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Transcription:

Technical Specifications Static Analysis Linear static analysis Analysis Type Supported Nonlinear static analysis (Nonlinear elastic or Elastoplastic analysis) Construction Stage Analysis StressSlope Slope Analysis Analysis of stress and slope stability during the construction process Seepage Analysis Stage by stage Steady state seepage analysis, Stage by stage Transient seepage analysis StressSeepageSlope coupled analysis Sequential Seepagestress analysis and Slope stability analysis during the construction process Consolidation analysis Consolidation analysis for environment change and construction process of embankment Fullycoupled StressSeepage analysis Stress analysis fully coupled with Transient seepage phenomenon Stress Nonlinear Time History analysis Nonlinear dynamic analysis considering stress status of ground resulted from self weight and the history of stress. * Nonlinear time history stage must be set at the final stage.

Analysis Type Supported Seepage Analysis Steady State Seepage Analysis Transient Seepage Analysis Coupled SeepageStress Analysis SeepageStress Sequential Analysis Consolidation Analysis Fullycoupled SeepageStress Analysis Dynamic Analysis Eigenvalue Analysis Response Spectrum Analysis Linear Time History(Modal) Analysis Linear Time History(Direct) Analysis Nonlinear Time History Analysis 2D Equivalent Linear Analysis Slope Stability Analysis Slope Stability (Strength Reduction Method, SRM) Slope Stability (Stress Analysis Method, SAM) DynamicSlope Coupled Analysis

Analysis Options Supported [Static] Tab Linear/Nonlinear Static analysis Construction stage *Consolidation analysis, *Fully coupled seepage stress Seepage (Steady/ *Transient) Slope stability (SRM/SAM) Max. negative Water pressure Insitu analysis Insitu analysis Water level General Initial temperature Water level Saturation Effects Max. negative Initial stage(ko) Restart option Initial temperature Water level Saturation Effects Max. negative Saturation Effects Max. negative Undrained Condition Undrained Condition Saturation Effects Max. negative Initial Configuration Nonlinear Geometry Nonlinearity Geometry Nonlinearity Geometry Nonlinearity Load steps Load steps Load steps Criteria Use arclength method Criteria Load steps Criteria Load steps Criteria Use arclength method Age Age Contact Define analysis reflected contact Seepage Initial condition Slope stability (SRM) Geometry Nonlinearity Nonlinear parameter Safety factor nonlinear setting (Use arclength method) [* : Time step setting analysis type ]

Analysis Options Supported [Dynamic] Tab Eigenvalue, Response spectrum Initial temperature *Linear time history (Modal/Direct) *Nonlinear time history, * Nonlinear time history +SRM (Automa tic) Water level Insitu analysis Insitu analysis Eigenvectors Water level Water level Saturation effects Eigenvectors Saturation effects *2D equivalent linear Max negative Max negative Saturation effects General Undrained condition Max negative Undrained condition Mass parameters Undrained condition Mass parameter Mass parameter Geometry Nonlinearity Nonlinear Converge standard Modal combination type Damping definition Damping definition Effective shear strain Dynamic analysis Damping definition Interpolation of spectral data Interpolation control Mass parameters Difine time Nonlinear parameters Slope stability (SRM) criteria Safety factor nonlinear Parameters (Use arc length method) [* : Time step setting analysis type ]

Constitutive Models Type Model type Ground material Structure material Material behavior Elastic O O Linear elastic Tresca O O Elastoplastic von Mises O O Elastoplastic MohrCoulomb O O Elastoplastic Drucker Prager O O Elastoplastic Hoek Brown O O Elastoplastic Generalized Hoek Brown O O Elastoplastic Hyperbolic(DuncanChang) O X Nonlinear elastic Strain Softening O X Elastoplastic Isotropic Modified Cam Clay O X Elastoplastic Jardine O X Nonlinear elastic Dmin O X Nonlinear elastic Modified MohrCoulomb O O Elastoplastic Soft Soil Creep O X Elastoplastic User Defined Model O O Elastoplastic Modified UBCSAND O X Elastoplastic SekiguchiOhta (Inviscid) O X Elastoplastic SekiguchiOhta (Viscid) O X Elastoplastic Modified RambergOsgood O O Elastoplastic Modified HardinDrnevich O O Elastoplastic Transversely Isotropic O O Linear elastic Orthotropic Jointed Rock Mass O O Elastoplastic 2D Orthotropic O O Linear elastic 2D Equivalent 2 Dimensional equivalent O O (Equivalent) Linear elastic Interface X O Elastoplastic Shell Interface X O Elastoplastic Interface /Pile User supplied Shell Interface X O Elastoplastic Pile X O Nonlinear elastic

Element Library Property type Model type Ground property Structural property Nonlinear property Geogrid(1D) X O Tension Only Plot only(1d) X X From Material Tension Only/Hook Truss X O Compression Only/Gap Nonlinear Elastic 1D From Material Tension Only/Hook Embedded truss X O Compression Only/Gap Nonlinear Elastic Beam X O Embedded Beam X O Pile X O Geogrid(2D) X O Tension Only Plot only(2d) X X Gauging shell X O 2D Axisymmetric O X Shell X O Plane stress X O Tension Only Plane strain O X 3D Solid O X Rigid link X O Pile tip X O User specified behavior for Shell interface X O Linear Elastic Tension Only Point spring X O Compression Only Hook Gap Nonlinear Elastic Matrix spring X O Others Free Field O X Interface X O Shell interface X O Linear Elastic Rigid Body Elastic link X O Tension Only Compression Only Nonlinear Elastic Beam Hinge X O Truss Elastic Link Point Spring

Load Conditions Type of Static load Description Self weight Input the selfweight of an element as a load Force Input the Force (as X, Y, Z axis direction component) on a desired model node Moment Displacement Pressure Line beam load Element beam load Temperature Prestress Input the moment (as X, Y, Z axis direction component) on a desired model node Input the displacement on a desired model node The displacement acts in the node coordinate system direction Input the pressure on a surface or line Automatically input the water pressure load according to the position on the input water level l line When multiple beam elements are connected continuously, specify both ends of the beam element and input a distributed force Input a distributed or force on a beam element Input the node temperature on an arbitrary node for thermal stress analysis. Input the initial temperature value used on a model node into the analysis condition Input the preloading on a Structure/Ground element Initial equilibrium force Input the initial insitu stress Combined load Set the load combination using load sets and the factor for each set Type of dynamic load Description Response spectrum Input the spectrum data and load conditions needed for Response Spectrum Analysis Ground acceleration Input the ground acceleration in time load function form (DB can be used) Time varying static Multiply a time function by a static load to define a dynamic load Dynamic nodal Dynamic surface Load to Mass Input the time load function (load component x time function) on an arbitrary node Input the time load function(load component x time function) on a surface in pressure form Convert a static load to mass for application Train Dynamic Load Table Input or modify the train moving load using a table

Boundary Conditions General Supports /(Auto, Manual) Change Material Property Beam End Release Shell End Release Water Level [Line(2D), Surface(3D)] Water Level for Mesh Set Seepage / Fully Coupled Analysis Nodal Head Nodal Flux Surface Flux Review (Potential Seepage Review) Slope Stability Analysis Circular Slip Surface Polygonal Slip Surface Consolidation Analysis Draining Condition Non Consolidation Dynamic Analysis Transmitting Boundary Elastic / Viscous Boundary