A platform for research: civil engineering, architecture and urbanism
This study aimed to systematically reveal the dynamic meso-scale deformation characteristics and damage mechanism of silt lightweight soil (SLS) from the Yellow River, China, under triaxial conditions. The improved three-phase random aggregates algorithm model, a new damage simulation method, and the expanded polystyrene (EPS) particles fixed-point monitoring technique were applied. It was found that EPS content, confining pressure, and the mechanical properties of the interface transition zone all affect the damage evolution process of SLS. Moreover, the propagation speeds of cracks also varied among different parts of the SLS. Four damage forms were defined based on the propagation speed of cracks.
This study aimed to systematically reveal the dynamic meso-scale deformation characteristics and damage mechanism of silt lightweight soil (SLS) from the Yellow River, China, under triaxial conditions. The improved three-phase random aggregates algorithm model, a new damage simulation method, and the expanded polystyrene (EPS) particles fixed-point monitoring technique were applied. It was found that EPS content, confining pressure, and the mechanical properties of the interface transition zone all affect the damage evolution process of SLS. Moreover, the propagation speeds of cracks also varied among different parts of the SLS. Four damage forms were defined based on the propagation speed of cracks.
Dynamic Analysis of the Damage Mechanism of Silt Lightweight Soil
Soil Mech Found Eng
Soil Mechanics and Foundation Engineering ; 59 ; 492-499
2022-11-01
8 pages
Article (Journal)
Electronic Resource
English
Dynamic Analysis of the Damage Mechanism of Silt Lightweight Soil
Online Contents | 2022
|Dynamic Consolidation Test Study on Silt and Silt Soil
Trans Tech Publications | 2011
|Dynamic Consolidation Test Study on Silt and Silt Soil
British Library Conference Proceedings | 2011
|Engineering Index Backfile | 1944
|