Dynamic damage mechanism of coal with high true triaxial stress level subject to water jets

Deep mineral resources are abundant, and water jet technology has been proven to be an efficient means of developing this resource. In-situ stress is one of the prominent features in deep mines. However, the dynamic damage process of rock under the in-situ stress environment subject to water jets ha...

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Published inPowder technology Vol. 437; p. 119583
Main Authors Cao, Shirong, Wang, Xiaojun, Ge, Zhaolong, Zhang, Liang, Yang, Yang, Hu, Huarui
Format Journal Article
LanguageEnglish
Published Elsevier B.V 15.03.2024
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Online AccessGet full text
ISSN0032-5910
1873-328X
DOI10.1016/j.powtec.2024.119583

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Abstract Deep mineral resources are abundant, and water jet technology has been proven to be an efficient means of developing this resource. In-situ stress is one of the prominent features in deep mines. However, the dynamic damage process of rock under the in-situ stress environment subject to water jets has not been revealed. Therefore, this study aims to fill this gap. For this study, coal breaking tests were performed to reveal the macro fracture patterns of coal under different true triaxial stress conditions. The results show that the bedding angle can significantly affect the coal-breaking characteristics, and when the bedding angle is 45° combines the advantages of length and aperture for jet drilling. When there is no geostress, the width of the cracks on the wall of the fracture pit is 3 μm, with a crack width of 7.5 μm at the bottom of the hole, and no through cracks generated under triaxial stress. Subsequently, further theoretical analysis and numerical simulation showed that the in-situ stress has a hysteresis and inhibitory effect on the dynamic damage evolution of jet coal breaking, hereby affecting the final fracture mode during the period. The results of this study will provide basic theoretical support for the jet drilling of rock in deep layered rock. [Display omitted] •Water jet rock-breaking test was performed under high true triaxial stress level.•The effect of in-situ stress on the dynamic damage mechanism of rock-breaking was revealed.•The macroscopic and mesoscopic damage mechanisms of coal were elucidated.•The influence of bedding on the dynamic damage mechanism of coal has been determined using a new device.
AbstractList Deep mineral resources are abundant, and water jet technology has been proven to be an efficient means of developing this resource. In-situ stress is one of the prominent features in deep mines. However, the dynamic damage process of rock under the in-situ stress environment subject to water jets has not been revealed. Therefore, this study aims to fill this gap. For this study, coal breaking tests were performed to reveal the macro fracture patterns of coal under different true triaxial stress conditions. The results show that the bedding angle can significantly affect the coal-breaking characteristics, and when the bedding angle is 45° combines the advantages of length and aperture for jet drilling. When there is no geostress, the width of the cracks on the wall of the fracture pit is 3 μm, with a crack width of 7.5 μm at the bottom of the hole, and no through cracks generated under triaxial stress. Subsequently, further theoretical analysis and numerical simulation showed that the in-situ stress has a hysteresis and inhibitory effect on the dynamic damage evolution of jet coal breaking, hereby affecting the final fracture mode during the period. The results of this study will provide basic theoretical support for the jet drilling of rock in deep layered rock.
Deep mineral resources are abundant, and water jet technology has been proven to be an efficient means of developing this resource. In-situ stress is one of the prominent features in deep mines. However, the dynamic damage process of rock under the in-situ stress environment subject to water jets has not been revealed. Therefore, this study aims to fill this gap. For this study, coal breaking tests were performed to reveal the macro fracture patterns of coal under different true triaxial stress conditions. The results show that the bedding angle can significantly affect the coal-breaking characteristics, and when the bedding angle is 45° combines the advantages of length and aperture for jet drilling. When there is no geostress, the width of the cracks on the wall of the fracture pit is 3 μm, with a crack width of 7.5 μm at the bottom of the hole, and no through cracks generated under triaxial stress. Subsequently, further theoretical analysis and numerical simulation showed that the in-situ stress has a hysteresis and inhibitory effect on the dynamic damage evolution of jet coal breaking, hereby affecting the final fracture mode during the period. The results of this study will provide basic theoretical support for the jet drilling of rock in deep layered rock. [Display omitted] •Water jet rock-breaking test was performed under high true triaxial stress level.•The effect of in-situ stress on the dynamic damage mechanism of rock-breaking was revealed.•The macroscopic and mesoscopic damage mechanisms of coal were elucidated.•The influence of bedding on the dynamic damage mechanism of coal has been determined using a new device.
ArticleNumber 119583
Author Wang, Xiaojun
Ge, Zhaolong
Zhang, Liang
Cao, Shirong
Yang, Yang
Hu, Huarui
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  organization: State Key Laboratory of Coal Mine Disaster Dynamics and Control, Chongqing University, Chongqing 400030, China
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CitedBy_id crossref_primary_10_1016_j_psep_2025_01_015
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Keywords Deep mine
Damage
Water jet
Rock-breaking
Coalbed methane
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Snippet Deep mineral resources are abundant, and water jet technology has been proven to be an efficient means of developing this resource. In-situ stress is one of...
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StartPage 119583
SubjectTerms coal
Coalbed methane
Damage
Deep mine
hysteresis
mathematical models
Rock-breaking
technology
Water jet
Title Dynamic damage mechanism of coal with high true triaxial stress level subject to water jets
URI https://dx.doi.org/10.1016/j.powtec.2024.119583
https://www.proquest.com/docview/3153563198
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