Difference between revisions of "Textile mechanics"
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| + | [[Image:Cottonweave.png|thumb|Figure 1. Cotton plain weave fabric with TexGen mesh displayed in in-house FE viewer]] | ||
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TexGen has been used to create the geometry of fabrics for meso-scale textile mechanics modelling. Meshing can either be done directly within TexGen or geometry can be exported to the two most common CAD exchange file formats, IGES and STEP. Alternatively Python scripts can be used to transfer geometry to specific third party applications such as ABAQUS. | TexGen has been used to create the geometry of fabrics for meso-scale textile mechanics modelling. Meshing can either be done directly within TexGen or geometry can be exported to the two most common CAD exchange file formats, IGES and STEP. Alternatively Python scripts can be used to transfer geometry to specific third party applications such as ABAQUS. | ||
| − | + | The in-house finite element analysis software features periodic boundary conditions as well as a periodic contact algorithm eliminating the need for elements to be contained within a set unit cell. This is illustrated in the Figure 1. | |
| − | + | Work using the commercial finite element software package ABAQUS has also been carried out investigating the effect of fabric architectures on fabric mechanical properties. For example, the figure below shows two of the results obtained from FE simulations. Fig. (a) shows how much frictional energy is dissipated when the fabric unit cell is deformed in shear [2 Martin] and Fig. b shows the effect of yarn crimp height on a unit cell compression hebaviour. | |
Revision as of 16:41, 15 February 2007
TexGen has been used to create the geometry of fabrics for meso-scale textile mechanics modelling. Meshing can either be done directly within TexGen or geometry can be exported to the two most common CAD exchange file formats, IGES and STEP. Alternatively Python scripts can be used to transfer geometry to specific third party applications such as ABAQUS.
The in-house finite element analysis software features periodic boundary conditions as well as a periodic contact algorithm eliminating the need for elements to be contained within a set unit cell. This is illustrated in the Figure 1.
Work using the commercial finite element software package ABAQUS has also been carried out investigating the effect of fabric architectures on fabric mechanical properties. For example, the figure below shows two of the results obtained from FE simulations. Fig. (a) shows how much frictional energy is dissipated when the fabric unit cell is deformed in shear [2 Martin] and Fig. b shows the effect of yarn crimp height on a unit cell compression hebaviour.
