| Article ID | Journal | Published Year | Pages | File Type | 
|---|---|---|---|---|
| 7892587 | Composites Part A: Applied Science and Manufacturing | 2013 | 10 Pages | 
Abstract
												This study simulates the tensile failure of injection-molded short glass fiber-reinforced polyamide 6,6 (GF/PA66). Tensile tests of unreinforced PA66 are first conducted and the material properties are obtained by fitting a simulated stress-strain curve to the experiment result. Using the obtained material properties, failure simulations of GF/PA66 composites are performed for four types of specimens with various fiber lengths and fiber orientation distributions. In the simulations, multiscale mechanistic model, which can simulate micromechanical damage, and Micromechanics Model (MM), which has very low computational cost, are adapted and the results are compared with experiments. Both models reproduce the experiment results well. Considering the computational cost, MM is the better model for predicting the failure properties of GF/PA66 composites.
											Keywords
												
											Related Topics
												
													Physical Sciences and Engineering
													Materials Science
													Ceramics and Composites
												
											Authors
												Toshiki Sasayama, Tomonaga Okabe, Yoshiteru Aoyagi, Masaaki Nishikawa, 
											