A Sustainable Green Oxidative Desizing Process for Alginate/Cotton Fiber Blended Fabrics

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Authors: Zikai Du, Changhai Xu, Jinmei Du, Sen Chen, Dagang Miao
Cited by: 1
References: 37

Abstract

Alginate fiber has been widely recognized in the field of sustainable development due to its environmental friendliness, non toxicity, flame retardancy, biodegradability, good biocompatibility, abundant raw material sources, and the fact that its production process is not limited by arable land resources. However, in the application of textile and apparel, desizing efficiency and economic performance have constrained the application and development of alginate/cotton fiber shuttle-woven fabrics. To resolve the desizing problem of alginate/cotton blended fabrics in a green and effective manner, this study focuses on the catalytic decomposition of hydrogen peroxide by aluminates and their crosslinking modification effect in enhancing the chemical corrosion resistance of alginate fibers; the catalytic effect of aluminates on hydrogen peroxide was investigated and applied to the oxidative decomposition of textile sizing agents, followed by a study of the oxidative desizing process. The results indicate that aluminum salts have excellent catalytic activity towards hydrogen peroxide; after adding aluminate and hydrogen peroxide to the simulated desizing starch slurry, the decomposition rate of starch reached 44.20%. Compared to traditional oxidation desizing processes, this treatment causes slight damage to the strength of alginate fibers, alginate fiber blended yarns, and pure cotton fabrics, with a loss rate of only 3.55 ± 0.08% for alginate fibers in the fabric. The application of this technology can provide important theoretical and practical support for the sustainable development of textiles and the green dyeing and finishing of alginate fibers.

Fields of Study & Subjects

Dyeing and Modifying Textile Fibers Flame retardant materials and properties Advanced oxidation water treatment

Publication details

Journal / source
Sustainability
Publisher
MDPI AG
Volume
18
Issue
10
Pages
4968–4968
Publication date
15 May 2026
Language
EN