Generative Part Structural Analysis (GPS) allows designers to understand how their designs behave and to accurately calculate the displacements and stresses within the part under a variety of loading conditions. It also allows the vibration characteristics of parts to be assessed by calculating the natural frequencies and the associated mode shapes. Analyses can be performed on volume parts, surface parts and wireframe geometries.
Backbone of the CATIA V5 Analysis solution
Allows designers to more accurately size parts and understand the mechanical behavior of their designs
Provides rapid and accurate assessment of stress, displacement, and vibration characteristics
Analysis is performed within the CAD environment so the analysis model is fully associative with the CAD geometry and specification
Tightly integrated with knowledge-based engineering
Generative Assembly Structural Analysis (GAS) extends the capability of GPS, allowing designers to analyze assemblies as well as individual parts. The analysis of assemblies, including an accurate representation of the way the parts interact and are connected, allows for more realistic and accurate simulation.
Achieves fast and accurate structural and modal analysis of an assembly
Uses the assembly constraints and parts’ material specifications from the design
Provides a wide range of connections and interactions
Simulates the effect of bolt tightening and pressure fitting
Supports assembly of analysis for efficient concurrent engineering
Elfini Structural Analysis (EST) extends the capabilities of the GPS product to include multiple analysis cases for static, frequency, and buckling analysis. This product is more tailored to the needs of specialists, while maintaining a consistent user interface between specialists and design engineers.
Enables the creation and simultaneous solution of multiple load cases for static, static constraint modes, frequency, and buckling analysis
Provides advanced variable bearing loads, thermal loads, and the import of generalized variable loads from external applications
Enhances the visualization of all analysis specifications with the display of loads, restraintsand mass on the mesh or geometry, including the visualization of analysis results with image customization and the simultaneous display of multiple images
Includes state-of-the-art high performance solution technology, including parallel processing and Lanczos solution, for the faster solution of large models
Generative Dynamic Response Analysis (GDY) allows users to study the response of their designs to dynamic loading. This allows designers to ensure early in the design phase that their designs do not suffer from resonance and other dynamic effects. GDY provides both transient and harmonic analysis.
Extends Generative Part Structural Analysis (GPS) with dynamic response analysis
Provides forced transient and harmonic response analysis
Benefits from the unique native and associative CAD/CAE integration
Provides efficient tools to interpret and understand the dynamic behavior of designs
FEM Surface (FMS) provides advanced meshing capability for complex surface and wireframe parts. Meshes generated on geometry are fully associative with the geometry and FMS provides more control and more sophisticated meshing algorithms than the standard surface meshing capability in GPS.
FEM Solid (FMD) is intended for the specialist that wants to mesh complex solid geometry quickly and efficiently while retaining a lot of control over the resulting element quality and the number of elements in the mesh. FMD provides a tetrahedral filler meshing algorithm and also provides tools to create hexahedral meshes. Various pre-defined and customizable criteria for mesh quality can be displayed.
Includes a tetrahedral filler algorithm with full mesh control
Thermal Analysis (ATH) extends the CATIA V5 Analysis capabilities, allowing designers to understand the thermal behavior of their designs. The steady-state or transient temperature distribution can be calculated in response to the direct heating of a surface, the flow of a fluid past a surface, or the specified temperature of the surface. The thermal material properties can be temperature-dependent. When analyzing assemblies, the conductivity across the interface between contacting parts can be specified.
Calculates the temperature distribution in a part or assembly
Determines the steady-state or transient thermal response
Material properties can be temperature-dependent
Allows the conduction of heat between parts in an assembly
Nonlinear Structural Analysis (ANL) extends the CATIA V5 Analysis capabilities to allow more advanced simulation that includes nonlinear effects, such as large displacements and material nonlinearity. Material plasticity, typical of metals, can be modeled, as can the nonlinear elasticity in hyperelastic materials like rubber. ANL also provides more advanced contact capability including the automatic creation of contact surfaces based on their geometric proximity.
Includes the effect of large displacements
Allows the plastic deformation of materials to be modeled
Models the nonlinear elasticity of rubber and other hyperelastic materials
Multi-step analysis allows the effect of multiple sequential loadings to be analyzed
Provides advanced contact capability including automatic contact detection
Performs thermal stress analysis when used in conjunction with ATH
Rule Based Meshing (RBM) extends the capabilities of FMS to enable automated and higher quality surface meshing for all workflows that use CATIA meshing tools. RBM gives the user a means to specify globally the desired meshing treatment of entities such as holes, fillets, and beads. RMB also gives the user a means to specify acceptable element quality criteria, such as minimum edge length, aspect ratio, and skewness.
Enables fully automatic meshing of complex surface geometry
Results in higher quality surface meshes with fewer elements
Governs the treatment of common geometric entities through user-defined rules
Creates meshes with the desired level of quality with pre-specified mesh-quality targets
Provides consistent meshing results for all geometries subjected to the same meshing
Offers meshing rules appropriate to the target discipline (NVH, crash, etc.)
Abaqus for CATIA V5 brings Abaqus finite element analysis (FEA) technology into the CATIA V5 user environment. CATIA V5 provides the powerful and flexible design capabilities, and Abaqus for CATIA V5 makes the design model and the simulation model one and the same. The result is a complete package for deploying proven FEA-based simulation throughout the design process.
We’ve teamed up with global leaders in a number of different industries, including consumer electronics, automotive and aerospace, to help set the development direction for Abaqus for CATIA V5 by specifying and evaluating new features. With the benefit of their input, Abaqus for CATIA V5 tackles a range of high-value workflows without leaving CATIA V5. Automation and scripting tools open Abaqus for CATIA V5 to customization and additional efficiencies for scenarios that you perform on a regular basis.
Overview of Abaqus for CATIA V5:
Scalable solution that accelerates product development by enabling design engineers using CATIA V5 to reuse their geometric models and perform advanced simulations using Abaqus with full associativity between geometric and analysis models
Fully integrated solution that provides access to CATIA V5 meshing tools and postprocessing capabilities
Support for CATIA V5 advanced connections, Knowledgeware, publications, model optimization, and analysis assembly
Linear and nonlinear static, dynamic, and thermal analysis capabilities
Powerful techniques for modeling complex multipart interactions in assemblies
Leverage CATIA-defined linear material properties, or extend to include nonlinear properties