Simplified Integrative Simulation of Short Fibre Reinforced Polymers under Varying Thermal Conditions
The use of injection moulded, short fibre reinforced structural parts in vehicle design is increasing due to their low density and outstanding mechanical properties. As the distribution and orientation of fibres within the components are heavily dependent on the moulding process, product devel-opers do well to take process simulations into consideration before performing anisotropic struc-tural analyses. To enable the use of these integrative simulations within early design stages, a simplified approach has been developed by SCHÖPFER and extended by GRUBER/WARTZACK. It considers the material's anisotropy by using the fibre orientation data gained from the injection moulding simulation.
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Simplified Integrative Simulation of Short Fibre Reinforced Polymers under Varying Thermal Conditions
The use of injection moulded, short fibre reinforced structural parts in vehicle design is increasing due to their low density and outstanding mechanical properties. As the distribution and orientation of fibres within the components are heavily dependent on the moulding process, product devel-opers do well to take process simulations into consideration before performing anisotropic struc-tural analyses. To enable the use of these integrative simulations within early design stages, a simplified approach has been developed by SCHÖPFER and extended by GRUBER/WARTZACK. It considers the material's anisotropy by using the fibre orientation data gained from the injection moulding simulation.