Established an eco-friendly cotton fabric treating process with enhancing anti-wrinkle performance

Luo, Xiongfang; Cheng, Pei Jiang; Wang, Wencong; Fu, Jiajia; Gao, Weidong

doi:10.1177/15589250211003454

Cited by 9 publications

(5 citation statements)

References 53 publications

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“…Commercially available, biodegradable polymers produced as ultrafine fibers are gaining more interest as a result of their high surface/volume ratio, biocompatibility, non-toxicity in the body, and environmental compatibility. Due to their thermoplasticity and the ability to form solutions with bioactive compounds, they can be directly introduced into biomedical or packaging materials to give them new functional properties, including antimicrobial ones [4][5][6][7].…”

Section: Introductionmentioning

confidence: 99%

Ozonation of Non-Woven Ultrathin Fibrous Biomaterials for Medical and Packaging Implementations

Alexeeva¹,

Siracusa²,

Konstantinova³

et al. 2024

Ozonation - New Aspects

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Antibiotic resistance of pathogens is among the major concerns in various medical applications. Therefore, the search for the novel antimicrobial agents that could prevent pathogen’s resistance, while maintaining efficient treatment, is one of the most important issues for biomedicine nowadays. One of the relevant methods for the development of functional non-woven materials possessing antimicrobial properties is the use of ozone and ozonolysis products for the modification of fibrous materials. This approach has recently attracted both academic and industrial interest and has found various biomedical applications. Several methods providing antimicrobial properties to textiles using ozone or ozonolysis products were proposed, including encapsulation and/or direct introduction of ozone-generated antimicrobial agents into the fibrous polymer matrix and ozone treatment of non-woven fiber materials. For the latter, the ozonolysis products are uniformly distributed predominantly on the polymer surface but could be also formed inside the polymer bulk due to ozone diffusion through the amorphous areas or defects. It was found that ozone modification of fibrous materials could lead to increase in hydrophilicity and improvement in their functional properties (smoothness, elasticity, strength, antimicrobial activity). In this chapter, various aspects of ozone modification of non-woven fiber materials for biomedical applications are reported and discussed.

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Section: Introductionmentioning

confidence: 99%

Ozonation of Non-Woven Ultrathin Fibrous Biomaterials for Medical and Packaging Implementations

Alexeeva¹,

Siracusa²,

Konstantinova³

et al. 2024

Ozonation - New Aspects

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“…However, it is easy to produce wrinkles during wearing, home washing, and longterm storage due to the lubricating action of water, which enters inside the cellulose polymers of the fabric and enables them to glide on one another. 5 Reinforcing the linkage and increasing the elasticity of cellulose molecular chains through antiwrinkle finishing agents are the most effective ways to antiwrinkle cellulose fabric. The most widely used antiwrinkle cross-linking agents are dimethylol dihydroxy ethylene urea, which has excellent antiwrinkle performance.…”

Section: Introductionmentioning

confidence: 99%

“…Cellulose-based fibers like cotton, viscose, and lyocell are some of the most popular textile materials and have excellent moisture absorption and breathability properties. − Their fabrics are highly favored by consumers. However, it is easy to produce wrinkles during wearing, home washing, and long-term storage due to the lubricating action of water, which enters inside the cellulose polymers of the fabric and enables them to glide on one another . Reinforcing the linkage and increasing the elasticity of cellulose molecular chains through antiwrinkle finishing agents are the most effective ways to antiwrinkle cellulose fabric.…”

Section: Introductionmentioning

confidence: 99%

Easy-Iron Fabrics from Polysaccharide Shape Memory Fiber

Zhu,

Yuan,

Zhu

et al. 2024

ACS Sustainable Chem. Eng.

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Cellulose fabrics easily form wrinkles and need ironing treatment to maintain a flat appearance. However, burns and fire accidents caused by ironing clothes have been reported from time to time, as the recommended ironing temperature for cotton fabric is around 180 °C. Herein, an agarose/cellulose composite fiber with easy ironing was successfully prepared via a wet-spinning method by dissolving both agarose and cellulose in a specifically chosen mixed alkali/urea aqueous solution. The composite fiber exhibited superior mechanical properties, with a tensile strength of 164 MPa. Shape memory responses under the influence of water and heat stimulations indicated that the shape fixation ratios were 97−99 and 75−97%, respectively, and the shape recovery ratios were 80−92 and 67−94%, respectively. The composite fiber fabrics have shorter ironing times (2 s) and lower ironing temperatures (92 °C) compared with the regenerated cellulose fiber fabric. Furthermore, the composite fiber showed good dyeability, robust thermal and chemical stability, and a moderate level of biodegradability, capable of complete biodegradation in natural soil within 108 days. This work provided an avenue for fabricating hydrothermal-responsive shape memory fibers that have great potential application in easy ironing garments.

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“…Because of its excellent wearing properties such as breathability, moisture absorption and softness, cotton fabric is deeply favored by the consumers (Han 2018). However, the unique structure of cotton ber makes it easy to wrinkle during use (Luo et al 2021), thus affecting the beauty and smoothness of the fabric, which greatly limits the wide application of cotton fabric. With the development of technology and the changes of consumers' aesthetic requirements, in recent years, the demand for improving the high delayed elasticity properties and shape memory properties of cotton fabrics has become a consumption hotspot(Jariyapunya and Musilová 2019; Liu and Zhou 2019; Yu et al 2015) for fashionable people.…”

Section: Introductionmentioning

confidence: 99%

Effect of organosilicon resin containing disulfide bonds on elastic properties of cotton fabric

et al. 2022

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Cotton fabrics are popular for their excellent properties, but their property of creasing easily largely limits the wide application of cotton fabrics. In this paper, an organosilicon resin emulsion containing disul de bonds was prepared with epoxy-terminated silicone oil and 4,4-diaminodiphenyldisul de (AFD) as raw materials, and it was used as a nishing agent for the elastic nishing of cotton fabrics. The effects of raw material ratio on the elastic properties of organosilicon polymer lm and the effects of emulsi er dosage and emulsi cation time of emulsion polymerization on the properties of organosilicon resin emulsion were studied. In addition, the effects of organosilicon nishing agent dosage, baking temperature, and baking time on the elastic properties of cotton fabric were also studied. The research results show that the average particle size of the prepared organosilicon resin emulsion is about 250 nm, the particle size distribution is concentrated and the emulsion is stable. The delayed elastic recovery angle of the cotton fabric treated with an organosilicon nishing agent can reach 185°, showing excellent high delayed elasticity. At the same time, it was found that the nished cotton fabric exhibited an excellent and special temperature-responsive shape memory function based on the existence of disul de bonds in the organosilicon polymer network structure.

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Established an eco-friendly cotton fabric treating process with enhancing anti-wrinkle performance

Cited by 9 publications

References 53 publications

Ozonation of Non-Woven Ultrathin Fibrous Biomaterials for Medical and Packaging Implementations

Ozonation of Non-Woven Ultrathin Fibrous Biomaterials for Medical and Packaging Implementations

Easy-Iron Fabrics from Polysaccharide Shape Memory Fiber

Effect of organosilicon resin containing disulfide bonds on elastic properties of cotton fabric

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