Thermal strain in zinc pyrovanadate

被引:0
|
作者
T. I. Krasnenko
L. V. Zolotukhina
L. V. Andrianova
机构
[1] Russian Academy of Sciences,Institute of Solid
来源
Inorganic Materials | 2000年 / 36卷
关键词
Electron Spin Resonance Spectrum; Thermal Expansion Coefficient; Thermal Strain; Substitutional Solid Solution; Volume Expansion Coefficient;
D O I
暂无
中图分类号
学科分类号
摘要
The α- andc-axis thermal expansion coefficients of α-Zn2V2O7 (monoclinic structure) were found to be negative between 20 and 560‡C. The volume expansion coefficient is negative above 260‡C. As a result, the zinc atoms tend to be in sixfold rather than fivefold coordination. Similar behavior results from substitution of larger sized ions on Zn sites. These effects are associated with the shear strain suffered by the soft Zn-0 polyhedra as a result of significant changes in Β. On cooling from 20‡C to liquid-nitrogen temperature, as well as upon substitution of smaller sized ions on Zn sites, the major structural changes occur along theb axis, without changes in theac plane: the soft polyhedra experience uniform compression and the Zn ions remain in fivefold coordination. Only in the latter case is the extent of substitutional solid solutions governed by the relative difference in size between the host and substituent ion.
引用
收藏
页码:1032 / 1035
页数:3
相关论文
共 50 条
  • [1] Thermal strain in zinc pyrovanadate
    Krasnenko, TI
    Zolotukhina, LV
    Andrianova, LV
    INORGANIC MATERIALS, 2000, 36 (10) : 1032 - 1035
  • [2] Thermal behavior of zinc pyrovanadate
    Krasnenko, TI
    Zolotukhina, LV
    Andrianova, LV
    ZHURNAL NEORGANICHESKOI KHIMII, 2000, 45 (03): : 385 - 387
  • [3] Mechanism of thermal expansion of structural modifications of zinc pyrovanadate
    Rotermel, M. V.
    Krasnenko, T. I.
    CRYSTALLOGRAPHY REPORTS, 2017, 62 (05) : 703 - 709
  • [4] Mechanism of thermal expansion of structural modifications of zinc pyrovanadate
    M. V. Rotermel
    T. I. Krasnenko
    Crystallography Reports, 2017, 62 : 703 - 709
  • [5] Thermal deformations of copper pyrovanadate
    Krasnenko, T.I.
    Zolotukhina, L.V.
    Vasyutinskaya, E.V.
    Zhurnal Neorganicheskoj Khimii, 2001, 46 (07): : 1161 - 1164
  • [6] Thermal deformations of copper pyrovanadate
    Krasnenko, TI
    Zolotukhina, LV
    Vasyutinskaya, EV
    RUSSIAN JOURNAL OF INORGANIC CHEMISTRY, 2001, 46 (07) : 1042 - 1044
  • [7] Thermal deformation of calcium pyrovanadate
    Krasnenko, TI
    Andrianova, LV
    Zolotukhina, LV
    Fotiev, AA
    INORGANIC MATERIALS, 1998, 34 (07) : 733 - 736
  • [8] Ultrasonic Synthesis and Characterization of Zinc Pyrovanadate Nanostructures
    Diyuk, O. A.
    Zazhigalov, Valery
    Shcherban, N. D.
    Diyuk, N. V.
    Permyakov, V. V.
    Shcherbakov, S. M.
    Kuznetsova, L. S.
    Tsyba, M. M.
    NANOMATERIALS AND NANOCOMPOSITES, NANOSTRUCTURE SURFACES, AND THEIR APPLICATIONS, NANO2021, 2023, 279 : 289 - 299
  • [9] POLYMORPHISM AND THERMAL-EXPANSION OF MANGANESE PYROVANADATE
    ZIOLKOWSKI, J
    DZIEMBAJ, L
    MATERIALS CHEMISTRY, 1978, 3 (03): : 157 - 169
  • [10] Layered Zinc Pyrovanadate Hexagons: Potential Photocatalyst and Multicolored Phosphor
    Sayed, Farheen N.
    Grover, V.
    Nuwad, J.
    Bhattacharyya, K.
    Tyagi, A. K.
    ADVANCED POROUS MATERIALS, 2014, 2 (02) : 79 - 90