Measurements of Hydrogen Thermal Conductivity at High Pressure and High Temperature

被引:36
|
作者
Moroe, S. [2 ]
Woodfield, P. L. [1 ,3 ]
Kimura, K. [2 ]
Kohno, M. [2 ]
Fukai, J. [4 ]
Fujii, M. [5 ]
Shinzato, K. [5 ]
Takata, Y. [2 ,5 ,6 ]
机构
[1] Griffith Univ, Sch Engn, Nathan, Qld 4222, Australia
[2] Kyushu Univ, Dept Mech Engn, Nishi Ku, Fukuoka 8190395, Japan
[3] Kyushu Univ, Int Res Ctr Hydrogen Energy, Nishi Ku, Fukuoka 8190395, Japan
[4] Kyushu Univ, Dept Chem Engn, Nishi Ku, Fukuoka 8190395, Japan
[5] Natl Inst Adv Ind Sci & Technol, Res Ctr Hydrogen Ind Use & Storage, Nishi Ku, Fukuoka 8190395, Japan
[6] Kyushu Univ, Int Inst Carbon Neutral Energy Res I2CNER, Fukuoka 812, Japan
关键词
High pressure; High temperature; Hydrogen; Thermal conductivity; Transient short hot-wire method; HOT-WIRE METHOD; GASEOUS-HYDROGEN; NOBLE-GASES; ABSOLUTE DETERMINATION; TRANSPORT-PROPERTIES; HEAT-CAPACITY; ZERO DENSITY; DEGREES C; DIFFUSIVITY; VISCOSITY;
D O I
10.1007/s10765-011-1052-5
中图分类号
O414.1 [热力学];
学科分类号
摘要
The thermal conductivity for normal hydrogen gas was measured in the range of temperatures from 323 K to 773 K at pressures up to 99 MPa using the transient short hot-wire method. The single-wire platinum probes had wire lengths of 10 mm to 15 mm with a nominal diameter of 10 mu m. The volume-averaged transient temperature rise of the wire was calculated using a two-dimensional numerical solution to the unsteady heat conduction equation. A non-linear least-squares fitting procedure was employed to obtain the values of the thermal conductivity required for agreement between the measured temperature rise and the calculation. The experimental uncertainty in the thermal-conductivity measurements was estimated to be 2.2 % (k = 2). An existing thermal-conductivity equation of state was modified to include the expanded range of conditions covered in the present study. The new correlation is applicable from 78 K to 773 K with pressures to 100 MPa and is in agreement with the majority of the present thermal-conductivity measurements within +/-2 %.
引用
收藏
页码:1887 / 1917
页数:31
相关论文
共 50 条
  • [41] The Electrical Conductivity of Gabbro at High Temperature and High Pressure
    王多君
    李和平
    易丽
    张卫刚
    刘丛强
    苏根利
    丁东业
    Chinese Journal of Geochemistry, 2002, (03) : 252 - 257
  • [42] THERMAL CONDUCTIVITY OF PLUTONIUM AT HIGH TEMPERATURE
    WITTENBERG LJ
    ENGEL TK
    VAUGHN GA
    1970, 17 (pt 1 Proc 4th Int Conf Plutonium - Other Actinides): : 48 - 57
  • [43] HIGH TEMPERATURE THERMAL CONDUCTIVITY CELL
    FELTON, HR
    BUEHLER, AA
    ANALYTICAL CHEMISTRY, 1958, 30 (06) : 1163 - 1163
  • [44] THE THERMAL CONDUCTIVITY OF METALS AT HIGH TEMPERATURE
    HOGAN, CL
    SAWYER, RB
    JOURNAL OF APPLIED PHYSICS, 1952, 23 (02) : 177 - 180
  • [45] Apparent thermal conductivity approach at high-temperature measurements of porous materials
    Cerny, Robert
    Vejmelkova, Eva
    MEASUREMENT, 2011, 44 (07) : 1220 - 1228
  • [46] A Capillary Tube Viscometer Designed for Measurements of Hydrogen Gas Viscosity at High Pressure and High Temperature
    Yusibani, Elin
    Nagahama, Yosuke
    Kohno, Masamichi
    Takata, Yasuyuki
    Woodfield, Peter L.
    Shinzato, Kanei
    Fujii, Motoo
    INTERNATIONAL JOURNAL OF THERMOPHYSICS, 2011, 32 (06) : 1111 - 1124
  • [47] A Capillary Tube Viscometer Designed for Measurements of Hydrogen Gas Viscosity at High Pressure and High Temperature
    Elin Yusibani
    Yosuke Nagahama
    Masamichi Kohno
    Yasuyuki Takata
    Peter L. Woodfield
    Kanei Shinzato
    Motoo Fujii
    International Journal of Thermophysics, 2011, 32
  • [48] APPARATUS FOR HIGH-TEMPERATURE ELECTRICAL-CONDUCTIVITY MEASUREMENTS OF HIGH VAPOR-PRESSURE MATERIALS
    SZOFRAN, FR
    PARKER, HW
    JOURNAL OF METALS, 1985, 37 (11): : A48 - A49
  • [49] Hopping conductivity in high-pressure hydrogen
    Reinholz, H
    Röpke, G
    Redmer, R
    Kuhlbrodt, S
    CONDENSED MATTER THEORIES, VOL 16, 2001, 16 : 201 - 210
  • [50] THERMAL CONDUCTIVITY OF HELIUM AND HYDROGEN AT HIGH TEMPERATURES
    BLAIS, NC
    MANN, JB
    JOURNAL OF CHEMICAL PHYSICS, 1960, 32 (05): : 1459 - 1465