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SwiftComp
Gmsh modified for SwiftComp to perform constitutive modeling and integrated with Caliculux modified for structural analysis based on constitutive models computed by SwiftComp.
Launch Tool
Archive Version 1.3.1
Published on 11 Oct 2016
Latest version: 2.0.0. All versions
This tool is closed source.
Category
Published on
Abstract
SwiftComp™ provides an efficient and accurate computational tool for modeling composite materials and structures. It can be used either independently as a tool for virtual testing of composites or as a plugin to power conventional FEA codes with high-fidelity multiscale modeling for composites. Based on the Mechanics of Structure Genome, SwiftComp enables engineers to model composites as black aluminum, capturing details as needed and affordable. This saves orders of magnitude in computing time and resources without sacrificing accuracy, while enabling engineers to tackle complex problems impossible with other tools.
This tool is based on Gmsh modified for SwiftComp to perform constitutive modeling and integrated with Caliculux modified for structural analysis based on constitutive models computed by SwiftComp. The user manuals and various tutorials can be found in the supporting documents. If you want a quick start, you can follow our YouTube Gmsh4SC Tutorial Series.
If you feel the gmsh interface is not convenient for you to use, feel free to download the ABAQUS-SwiftComp GUI for ABAQUS users and ANSYS-SwiftComp GUI for ANSYS users.
If you feel the cloud version is not convenient for you, you can download the gmsh/calculix source codes and executables in the supporting document.
Applications
- Virtual testing of composites
- Mechanical properties: elastic constants, static strength
- Conductivities, dielectric, magnetic, and diffusive properties
- Coefficients of thermal expansion and specific heat
- Electromagnetic properties
- Multiscale modeling of composites
- 3D composite structures: binary composites, fiber reinforced composites, particle reinforced composites, textile composites, short fiber composites, porous materials, foams, and other heterogeneous materials
- Composite plates/shells: laminates, stiffened panels, corrugated structures, perforated structures, sandwich structures, unitized structures, and more
- Composite beams: helicopter rotor blades, wind turbine blades, high-aspect wings, golf clubs, fishing rod, and other slender composites structures
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