立方大腔体静高压装置中叶腊石的传压及密封性能研究

田毅; 杜明浩; 张佳威; 贺端威

doi:10.7498/aps.73.20231087

摘要

本文基于高压研究及超硬材料生产所用的静高压立方大腔体(六面顶)压机的需要, 制备了源于南非叶腊石矿的两种(A和B)叶腊石粉压块, 并与同工艺国产(北京门头沟)黄色叶腊石粉压块进行比较, 以此建立评估叶腊石传压及密封性能的实验方法与物理判据. 采用Bi, Tl, Ba等标压物质原位标定了以上3种叶腊石压腔中心位置及密封边处的压力; 同时, 采用银熔点法分别获得了3种叶腊石作传压密封材料时高温下腔体压力与系统加载的对应关系. 结果表明, 在相同加载油压下南非叶腊石B粉压块和国内叶腊石粉压块中心位置的压力差值不超过0.1 GPa, 在升压和降压过程中叶腊石块中心位置与密封边位置的压力差值也更为相近. 相比于南非叶蜡石A粉压块, B粉压块在高温传压和密封性能上更接近国产叶腊石粉压块.

关键词:

Abstract

Owing to the need for a hydrostatic high-pressure cubic large cavity (hexahedral top) press used in high-pressure research and production of superhard material, two kinds of pyrophyllite powder compacts (A and B) from pyrophyllite mine in South Africa are prepared, and compared with the domestic yellow pyrophyllite powder compacts (Mentougou, Beijing) produced by the same process, to establish experimental methods and physical criteria for evaluating the pressure transmission and sealing performance of pyrophyllite. During the experiment, standard pressure materials such as Bi, Tl, and Ba are used to in-situ calibrate the pressure at the central positions and sealing edges of the pyrophyllite pressure chambers from the three aforementioned compacts under normal pressure conditions. Additionally, the silver melting point method is employed to obtain the corresponding relationship between chamber pressure at high temperature and system loading when using these three types of pyrophyllite as load-transmitting sealing materials. The results show that under the same hydraulic pressure loading, the difference in pressure at the central position between South African pyrophyllite B powder blocks and domestically produced pyrophyllite powder blocks does not exceed 0.1 GPa. Furthermore, in pressurization process and depressurization processe, the differences in pressure between the central position and the sealing edge of the pyrophyllite blocks are notably similar. Compared with South African pyrophyllite A powder blocks, pyrophyllite B powder blocks exhibit a closer resemblance to domestically produced pyrophyllite powder blocks in terms of high-temperature load transmission and sealing performance. Pyrophyllite B powder blocks from South Africa have the potential to serve as a substitute for domestically produced pyrophyllite without changing the existing superhard material synthesis process, making them promising candidates for use as load-transmitting media and sealing materials. These research findings hold significant academic importance in the realms of high-pressure research and superhard material production. They provide valuable insights into the selection of suitable transmission and sealing materials and the optimization of high-pressure experimental conditions. Additionally, this study presents robust method and criteria for experimental procedures and performance assessment.

Keywords:

large-volume cubic static high-pressure apparatus /
high temperature and high pressure /
pyrophyllite /
sealing performance /
pressure transmission efficiency

作者及机构信息

四川大学原子与分子物理研究所, 成都　610065

通信作者: 贺端威, duanweihe@scu.edu.cn

Authors and contacts

Institute of Atomic and Molecular Physics, Sichuan University, Chengdu 610065, China

Corresponding author: He Duan-Wei, duanweihe@scu.edu.cn

文章全文 : translate this paragraph

参考文献

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施引文献

图 1 叶腊石粉压立方块的光学照片、断面SEM图及XRD衍射谱　(a)黄色叶腊石; (b)南非A; (c) 南非B; (d) 3种叶腊石的XRD检测结果

Fig. 1. Optical photos, cross section SEM and XRD spectrum of pyrophyllite powder pressing block: (a) Yellow pyrophyllite; (b) South Africa pyrophyllite A; (c) South Africa pyrophyllite B; (d) XRD results of three pyrophyllite powder pressing block.

下载: 全尺寸图片幻灯片

图 2 常温压力标定实验组装示意图及电路图　(a)内部电路图及实验组装示意图; (b)外部电路图

Fig. 2. Assembly diagram and circuit diagram of the normal temperature pressure calibration experiment: (a) Internal circuit and schematic diagram of assembly; (b) external circuit.

下载: 全尺寸图片幻灯片

图 3 高温压力标定实验组装示意图及标定结果　(a)实验组装; (b) 50 MPa油压加载下黄色叶腊石作密封材料时的压力标定结果

Fig. 3. Assembly diagram and calibration results of high-temperature pressure calibration experiment: (a) Assembly diagram; (b) pressure calibration results of yellow pyrophyllite as sealing material under 50 MPa oil pressure loading.

下载: 全尺寸图片幻灯片

图 4 密封边压力标定实验原理图　(a)外部电路图; (b)实验组装示意图; (c)内部电路图

Fig. 4. Schematic diagram of sealing edge pressure calibration experiment: (a) External circuit; (b) experimental assembly diagram; (c) internal circuit.

下载: 全尺寸图片幻灯片

图 5 叶腊石立方块中心压力与加载油压之间的对应关系(a)室温压力标定结果; (b) 高温压力标定结果

Fig. 5. Corresponding relationship between central pressure and loading oil pressure of pyrophyllite cube: (a) Pressure calibration results at room temperature; (b) pressure calibration results at high temperature.

下载: 全尺寸图片幻灯片

图 6 加压前后叶腊石流变行为的原理示意图　(a) 加压前; (b) 加压后

Fig. 6. Schematic diagram of the rheological behavior of pyrophyllite before and after compression: (a) Before compression; (b) after compression.

下载: 全尺寸图片幻灯片

图 7 黄色叶腊石中心位置的压力(P_c)和密封边处的压力(P_g)与加载油压的对应关系　(a)升压过程; (b) 降压过程

Fig. 7. Pressure (P_c) at the center and the sealing edge (P_g) of yellow pyrophyllite correspond to the loading oil pressure: (a) Compress; (b) decompression.

下载: 全尺寸图片幻灯片

图 8 $ \Delta $P随密封边压力的变化曲线　(a) 升压过程; (b) 降压过程

Fig. 8. Variation curve of $ \Delta P $ with gasket pressure: (a) Compress; (b) decompression.

下载: 全尺寸图片幻灯片

map

[1]	王海阔, 贺端威, 许超, 管俊伟, 王文丹, 寇自力, 彭放 2013 高压 27 633 Google Scholar Wang H K, He D W, Xu C, Guan J W, Wang W D, Kou Z L, Peng F 2013 Chin. J. High Pressure Phys. 27 633 Google Scholar
[2]	彭放, 贺端威 2018 高压 32 010105 Google Scholar Peng F, He D W 2018 Chin. J. High Pressure Phys. 32 010105 Google Scholar
[3]	崔祥仁, 方啸虎, 邢英 2021 超硬材料工程 33 39 Cui X R, Fang X H, Xing Y 2021 Superhard Mater. Eng. 33 39
[4]	He D W, Zhao Y S, Sheng T D, et al. 2003 Rev. Sci. Instrum. 74 3012 Google Scholar
[5]	Yan X Z, He D W, Xu C, Ren X T, Zhou X L, Liu S Z 2012 High Press. Res. 32 482 Google Scholar
[6]	Fang L M, He D W, Chen C, Ding L, Luo X J 2007 High Press. Res. 27 367 Google Scholar
[7]	Liu X, Chen J L, Tang J J, He Q, Li S C, Peng F, He D W, Zhang L F, Fei Y W 2012 High Press. Res. 32 239 Google Scholar
[8]	Hu Q W, Fang L M, Li Q, et al. 2019 High Press. Res. 39 655 Google Scholar
[9]	王海阔, 任瑛, 贺端威, 许超 2017 66 090702 Google Scholar Wang H K, Ren Y, He D W, Xu C 2017 Acta Phys. Sin. 66 090702 Google Scholar
[10]	Wang H K, He D W 2012 High Press. Res. 32 186 Google Scholar
[11]	Wang Y P, Kou Z L, Zhang J W, Chen S J, Zhang L, Peng B, Zhao M X, Jiang M L, Yin X S, He D W 2020 Rev. Sci. Instrum. 91 035119.Google Scholar
[12]	Yan X Z, Ren X T, He D W 2016 Rev. Sci. Instrum. 87 125006 Google Scholar
[13]	李帅锜, 贺端威, 张佳威 2022 物理 51 228 Google Scholar Li S Q, He D W, Zhang J W 2022 Physics 51 228 Google Scholar
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[16]	王文丹, 贺端威, 王海阔, 王福龙, 董海妮, 陈海花, 李子扬, 张剑, 王善民, 寇自力, 彭放 2010 59 3107 Google Scholar Wang W D, He D W, Wang H K, Wang F L, Dong H N, Chen H H, Li Z Y, Zhang J, Wang S M, Kou Z L, Peng F 2010 Acta Phys. Sin. 59 3107 Google Scholar
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[20]	张旺玺, 梁宝岩, 李启泉 2021 超硬材料工程 33 30 Zhang W X, Liang B Y, Li Q Q 2021 Superhard Mater. Eng. 33 30
[21]	王明智 2020 金刚石与磨料磨具工程 40 1 Wang M Z 2020 Diamond Abrasives Eng. 40 1
[22]	谢光灼, 王绍斌, 李波, 吴瑞良, 陈立舫, 徐珊慧 1998 金刚石与磨料磨具工程 3 7 Xie G Z, Wang S B, Li B, Wu R L, Chen L F, Xu S H 1998 Diamond Abrasives Eng. 3 7
[23]	史斌, 刘鑫, 辛蜜蜜, 林元惠, 赵云鹏, 刘钦甫 2017 煤田地质与勘探 45 25 Google Scholar Shi B, Liu X, Xin M M, Lin Y H, Zhao Y P, Liu Q F 2017 Coal Geol. Explor. 45 25 Google Scholar
[24]	许饮豪, 赵美玉 1995 广东工学院学报 12 72 Xu Y H, Zhao M Y 1995 J. Guangdong Univ. Technol. 12 72
[25]	Gatta G D, Lotti P, Merlini M, Liermann H P, Lausi A, Valdrè G, Pavese A 2014 Phys. Chem. Miner. 42 309 Google Scholar
[26]	陈丽英, 刘秀茹, 吴学华, 苏磊, 洪时明 2004 珠宝科技 16 6 Chen L Y, Liu X R, Wu X H, Su L, Hong S M 2004 Jewelry Science and Technology 16 6
[27]	张巍 2017 金属矿山 8 1 Google Scholar Zhang W 2017 Met. Mine 8 1 Google Scholar
[28]	郑日升, 王大伟, 方啸虎 2011 有色金属工程 63 219 Zheng R S, Wang D W, Fang X H 2011 Nonferrous Metals 63 219
[29]	贾攀, 刘乾坤, 张凤莲, 胡来运, 吴定雨, 王飞飞, 丁建 2015 超硬材料工程 27 34 Jia P, Liu Q K, Zhang F L, Hu L Y, Wu D Y, Wang F F, Ding J 2015 Superhard Mater. Eng. 27 34
[30]	Wang H K, He D W, Yan X Z, Xu C, Guan J W, Tan N, Wang W D 2011 High Press. Res. 31 581 Google Scholar
[31]	Li R, Xu B J, Zhang Q C, Gu X, Zheng G L, Ma H A, Jia X P 2016 High Press. Res. 36 575 Google Scholar
[32]	刘乾坤, 赵鹏, 吴定雨, 昝亚男, 武周军, 王卫康 2019 超硬材料工程 31 16 Liu Q K, Zhao P, Wu D Y, Zan Y N, Wu Z J, Wang W K 2019 Superhard Mater. Eng. 31 16
[33]	Zhang J W, Liu F M, Wu J J, et al. 2018 Rev. Sci. Instrum. 89 075106 Google Scholar
[34]	魏存弟, 赵峰, 马鸿文, 李金洪, 杨殿范, 三国彰 2005 吉林大学学报(地球科学版) 35 150 Wei C D, Zhao F, Ma H W, Li J H, Yang D F, San G Z 2005 J. Jilin Univ. , Earth Sci. Ed. 35 150
[35]	徐文炘, 李蘅, 郭陀珠, 郭桦 2003 矿产与地质 17 242 Google Scholar Xu W X, Li H, Guo T Z, Guo H 2003 Mineral Resources and Geology 17 242 Google Scholar
[36]	Boren M D, Babb S E, Scott G J 1965 Rev. Sci. Instrum. 36 1456 Google Scholar
[37]	Decker D L, Bassett W A, Merrill L, Hall H T, Barnett J D 1972 J. Phys. Chem. Ref. Data 1 773 Google Scholar
[38]	Cohen L H, Klement W, Kennedy G C 1966 Phys. Rev. 145 519 Google Scholar
[39]	张振禹, 汪灵 1998 硅酸盐学报 26 618 Zhang Z Y, Wang L 1998 J. Chin. Silic. Soc. 26 618
[40]	徐跃, 陈晓东, 郝兆印 2007 金刚石与磨料磨具工程 6 76 Google Scholar Xu Y, Chen X D, Hao Z Y 2007 Diamond Abrasives Eng. 6 76 Google Scholar
[41]	Chen D M, Jiang Z C, Zhang H F 1991 J. Mineral. Petrol. 2 45 [陈大梅, 姜泽春, 张惠芬 1991 矿物岩石 2 45 Chen D M, Jiang Z C, Zhang H F 1991 J. Mineral. Petrol. 2 45
[42]	Akella J, Kennedy G C 1971 J. Geophys. Res. 76 496 Google Scholar

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