_{10}{\text{O}}_{15}$ containing modified ${\text{V}}^{3+}$ $(3{d}^{2})$ triangular lattices was studied. It was found that the electrical resistivity jumps by three orders of magnitude and a gap opens up in the optical conductivity spectrum at ${T}_{c}$. It was also found from synchrotron x-ray powder-Diffraction Measurement that the trimerization of the V ions occurs below ${T}_{c}$. These results indicate that the orbital ordering of $\text{V}\text{ }{t}_{2g}$ states occurs at ${T}_{c}$ and that induces a charge gap near the Fermi level in the electronic states of ${\text{BaV}}_{10}{\text{O}}_{15}$.
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orbital ordering and magnetic field effect in mnv2o4
Physical Review Letters, 2007Co-Authors: Toshiharu Suzuki, M Katsumura, Kouji Taniguchi, T Arima, Takuro KatsufujiAbstract:We studied the structural properties of an orbital-spin-coupled spinel oxide, MnV{sub 2}O{sub 4}, mainly by single-crystal x-ray Diffraction Measurement. It was found that a structural phase transition from cubic to tetragonal and ferrimagnetic ordering occur at the same temperature (T{sub s},T{sub N}=57 K). The structural phase transition was induced also by magnetic field above T{sub s}. In addition, magnetic-field-induced alignment of tetragonal domains results in large magnetostriction below T{sub s}. We also found that the structural phase transition is caused by the antiferro-type ordering of the V t{sub 2g} orbitals.