Permeability Correction in Low-Permeability Soils Using a Seepage Force Consolidation Test - Xie, Yao; Chen, Ping-Shan; Gu, Ren-Guo; Wang, Jing; Gao, Kang; Fang, Ying-Guang (Geotechnical and geological engineering, 2025)
Keywords: Accuracy; Civil Engineering; Collectors; Consolidation; Construction accidents & safety; Crack initiation; Deformation; Earth and Environmental Science; Earth Sciences; Engineering; Exact solutions; Experiments; Geotechnical Engineering & Applied Earth Sciences; Groundwater; Hydraulic fracturing; Hydraulic gradient; Hydrogeology; Hydrostatic pressure; Influence; Load; Membrane permeability; Mercury; Multilayers; Original Paper; Permeability; Permeability coefficient; Pore pressure; Pore water; Pore water pressure; Porosity; Pressure distribution; Safety engineering; Seepage; Soil; Soil consolidation tests; Soil permeability; Soils; Structures; Terrestrial Pollution; Underground structures; Void ratio; Waste Management/Waste Technology; Water pressure; Seepage consolidation test apparatus; Permeability coefficient correction; Seepage force consolidation; Mercury Intrusion Porosimetry (MIP) test