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    Volume 47 Issue 6
    Jun.  2022
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    Zhu Xing, Tang Yao, 2022. Failure Precursory Characteristics of Slope Model with Locked Section. Earth Science, 47(6): 1957-1968. doi: 10.3799/dqkx.2021.204
    Citation: Zhu Xing, Tang Yao, 2022. Failure Precursory Characteristics of Slope Model with Locked Section. Earth Science, 47(6): 1957-1968. doi: 10.3799/dqkx.2021.204

    Failure Precursory Characteristics of Slope Model with Locked Section

    doi: 10.3799/dqkx.2021.204
    • Received Date: 2021-10-01
    • Publish Date: 2022-06-25
    • In order to research the energy and frequency distribution characteristics of microseismic signals and the critical slowdown phenomenon in the damage and destruction process of granite locked section slope model, the damage test study of granite locked section slope model was carried out, and the granite locked section slope model with different rock bridge angles was loaded by uniaxial loading system, simultaneous observation was carried out by strain gauges and microseismic (MS) monitoring system. The test results manifest follows: (1) the rock bridge angle affects the damage form of the slope model, when the rock bridge angle is 70° and 90°, the damage form is mainly tension damage. When the rock bridge angle is 110°, it is mixed tension and compression damage. When the rock bridge angle is 130°, it is compression-shear damage, and the leading edge creep-slip section is the largest part of the locked slope deformation. (2) In the loading process, when there is a small damage rupture, mainly high-frequency, low-energy microseismic signals are dominant, and when a large-scale damage rupture is generated, it will be accompanied by low-frequency, high-energy microseismic signals. (3) The critical slowdown phenomenon occurs when the slope model in the locked section is in the critical damage state, which is manifested by the sudden increase of the variance and autocorrelation of the microseismic signal, and the time corresponding to the sudden increase reaches 80% of the destabilization time, so it has good timeliness, and the sudden increase of the variance and autocorrelation coefficient of the microseismic signal can be taken as the precursor information of the destabilization damage of the slope model. (4) The energy ratio method and critical slowing theory form a joint prediction criterion, which can overcome the shortcomings of single criterion and improve the accuracy of prediction. This study can provide usable reference values for monitoring and early warning of rocky slopes of sudden occurrence type.

       

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