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      KCI등재 SCIE SCOPUS

      Effect of Vertical Flow on Consolidation Degree of Foundation with Vertical Drains in Large-Strain Consolidation Theory

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      https://www.riss.kr/link?id=A107821131

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      다국어 초록 (Multilingual Abstract)

      Vertical flow has an important effect on consolidation rate of ultra-soft soil, but the influence law and influence level on the degree of large-strain consolidation have not been quantitatively evaluated. Based on the negative axisymmetric large stra...

      Vertical flow has an important effect on consolidation rate of ultra-soft soil, but the influence law and influence level on the degree of large-strain consolidation have not been quantitatively evaluated. Based on the negative axisymmetric large strain consolidation (NALSC) model, the variation laws of calculation error of consolidation degree ignoring vertical flow with consolidation time and strain are studied under different values of H/re (ratio of soil thickness to influence radius), w0/wL (ratio of initial water content to liquid limit) and kh/kv (ratio of horizontal permeability coefficient to vertical permeability coefficient). Taking 10% as the error threshold, the H/re values ignoring vertical flow are given, and the difference between them in the theories of large-strain and small-strain is discussed. The results show that the effect of vertical flow on degree of stress consolidation (Up) is greater than degree of strain consolidation (Us). The H/re values neglecting the effect of vertical flow on the degree of consolidation in large-strain theory are less than those in small-strain theory. The calculation errors affected by vertical flow decrease with the increase of H/re and kh/kv. Error of Us affected by vertical flowdecreases, whereas error of Up increases with the increase of w0/wL. The effect of vertical flow on the degree of consolidation is greater when well resistance is considered.

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      참고문헌 (Reference)

      1 Walker R, "Vertical drain consolidation with non-Darcian flow and void ratio dependent compressibility and permeability" 62 (62): 985-997, 2012

      2 Gibson RE, "The theory of onedimensional consolidation of saturated clays, II. Finite nonlinear consolidation of thick homogeneous layers" 18 (18): 280-293, 1981

      3 Bian X, "The role of superabsorbent polymer on strength and microstructure development in cemented dredged clay with high water content" 10 (10): 1069-, 2018

      4 Tavenas F, "The permeability of natural soft clays, Part 2: Permeability characteristics" (20) : 645-660, 1983

      5 Jiang WH, "The large strain consolidation of sanddrained ground considering the well resistance and the variation of radial permeability coefficient" 42 (42): 1-11, 2021

      6 Been K, "Self-weight consolidation of soft soils : An experimental and theoretical study" 31 (31): 519-535, 1981

      7 Xu GZ, "Sedimentation behavior of four dredged slurries in China" 30 (30): 143-156, 2012

      8 Dong ZL, "Research and application of improvement technology of shallow ultra-soft soil formed by dredged in Tianjin Binhai new area" 30 (30): 1073-1080, 2011

      9 Fox PJ, "Piecewise-linear model for large strain radial consolidation" 129 : 940-950, 2003

      10 Indraratna B, "Performance of marine clay stabilised with vacuum pressure : Based on queensland experience" 11 (11): 598-611, 2019

      1 Walker R, "Vertical drain consolidation with non-Darcian flow and void ratio dependent compressibility and permeability" 62 (62): 985-997, 2012

      2 Gibson RE, "The theory of onedimensional consolidation of saturated clays, II. Finite nonlinear consolidation of thick homogeneous layers" 18 (18): 280-293, 1981

      3 Bian X, "The role of superabsorbent polymer on strength and microstructure development in cemented dredged clay with high water content" 10 (10): 1069-, 2018

      4 Tavenas F, "The permeability of natural soft clays, Part 2: Permeability characteristics" (20) : 645-660, 1983

      5 Jiang WH, "The large strain consolidation of sanddrained ground considering the well resistance and the variation of radial permeability coefficient" 42 (42): 1-11, 2021

      6 Been K, "Self-weight consolidation of soft soils : An experimental and theoretical study" 31 (31): 519-535, 1981

      7 Xu GZ, "Sedimentation behavior of four dredged slurries in China" 30 (30): 143-156, 2012

      8 Dong ZL, "Research and application of improvement technology of shallow ultra-soft soil formed by dredged in Tianjin Binhai new area" 30 (30): 1073-1080, 2011

      9 Fox PJ, "Piecewise-linear model for large strain radial consolidation" 129 : 940-950, 2003

      10 Indraratna B, "Performance of marine clay stabilised with vacuum pressure : Based on queensland experience" 11 (11): 598-611, 2019

      11 Indraratna B, "Performance of embankment stabilized with vertical drains on soft clay" 120 (120): 257-273, 1994

      12 Indraratna B, "Numerical modeling of vacuum preloading and field applications" 41 : 1098-1110, 2004

      13 Chen PS, "Mechanism and numerical simulation of the “soil piles” in the fresh hydraulic mud fill treated by surface-layer improvement technique" (1) : 158-163, 2012

      14 Indraratna B, "Large-strain vacuum-assisted consolidation with non-Darcian radial flow incorporating varying permeability and compressibility" 143 (143): 04016088-, 2017

      15 Hu YY, "Large-strain elastic viscoplastic consolidation analysis of very soft clay layers with vertical drains under preloading" 51 : 144-157, 2014

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      17 Jiang HH, "Large strain consolidation of soft ground with vertical drains" 33 (33): 302-308, 2011

      18 Indraratna B, "Laboratory determination of smear zone due to vertical drain installation" 124 (124): 180-184, 1998

      19 Hird CC, "Finite element modelling of vertical drains beneath embankments on soft ground" 42 (42): 499-511, 1992

      20 Ji F, "Experimental study and modelling on capacity of dredged slurry ponds" Southeast University 2012

      21 Yupeng Cao, "Effect of Clogging on Large Strain Consolidation with Prefabricated Vertical Drains by Vacuum Pressure" 대한토목학회 23 (23): 4190-4200, 2019

      22 Zeng LL, "Determining the virgin compression lines of reconstituted clays at different initial water contents" 52 (52): 1408-1415, 2015

      23 Cerato AB, "Determining intrinsic compressibility of fine-grained soils" 130 (130): 872-877, 2004

      24 Hansbo S, "Consolidation of fine-grained soils by prefabricated drains" 1981

      25 Barron RA, "Consolidation of fine-grained soils by drain wells" 113 (113): 718-742, 1948

      26 Deng YB, "Consolidation by prefabricated vertical drains considering the time dependent well resistance" 36 : 20-26, 2013

      27 Zhu G, "Consolidation analysis of soil with vertical and horizontal drainage under ramp loading considering smear effects" 22 (22): 63-74, 2004

      28 Hong ZS, "Compression behaviour of reconstituted soils at high initial water contents" 60 (60): 691-700, 2010

      29 Cao YP, "Axisymmetric largestrain consolidation model for dredged clays with high water content under vacuum preloading" 46 (46): 860-865, 2016

      30 Cao YP, "Axisymmetric large-strain consolidation model for dredged clay with high water content" 38 (38): 1904-1910, 2016

      31 Zhou WH, "Analytical solutions to the axisymmetric consolidation of a multi-layer soil system under surcharge combined with vacuum preloading" 45 (45): 487-498, 2017

      32 Rujikiatkamjorn C, "Analytical solutions and design curves for vacuum-assisted consolidation with both vertical and horizontal drainage" 44 (44): 188-200, 2007

      33 Guo B, "Analytical solution for consolidation of vertical drains by vacuum-surcharge preloading" 35 (35): 1045-1054, 2013

      34 Cao YP, "Analysis of large-strain consolidation behavior of soil with high water content in consideration of self-weight" 2018 : 1-10, 2018

      35 Xie KH, "An analytical theory for 1-D nonlinear large strain consolidation of soft clay" 24 (24): 680-684, 2002

      36 Lei G H, "An analytical solution for consolidation with vertical drains under multi-ramp loading" 65 (65): 531-547, 2015

      37 Cao YP, "A method of determining nonlinear large strain consolidation parameters of dredged clays" 7 (7): 218-226, 2014

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