Sr[5]V[1.5]Fe[3.5]O[15]: A Transition-Metal-Ordered Perovskite with 5-Fold Superstructure along [111][pc] Direction

Many cation-ordered perovskites have been reported, exploiting differences in cation size and valence. They are mostly double perovskite structures with rock-salt ordering, while cation ordering with periodicity longer than three primitive perovskite cells is relatively rare. Here, we successfully synthesized a 5-fold cation-ordered perovskite oxide, Sr[5]V[1.5]Fe[3.5]O[15], through topochemical oxidation of oxygen-deficient perovskite Sr[5]V[1.5]Fe[3.5]O[14]. The cation ordering in the precursor, with 5-fold periodicity of triple 100% Fe layers and double 75% V and 25% Fe layers along the [111] direction of the primitive perovskite cell, is preserved during topochemical oxidation, as evidenced by synchrotron and neutron diffraction analyses. Mössbauer spectroscopy measurements for Sr[5]V[1.5]Fe[3.5]O[15] suggest a sign of charge ordering to Fe³⁺ and Fe⁴⁺ below ∼50 K, where a short-range order is a plausible picture due to the existence of the iron-poor double layers.

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Institutional Repositories DataBase (IRDB)
Published
2026-04-13
Primary Topic
Magnetic and transport properties of perovskites and related materials
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article
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article

Sr[5]V[1.5]Fe[3.5]O[15]: A Transition-Metal-Ordered Perovskite with 5-Fold Superstructure along [111][pc] Direction

Hiroki Yamada, Teppei Nagase, Kei Shigematsu, Kenji Ishida et al.
Institutional Repositories DataBase (IRDB)
Magnetic and transport properties of perovskites and related materials
article

Sr[5]V[1.5]Fe[3.5]O[15]: A Transition-Metal-Ordered Perovskite with 5-Fold Superstructure along [111][pc] Direction

Hiroki Yamada, Teppei Nagase, Kei Shigematsu, Kenji Ishida, Ko Mibu, Masaki Azuma, Yuki Sakai, Takumi Nishikubo, Hiroki Matsumura, Takashi Honda, Takafumi Yamamoto, Shunsaku Kitagawa
article en

Abstract

Many cation-ordered perovskites have been reported, exploiting differences in cation size and valence. They are mostly double perovskite structures with rock-salt ordering, while cation ordering with periodicity longer than three primitive perovskite cells is relatively rare. Here, we successfully synthesized a 5-fold cation-ordered perovskite oxide, Sr[5]V[1.5]Fe[3.5]O[15], through topochemical oxidation of oxygen-deficient perovskite Sr[5]V[1.5]Fe[3.5]O[14]. The cation ordering in the precursor, with 5-fold periodicity of triple 100% Fe layers and double 75% V and 25% Fe layers along the [111] direction of the primitive perovskite cell, is preserved during topochemical oxidation, as evidenced by synchrotron and neutron diffraction analyses. Mössbauer spectroscopy measurements for Sr[5]V[1.5]Fe[3.5]O[15] suggest a sign of charge ordering to Fe³⁺ and Fe⁴⁺ below ∼50 K, where a short-range order is a plausible picture due to the existence of the iron-poor double layers.

Institutional Repositories DataBase (IRDB)Vol. 65(14)
Openalex Percentile: Top 18%
Magnetic and transport properties of perovskites and related materials
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