| Citation: | Kun Fang, Huiming Tang, Jichen Zhu, Zijin Fu, Pengju An, Bocheng Zhang, Chunyan Tang. Study on Geomechanical and Physical Models of Necking-Type Slopes. Journal of Earth Science, 2023, 34(3): 924-934. doi: 10.1007/s12583-021-1573-1
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A simplified geomechanical model was proposed by considering three typical necking-type slopes; this model lays a foundation for the further investigation of the deformation behaviors of such slopes. Three physical models of necking-type slopes were built according to the geomechanical model with slope evolution stages. Finally, preliminary calculations related to the arching effect in the physical model were conducted. Three evolution stages of necking-type slopes, namely, the initial stage, compression stage, and failure stage, were presented based on the formation and disappearance of the arching effect within the slope. The specific parameters of the geomechanical model were given. In the setup of the tilting test, the failure angle of the necking-type slope model was calculated to be approximately 50° with a large lateral resistance coefficient. The proposed geomechanical model and physical models of necking-type slopes provide guidance for the establishment of geomechanical and physical models of landslides at specific sites.
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