Dynamic Characteristics of Water Inflow from a Coal Mine’s Roof Aquifer

The static and dynamic inflow of water from the roof aquifer changes as mining progresses. We used a second-order dynamic model to describe the water inflow process. The parameters of the water inflow model were solved using actual drainage from roof aquifers at nine working faces in the Yuanyanghu...

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Veröffentlicht in:Mine water and the environment 2022-09, Vol.41 (3), p.764-774
Hauptverfasser: Zhou, Zhenfang, Dong, Shuning, Wang, Hao, Jin, Dewu, Wang, Xiaodong, Dong, Yang, Chen, Shi, Li, Debin, Dong, Xingling, Shang, Hongbo
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container_end_page 774
container_issue 3
container_start_page 764
container_title Mine water and the environment
container_volume 41
creator Zhou, Zhenfang
Dong, Shuning
Wang, Hao
Jin, Dewu
Wang, Xiaodong
Dong, Yang
Chen, Shi
Li, Debin
Dong, Xingling
Shang, Hongbo
description The static and dynamic inflow of water from the roof aquifer changes as mining progresses. We used a second-order dynamic model to describe the water inflow process. The parameters of the water inflow model were solved using actual drainage from roof aquifers at nine working faces in the Yuanyanghu mining area of the Ningxia Autonomous Region, China, as well as the peak water inflow values, their locations, the equilibrium values of water inflow, and their initial occurrence locations. The parameters of the second-order dynamic model of water inflow were inversely calculated. The peak values of water inflow without drainage were also calculated. The results indicate that pre-drainage of roof water significantly weakens the intensity of water inflow during the mining process, reducing peak values by more than 72%. The characteristics of the water-conducting fractured zones determine the major drainage locations, while the water-rich and water-conductive nature of the direct discharge aquifer affects the water inflow equilibrium values and initial occurrence positions. The results show that the model parameters and characteristic values of water inflow are determined by the hydrogeological nature of the roof strata, water-conducting fractured zone(s), and mining speed.
doi_str_mv 10.1007/s10230-022-00873-8
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We used a second-order dynamic model to describe the water inflow process. The parameters of the water inflow model were solved using actual drainage from roof aquifers at nine working faces in the Yuanyanghu mining area of the Ningxia Autonomous Region, China, as well as the peak water inflow values, their locations, the equilibrium values of water inflow, and their initial occurrence locations. The parameters of the second-order dynamic model of water inflow were inversely calculated. The peak values of water inflow without drainage were also calculated. The results indicate that pre-drainage of roof water significantly weakens the intensity of water inflow during the mining process, reducing peak values by more than 72%. The characteristics of the water-conducting fractured zones determine the major drainage locations, while the water-rich and water-conductive nature of the direct discharge aquifer affects the water inflow equilibrium values and initial occurrence positions. 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We used a second-order dynamic model to describe the water inflow process. The parameters of the water inflow model were solved using actual drainage from roof aquifers at nine working faces in the Yuanyanghu mining area of the Ningxia Autonomous Region, China, as well as the peak water inflow values, their locations, the equilibrium values of water inflow, and their initial occurrence locations. The parameters of the second-order dynamic model of water inflow were inversely calculated. The peak values of water inflow without drainage were also calculated. The results indicate that pre-drainage of roof water significantly weakens the intensity of water inflow during the mining process, reducing peak values by more than 72%. The characteristics of the water-conducting fractured zones determine the major drainage locations, while the water-rich and water-conductive nature of the direct discharge aquifer affects the water inflow equilibrium values and initial occurrence positions. 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1616-1068
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source Springer Nature - Complete Springer Journals
subjects Aquifers
Coal mines
Coal mining
Conduction
Drainage
Dynamic characteristics
Dynamic models
Earth and Environmental Science
Earth Sciences
Ecotoxicology
Geology
Groundwater
Hydrogeology
Hydrology
Industrial Pollution Prevention
Inflow
Locations (working)
Mineral Resources
Mining
Numerical analysis
Parameters
Technical Article
Water
Water discharge
Water inflow
Water Quality/Water Pollution
title Dynamic Characteristics of Water Inflow from a Coal Mine’s Roof Aquifer
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