Page 136 - 《精细化工》2020年第8期

·1634· 精细化工 FINE CHEMICALS 第 37 卷

过程对 EPE 材料有较大影响，可能是由于疲劳过程 54.5%）。疲劳过程对 SF/HGB6 复合材料的影响不
导致内部结构塌陷，弹性变差引起。疲劳过程对 大，疲劳实验前后 SF/HGB6 复合材料的缓冲系数几
SF/HGB6 的影响不大，疲劳实验前后 SF/HGB6 的 乎没有变化。
缓冲系数几乎没有变化。综上所述，SF/HGB6 复合 （5）与传统的缓冲材料 EPE 相比，SF/HGB6
材料具有优异的抗疲劳性能，优于传统的 EPE 缓冲 复合材料具有更好的抗疲劳性能和成型加工性能，
材料。 在包装领域尤其是复杂的缓冲包装构件中有较大的
应用潜力。下一步研究的重点是高韧性、高阻燃型

SF 复合材料，进一步提高材料的韧性和阻燃性，以
满足更高的应用需求。

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