Textile applications of commercial photochromic dyes: part8. A statistical investigation of the influence of photochromic dyes on thermoplastic fibres using a UV-irradiation technique

Younes, Basel; Ward, Stephanie C.; Christie, Robert

doi:10.1080/00405000.2019.1693219

Cited by 8 publications

(5 citation statements)

References 24 publications

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“…For a style Polo-TsT101, the factory created a ratio such as S (1), M (1), L (1), XL (1), XXL (2), XXXL (2), XXXXL (1). Pattern size was modified by increasing or decreasing the pattern length and width.…”

Section: Optimization Of Pattern Size To Increase Marker Efficiency F...mentioning

confidence: 99%

“…The cloth organization is one of the world's fundamental industries related to the new world shopping for and promoting gadget and globalization, new utilized technological know-how encountered in wider acceptance of such as photochromic and thermochromic colorants in garment technological understanding in addition to different purposes (1) . On the other hand, the garment industry as a large one within https://www.indjst.org/ the provided chain of the cloth enterprise is quintessential to enhance competitiveness in the global garment market, and to provide purchaser satisfaction, at an ideal cost.…”

Section: Introductionmentioning

confidence: 99%

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Reduction of Garments Cutting Wastage for Bulk Production by Increasing or Decreasing Pattern Size Matching with Garments Size Tolerance

Ali¹

2022

IJST

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Objectives:The purpose of this study is to reduce fabric consumption by improving marker efficiency. The improvements of the existing markers lead to reduce fabric wastage during the cutting process. Methods: The Gerber CAD/CAM software version AccuMark 8.5.1 is used in the present study was made pattern and marker. A noble approach is used to conduct this experiment through Gerber CAD/CAM software. Easy marker produced at the initial stage then it replaces by the actual market by considering the allowance of developed specimen. Wastes have decreased and overall efficiency has increase up to 9.25%. Findings: The marker efficiency considerably varies in accordance to the aggregate of pattern size, size ratio and adjustment of pattern size with garments size tolerance. The enhancements in the marker efficiency decrease the fabric consumption per garment and amplify aid effectively while preventing waste generation. A saving of up to 9.25% material that saves millions of lots per year has an enormous impact on reducing aid depletion and environmental pollution. Novelty: A novel method is used to increase the marker efficiency and the style no S22BL202, Polo-TsT101, S22-W20201, S22-W20201 have used to conduct our research. As based of our knowledge, this noble approach with above style is not reported yet. So, this study will contribute to increase the increase marker efficiency followed by the save fabric and money.

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Section: Optimization Of Pattern Size To Increase Marker Efficiency F...mentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

Reduction of Garments Cutting Wastage for Bulk Production by Increasing or Decreasing Pattern Size Matching with Garments Size Tolerance

Ali¹

2022

IJST

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“…The textile industry has played a important role in the exchanging of goods and impacted by novel techniques through the development of more environmentally friendly processes [64][65][66][67]. Many biodegradable fibers may be natural, regenerated or synthetic such as Ingeo (Natureworks), LLC produced from corn, a biodegradable thermoplastic polyatide (PLA); Lenpur produced from wood pulp of harvested white pine tree clippings; and Modal and Tencel/Lyocell produced by Lenzing from wood pulp of beech and eucalyptus trees, and biodegradable aliphatic/aromatic multi-block co-polyesters.…”

Section: Biopolymers and Biodegradable Textiles Industrymentioning

confidence: 99%

Characterization, Modeling and the Production Processes of Biopolymers in the Textiles Industry

Younes¹

2022

Biocomposites

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The current chapter is focused on biopolymers and Bionanocomposite as environmentally friendly materials, modeling of the production processes, and coating of bio-textiles. Different industries use biopolymers and Bionanocomposite in for the current environmental applications. Furthermore, composition and classification of biopolymers, the theoretical methods, and factorial experimental designs (FED) for optimization and modeling processes of the environmentally friendly textiles used as an alternative to traditional chemical textile products with zero to low environmental footprint are studied at acceptable cost. This chapter will also describe the novel optimization, experimental factorial design, and how the novel modeling methods will help less experienced polymer designers in taking the best experimental decision controlled by the design factors. It also discusses how the fully biodegradable polymers support the industry by decreasing the processing energy, material and manufacturing costs. Finally there are an overview of the current and future developments of biodegradable polymers applications in modern bio-textiles industries.

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“…In contrast, the development of photochromic fibers provides flexible ways for the integrated design of photochromic fabrics, which has unparalleled advantages in fabric pattern design, comfort, color fastness, and other aspects . Commercially available photochromic fibers are now mostly manufactured from petroleum-based polymers such as polypropylene and polyethene terephthalate (PET). − These petroleum-based polymers, however, may cause a slew of resource and environmental issues, raising the demand for environmentally friendly biobased polymers. Biobased photochromic fibers present environmentally friendly, low-carbon, and sustainable features.…”

Section: Introductionmentioning

confidence: 99%

Facile Fabrication of Photochromic Poly(lactic acid)/poly(3-hydroxybutyrate-co-3-hydroxyvalerate) Fibers via a Scalable Melt-Spinning Process

Zhao

et al. 2023

ACS Appl. Polym. Mater.

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Due to their green, low-carbon, and sustainable resource qualities, photochromic poly(lactic acid) (PLA) fibers provide various advantages in the development of smart textiles, such as sensing and camouflage. However, the stiffness and rough texture of functional PLA fibers can have an impact on textile comfort and restrict their application. In our work, we used a scalable melt-spinning approach to create photochromic fibers with PLA and poly(3-hydroxybutyrate-co-3-hydroxyvalerate) (PHBV) as fiber-forming polymers and photochromic microcapsules as color indicators, respectively. When exposed to intense sunlight, photochromic PLA/PHBV fibers transform from colorless to blue in 1 s then back to colorless in 1 min when the activation irradiation is removed. The tenacity and initial modulus of photochromic PLA/PHBV fibers decrease from 4.30 to 3.57 cN/dtex and 66.20 to 27.91 cN/dtex, respectively, as the PHBV component content increases from 0% to 20% wt %, suggesting acceptable tenacity and good flexibility. As the PHBV content increases, PHBV can nucleate PLA to promote the crystal growth rate of PLA, but it results in thinner or less perfect PLA lamellae and a more disordered amorphous region in the photochromic PLA/PHBV fibers. This structure reduces the tenacity of photochromic PLA/PHBV fibers while enhancing softness.

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Textile applications of commercial photochromic dyes: part8. A statistical investigation of the influence of photochromic dyes on thermoplastic fibres using a UV-irradiation technique

Cited by 8 publications

References 24 publications

Reduction of Garments Cutting Wastage for Bulk Production by Increasing or Decreasing Pattern Size Matching with Garments Size Tolerance

Reduction of Garments Cutting Wastage for Bulk Production by Increasing or Decreasing Pattern Size Matching with Garments Size Tolerance

Characterization, Modeling and the Production Processes of Biopolymers in the Textiles Industry

Facile Fabrication of Photochromic Poly(lactic acid)/poly(3-hydroxybutyrate-co-3-hydroxyvalerate) Fibers via a Scalable Melt-Spinning Process

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