玄武岩纤维
材料科学
复合材料
纤维
分层(地质)
复合数
纤维增强复合材料
钢筋
玄武岩
纤维拔出
增韧
复合材料层合板
韧性
古生物学
地球化学
生物
俯冲
构造学
地质学
作者
Guozhi Zhao,Mengjia Li,S. Wang,Peng Xiao,Lulu Wang,Xiping Li,Yuan Zhao,Gao Yin,Ye Zhang,Jiajia Zheng
摘要
Abstract Composite structures are vulnerable to delamination under out‐of‐plane loading due to the absence of reinforcing fibers in the thickness direction. This paper introduced the interlaminar basalt fiber veil technique to improve the interlaminar fracture toughness of basalt fiber‐reinforced thermoplastic composite laminates. The reinforcement effect of the basalt fiber veil on G IC of composite laminates was investigated by a double cantilever beam (DCB) test. The toughening effect, damage morphology, and the basalt fiber veil toughening mechanism were analyzed by mechanical response, optical photos, and scanning electron microscopy (SEM). It was found that the basalt fiber veil could significantly inhibit the propagation of interlaminar cracks. Compared to the unreinforced specimen, the maximum load of basalt fiber veil‐reinforced laminate was increased by 73%, the average platform load was increased by 72.7% and the G IC was increased by 157%. Highlights Improvement of G IC of basalt fiber‐reinforced thermoplastic laminates by basalt fiber veil. The toughening mechanism for the basalt fiber veil. The G IC of the fiber veil‐reinforced laminate was 157% higher than the unreinforced laminate.
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