Electronic structure of the hole-doped delafossite oxides CuCr1−xMgxO2

EFFECTS OF HOLE-DOPING AND DISORDER ON THE MAGNETIC STATES OF DELAFOSSITE CuCrO2 HAVING A SPIN-3/2 ANTIFERROMAGNETIC TRIANGULAR SUBLATTICE

(2013) TETSUJI OKUDA et al.   INTERNATIONAL JOURNAL OF MODERN PHYSICS B

The electronic structure of the CuRh1−xMgxO2 thermoelectric materials: An X-ray photoelectron spectroscopy study

(2011) T.K. Le et al.   JOURNAL OF SOLID STATE CHEMISTRY

Electronic structure of the delafossite-type CuMO2(M=Sc, Cr, Mn, Fe, and Co): Optical absorption measurements and first-principles calculations

(2011) Hiroki Hiraga et al.   PHYSICAL REVIEW B

Evidence for a Correlated Insulator to Antiferromagnetic Metal Transition in CrN

(2010) P. A. Bhobe et al.   PHYSICAL REVIEW LETTERS

Electronic structure ofSr0.8−yLa0.2+yTi0.8Cr0.2O3studied by photoemission spectroscopy and first-principles band structure calculations

(2009) H. Iwasawa et al.   PHYSICAL REVIEW B

X-ray spectroscopic study of the electronic structure ofCuCrO2

(2009) T. Arnold et al.   PHYSICAL REVIEW B

Structural and magnetic properties ofCuCr1−xMgxO2by neutron powder diffraction

(2009) Maria Poienar et al.   PHYSICAL REVIEW B

Effect of Cr substitution on the electronic structure ofCuAl1−xCrxO2

(2009) David O. Scanlon et al.   PHYSICAL REVIEW B

On the strong impact of doping in the triangular antiferromagnet CuCrO2

(2009) A. Maignan et al.   SOLID STATE COMMUNICATIONS

Specific heat of delafossite oxideCuCr1−xMgxO2(0≤x≤0.03)

(2008) T. Okuda et al.   PHYSICAL REVIEW B

Spin-Driven Ferroelectricity in Triangular Lattice AntiferromagnetsACrO2(A=Cu, Ag, Li, or Na)

(2008) S. Seki et al.   PHYSICAL REVIEW LETTERS