Electrical transport measurements of thin film samples under high hydrostatic pressure

被引:6
|
作者
Zabaleta, J. [1 ]
Parks, S. C. [1 ]
Baum, B. [1 ]
Teker, A. [1 ]
Syassen, K. [1 ]
Mannhart, J. [1 ]
机构
[1] Max Planck Inst Solid State Res, Heisenbergstr 1, D-70569 Stuttgart, Germany
来源
REVIEW OF SCIENTIFIC INSTRUMENTS | 2017年 / 88卷 / 03期
关键词
DIAMOND-ANVIL; INSULATOR-TRANSITION; SUPERCONDUCTIVITY; DEPENDENCE; CELL; COLLAPSE; SYSTEM; KELVIN; GAS;
D O I
10.1063/1.4977221
中图分类号
TH7 [仪器、仪表];
学科分类号
0804 ; 080401 ; 081102 ;
摘要
We present a method to perform electrical measurements of epitaxial films and heterostructures a few nanometers thick under high hydrostatic pressures in a diamond anvil cell (DAC). Hydrostatic pressure offers the possibility to tune the rich landscape of properties shown by epitaxial heterostructures, systems in which the combination of different materials, performed with atomic precision, can give rise to properties not present in their individual constituents. Measuring electrical conductivity under hydrostatic pressure in these systems requires a robust method that can address all the challenges: the preparation of the sample with side length and thickness that fits in the DAC setup, a contacting method compatible with liquid media, a gasket insulation that resists high forces, as well as an accurate procedure to place the sample in the pressure chamber. We prove the robustness of the method described by measuring the resistance of a two dimensional electron system buried at the interface between two insulating oxides under hydrostatic conditions up to similar to 5 GPa. The setup remains intact until similar to 10 GPa, where large pressure gradients affect the two dimensional conductivity. Published by AIP Publishing.
引用
收藏
页数:7
相关论文
共 50 条
  • [41] The thermal and electrical transport properties of layered LaCuOSe under high pressure
    Feng, Shan
    Wang, Ning
    Li, Menglu
    Xiao, Haiyan
    Liu, Zijiang
    Zu, Xiaotao
    Qiao, Liang
    JOURNAL OF ALLOYS AND COMPOUNDS, 2021, 861
  • [42] Chondrocyte Dynamics Under High Hydrostatic Pressure
    Morimatsu, Masatoshi
    Teramachi, Kazuki
    Nishiyama, Masayoshi
    Naruse, Keiji
    BIOPHYSICAL JOURNAL, 2020, 118 (03) : 605A - 605A
  • [43] Metallization and Electrical Transport Behaviors of GaSb under High-Pressure
    Zhang, Guozhao
    Wu, Baojia
    Wang, Jia
    Zhang, Haiwa
    Liu, Hao
    Zhang, Junkai
    Liu, Cailong
    Gu, Guangrui
    Tian, Lianhua
    Ma, Yanzhang
    Gao, Chunxiao
    SCIENTIFIC REPORTS, 2017, 7
  • [44] Fruit preservation under high hydrostatic pressure
    Préstamo, G
    Sanz, PD
    Arroyo, G
    HIGH PRESSURE RESEARCH, 2000, 19 (1-6) : 535 - 542
  • [45] GROWTH OF CILIATES UNDER HIGH HYDROSTATIC PRESSURE
    FISCHER, EC
    AMERICAN ZOOLOGIST, 1966, 6 (04): : 513 - &
  • [46] ELECTRICAL CONDUCTIVITY OF SOLID AMMONIUM NITRATE UNDER HYDROSTATIC PRESSURE
    CERISIER, P
    COMPTES RENDUS HEBDOMADAIRES DES SEANCES DE L ACADEMIE DES SCIENCES SERIE B, 1969, 269 (19): : 989 - &
  • [47] ELECTRICAL BREAKDOWN OF POLYETHYLENE TEREPHTHALATE UNDER HYDROSTATIC-PRESSURE
    ZEBOUCHI, N
    ESSOLBI, R
    MALEC, D
    GIAM, HT
    AI, B
    JOURNAL OF APPLIED PHYSICS, 1994, 76 (12) : 8218 - 8220
  • [48] Electrical resistivity of YbInAu2 under hydrostatic pressure
    Fuse, A
    Nobata, T
    Nakamoto, G
    Kurisu, M
    PHYSICA B, 2000, 281 : 175 - 177
  • [49] Electrical and thermoelectric properties of ZnO under atmospheric and hydrostatic pressure
    M. I. Daunov
    R. K. Arslanov
    M. M. Gadjialiev
    E. V. Kortunova
    P. P. Khokhlachev
    P. P. Shvansky
    Semiconductors, 2006, 40 : 1255 - 1260
  • [50] Electrical and thermoelectric properties of ZnO under atmospheric and hydrostatic pressure
    Daunov, M. I.
    Arslanov, R. K.
    Gadjialiev, M. M.
    Kortunova, E. V.
    Khokhlachev, P. P.
    Shvansky, P. P.
    SEMICONDUCTORS, 2006, 40 (11) : 1255 - 1260