Research progress on the evolution mechanism of ground stress field and its response in major engineering construction
Journal: Journal of Building Technology DOI: 10.32629/jbt.v7i2.4630
Abstract
As a natural inherent stress in geological formations, ground stress is a key geological factor affecting engineering stability and safety. Based on authoritative works (e.g., Geological Hazards and Prevention [1], Engineering Geomechanics [2]) and recent research, this study systematically explores the relationship between ground stress and engineering construction, analyzes its impact mechanisms in tunnels, mines, hydropower dams, and other major projects, and reviews the latest progress in ground stress measurement technologies, predictive models, and engineering applications. The research shows that ground stress distribution directly determines engineering support design, disaster risk assessment, and construction safety management. Modern ground stress research has advanced from traditional contact measurements to intelligent, refined monitoring. This paper aims to provide theoretical references for ground stress application in engineering, improving construction scientificity and safety.
Keywords
ground stress; engineering construction; stress measurement; stability; research progress
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[2] Cai Yongjun, Zhao Xiaoming. Analysis of Basic Principles of Rock Mass Engineering Geological Dynamics[J]. Knowledge Economy, 2014, (15): 180.
[3] Wang Chenghu. Review and Prospect of Main Testing and Estimation Methods for In-Situ Stress[J]. Geological Review, 2014, 60(5): 971-991+996+992-995.
[4] Li Fei, Zhou Jiaxing, Wang Jin'an. Nonlinear In-Situ Stress Construction Method Considering Deep Multi-Field Coupling[J]. Journal of China Coal Society, 2021, 46(S1): 116-129.
[5] Gong Jiangfeng, Tian Siming, Yang Zhigang. Research Status and Analysis of Tunnel Rockburst in High In-Situ Stress Areas in China[J]. Railway Standard Design, 2022, 66(5): 95-99+105.
[6] Tan Yunliang, Guo Weiyao, Xin Hengqi, et al. Key Technologies for Monitoring and Hazard Relief of Rockburst in Deep Coal Mining[J]. Journal of China Coal Society, 2019, 44(1): 160-172.
[7] Jiang H S, Chen D J, Huang J. Stability Analysis of Jointed Rock Slopes Based on the Universal Elliptical Disc Model[J]. IOP Conference Series: Earth and Environmental Science, 2024, 1331(1).
[8] Ma Xiumin, Peng Hua, Bai Jinpeng, et al. Review on Compliance Research Progress in In-Situ Stress Measurement Method Using Anelastic Strain Recovery (ASR)[J]. Journal of Geomechanics, 2017, 23(4): 526-530.
[9] Wang Ziqing. Numerical Simulation of Regional 3D In-Situ Stress Field Constrained by Fine Geological Structure – Sensitivity Factor Analysis and Application in Typical Areas[D]. Central South University, 2025.
[10] Zhang C, Xu J, Wang H, et al. Evaluating In-Situ Stress State and Stress Heterogeneity by Hydraulic Fracturing and Image Logging in Changcun Coalbed Methane Area, North China[J]. Rock Mechanics and Rock Engineering, 2024, 58(2): 1-16.
[11] Zhou Jiaxing. Research on Inversion Algorithm of Deep Complex In-Situ Stress Field Based on Deep Learning[D]. University of Science and Technology Beijing, 2022.
[12] Deng Siwen, Chen Enyu, Ma Chishuai, et al. Rockburst Prediction of Deep Tunnel Based on In-Situ Stress Measurement and Energy Criterion[J]. Yangtze River, 2016, 47(21): 62-66.
Copyright © 2025 Shuntao Peng, Jinqi Zeng, Qingyu Yang, Yijing Sun, Wenxu Gong, Minghao Zhou, Yanxuan Ren
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