Automated Realization of the Triple Point of Water Using the Mush Method

被引:2
|
作者
Yan, X. K. [1 ]
Duan, Y. N. [1 ]
Yang, J. H. [2 ]
Li, J. [3 ]
机构
[1] NIM, Beijing 100013, Peoples R China
[2] Beijing Univ Chem Technol, Beijing 100029, Peoples R China
[3] Univ Sci & Technol Beijing, Beijing 100083, Peoples R China
关键词
Dendrite; Ice mantle; Mush method; Outer sheath method; Phase transition; Supercooling; Triple point of water; TIME;
D O I
10.1007/s10765-010-0870-1
中图分类号
O414.1 [热力学];
学科分类号
摘要
In order to investigate mechanisms of phase transitions of supercooled water in a triple-point-of-water (TPW) cell when a mush method was used to create an ice mantle, an automated apparatus using small TPW cells was developed to obtain the TPW. In this article, the design principle, the apparatus, and the procedure for an automated formation of ice mantles in small TPW cells are described. Supercooled water in small TPW cells spontaneously transformed into uniform metastable dendritic crystals throughout the cells at supercoolings ranging from 5.85 A degrees C to 8.77 A degrees C and then changed into stable hexagonal closed-packed cellular crystals, forming an outer ice mantle from the outside inward. Some pertinent explanations based on thermodynamic solidification theory were used to describe the phase transition process in the mush method. In addition, the experimental results indicated that the realized temperatures of water in the small TPW cells were in good agreement within 0.1 mK approximately 6 h after the initial spontaneous crystallization had occurred. Finally, the small TPW cells (s/n 008 and s/n 001) were directly compared with a conventional TPW cell (s/n NIM-1-211); the temperature differences between the small TPW cells and the regular TPW cell were less than 0.21 mK.
引用
收藏
页码:481 / 493
页数:13
相关论文
共 50 条
  • [1] Automated Realization of the Triple Point of Water Using the Mush Method
    X. K. Yan
    Y. N. Duan
    J. H. Yang
    J. Li
    [J]. International Journal of Thermophysics, 2011, 32 : 481 - 493
  • [2] REALIZATION OF TRIPLE POINT OF WATER
    KRISHAN, R
    NIJHAWAN, SK
    RAM, M
    [J]. JOURNAL OF SCIENTIFIC & INDUSTRIAL RESEARCH, 1984, 43 (11): : 585 - 588
  • [3] REALIZATION OF TRIPLE POINT OF WATER
    FERGUSON, JA
    [J]. JOURNAL OF PHYSICS E-SCIENTIFIC INSTRUMENTS, 1970, 3 (06): : 447 - &
  • [4] THE PREPARATION AND USE OF CELLS FOR THE REALIZATION OF THE TRIPLE POINT OF WATER
    BARBER, CR
    HANDLEY, R
    HERINGTON, EFG
    [J]. BRITISH JOURNAL OF APPLIED PHYSICS, 1954, 5 (JAN): : 41 - 44
  • [5] REALIZATION OF TRIPLE POINT OF ARGON
    KRISHAN, R
    GUPTA, JK
    BAVEJA, KD
    [J]. INDIAN JOURNAL OF PURE & APPLIED PHYSICS, 1989, 27 (11) : 772 - 775
  • [6] REALIZATION OF THE TRIPLE POINT OF MERCURY
    KRISHAN, R
    NIJHAWAN, SK
    [J]. INDIAN JOURNAL OF PURE & APPLIED PHYSICS, 1990, 28 (11) : 615 - 617
  • [7] Realization of argon triple point at UME
    Kalemci, M
    Ugur, S
    [J]. TEMPMEKO 2001: 8TH INTERNATIONAL SYMPOSIUM ON TEMPERATURE AND THERMAL MEASUREMENT IN INDUSTRY AND SCIENCE, VOL 1 & 2, PROCEEDINGS, 2002, : 705 - 710
  • [8] NIM realization of the gallium triple point
    Yan, XK
    Qiu, P
    Duan, YN
    Qu, YM
    [J]. TEMPERATURE: ITS MEASUREMENT AND CONTROL IN SCIENCE AND INDUSTRY, VOL 7, PTS 1 AND 2, 2003, 684 : 237 - 242
  • [9] Realization of the silver point using a calorimetric method
    Bonnier, G
    Renaot, E
    [J]. METROLOGIA, 1996, 33 (04) : 363 - 367
  • [10] Transfer of the Temperature of the Triple Point of Water with an Acoustic Resonator Using the Comparison Method
    Malyshev, V. M.
    Pilipenko, K. D.
    [J]. MEASUREMENT TECHNIQUES, 2017, 59 (11) : 1181 - 1186