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Investigation of morphologies and tensile impact toughness of immiscible polyphenylene sulfide/polyether sulfone films and carbon fiber composites by quantitative optical methods

机译:用定量光学方法研究不混溶的聚苯硫醚/聚醚砜膜和碳纤维复合材料的形态学和拉伸冲击韧性

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Targeting the transfer and improvement of impact toughness in composites deriving from polymer mixtures, we investigated the effectiveness of immiscible polyphenylene sulfide (PPS)/polyether sulfone (PES) blends reinforced by endless carbon fibers. Tensile impact testing of films and composites was performed. Impact strengths of films showed high dependency of the PPS crystallinity and crystal orientation influenced by the present amount of PES. Intermolecular interactions between the immiscible phases and the presence of amorphous areas were assumed to be the driving factor for the load transfer in these films. Optical evaluation of local and global strain at break of films revealed a significant increase in plasticization. Tensile impact tested +/- 45 degrees carbon composites exhibited high improvements of toughness and deformation ability provided by the PES spheres. The quantification of morphologies evidenced a strong correlation of PES profile's mean diameters and next neighbor distances with impact toughness and deformation ability, qualifying these novel materials as potential alternatives for conventional high-end composites. POLYM. COMPOS., 40:3725-3736, 2019. (c) 2019 Society of Plastics Engineers
机译:靶向从聚合物混合物中得出的复合材料中的抗冲韧性的转移和改善,我们研究了通过环形碳纤维增强的不混溶的聚苯硫醚(PPS)/聚醚砜(PES)共混物的有效性。进行薄膜和复合材料的拉伸冲击试验。薄膜的冲击强度显示出通过本量量的PPS结晶度和晶体取向的高依赖性。假设不可溶的阶段和非晶区域的存在之间的分子间相互作用是这些薄膜中负载转移的驱动因子。薄膜中局部和全球应变的光学评估显示塑化的显着增加。 Tensile抗冲击测试+/- 45摄氏度碳复合材料表现出由PES球提供的韧性和变形能力的高改善。形态的定量证明了PES轮廓的平均直径和下一个邻近具有冲击韧性和变形能力的强烈相关性,这些新材料作为常规高端复合材料的潜在替代品。聚合物。 Compos。,40:3725-3736,2019。(c)2019年塑料工程师协会

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