Elements are a fundamental part of any finite element analysis, since they completely represent (to an acceptable
approximation), the geometry and variation in displacement based on the deformation of the structure.
The different elastic material types provided by OptiStruct are: isotropic, orthotropic, and anisotropic materials. The material property definition cards are used to define
the properties for each of the materials used in a structural model.
High Performance Computing leverages computing power, in standalone or cluster form, with highly efficient software,
message passing interfaces, memory handling capabilities to allow solutions to improve scalability and minimize run
times.
Contact is an integral aspect of the analysis and optimization techniques that is utilized to understand, model, predict,
and optimize the behavior of physical structures and processes.
OptiStruct and AcuSolve are fully-integrated to perform a Direct Coupled Fluid-Structure Interaction (DC-FSI) Analysis based on a
partitioned staggered approach.
OptiStruct provides industry-leading capabilities and solutions for Powertrain applications. This section aims to highlight OptiStruct features for various applications in the Powertrain industry. Each section consists of a short introduction, followed
by the typical Objectives in the field for the corresponding analysis type.
This section provides an overview of the capabilities of OptiStruct for the electronics industry. Example problems pertaining to the electronics industry are covered and common solution
sequences (analysis techniques) are demonstrated.
OptiStruct generates output depending on various default settings and options. Additionally,
the output variables are available in a variety of output
formats, ranging from ASCII (for example, PCH) to binary files (for example,
H3D).
An advanced form of shape optimization in which a design region for a given part is defined and a pattern of shape
variable-based reinforcements within that region is generated using OptiStruct.
The properties of structural elements such as shell thickness, beam cross-sectional properties, spring stiffness,
and mass are modified to solve the optimization problem.
Uses a proprietary optimization technique developed by Altair Engineering, Inc. There are two types of Free-Shape Optimization, Classic and Vertex Morphing Free-Shape.
Multi-Model Optimization (MMO) is available for optimization of multiple structures with linked design variables or design domains in a single
optimization run.
A semi-automated design interpretation software, facilitating the recovery of a modified geometry resulting from a
structural optimization, for further use in the design process and FEA reanalysis.
The OptiStruct Example Guide is a collection of solved examples for various solution sequences and optimization types and provides
you with examples of the real-world applications and capabilities of OptiStruct.
Topology Optimization
A mathematical technique that produces an optimized shape and material distribution for a structure within a given package space.
Free-size Optimization
Free-size optimization is defined through the DSIZE Bulk Data Entry that is supported in the HyperMeshOptimization panel.
Topography Optimization
An advanced form of shape optimization in which a design region for a given part is defined and a pattern of shape variable-based reinforcements within that region is generated using OptiStruct.
Size (Parameter) Optimization
The properties of structural elements such as shell thickness, beam cross-sectional properties, spring stiffness, and mass are modified to solve the optimization problem.
Shape Optimization
An optimization method wherein the outer boundary of the structure is modified to solve the optimization problem.
Free-shape Optimization
Uses a proprietary optimization technique developed by Altair Engineering, Inc. There are two types of Free-Shape Optimization, Classic and Vertex Morphing Free-Shape.
Multi-Model Optimization
Multi-Model Optimization (MMO) is available for optimization of multiple structures with linked design variables or design domains in a single optimization run.
Lattice Structure Optimization
A novel solution to create blended Solid and Lattice structures from concept to detailed final design.
Reliability-based Design Optimization (Beta)
Reliability-based Design Optimization (RBDO) is an optimization method that can be used to provide optimum designs in the presence of uncertainty.
Optimization of Composite Structures
A comprehensive optimization solution aimed at guiding and simplifying the design of laminate composite structures.
Global Search Option
A common discussion that arises when an optimization problem is solved is whether or not the obtained optimum is a local or global optimum.
Update Optimization Model
As a result of an optimization run, OptiStruct produces one or more new design files depending on the type of optimization performed.