纺织学报 ›› 2023, Vol. 44 ›› Issue (05): 29-37.doi: 10.13475/j.fzxb.20221005001

• 特约专栏:减污降耗染色新技术 • 上一篇    下一篇

非水介质染色体系中分散染料对涤纶/棉混纺织物的沾色研究

易菁源1,2, 裴刘军1,2(), 朱赫1,2, 张红娟1,2, 王际平1,2   

  1. 1.上海工程技术大学 上海纺织化学清洁生产工程技术研究中心, 上海 201620
    2.上海工程技术大学 纺织服装学院, 上海 201620
  • 收稿日期:2022-10-25 修回日期:2023-02-21 出版日期:2023-05-15 发布日期:2023-06-09
  • 通讯作者: 裴刘军(1988—),男,副教授,博士。主要研究方向为非水介质染色、低压无水染色和纺织日用化学。E-mail:peilj@sues.edu.cn。
  • 作者简介:易菁源(1997—),女,硕士生。主要研究方向为非水介质染色。
  • 基金资助:
    国家自然科学基金项目(22072089);新疆生产建设兵团重大科技项目(2019AAA001)

Study on disperse dye staining on polyester/cotton blended fabrics in non-aqueous medium dyeing system

YI Jingyuan1,2, PEI Liujun1,2(), ZHU He1,2, ZHANG Hongjuan1,2, WANG Jiping1,2   

  1. 1. Engineering Research Center of Textile Chemistry and Clean Production, Shanghai University of Engineering Science, Shanghai 201620, China
    2. School of Textiles and Fashion, Shanghai University of Engineering Science, Shanghai 201620, China
  • Received:2022-10-25 Revised:2023-02-21 Published:2023-05-15 Online:2023-06-09

摘要:

为实现涤纶/棉混纺织物的少水无盐、污水零排放染色关键技术,基于前期开发适用于非水介质中对涤纶的上染率较高的偶氮染料以及传统水浴常用的蒽醌和杂环染料,探究了非水介质染色体系中,分散染料结构、染色温度、促染剂、保温时间、分散剂对分散染料沾染棉纤维的影响及作用机制,并使用相对沾色率对分散染料在涤、棉上的分配进行表征。结果表明,在非水介质染色体系中,实验所用的蒽醌类分散染料对涤纶组分的上染率仅有12%,并不适用于该体系中对涤纶/棉混纺织物染色;而选用的偶氮类和杂环类分散染料对涤纶组分上染率在80%以上;非水介质染色体系中,加入极性小分子促进剂,不仅能够改善涤纶组分的溶胀,且借助分子的强极性降低分散染料在非水介质中的溶解度,提高分散染料对涤纶组分的上染率,从而降低分散染料对棉组分的沾色;染色过程中加入分散剂NNO,不仅不能提升分散染料的染色性能,反而影响其沾色率。根据分散染料对涤纶的上染率及相对沾色率,得出分散染料的最佳染色条件为:温度140 ℃、促染剂含量10% (o.w.f)、保温时间60 min。

关键词: 非水介质染色, 涤纶/棉混纺织物, 分散染料, 沾色, 促染剂, 溶解度

Abstract:

Objective Fabrics made from blended fibers demonstrate their advantages and enrich textiles diversification, of which polyester/cotton blended fabrics are most widely used in the textile and fashion industry. In order to save energy and reduce emission, non-aqueous media dyeing technology has been applied to the dyeing of polyester/cotton blended fabrics, using non-aqueous media, such as decamethylcyclopentasiloxane (D5), paraffin liquid, cooking oil and so on. Nevertheless, the phenomenon of staining persists during the dyeing process of polyester/cotton blended fabrics, resulting in decreased production efficiency and heightened pollution. This paper aims to investigate the mechanism behind the staining of cotton components in polyester/cotton blended fabric by disperse dyes in non-aqueous dyeing systems, with the objective of mitigating the staining of dyes during the dyeing process.

Method Based on the determination of azo dyes which have high uptake rate and suitable for polyester dyeing in non-aqueous media, and anthraquinone and heterocyclic dyes commonly used in conventional water bath, this research focused the dyeing and staining of disperse dye for polyester/cotton blended fabric in non-aqueous medium dyeing system. The influence of disperse dye structure, dyeing temperature, accelerant, dyeing time and dispersant NNO on the disperse dye staining, and dyeing effect of polyester/cotton blended fabric in non-aqueous medium dyeing system were investigated. Owing to the structure of polyester/cotton blends, it was difficult to isolate cotton staining for independent study. Therefore, conducting experimental research using 1.3 g of polyester fabric and 0.7 g of cotton fabric to simulate 2 g of polyester/cotton(65/35) blended fabric was necessary to gain a better understanding of the degree of cotton staining, and to demonstrate it more intuitively. One-bath-two-steps method was used for dyeing. In order to investigate the influence of dyeing conditions on dyeing performance, C.I Disperse Red 177 was chosen as disperse dye in the subsequent experiments. The uptake rate and staining rate of disperse dyes were calculated by measuring the amount of dye in the dyeing residue and the stripping solution. The distribution of disperse dye on polyester/cotton fabric was characterized by the relative staining rate of disperse dye.

Results The uptake rate of anthraquinone disperse dyes on polyester in non-aqueous medium dyeing system was only 12.0%, which was too low for dyeing polyester/cotton blends ( Fig.2 and Fig.3). The uptake rate of azo and heterocyclic disperse dyes on polyester components was above 80%. The complexity of disperse dye structure, the number of molecular substituents, molecular planarity, and relative molecular weight showed great influence on the uptake and staining of disperse dye. C.I. Disperse Red 177 was chosen as a representative azo disperse dye, and the results of the uptake of dye and the color depth of the dyed fabric indicated that the Disperse Red 177 had a higher uptake rate and it was more efficient using in non-aqueous medium. The influence of temperature on dyeing performance of polyester/cotton blended fabrics was investigated in non-aqueous medium with different contents of accelerant X (Fig.4). No matter what content of accelerant, raising the dyeing temperature was found to improve obviously the dyeing performance of disperse dyes on polyester/cotton blended fabric. The accelerant affected the dyeing/staining of polyester and cotton simultaneously (Fig.5) because the swelling degree of polyester and cotton fiber were improved at the same time when a certain amount of dye accelerant was employed during dyeing, and because the resistance of disperse dyes to diffusion into inside of fiber was decreased. It revealed from the research that the swelling degree of polyester fiber was less than that of cotton fiber, and the relative staining rate of disperse dyes was increased with the increasing content of dye accelerant. Polyester/cotton blended fabric dyeing was carried out for different dyeing time periods to investigate the relationship between the dyeing time and the dyeing performance (Fig.6), suggesting that dyeing time had little influence on the staining of of disperse dye but it would increase the uptake of disperse dyes. The addition of dispersant NNO in the dyeing process would not improve the dyeing performance of disperse dyes (Tab.2), but it had an influence on the staining rate of disperse dyes.

Conclusion Based on the uptake/staining rate and the relative staining rate of disperse dyes, azo dyes are more suitable than anthraquinone and heterocyclic disperse dyes for dyeing polyester/cotton blended fabric in non-aqueous media dyeing system. Polyester/cotton blended fabric dyed with Disperse Red 177 was more effective and efficient in non-aqueous medium dyeing system. The optimum dyeing conditions for disperse dyes were found, which were 140 ℃ of dyeing temperature, 10% (o.w.f) of dyeing accelerant, and 60 min of dyeing time period. If the dye accelerant and dispersant NNO were used in the dyeing bath at the same time, the disperse dyes were easy to aggregate, and the staining of dye on the surface of the dyed fabric becomes seriously, resulting the level dyeing property was poor, indicating that the accelerant and dispersant NNO should not used in a same non-aqueous media dyeing system.

Key words: non-aqueous medium dyeing, polyester/cotton blended fabric, disperse dye, staining, accelerant, solubility

中图分类号: 

  • TS190.5

图1

非水介质染色工艺曲线"

图2

不同结构的分散染料对织物染色的差异"

图3

不同分散染料对棉纤维的相对沾色率"

表1

分散红177在不同介质中染色性能差异"

介质 上染率/% 沾色率/% 染色耗时/min
78.42 15.03 385
D5 83.50 14.28 182

图4

不同含量促染剂X染浴中温度对涤纶/棉模拟织物染色性能的影响"

图5

140 ℃条件下促染剂X用量对涤纶/棉模拟织物染色性能的影响"

图6

保温时间对涤、棉双组分上染率及沾色率的影响"

表2

分散剂NNO用量为1%(o.w.f)条件下促染剂用量与分散染料染色性能的关系"

促染剂用量/
%(o.w.f)
涤纶上染率/
%
棉沾色率/
%
相对沾色率/
%
0 58.49 6.51 11.13
5 67.13 8.16 12.16
10 77.70 9.41 12.11
20 70.48 8.16 11.58
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