Preparation of the small-size artificial ice sample with the pressure sintering method

HONG Jialin; MA Xiaocong; CHEN Jing; YANG Tengchao; LI Bo; HAO Ying and ZHANG Nan; ${author.authorNameEn}

doi:10.12143/j.ztgc.2021.09.003

2021 Vol. 48, No. 9

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HONG Jialin, MA Xiaocong, CHEN Jing, YANG Tengchao, LI Bo, HAO Ying and ZHANG Nan, . 2021. Preparation of the small-size artificial ice sample with the pressure sintering method. DRILLING ENGINEERING, 48(9): 25-33. doi: 10.12143/j.ztgc.2021.09.003

Citation:

HONG Jialin, MA Xiaocong, CHEN Jing, YANG Tengchao, LI Bo, HAO Ying and ZHANG Nan, . 2021. Preparation of the small-size artificial ice sample with the pressure sintering method. DRILLING ENGINEERING, 48(9): 25-33. doi: 10.12143/j.ztgc.2021.09.003

Preparation of the small-size artificial ice sample with the pressure sintering method

1. College of Construction Engineering, Jilin University, Changchun Jilin 130026, China;
2. Polar Research Center , Jilin University, Changchun Jilin 130026, China

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Corresponding author: , znan@jlu.edu.cn

Received Date: 26 July 2021

Revised Date: 12 September 2021

Abstract

Abstract

Small-size artificial ice samples are widely used for ice mechanical properties research， and have the advantages of simple preparation procedures， short duration， low cost， and no seasonal and geographic restrictions. In this paper， the snow pressure sintering experiment was carried out under the conditions of -3.5~-17.3℃ and 10~100MPa， and small-size artificial ice samples were prepared by the pressure sintering method. The results reveal the influence of sintering stress and sintering time on the density evolution during the snow pressure sintering process and the final sintered density of the ice sample. It is concluded that with the pressure sintering method， artificial ice samples with a density of 0.917g/cm³ can be prepared under either of the conditions： a long time， low stress， and near melting point temperature， or a short time， high stress， and low temperature. The experimental results have verified the reliability and repeatability of artificial ice sample preparation with the pressure sintering method and provide a practical and feasible small-size artificial ice sample preparation technique for the experiment of ice mechanical properties.
- pressure sintering /
- artificial ice sample /
- sintering pressure /
- sintering time /
- ice sample density

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References

[1]	张楠，王亮，Talalay Pavel，等.极地冰钻关键技术研究进展［J］.探矿工程（岩土钻掘工程），2020，47（2）：1-16. Google Scholar ZHANG Nan， WANG Liang， Talalay Pavel， et al. Advances in research on key technology for ice drilling in the polar regions ［J］. Exploration Engineering （Rock & Soil Drilling and Tunneling）， 2020，47（2）：1-16. Google Scholar
[2]	[2] Mellor M.， James H. Creep of snow and ice［J］. US Army Cold Regions Research and Engineering Laboratory， 1967，1（2）：843-855. Google Scholar
[3]	[3] Goughnour R. The soil-ice system and the shear strength of frozen soils［D］. Michigan： Michigan State University， 1967. Google Scholar
[4]	[4] Lile R.C.. Rheology of polycrystalline ice［D］. Melbourne： University of Melbourne， 1979. Google Scholar
[5]	[5] Cole D M. Preparation of polycrystalline ice specimens for laboratory experiments［J］. Cold Regions Science and Technology， 1979，1（2）：153-159. Google Scholar
[6]	[6] Durham W B， Kirby S H， Stern L A. Effects of dispersed particulates on the rheology of water ice at planetary conditions［J］. Journal of Geophysical Research： Planets， 1992，97（E12）：20883-20897. Google Scholar
[7]	[7] 高向群，黄茂桓，张家懿，等.-1 ℃下多晶冰在振动荷载下的蠕变［J］.冰川冻土，1994，16（3）：259-264. Google Scholar GAO Xiangqun， HUANG Maohuan， ZHANG Jiayi， et al. Creep of polycrystalline ice under cyclic loading at -1℃［J］. Journal of Glaciolgy and Geocryology， 1994，16（3）：259-264. Google Scholar
[8]	[8] Song M， Cole D M， Baker I， et al. An investigation of the effects of particles on creep of polycrystalline ice［J］. Scripta Materialia， 2006，55（1）：91-94. Google Scholar
[9]	[9] 徐洪宇，赖远明，喻文兵，等.人造多晶冰三轴压缩强度特性实验研究［J］.冰川冻土，2011，33（5）：1120-1126. Google Scholar XU Hongyu， LAI Yuanming， YU Wenbing， et al. Experimental research on triaxial strength of polycrystalline ice［J］. Journal of Glaciology and Geocryology， 2011，33（5）：1120-1126. Google Scholar
[10]	[10] Hidas K， Tommasi A， Mainprice D， et al. Microstructural evolution during thermal annealing of ice-Ih ［J］. Journal of Structural Geology， 2017，99：31-44. Google Scholar
[11]	[11] Craw L， Qi C， Prior D J， et al. Mechanics and microstructure of deformed natural anisotropic ice［J］. Journal of Structural Geology， 2018，115：152-166. Google Scholar
[12]	[12] Hammonds K， Baker I. The effects of H₂SO₄ on the mechanical behavior and microstructural evolution of polycrystalline ice ［J］. Journal of Geophysical Research， 2018，123（3）：535-556. Google Scholar
[13]	[13] Stern L A， Durham W B， Kirby S H， et al. Grain‐size‐induced weakening of H₂O ices I and II and associated anisotropic recrystallization［J］. Journal of Geophysical Research， 1997，102（B3）：5313-5325. Google Scholar
[14]	[14] Goldsby D L， Kohlstedt D L. Superplastic deformation of ice： Experimental observations［J］. Journal of Geophysical Research， 2001，106（B6）：11017-11030. Google Scholar
[15]	[15] Hamann I， Weikusat C， Azuma N， et al. Evolution of ice crystal microstructure during creep experiments［J］. Journal of Glaciology， 2007，53（182）：479-489. Google Scholar
[16]	[16] Saruya T， Nakajima K， Takata M， et al. Effects of micro particles on deformation and microstructural evolution of fine-grained ice［J］. Journal of Glaciology， 2019，65（252）：531-541. Google Scholar
[17]	[17] Schwarz J， Frederking R， Gavrillo V， et al. Standardized testing methods for measuring mechanical properties of ice［J］. Cold Regions Science and Technology， 1981，4（3）：245-253. Google Scholar
[18]	[18] 张大长，刘明源，包涛.淡水冰单轴受压力学特性的试验研究［J］.工程力学，2011，28（7）：238-244. Google Scholar ZHANG Dachang， LIU Mingyuan， BAO Tao. Experimental study on mechanical properties of fresh water ice subjected to uniaxial compressive load［J］. Engineering Mechanics， 2011，28（7）：238-244. Google Scholar