Heat transfer in strata with different shape of cross-section and dynamic simulation of thermal environment for deep subsurface mine

Hao Lu, Zhou Quan Luo, Moe Momayez

Research output: Contribution to journalArticle

Abstract

It is a critical issue to adjust and control the subsurface mine climate based on the heat sources in airway and the temperature changes, heat gain and loss of key locations. By improving the traditional Fourier heat transfer model, a three-dimensional heat transfer model based on the actual cross-sectional shape of the ventilation airway was formulated. The momentum related boundary conditions which can reflex the velocity and quantity changes for different airway profiles also was specified, which associated with the time parameter to reveal the formation of heat conduction and exchange inside the strata and between the rock and airflow, and the heat transfer equation between wet wall and airflow was given at the meantime. On this basis, a large domestic ventilation system for deep subsurface metal mine was built, in order to obtain the trend and specialty of temperature, humidity, heat and some other parameters. This study lays the foundation for the deep subsurface mine to carry out climate regulation and control.

Original languageEnglish (US)
Pages (from-to)423-427
Number of pages5
JournalDongbei Daxue Xuebao/Journal of Northeastern University
Volume36
Issue number3
DOIs
StatePublished - Mar 1 2015

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Dynamic Simulation
Heat Transfer
Cross section
Ventilation
Heat transfer
Climate
Computer simulation
Heat
Humidity
Heat Source
Heat Conduction
Heat conduction
Atmospheric humidity
Momentum
Metals
Rocks
Boundary conditions
Model-based
Three-dimensional
Temperature

Keywords

  • Deep subsurface mine
  • Dynamic analysis
  • Heat environment
  • Multi-heat source
  • Strata heat

ASJC Scopus subject areas

  • Engineering(all)
  • Applied Mathematics
  • Computer Science Applications

Cite this

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title = "Heat transfer in strata with different shape of cross-section and dynamic simulation of thermal environment for deep subsurface mine",
abstract = "It is a critical issue to adjust and control the subsurface mine climate based on the heat sources in airway and the temperature changes, heat gain and loss of key locations. By improving the traditional Fourier heat transfer model, a three-dimensional heat transfer model based on the actual cross-sectional shape of the ventilation airway was formulated. The momentum related boundary conditions which can reflex the velocity and quantity changes for different airway profiles also was specified, which associated with the time parameter to reveal the formation of heat conduction and exchange inside the strata and between the rock and airflow, and the heat transfer equation between wet wall and airflow was given at the meantime. On this basis, a large domestic ventilation system for deep subsurface metal mine was built, in order to obtain the trend and specialty of temperature, humidity, heat and some other parameters. This study lays the foundation for the deep subsurface mine to carry out climate regulation and control.",
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N2 - It is a critical issue to adjust and control the subsurface mine climate based on the heat sources in airway and the temperature changes, heat gain and loss of key locations. By improving the traditional Fourier heat transfer model, a three-dimensional heat transfer model based on the actual cross-sectional shape of the ventilation airway was formulated. The momentum related boundary conditions which can reflex the velocity and quantity changes for different airway profiles also was specified, which associated with the time parameter to reveal the formation of heat conduction and exchange inside the strata and between the rock and airflow, and the heat transfer equation between wet wall and airflow was given at the meantime. On this basis, a large domestic ventilation system for deep subsurface metal mine was built, in order to obtain the trend and specialty of temperature, humidity, heat and some other parameters. This study lays the foundation for the deep subsurface mine to carry out climate regulation and control.

AB - It is a critical issue to adjust and control the subsurface mine climate based on the heat sources in airway and the temperature changes, heat gain and loss of key locations. By improving the traditional Fourier heat transfer model, a three-dimensional heat transfer model based on the actual cross-sectional shape of the ventilation airway was formulated. The momentum related boundary conditions which can reflex the velocity and quantity changes for different airway profiles also was specified, which associated with the time parameter to reveal the formation of heat conduction and exchange inside the strata and between the rock and airflow, and the heat transfer equation between wet wall and airflow was given at the meantime. On this basis, a large domestic ventilation system for deep subsurface metal mine was built, in order to obtain the trend and specialty of temperature, humidity, heat and some other parameters. This study lays the foundation for the deep subsurface mine to carry out climate regulation and control.

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