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The infrastructure construction in tectonically active mountainous areas is faced with the threat of earthquake-induced rockslide-avalanches. We took the Woqian rockslide-avalanche induced by the Wenchuan earthquake near the Qinchuan active fault, Southwestern China as an instance to elucidate a unique initiation mechanism of the inward inclined bedding slope, which had a characteristic of twice destabilization in succession. The high-resolution satellite images, UAV aerial photography, field investigation, and numerical simulation were conducted to reveal the failure processes. The results suggested that (1) the long-term headward erosion of the gully runoff had locally exposed the unconformity contact plane within the strata, which evolved as a part of the sliding plane; (2) the seismic loading produced a rapid shear strain increment on the unconformity plane; (3) the brittle rupture occurred along the sliding plane at the bottom of the sliding source I developed at 6 s after the seismic wave arrival; (4) as a “resistance barrier”, the sliding source I first collapsed and most of it accumulated at a short distance; (5) the sliding source II subsequently slid along the apparent dip of the bedding plane and then entrained the deposits of the source I into a catastrophic rock avalanche. The failure mechanism of such carbonaceous bedding slopes with similar geological conditions could provide an insight into the early risk recognition of potential rockslides and the safe site selection of infrastructures.
Landslides – Springer Journals
Published: Jan 1, 2023
Keywords: Earthquake-induced rockslide; Rockslide-avalanche; Failure mechanism; Carbonate rock; Finite difference method
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