A non-linear flow model for the flow behavior of water inrush induced by the karst collapse column

被引:29
作者
Hou, Xian'gang [1 ]
Shi, Wenhao [1 ]
Yang, Tianhong [1 ,2 ]
机构
[1] Northeastern Univ, Sch Resources & Civil Engn, Ctr Rock Instabil & Seism Res, Shenyang 110819, Liaoning, Peoples R China
[2] Northeastern Univ, Key Lab, Minist Educ Safe Min Deep Met Mines, Shenyang 110819, Liaoning, Peoples R China
基金
中国国家自然科学基金;
关键词
NON-DARCY FLOW; FORCHHEIMER EQUATION; DERIVATION; SIMULATION;
D O I
10.1039/c7ra11344g
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Water inrush induced by the karst collapse column (KCC) is a great threat to coal mine safety. In this study, a non-linear flow model that couples three flow types is built based on flow transition from laminar flow in the aquifer to turbulent flow in the mine roadways during the process of water inrush induced by KCC. The proposed model couples Darcy flow, Forchheimer flow, and turbulent flow, and is then used to simulate the flow behavior of water inrush induced by KCC. In particular, the "3.1" water inrush incident from the coal seam floor in the Luotuoshan coal mine, China, is numerically investigated. The numerical results show that with the increase of the inrush flow rate, Forchheimer flow in the water inrush channel is first controlled by viscous resistance, then affected by both viscous resistance and inertial resistance, and finally controlled by inertial resistance. Therefore, water inrush induced by KCC is a dynamic process with a transition from laminar to turbulent. The Forchheimer equation proved to be applicable in describing the high-velocity non-linear flow, and can also reflect the intermediate state of the flow translation from laminar flow in the aquifer to turbulent flow in the roadway during the water inrush process.
引用
收藏
页码:1656 / 1665
页数:10
相关论文
共 50 条
[21]   On the non-linear behavior of a laminar single-phase flow through two and three-dimensional porous media [J].
Fourar, M ;
Radilla, G ;
Lenormand, R ;
Moyne, C .
ADVANCES IN WATER RESOURCES, 2004, 27 (06) :669-677
[22]   Analytical calculation of critical perturbation amplitudes and critical densities by non-linear stability analysis of a simple traffic flow model [J].
Helbing, D. ;
Moussaid, M. .
EUROPEAN PHYSICAL JOURNAL B, 2009, 69 (04) :571-581
[23]   A Universal Thermal Dynamic Non-linear Model for Water Tube Drum Boilers [J].
Zhao Wei-guang ;
Yang Ying ;
Xia Guo-qing ;
Wang Ya-jun .
2012 ASIA-PACIFIC POWER AND ENERGY ENGINEERING CONFERENCE (APPEEC), 2012,
[24]   A Coupled Nonlinear Flow Model for Particle Migration and Seepage Properties of Water Inrush through Broken Rock Mass [J].
Shi, Wenhao ;
Yang, Tianhong .
GEOFLUIDS, 2020, 2020
[25]   A practical flow diagram for the solution of complex non-linear thermo-mechanical numerical models [J].
Karalis, D. G. ;
Tsouvalis, N. G. ;
Papazoglou, V. J. ;
Pantelis, D. I. .
COMPUTATIONAL MATERIALS SCIENCE, 2014, 95 :288-301
[26]   DESIGN AND DEVELOPMENT OF INDUSTRIAL IoT-BASED SYSTEM FOR BEHAVIOR PROFILING OF NON-LINEAR DYNAMIC PRODUCTION SYSTEMS BASED ON ENERGY FLOW THEORY [J].
Medojevic, Milovan M. ;
Tejic, Branislav B. ;
Medojevic, Milana S. ;
Kljajic, Miroslav, V .
THERMAL SCIENCE, 2022, 26 (03) :2147-2161
[27]   Numerical analysis of gas-liquid two-phase flow after water inrush from the working face during tunnel excavation in a karst region [J].
Wu, J. ;
Li, S. C. ;
Xu, Z. H. .
BULLETIN OF ENGINEERING GEOLOGY AND THE ENVIRONMENT, 2019, 78 (04) :2973-3010
[28]   Influence of non-linear radiation, Joule heating and viscous dissipation on the boundary layer flow of MHD nanofluid flow over a thin moving needle [J].
Upreti, Himanshu ;
Kumar, Manoj .
MULTIDISCIPLINE MODELING IN MATERIALS AND STRUCTURES, 2020, 16 (01) :208-224
[29]   Entropy optimized dissipative flow of hybrid nanofluid in the presence of non-linear thermal radiation and Joule heating [J].
Xia, Wei-Feng ;
Hafeez, M. U. ;
Khan, M. Ijaz ;
Shah, Nehad Ali ;
Chung, Jae Dong .
SCIENTIFIC REPORTS, 2021, 11 (01)
[30]   CHEMICAL REACTION ON NON-LINEAR BOUNDARY LAYER FLOW OVER A POROUS WEDGE WITH VARIABLE STREAM CONDITIONS [J].
Kandasamy, R. ;
Saravanan, R. ;
Prabhu, K. K. Sivagnana .
CHEMICAL ENGINEERING COMMUNICATIONS, 2010, 197 (04) :522-543