纺织学报 ›› 2026, Vol. 47 ›› Issue (02): 247-254.doi: 10.13475/j.fzxb.20251003001
张涛1, 张富丽1(
), 郭红2, 李钊2,3, 李丹1, 王涯舟2, 林沩2
ZHANG Tao1, ZHANG Fuli1(
), GUO Hong2, LI Zhao2,3, LI Dan1, WANG Yazhou2, LIN Wei2
摘要:
为实现废旧靛蓝牛仔布的高值化回收及功能材料制备,以无色牛仔布、废旧靛蓝牛仔布及经N,N-二甲基甲酰胺(DMF)脱色处理的废旧靛蓝牛仔布为原料,采用酸解法制备3种纤维素纳米晶(CNCs),表征其微观结构与理化性能;并将3种CNCs分别与聚乙烯醇(PVA)复合制备薄膜,测试复合膜的力学性能、热稳定性及抗紫外线性能。结果表明:宏观层面,无色牛仔布CNCs(W-CNCs)与脱色牛仔布CNCs(T-CNCs)悬浊液呈乳白色,靛蓝牛仔布CNCs(D-CNCs)悬浊液因染料存在呈特征蓝色;3种CNCs尺寸无显著差异,晶体结构均保持纤维素I型;相较于原料棉纤维,3种CNCs的热稳定性均明显降低;红外光谱分析证实D-CNCs中保留靛蓝染料特征官能团;D-CNCs添加量为5%时,PVA复合膜的拉伸强度提升20.4%,添加量增至10%时,复合膜的起始热分解温度提高;且随其添加量增加,复合膜在200~400 nm紫外波段透射率明显下降,抗紫外线性能逐步增强。靛蓝染料残留赋予了CNCs独特的颜色属性,且在强化PVA复合材料力学性能、提升热稳定性及赋予抗紫外线功能方面优势突出。
中图分类号:
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