表面技术
錶麵技術
표면기술
SURFACE TECHNOLOGY
2014年
3期
95-100
,共6页
SiO2 气凝胶%TiO2%织物%隔热%涂层
SiO2 氣凝膠%TiO2%織物%隔熱%塗層
SiO2 기응효%TiO2%직물%격열%도층
silica aerogel%TiO2%textile%thermal insulation%coating
目的:提高织物的隔热效果及抗紫外性能。方法以SiO2气凝胶和TiO2为功能粒子,采用聚丙烯酸酯、聚氨酯类粘合剂,在棉织物上制备涂层,研究功能粒子和粘合剂用量对涂层织物隔热效果的影响。结果当涂层剂中粘合剂和去离子水质量比为2:8,气凝胶加入量为粘合剂和去离子水总质量的10%时,涂层织物的隔热性能最好,较原织物显著提高。此外,SiO2气凝胶-TiO2复合涂层的隔热性能也颇为优异。织物涂覆涂层后,与原织物相比,断裂强力基本不变,撕破强力略有下降,白度提高,抗紫外性能提高,摩擦牢度好。结论采用SiO2气凝胶、TiO2作为功能粒子对织物进行涂层涂覆,其隔热性能显著提高。
目的:提高織物的隔熱效果及抗紫外性能。方法以SiO2氣凝膠和TiO2為功能粒子,採用聚丙烯痠酯、聚氨酯類粘閤劑,在棉織物上製備塗層,研究功能粒子和粘閤劑用量對塗層織物隔熱效果的影響。結果噹塗層劑中粘閤劑和去離子水質量比為2:8,氣凝膠加入量為粘閤劑和去離子水總質量的10%時,塗層織物的隔熱性能最好,較原織物顯著提高。此外,SiO2氣凝膠-TiO2複閤塗層的隔熱性能也頗為優異。織物塗覆塗層後,與原織物相比,斷裂彊力基本不變,撕破彊力略有下降,白度提高,抗紫外性能提高,摩抆牢度好。結論採用SiO2氣凝膠、TiO2作為功能粒子對織物進行塗層塗覆,其隔熱性能顯著提高。
목적:제고직물적격열효과급항자외성능。방법이SiO2기응효화TiO2위공능입자,채용취병희산지、취안지류점합제,재면직물상제비도층,연구공능입자화점합제용량대도층직물격열효과적영향。결과당도층제중점합제화거리자수질량비위2:8,기응효가입량위점합제화거리자수총질량적10%시,도층직물적격열성능최호,교원직물현저제고。차외,SiO2기응효-TiO2복합도층적격열성능야파위우이。직물도복도층후,여원직물상비,단렬강력기본불변,시파강력략유하강,백도제고,항자외성능제고,마찰뇌도호。결론채용SiO2기응효、TiO2작위공능입자대직물진행도층도복,기격열성능현저제고。
Objective To improve the heat insulation and UV resistance performance of fabrics. Methods Cotton fabrics were coated with silica aerogel and TiO2 as functional particles, and PA as well as PU as adhesive agents. The influences of the amounts of silica aerogel and adhesive agent on the insulation performance of the coated fabrics were studied. Results The coated fabrics showed much better thermal insulation performance than the untreated fabrics. The insulation performance of coated fabric was the best when the mass ratio of the binder to deionized water was 2 : 8 and aerogel accounted for 10% of the mass of the coating agent. SiO2-TiO2 composite coating also displayed extraordinary thermal insulation behavior. Compared with the untreated fabrics, the coated fabrics manifested the same level of breaking strength, lower tearing strength, much better anti-ultraviolet capability with good abrasion fastness. Conclusion The heat insulation performance of cotton fabrics was improved a lot after coating with silica aerogel and TiO2 as functional agents.