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Zhixiang Chen, Jielong Rao, Yong Wan


Проведены исследования содержания незамерзшей воды и теплофизических параметров песчаных и глинистых грунтов при циклическом замораживании–оттаивании. Рассчитаны истинная удельная теплоемкость, кажущаяся удельная теплоемкость и теплопроводность мерзлого грунта. Проанализированы гистерезисное поведение незамерзшей воды и зависимость теплофизических параметров мерзлого грунта от температуры, а также истории её изменения.




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V.V. Mestnikov, I.V. Mestnikova and V.V. Mestnikov, “Numerical Analysis of the Stress-Strain State of a Combined Pile in Permafrost Soils,” Soil Mech Found Eng, 60, 209–215 (2023).

Z. Chen, Y. Feng, X. Zhang, X. Guo, L. Shao, S. Li, X. Tian and L. Gao, “Similarity criterion for the nonlinear thermal analysis of soil freezing process: Considering the dual effect of nonlinear thermal parameters and boundary conditions,” ACTA GEOTECH, 17, 5709–5719 (2022).

P. Nikolaev, M. Sedighi, H. Rajabi, and A. Pankratenko, “Artificial ground freezing by solid carbon dioxide - Analysis of thermal performance,” TUNN UNDERGR SP TECH, 130, 104741 (2022).

Z. Chen, X. Guo, L. Shao, S. Li and L. Gao, “Sensitivity analysis of the frozen soil nonlinear latent heat and its precise transformation method,” GEOPHYS J INT, 228, 1, 240-249 (2022).

J. Zhang, W. Zhou and Z. Meng, “Deformation of thawed surrounding rock during tunneling in permafrost,” Soil Mech Found Eng, 59, 565–575 (2023).

D. Spiridonov, S. Stepanov and V. Vasiliy, “An Online Generalized Multiscale finite element method for heat and mass transfer problem with artificial ground freezing,” J COMPUT APPL MATH, 417,114561 (2023).

A.G. Alekseev and S.G. Bezvolev, “Evaluation of Creep Indicators of Plastic-Frozen Soil According to Laboratory and Field Tests,” Soil Mech Found Eng, 60, 86-92 (2023).

HL. Jia, T. Wang, WH. Chen, S. Ding, T. Luo and Q. Sun, “Microscopic mechanisms of microwave irradiation thawing frozen soil and potential application in excavation of frozen ground,” COLD REG SCI TECHNOL, 184, 103248 (2021).

J. Zhou, C. Wei, H. Wei and P. Chen, “Applicability of line heat source method in measuring thermal parameters of frozen soil,” Chinese Journal of Geotechnical Engineering, 38, 4, 681-687 (2016).

X. Zhao, G. Zhou, and X. Jiang, “Measurement of thermal conductivity for frozen soil at temperatures close to 0℃,” Measurement, 134, 504–510 (2019).

O.N. Kravtsova, N.A. Protodyakonova, and A.M. Timofeev, “Calculation of thermal conductivity of fine soils taking into account the quantity of unfrozen water,” Soil Mech Found Eng, 60, 223-228 (2023).

X. Liu, H. Zhu, J. Wang, J. Li, J. Wang, D. Cao and B. Shi, “Experimental study on actively heated fiber Bragg grating method for sensing seepage in unsaturated soils,” Chinese Journal of Geotechnical Engineering, 44, 8, 1443-1452 (2022).

Y. Kojima, Y. Nakano, C. Kato, K. Noborio, K. Kamiya and R. Horton, “A new thermo-time domain reflectometry approach to quantify soil ice content at temperatures near the freezing point,” COLD REG SCI TECHNOL, 174, 103060 (2020).

J. Kou, X. Ma, J. Teng, S. Zhang and X. Li, “Hysteresis effect of unfrozen water content in soil based on pore structure,” China Journal of Highway and Transport, 33, 9, 115-125 (2020).

Y. Zhou, J. Zhou, X.Y. Shi and G. Zhou, “Practical models describing hysteresis behavior of unfrozen water in frozen soil based on similarity analysis,” COLD REG SCI TECHNOL, 157, 215-223 (2019).

C. Wang, Y. Lai, F. Yu and S. Li, “Estimating the freezing-thawing hysteresis of chloride saline soils based on the phase transition theory,” APPL THERM ENG, 135, 22-33 (2018).

JH. Kupfernagel, JC. Hesse, M. Schedel, B. Welsch, H. Anbergen, L. Muller and I. Sass, “Impact of operational temperature changes and freeze-thaw cycles on the hydraulic conductivity of borehole heat exchangers,” GEOTHERM ENERGY, 9, 1, 24 (2021).

H. He, G. Flerchinger, Y. Kojima, M. Dyck and J. LV, “A review and evaluation of 39 thermal conductivity models for frozen soils” GEODERMA,382, 114694 (2021).

XK. Li, X. Li, S. Liu and JL. Qi, “Thermal-seepage coupled numerical simulation methodology for the artificial ground freezing process,” COMPUT GEOTECH, 156, 105246 (2023).

Z. Chen, X. Guo, L. Shao, X. Wang and S. Li, “Calorimetry of a multicomponent system for the analysis of frozen soil specific heat test considering the effect of latent heat,” EURASIAN SOIL SCI, 53(2), 207-214 (2020).

A. Hamid, W.M. Hamid and A.M. Alnuaim, Factors Affecting Energy Pile Efficiency, Soil Mech Found Eng, 58, 302-307 (2021).

ZX. Chen, XX. Guo, LT. Shao and SQ. Li, “On determination method of thermal conductivity of soil solid material,” SOILS FOUND, 60, 1, 218-228 (2020).

JP. Ren, SL. Zhang, T. Ishikawa, SY. Li and C. Wang, “The frost heave characteristics of a coarse-grained volcanic soil quantified by particle image velocimetry,” GEODERMA, 430, 116352 (2023).

J. Won, D. Lee, HJ. Choi, H. Lee and H. Choi,Field experiments for three freezing operation scenarios in silty soil deposits,” ENG GEOL, 303, 106642 (2022).

Y. Zhao, B. Yu, GJ. Yu and W. Li, “Study on the water-heat coupled phenomena in thawing frozen soil around a buried oil pipeline,” APPL THERM ENG, 73, 2, 1477-1488 (2015).


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