Abaqus/Standard

Powerful Nonlinear Implicit Solver for Functional  Validations

Abaqus/Standard is a general propuse Finite Element Analysis Software

Abaqus/Standard provides a powerful set of algorithms for simulating and analyzing the real-world behavior of products, processes, and materials across various industries. It is useful to virtually test, validate product´s desings, optimize product’s perfomance helping engineers to reduce time and cost during the product desing and development process.

Analysis Types

Nonlinear general

Linear Perturbation

  • Static stress-strain
  • Direct cycling
  • Low-cycle fatigue
  • Viscoelastic/viscoplastic response
  • Dynamic (low speed)
  • Steady state transport
  • Heat transfer (transient and steady state)
  • Mass diffusion (transient and steady state)
  • Acoustics
  • Multiphysics:
    • Thermo-Mechanical
    • Thermo-electrical
    • Thermo-electrical-mechanical-chemical
    • Piezoelectric
    • Pore fluid flow-mechanical
    • Shock and structural-acoustic
  • Linear static stress-strain
  • Eigenvalue Buckling
  • Dynamic
    • Real natural frequency
    • Complex natural frequency
    • Steady-state dynamics (direct and mode-based)
    • Transient modal dynamics
    • Response Spectrum
    • Random response

 

Analysis and modeling techniques
  • Import
  • Restart
  • Substructuring
  • Submodeling
  • Material removal and addition
  • Mesh-to-mesh solution mapping
  • Adaptive remeshing
  • Fracture mechanics (including VCCT and xFEM)
  • Symmetric model generation and results transfer
  • Cyclic symmetry
  • Inertia relief
  • Nonstructural mass
  • Direct matrix input
  • Cosimulation
  • Automatic resolution of overconstraints
  • Data parameterization and parametric studies
  • Automatic perturbation of geometry
  • Local degrees of freedom
  • Hydrostatic fluid cavities
  • Annealing
  • Reinforcements
  • Embedded elements
  • Elastic formulation
  • Meshed beam cross-sections
Solution techniques
  • Parallel execution on both shared memory and distributed memory parallel (cluster) systems
  • Parallel direct sparse solver with dynamic load balancing
  • Parallel iterative solver
  • Parallel Lanczos eigenvalue solution
  • Parallel AMS eigenvalue solution
  • Parallel element operations
  • Multiple load cases
  • Multiple steps
  • Full Newton and quasi-Newton method
Material Models
Elastic Mechanical PropertiesInelastic Mechanical Properties
  • Linear elasticity
  • Orthotropic and anisotropic linear elasticity
  • Porous elasticity
  • Hypoelasticity
  • Hyperelasticity (including permanent set)
  • Anisotropic hyperelasticity
  • Elastomeric foam
  • Mullins effect
  • Viscoelasticity
  • Hysteresis
  • Metal plasticity
    • Isotropic and anisotropic yield criteria
    • Isotropic, kinematic, and ORNL hardening
    • Porous metal plasticity
    • Cast iron
    • Two-layer viscoplasticity
    • Creep
    • Volumetric swelling
    • Deformation plasticity
    • Johnson-Cook plasticity
  • Extended Drucker-Prager plasticity
  • Capped Drucker-Prager plasticity
  • Cam-Clay plasticity
  • Mohr-Coulomb plasticity
  • Crushable foam plasticity
  • Jointed materials
  • Concrete
  • Progressive damage and failure
    • Ductile
    • Shear
    • Forming limit diagram (FLD)
    • Forming limit stress diagram (FLSD)
    • Müschenborn-Sonne forming limit diagram (MSFLD)
    • Hashin unidirectional composite
Additional Material Properties
  • Density
  • Material damping
  • Thermal expansion
  • Thermal and electrical conductivity
  • Specific heat
  • Latent heat
  • Damage and failure of fiber-reinforced
  • Composites
  • Piezoelectric properties
  • Acoustic medium properties
    • Bulk modulus
    • Volumetric drag
    • Porous acoustic medium
      • Delany-Bazley
      • Miki
  • Hydrostatic fluid properties
    • Hydraulic fluids
    • Pneumatic fluids
  • Mass diffusion properties
    • Diffusivity
    • Solubility
  • Pore fluid flow properties
    • Permeability
    • Porous bulk moduli
    • Absorption/exsorption
    • Swelling gel
    • Moisture swelling
  • User materials
Analysis Types

Nonlinear general

Linear Perturbation

  • Static stress-strain
  • Direct cycling
  • Low-cycle fatigue
  • Viscoelastic/viscoplastic response
  • Dynamic (low speed)
  • Steady state transport
  • Heat transfer (transient and steady state)
  • Mass diffusion (transient and steady state)
  • Acoustics
  • Multiphysics:
    • Thermo-Mechanical
    • Thermo-electrical
    • Thermo-electrical-mechanical-chemical
    • Piezoelectric
    • Pore fluid flow-mechanical
    • Shock and structural-acoustic
  • Linear static stress-strain
  • Eigenvalue Buckling
  • Dynamic
    • Real natural frequency
    • Complex natural frequency
    • Steady-state dynamics (direct and mode-based)
    • Transient modal dynamics
    • Response Spectrum
    • Random response

 

Analysis and modeling techniques
  • Import
  • Restart
  • Substructuring
  • Submodeling
  • Material removal and addition
  • Mesh-to-mesh solution mapping
  • Adaptive remeshing
  • Fracture mechanics (including VCCT and xFEM)
  • Symmetric model generation and results transfer
  • Cyclic symmetry
  • Inertia relief
  • Nonstructural mass
  • Direct matrix input
  • Cosimulation
  • Automatic resolution of overconstraints
  • Data parameterization and parametric studies
  • Automatic perturbation of geometry
  • Local degrees of freedom
  • Hydrostatic fluid cavities
  • Annealing
  • Reinforcements
  • Embedded elements
  • Elastic formulation
  • Meshed beam cross-sections
Solution techniques
  • Parallel execution on both shared memory and distributed memory parallel (cluster) systems
  • Parallel direct sparse solver with dynamic load balancing
  • Parallel iterative solver
  • Parallel Lanczos eigenvalue solution
  • Parallel AMS eigenvalue solution
  • Parallel element operations
  • Multiple load cases
  • Multiple steps
  • Full Newton and quasi-Newton method
Material Models
Elastic Mechanical PropertiesInelastic Mechanical Properties
  • Linear elasticity
  • Orthotropic and anisotropic linear elasticity
  • Porous elasticity
  • Hypoelasticity
  • Hyperelasticity (including permanent set)
  • Anisotropic hyperelasticity
  • Elastomeric foam
  • Mullins effect
  • Viscoelasticity
  • Hysteresis
  • Metal plasticity
    • Isotropic and anisotropic yield criteria
    • Isotropic, kinematic, and ORNL hardening
    • Porous metal plasticity
    • Cast iron
    • Two-layer viscoplasticity
    • Creep
    • Volumetric swelling
    • Deformation plasticity
    • Johnson-Cook plasticity
  • Extended Drucker-Prager plasticity
  • Capped Drucker-Prager plasticity
  • Cam-Clay plasticity
  • Mohr-Coulomb plasticity
  • Crushable foam plasticity
  • Jointed materials
  • Concrete
  • Progressive damage and failure
    • Ductile
    • Shear
    • Forming limit diagram (FLD)
    • Forming limit stress diagram (FLSD)
    • Müschenborn-Sonne forming limit diagram (MSFLD)
    • Hashin unidirectional composite
Additional Material Properties
  • Density
  • Material damping
  • Thermal expansion
  • Thermal and electrical conductivity
  • Specific heat
  • Latent heat
  • Damage and failure of fiber-reinforced
  • Composites
  • Piezoelectric properties
  • Acoustic medium properties
    • Bulk modulus
    • Volumetric drag
    • Porous acoustic medium
      • Delany-Bazley
      • Miki
  • Hydrostatic fluid properties
    • Hydraulic fluids
    • Pneumatic fluids
  • Mass diffusion properties
    • Diffusivity
    • Solubility
  • Pore fluid flow properties
    • Permeability
    • Porous bulk moduli
    • Absorption/exsorption
    • Swelling gel
    • Moisture swelling
  • User materials

Element Library

Continuum Elements
  • Stress analysis
    • 2D (plane stress, plane strain, and generalized plane strain)
    • 3D (regular and variable node)
    • Cylindrical
    • Axisymmetric (with and without twist)
    • Axisymmetric with nonlinear, asymmetric deformation
    • Infinite
    • Warping
  • Piezoelectric
    • 2D (plane stress and plane strain)
    • 3D
    • Axisymmetric
    • Axisymmetric with nonlinear, asymmetric deformation
  • Heat transfer
    • 1D
    • 2D
    • 3D
    • Axisymmetric
  • Mass diffusion
    • 2D
    • 3D
    • Axisymmetric
  • Thermal-electrical
    • 1D
    • 2D
    • 3D
    • Axisymmetric
  • Temperature-displacement
    • 2D (plane stress, plane strain, and generalized plane strain)
    • 3D
    • Axisymmetric (with and without twist)
  • Pore pressure
    • 2D (plane strain)
    • 3D
    • Axisymmetric
    • Axisymmetric with nonlinear, asymmetric deformation
  • Acoustic
    • 1D
    • 2D
    • 3D
    • Axisymmetric
    • Infinite
Shell Elements
  • Stress analysis
    • 3D
    • Continuum shell
    • Axisymmetric
    • Axisymmetric with nonlinear, asymmetric deformation
  • Heat transfer
    • 3D
    • Axisymmetric
  • Temperature-displacement
    • 3D
    • Axisymmetric
Membranes
  • Stress analysis
    • 3D
    • Cylindrical
    • Axisymmetric (with and without twist)
Beams
  • Stress analysis
    • 2D
    • 3D (regular, open section, and tapered)
Pipes
  • Stress analysis
    • 2D
    • 3D
Elbows
  • Stress analysis
    • 3D
Frame Elements
  • Stress analysis
    • 2D
    • 3D
Trusses
  • Stress analysis
    • 2D
    • 3D
  • Temperature-displacement
    • 2D
    • 3D
  • Piezoelectric
    • 2D
    • 3D
Gasket Elements
  • Stress analysis
    • 2D (plane stress and plane strain)
    • 3D
    • Axisymmetric
Inertial Elements
  • Stress analysis
    • Point mass
    • Anisotropic Point Mass
    • Rotary inertia
Rigid Elements
  • Stress analysis
    • 2D
    • 3D
Capacitance Elements
  • Heat transfer point heat capacitance
Connector Elements
  • Stress analysis
    • 2D
    • 3D
Cohesive Elements
  • Stress analysis
    • 2D
    • 3D
Springs, Dashpots, and Flexible Joints
  • Stress analysis
    • 2D
    • 3D
  • Pore pressure
    • 2D
    • 3D
Distributing Coupling
  • Stress analysis
    • 2D
    • 3D
Special-Purpose Elements
  • Surface elements
  • Hydrostatic fluid elements
  • Tube support elements
  • Line spring elements
  • Pipe-soil interaction elements
  • Acoustic interface elements
User-Defined Elements
  • Provides the ability to define custom elements
Prescribed Conditions
  • Amplitude curves
  • Initial conditions
  • Boundary conditions
  • Loads
    • Distributed
    • Surface tractions
    • Concentrated forces and moments
    • Follower forces
    • Thermal
    • Electrical
    • Acoustic

 

Constraints and Interactions

Kinematic Constraints
  • Linear constraint equations
  • General multi-point constraints
  • Kinematic coupling
  • Surface-based constraints
    • Mesh ties
    • Kinematic and distributing couplings
    • Shell-to-solid couplings
    • Mesh-independent fasteners
    • Embedded elements
    • Element end release
Surface-Based Contact Modeling
  • General (“automatic”) contact
  • Contact interactions
    • 2D, 3D
    • Deformable-deformable contact
    • Rigid-rigid contact
    • Self-contact
  • Contact formulations
    • Balanced or pure master-slave contact
    • Finite, small, and infinitesimal sliding
  • Mechanical contact properties
    • Penalty contact
    • Hard contact with the classical Lagrange multiplier method
    • Hard contact with the augmented Lagrangian method
    • Contact damping
    • Static and kinetic Coulomb friction
    • Anisotropic friction
    • User-defined friction models
    • Pressure penetration (2D & 3D)
    • Debonding
    • Cohesive behavior
    • Thermal conductance and radiation contact properties
  • Electrical contact properties
  • Pore fluid contact properties
  • User-defined interfacial constitutive behavior
Element-Based Contact Modeling
  • Gap contact elements
    • Mechanical and thermal
Cavity Radiation
  • 2D, 3D, axisymmetric
  • Closed and open cavities
  • Symmetry and surface blocking
  • Surface motion with automatic view factor computations
  • Surface radiation properties
User Subroutines
  • Over 40 user-defined subroutines

 

Additional Features
  • Drag chains
  • “Spud can” joint elements
  • Tube-in-tube slide lines
Input
  • Keywords
  • Set concept
  • Multiple coordinate systems
  • Parts and assemblies
  • Nastran bulk data
Output
  • Interactive graphical postprocessing
  • Platform-neutral output database
  • Printed output
  • External file output
  • Restart output
  • Diagnostic messages
  • Nastran Output2
  • Scripting interface
Supported Platforms and Hardware
  • Windows/x86-64
  • Linux/x86-64
  • GPU support
Documentation
  • Analysis User’s Manual
  • Keywords Manual
  • Getting Started Manual
  • Example Problems Manual
  • Benchmarks Manual
  • Verification Manual
  • Theory Manual
  • Interfaces User’s Manuals
  • Release Notes
Product Support
  • Maintenance and support
  • Quality Monitoring Service
  • Installation
  • Training and users’ meetings

Related Products

Abaqus/AMS
  • High-performance automatic multi-level substructuring eigensolver
Abaqus/Design
  • Design sensitivity analysis
  • Sensitivities with respect to shape and material parameters
  • Nonlinear geometric effects
Abaqus/Aqua
  • Surrounding medium
    • Fluid profile
    • Wave profile
    • Wind profile
  • Loading
    • Drag
    • Buoyancy
    • Inertia
Abaqus-standard
Index