近期论文
查看导师新发文章
(温馨提示:请注意重名现象,建议点开原文通过作者单位确认)
[76]Zhang,X.D.,Wang,J.C.,Chen,Q.J.,Lin,Z.J.,Gong,X.N.,Yang,Z.X.,Xu,R.Q.,2021,Analytical method for segmental tunnel linings reinforced by secondary lining considering interfacial slippage and detachment,Int.J.Geomech.,ASCE,in press.
[75]Pan,K.,Yang,Z.X.,Cai,Y.Q.,2021,Flow liquefaction potential of loose sand:stress path envelope and energy–based evaluation,Canadian Geotechnical Journal,in press.
[74]Liao,D.,Yang,Z.X.,2021,Unified hypoplastic modeling of anisotropic sand behavior accounting for fabric evolution under monotonic and cyclic loading,Acta Geotechnica,in press.
[73]Guo,N.,Yang,Z.X.,Yuan,W.H.,Zhao,J.D.,2021,A coupled SPFEM/DEM approach for multiscale modeling of large-deformation geomechanical problems,Int.J.Numer.Anal.Meth.Geomech.,in press.
[72]Guo,N.,Chen,L.F.,Yang,Z.X.,2021,Multiscale modelling and analysis of footing resting on an anisotropic sand,Géotechnique,in press.
[71]Pan,K.,Xu,T.T.,Liao,D.,Yang,Z.X.,2020,Failure patterns of sand under asymmetrical cyclic loading conditions:experimental observation and constitutive modeling,Géotechnique,in press.
[70]Wu,Q.X.,Yang,Z.X.,2021,A novel undrained servomechanism in discrete element modeling and its application in multidirectional cyclic shearing simulations,Journal of Engineering Mechanics,ASCE,147(3),04020155.
[69]Liao,D.,Yang,Z.X.,Xu,T.T.,2021,J2-deformation-type soil model coupled with state-dependent dilatancy and fabric evolution:multiaxial formulation and FEM implementation,Computers and Geotechnics,129,103674.
[68]Pan,K.,Zhou,G.Y.,Yang,Z.X.,Cai,Y.Q.,2020,Comparison of cyclic liquefaction behavior of clean and silty sands considering static shear effect,Soil Dynamics and Earthquake Engineering,139,106338.
[67]Chen,Q.J.,Wang,J.C.,Huang,W.M.,Yang,Z.X.,Xu,R.Q.,2020,Analytical solution for a jointed shield tunnel lining reinforced by secondary linings,International Journal of Mechanical Sciences,185,105813.
[66]Hu,Z.,Yang,Z.X.,Zhang,Y.D.,2020,CFD-DEM modeling of suffusion effect on undrained behavior of internally unstable soils,Computers and Geotechnics,126,103692.
[65]Yan,Z.,Sun,X.P.,Yang,Z.X.,Fu,D.F.,2020,Lateral bearing performance of a defective pile-supported wharf with batter piles,Journal of Waterway,Port,Coastal,and Ocean Engineering,ASCE,146(5),04020035.
[64]Wu,Q.X.,Xu,T.T.,Yang,Z.X.,2020,Diffuse instability of granular material under various drainage conditions:Discrete element simulation and constitutive modelling,Acta Geotechnica,15,1763–1778.
[63]Wang,J.C.,Huang,W.M.,Xu,R.Q.,Yang,Z.X.,Xu,R.Q.,2020,Analytical solution for segmental-tunnel lining incorporating interaction between adjacent rings,Journal of Engineering Mechanics,ASCE,146(7),04020075.
[62]Yang,Z.X.,Gao,Y.Y.,Jardine,R.J,Guo,W.B.,Wang,D.,2020,Large deformation finite element simulation of displacement pile installation experiments in sand,Journal of Geotechnical and Geoenvironmental Engineering,ASCE,146(6),04020044.
[61]Hu,Z.,Zhang,Y.D.,Yang,Z.X.,2020,Suffusion-induced evolution of mechanical and microstructural properties of gap-graded soils using CFD-DEM,Journal of Geotechnical and Geoenvironmental Engineering,ASCE,2020,146(5):04020024.
[60]Wang,J.F.,Zhang,J.T.,Yang,Z.X.,Xu,R.Q.,2020,Control measures for thermal effects during placement of span-scale girder segments on continuous steel box girder bridges,Journal of Zhejiang University-Science A,21(4),255-267.
[59]Yang,Z.X.,Liao,D.,Xu.T.T.,2020,A hypoplastic model for granular soils incorporating anisotropic critical state theory,Int.J.Numer.Anal.Meth.Geomech.,44(6),723-748.
[58]Chen,Y.N.,Yang,Z.X.,2020,A bounding surface model for anisotropically over-consolidated clay incorporating thermodynamics admissible rotational hardening rule,Int.J.Numer.Anal.Meth.Geomech.,44(5),668–690.
[57]Wang,J.C.,Huang,W.M.,Xu,R.Q.,Yang,Z.X.,Xu,R.Q.,2020,Analytical approach for circular-jointed shield tunnel lining based on the state space method,Int.J.Numer.Anal.Meth.Geomech.,44(5),575–595.
[56]Pan,K.,Yang,Z.X.,2020,Evaluation of the liquefaction potential of sand under random loading conditions:equivalent approach versus energy-based method,Journal of Earthquake Engineering,24(1),59-83.
[55]Pan,K.,Cai,Y.Q.,Yang,Z.X.,Pan,X.,2019,Liquefaction of sand under monotonic and cyclic shear conditions:Impact of drained preloading history,Soil Dynamics and Earthquake Engineering,126(2019):105775.
[54]Wang,J.F.,Zhang,J.T.,Xu,R.Q.,Yang,Z.X.,2019,Evaluation of thermal effects on cable forces of a long-span prestressed concrete cable-stayed bridge,Journal of Performance of Constructed Facilities,33(6):04019072.
[53]Kodicherla,S.P.K.,Gong,G.B.,Yang,Z.X.,Krabbenhoft,K.,Fan,L.,Moy,C.K.S.,Wilkinson,S.,2019,The influence of particle elongations on direct shear behaviour of granular materials using DEM,Granular Matter,21(4):86.
[52]Wang,J.F.,Zhang,J.T.,Xu,R.Q.,Yang,Z.X.,2019,A numerically stable dynamic coefficient method and its application in free vibration of partial-interaction continuous composite beams,Journal of Sound and Vibration,457,314-332.
[51]Hu,Z.,Zhang,Y.D.,Yang,Z.X.,2019,Suffusion-induced deformation and microstructural change of granular soils:a coupled CFD-DEM study,Acta Geotechnica,14(3),795–814.
[50]Wu,Q.X.,Yang,Z.X.,Li,X.,2019,Numerical simulations of granular materials under rotational shear:micromechanical observation and energy consideration,Meccanica,54(4-5),723-740.
[49]Yang,Z.X.,Wen,Y.X.,Pan,K.,2019,Previbration signature on dynamic properties of dry sand,Journal of Testing and Evaluation,ASTM,47(3),2167-2192.
[48]Yan,Z.,Zhang,H.Q.,Sun,X.P.,Yang,Z.X.,2019,Wave-induced pore pressure response of a silty clay seabed around vertical caisson breakwater,Journal of Testing and Evaluation,ASTM,47(3),2061-2079.
[47]Hu,Z.,Yang,Z.X.,Wilkinson,S.P.,2019,Reply to the discussion by Ganesh on“Analysis of passive earth pressure modification due to seepageflow effects”,Canadian Geotechnical Journal,56(2),305-306.
[46]Su,D.,Yang,Z.X.,2019,Drained analyses of cylindrical cavity expansion in sand incorporating a bounding-surface model with state-dependent dilatancy,Applied Mathematical Modelling,68,1-20.
[45]Yang,Z.X.,Xu,T.T.,Li,X.S.,2019,J2-deformation type model coupled with state dependent dilatancy,Computers and Geotechnics,105,129-141.
[44]Jiang,M.D.,Yang,Z.X.,Barreto,D.,Xie,Y.H.,2018,The influence of particle-size distribution on critical state behavior of spherical and non-spherical particle assemblies,Granular Matter,20(4):80.
[43]Pan,K.,Yang,Z.X.,Xu,T.T.,2018,Impact of static preshearing on undrained anisotropy and shear characteristics of sand,International Journal of Geomechanics,18(12),04018162.
[42]Yang,Z.X.,Chen,D.H.,2018,Advance characterization and modeling of geomaterials and geosystems,International Journal of Geomechanics,ASCE,18(6),02018001.
[41]Yang,Z.X.,Xu,T.T.,Chen,Y.N.,2018,Unified modeling of the influence of consolidation conditions on the monotonic soil response considering fabric evolution,Journal of Engineering Mechanics,ASCE,144(8),04018073.
[40]Yan,Z.,Wang,Y.Z.,Yang,Z.X.,Xiao,Z.,Pan,K.,2018,A strength degradation model of saturated soft clay and its application in a case study of caisson breakwater,Journal of Zhejiang University-Science A,19(8),650-662.
[39]Yang,Z.X.,Pan,K.,2018,Energy-based approach to quantify cyclic resistance and pore pressure generation in anisotropically consolidated sand,Journal of Materials in Civil Engineering,ASCE,30(9):04018203.
[38]Pan,K.,Yang,Z.X.,2018,Effects of initial static shear on cyclic resistance and pore pressure generation of saturated sand,Acta Geotechnica,13(2),473-487.
[37]Hu,Z.,Yang,Z.X.,Wilkinson,S.P.,2018,Analysis of passive earth pressure modification due to seepage flow effects,Canadian Geotechnical Journal,55(5),666-679.
[36]Wang,Y.K.,Gao,Y.F.,Guo,L.,Yang,Z.X.,2018,Influence of intermediate principal stress and principal stress direction on drained behavior of natural soft clay,International Journal of Geomechanics,ASCE,18(1),04017128.
[35]Guo,L.,Cai,Y.Q.,Jardine,R.J.,Yang,Z.X.,Wang,J.,2018,Undrained behaviour of intact soft clay under cyclic paths that match vehicle loading conditions,Canadian Geotechnical Journal,55(1):90-106.
[34]Pan,K.,Yang,Z.X.,2018,Undrained behavior of sand under cyclic paths that match storm-wave loading conditions,Marine Georesources&Geotechnology,36(1),72-82.
[33]Hu,Z.,Yang,Z.X.,Wilkinson,S.P.,2017,Active earth pressure acting on retaining wall considering anisotropic seepage effect,Journal of Mountain Science,14(6),1202-1211.
[32]Xiong,H.,Cai,Y.Q.,Yang,Z.X.,Chai,J.C.,2017,Effect of drained static shear on cyclic deformation behavior of K0-consolidated sand,Soils and Foundations,57(5),720-732
[31]Yang,Z.X.,Pan,K.,2017,Flow deformation and cyclic resistance of saturated loose sand considering initial static shear effect,Soil Dynamics and Earthquake Engineering,92,68-78.
[30]Yang,Z.X.,Guo,W.B.,Jardine,R.J.,Chow,F.,2017,Design method reliability assessment from an extended database of axial load tests on piles driven in sand,Canadian Geotechnical Journal,54(1),59-74.
[29]Chen,Y.N.,Yang,Z.X.,2017,A family of improved yield surfaces and their application in modeling of isotropically over-consolidated clays,Computers and Geotechnics,90,133-143.
[28]Xie,Y.H.,Yang,Z.X.,Barreto,D.,Jiang,M.D.,2017,The influence of particle geometry and the intermediate stress ratio on the shear behavior of granular materials,Granular Matter,19(2):35.
[27]Cai,Y.Q.,Guo,L.,Jardine,R.J.,Yang,Z.X.,Wang,J.,2017,Stress–strain response of soft clay to traffic loading,Géotechnique,67(5),446-451.
[26]Yang,Z.X.,Wu,Y.,2017,Critical state for anisotropic granular materials:A discrete element perspective,International Journal of Geomechanics,ASCE,17(2),04016054.
[25]Xiong,H.,Guo,L,Cai,Y.Q.,Yang,Z.X.,2016,Experimental study of drained anisotropy of granular soils involving rotation of principal stress direction,European Journal of Environmental and Civil Engineering,20(4),431-454.
[24]Dong,Q.,Xu,C.J.,Cai,Y.Q.,Juang,H.,Wang,J.,Yang,Z.X.,Gu,C.,2016,Drained instability in loose granular material,International Journal of Geomechanics,16(2),04015043.
[23]Yang,Z.X.,Zhao,C.F.,Xu,C.J.,Wilkinson,S.P.,Cai,Y.Q.,Pan,K.,2016,Modelling the engineering behaviour of fibrous peat formed due to rapid anthropogenic terrestrialization in Hangzhou,China,Engineering Geology,215,25-35.
[22]Yang,Z.X.,Jardine,R.J,Zhu,B.T.,Rimoy,S.,2015,Closure to stresses developed around displacement piles penetration in sand,Journal of Geotechnical and Geoenvironmental Engineering,ASCE,141,07014038.
[21]Rimoy,S.,Silva,M.,Jardine,R.J.,Yang,Z.X.,Zhu,B.T.,Tsuha,C.H.C.,2015,Field and model investigations into the influence of age on axial capacity of displacement piles in silica sands,Géotechnique 65(7),576-589.
[20]Yang,Z.X.,Guo,W.B.,Zha,F.S.,Jardine,R.J.,Xu,C.J.,Cai,Y.Q.,2015,Field behaviour of driven Pre-stressed High-strength Concrete piles in sandy soils,Journal of Geotechnical and Geoenvironmental Engineering,ASCE,141,04015020.
[19]Yang,Z.X.,Jardine,R.J.,Guo,W.B.,Chow,F.C.,2015,A new and openly accessible database of tests on piles driven in sands,Géotechnique Letters,5(1),12-20.
[18]Zhang,C.,Yang,Z.X.,Nguyen,G.D.,Jardine,R.J.,Einav,I.,2014,Theoretical breakage mechanics and experimental assessment of stresses surrounding piles penetrating into dense silica sand,Géotechnique Letters,4,11-16.
[17]Yang,Z.X.,Jardine,R.J,Zhu,B.T.,Rimoy,S.,2014,Stresses developed round displacement piles penetrating in sand,Journal of Geotechnical and Geoenvironmental Engineering,ASCE,140,04013027.
[16]Wang,L.Z.,Jiang,H.Y.,Yang,Z.X.,Xu,Y.,Zhu,X.B.,2013,Development of discontinuous deformation analysis with displacement-dependent interface shear strength,Computers and Geotechnics 47,91-101.
[15]Jardine,R.J.,Zhu,B.T.,Foray,P.Y.,Yang,Z.X.,2013,Interpretation of stress measurements made around closed-ended displacement piles in sand,Géotechnique,63(8),613-627.
[14]Jardine,R.J.,Zhu,B.T.,Foray,P.Y.,Yang,Z.X.,2013,Measurement of stresses around closed-ended displacement piles in sand,Géotechnique,63(1),1-17.
[13]Zhu,Y.X.,Chen,W.Q.,Yang,Z.X.,2013,Prediction of viscoelastic behavior in asphalt concrete using the fast multipole boundary element method,Journal of Materials in Civil Engineering,ASCE,25(3),328-336.
[12]Yang,Z.X.,Yang,J.,Wang,L.Z.,2013,Micro-scale modeling of anisotropy effects on undrained behavior of granular soils,Granular Matter,15,557-572.
[11]Gu,C.,Wang,J.,Cai,Y.Q.,Yang,Z.X.,Gao,Y.F.,2012,Undrained cyclic triaxial behavior of saturated clays under variable confining pressure,Soil Dynamics and Earthquake Engineering,40,118-128.
[10]Tsuha,C.H.C.,Foray,P.Y.,Jardine,R.J.,Yang,Z.X.,Silva,M.,Rimoy,S.,2012,Behaviour of displacement piles in sand under cyclic axial loading,Soils and foundations,52(3),393-410.
[9]Yang,Z.X.,Yang,J.,Wang,L.Z.,2012,On the influence of inter-particle friction and dilatancy in granular materials:a numerical analysis,Granular Matter,14,433-447.
[8]Zhu,X.Y.,Yang,Z.X.,Guo,X.,Chen,W.Q.,2011,Modulus prediction of asphalt concrete with imperfect bonding between aggregate–asphalt mastic,Composites Part B:Engineering,42(6),1404-1411.
[7]Zhang,L.,Gong,X.N.,Yang,Z.X.,Yu,J.L.,2011,Elastoplastic solutions for single piles under combined vertical and lateral loads,Journal of Central South University of Technology,18(1),216-222.
[6]Zhu,X.Y.,Huang,Z.Y.,Yang,Z.X.,Chen,W.Q.,2010,Micromechanics-based analysis for predicting asphalt concrete modulus,Journal of Zhejiang University-Science A,11(6),415-424.
[5]Yang,Z.X.,Jardine,R.J.,Zhu,B.T.,Foray,P.,Tsuha,C.H.C.,2010,Sand grain crushing and interface shearing during displacement pile installation in sand,Géotechnique,60(6),469-482.
[4]Huang,Z.Y.,Yang,Z.X.,Wang,Z.Y.,2008,Discrete element modeling of sand behavior in a biaxial shear test,Journal of Zhejiang University-Science A,9(9),1176-1183.
[3]Yang,Z.X.,Li,X.S.Yang,J.2008,Interpretation of torsional shear results for nonlinear stress–strain relationship,Int.J.Numer.Anal.Meth.Geomech.,32(10),1247-1266.
[2]Yang,Z.X.,Li,X.S.Yang,J.2008,Quantifying and modelling fabric anisotropy of granular soils,Géotechnique 58(4),237–248.
[1]Yang,Z.X.,Li,X.S.Yang,J.2007,Undrained anisotropy and rotational shear in granular soil,Géotechnique 57(4),371-384.