Čorak Ivana, Tarbuk Anita, Dekanić Tihana, Sikorski Dominik, Draczyński Zbigniew
Department of Textile Chemistry and Ecology, University of Zagreb Faculty of Textile Technology, Prilaz baruna Filipovića 28a, HR-10000 Zagreb, Croatia.
Institute of Textile Materials and Polymer Composites, Lodz University of Technology, ul. Żeromskiego 116, 90-924 Lódź, Poland.
Materials (Basel). 2024 Dec 6;17(23):5987. doi: 10.3390/ma17235987.
In the interests of using green and sustainable chemical innovations to create sustainable products with minimized (or no) chemical hazard potential, the polyester fabric in this work was activated and functionalized with chitosan and its durability was investigated. Chitosan is a natural biopolymer derived from chitin. As it has good biocompatibility, bio-absorption, anti-infectious, antibacterial and hemostatic properties and accelerates wound healing, it is increasingly being researched for the antimicrobial treatment of textiles. Due to the increased demands on the durability of antimicrobial properties during care, its binding to cellulose in cotton and cotton-polyester blends has been researched, but not to polyester alone. Therefore, the functionalization of polyester fabrics with chitosan by thermosol in the form of submicron particles and pad-dry-curing with homogenized gel was investigated in this work. The functionalization with chitosan was carried out on untreated polyester fabric and polyester fabric activated by alkali hydrolysis. In order to reduce the release of chemical substances during the entire life cycle of textile production, no binder was used. The effects were evaluated by electrokinetic analysis (zeta potential), and the mechanical, spectral, moisture management and antimicrobial properties were determined using standard methods. The functionalized polyester fabrics were submitted to 10 washing cycles in a solution of non-ionic surfactant for determination of its durability. It was shown that the functionalization of hydrolyzed polyester fabric with homogenized chitosan gel by pad-dry-curing results in excellent antimicrobial efficacy and moisture management properties while maintaining the mechanical properties of the fabric even after 10 washing cycles.
为了利用绿色可持续的化学创新来制造具有最小(或无)化学危害潜力的可持续产品,本研究对聚酯织物用壳聚糖进行了活化和功能化处理,并对其耐久性进行了研究。壳聚糖是一种由甲壳素衍生而来的天然生物聚合物。由于它具有良好的生物相容性、生物吸收性、抗感染性、抗菌性和止血特性,并能加速伤口愈合,因此越来越多地被用于纺织品的抗菌处理研究。由于在护理过程中对抗菌性能耐久性的要求不断提高,人们对其与棉及棉涤混纺织物中纤维素的结合进行了研究,但未对单独的聚酯进行研究。因此,本研究探讨了以亚微米颗粒形式通过热溶胶法用壳聚糖对聚酯织物进行功能化,并采用均质凝胶进行轧染焙烘的方法。壳聚糖功能化处理是在未处理的聚酯织物和经碱水解活化的聚酯织物上进行的。为了减少纺织品生产全生命周期中化学物质的释放,未使用粘合剂。通过电动分析(zeta电位)评估效果,并使用标准方法测定其机械、光谱、水分管理和抗菌性能。将功能化聚酯织物在非离子表面活性剂溶液中进行10次洗涤循环,以测定其耐久性。结果表明,通过轧染焙烘用均质壳聚糖凝胶对水解聚酯织物进行功能化处理,即使在经过10次洗涤循环后,仍能产生优异的抗菌效果和水分管理性能,同时保持织物的机械性能。