42 citations · 139 across the 6 of their papers we have counts for
7 papers
Superconductivity by transition metal doping in Ca(FeMAs)(PtAs) (M = Co, Ni, Cu)
Tobias Stürzer, Fabian Kessler, Dirk Johrendt
We report the successful substitution of cobalt, nickel, and copper for iron in the 1038 phase parent compound Ca(FeAs)(PtAs) yielding Ca(FeCo$…
Superconductivity by rare earth doping in the 1038-type compounds (CaRE)(FeAs)(PtAs) with RE = Y, La-Nd, Sm-Lu
Tobias Stürzer, Gerald Derondeau, Dirk Johrendt
We report superconductivity in polycrystalline samples of the 1038-type compounds (CaRE)(FeAs)(PtAs) up to T = 35 K with RE = Y, La-Nd, Sm, Gd…
Why of (CaFeAs)PtAs is twice as high as (CaFePtAs)PtAs
S. Thirupathaiah, T. Stürzer, V. B. Zabolotnyy +3
Recently discovered (CaFePtAs)PtAs and (CaFeAs)PtAs superconductors are very similar materials having the same elemental composition a…
Superconductivity and Crystal Structure of the Palladium-Iron-Arsenides Ca10(Fe1-xPdxAs)10Pd3As8
C. Hieke, J. Lippmann, T. Stürzer +5
The palladium-iron-arsenides Ca10(Fe1-xPdxAs)10(Pd3As8) were synthesized by solid state methods and characterized by X-ray powder and single crystal diffraction. The triclinic crys…
The role of different negatively charged layers in Ca10(Fe1-xPtxAs)10(Pt3+yAs8) and superconductivity at 30 K in electron-doped (Ca0.8La0.2)10(FeAs)10(Pt3As8)
Tobias Stürzer, Gerald Derondeau, Dirk Johrendt
The recently discovered compounds Ca10(Fe1-xPtxAs)10(Pt3+yAs8) exhibit superconductivity up to 38 K, and contain iron arsenide (FeAs) and platinum arsenide (Pt3+yAs8) layers separa…
Superconductivity up to 35 K in the iron-platinum arsenides (CaFe1-xPtxAs)10Pt4-yAs8 with layered structures
Catrin Löhnert, Tobias Stürzer, Marcus Tegel +3
We report the synthesis and crystal structures of three new superconducting iron-platinum arsenides (CaFe1-xPtxAs)10Pt4-yAs8 (x = 0-0.15, y = 0-0.4). The structures are stacking va…