Three-dimensional numerical simulation and analysis of fluid-heat coupling heat-transfer in fractured rock mass
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Three-dimensional numerical simulation and analysis of fluid-heat coupling heat-transfer in fractured rock mass
Vol. 32, Issue 8, (2011)
作者机构:
1. 辽宁工程技术大学 土木与交通学院,辽宁,阜新,123000
2. 武汉工业学院 多孔介质力学研究所,武汉,430023
作者简介:
基金信息:
DOI:
CLC:TU458
Online First:16 August 2011,
Published:2011
稿件说明:
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ZHANG Shu-guang, LI Zhi-jian, XU Yi-hong, et al. Three-dimensional numerical simulation and analysis of fluid-heat coupling heat-transfer in fractured rock mass[J]. 2011, 32(8).
DOI:
ZHANG Shu-guang, LI Zhi-jian, XU Yi-hong, et al. Three-dimensional numerical simulation and analysis of fluid-heat coupling heat-transfer in fractured rock mass[J]. 2011, 32(8).DOI:
Three-dimensional numerical simulation and analysis of fluid-heat coupling heat-transfer in fractured rock mass
By analyzing hydrogeological conditions of Panxi coal
temperature field and seepage field distributions of fractured rock mass are described based on the fluid-heat coupled model. Combined with boundary condition and parameters
the numerical simulation and analysis are carried out by using numerical software. The results of numerical simulation show that the heat transfer resulted from fracture flow has major impact on the temperature field distribution of fractured rock mass. The fault zone and ground water flow's existence change the original temperature field distribution of the rock mass. In the initial period
the vector of temperature gradient flows along the transfusion direction to the both sides. Because the permeability coefficient of rock in the both sides is lower than the fault zone place; the right isothermal line and the temperature gradient vector direction gradually move to the transfusion direction. At the same time
temperature field distribution of the both sides is changed. By the reduction of permeability coefficient
the change of permeability coefficient has impact on the temperature field distribution of fractured rock mass. The permeability coefficient is larger
the thermal migration is larger
the influence on temperature field distribution is also larger.