CN115162002B - Full-biological-based cotton fabric and dyeing and finishing method thereof - Google Patents

Full-biological-based cotton fabric and dyeing and finishing method thereof Download PDF

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CN115162002B
CN115162002B CN202210860618.XA CN202210860618A CN115162002B CN 115162002 B CN115162002 B CN 115162002B CN 202210860618 A CN202210860618 A CN 202210860618A CN 115162002 B CN115162002 B CN 115162002B
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cotton fabric
finishing
dyeing
extract
cationic
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周宇阳
程献伟
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Suzhou University
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Abstract

The invention relates to an all-biological-based cotton fabric and a dyeing and finishing method thereof, belonging to the technical field of dyeing and finishing. The dyeing and finishing method comprises the following steps that (1) cotton fabric is immersed in cationic modifier solution for heating and ultrasonic treatment, and the cationic modified cotton fabric is obtained through reaction; (2) And (3) dissolving the natural polyphenol extract and the cross-linking agent in water to obtain a finishing liquid, immersing the cationic modified cotton fabric in the finishing liquid, and heating, carrying out ultrasonic treatment, pre-baking and baking to obtain the full-biological base cotton fabric. The dyeing and finishing method combines the biomass extract with the high-efficiency energy-saving ultrasonic auxiliary technology to construct the green dyeing and finishing processing technology of the ecological textile, is energy-saving and environment-friendly, has low toxicity and no toxicity of wastewater, and improves the use safety of the textile. The biomass extract is utilized to improve dyeing and finishing efficiency of cotton fabric, reduce energy consumption, and has the advantages of reasonable process design, simple operation process and the like.

Description

Full-biological-based cotton fabric and dyeing and finishing method thereof
Technical Field
The invention belongs to the technical field of dyeing and finishing, and particularly relates to an all-biological-based cotton fabric and a dyeing and finishing method thereof.
Background
Cotton fibers are one of the important textile materials. The global annual cotton fiber yield is up to 3000 ten thousand tons, accounting for about 81 percent of the global natural fiber yield. Dyeing cotton fabrics is an important process step before cotton textile products enter the market. However, there are still problems in the conventional cotton dyeing and finishing process, such as using dye or finishing agent with potential biotoxicity, environmental pollution and poor market competitiveness. In addition, the proposal of the carbon reaching peak and the carbon neutralization target also provides new requirements for the traditional dyeing and finishing industry with high energy consumption.
In view of increasing importance of consumers on textile health and environmental protection, the textile industry is continuously pursuing green and environment-friendly production technology, and biomass dyeing and finishing reagents extracted from agricultural byproducts are gradually paid attention to. Compared with the traditional synthetic dye, many biological extracts have advantages and application prospects due to soft color light, biodegradability, environmental compatibility and multiple protection functions. Numerous studies have shown that biomass extracts can impart good color and functionality to protein fibers such as silk, wool, and the like. The adsorption mechanism is mainly that groups such as anionic hydroxyl, carboxyl and the like of the natural polyphenol extract are adsorbed on amino groups with positive charges of protein fibers through ionic bond action when the pH value is lower than the isoelectric point of the protein fibers. The research of directly applying the biomass extract to the surface of cotton fabric is less, and the main reason is that the cotton fabric lacks a positively charged dyeing seat, and meanwhile, alcoholic hydroxyl groups on a cellulose structure of a basic constituent unit of cotton fiber are partially ionized, and electrostatic repulsion exists between the alcoholic hydroxyl groups and hydroxyl groups negatively charged by the natural polyphenol extract, so that the direct adsorption is difficult. In addition, how to improve the color fastness of the biomass extract on cotton fabric is also one of key technologies for preventing the industrialized application of the biomass extract on cotton fabric. For this reason, the prior art usually carries out pretreatment on cotton by means of metal ions, carries out surface modification on cotton fibers by utilizing a cationic modifier, and the like. However, some metal mordants such as chromium (Cr), copper (Cu) and some cross-linking agents such as aldehyde cross-linking agents and epoxy cross-linking agents still have certain potential safety hazards, and do not conform to the ideas of ecological textiles and green textile industry. In addition, the metal mordant can be combined with biomass molecules through strong coordination bonds, so that the color light of the metal mordant is withered and dark, and the attractiveness of the textile product is affected.
It is reported that the energy consumption of textile industry in China accounts for 4% of the energy consumption of industry in China, wherein the traditional dyeing and finishing technology by an impregnation method is one of links of high energy consumption in textile processing. The combination of novel energy efficient dyeing and finishing technologies with biomass extracts to achieve textile ecological dyeing and finishing technologies from raw materials to technology is a future development trend of the textile industry.
Disclosure of Invention
Therefore, the invention aims to solve the technical problems of poor affinity and fastness of the polyphenol extract to cotton fibers and high energy consumption of the traditional cotton fabric dyeing and finishing technology in the prior art.
In order to solve the technical problems, the invention provides the all-biological-based cotton fabric and the dyeing and finishing method thereof, and the invention adopts the cationic modifier to cationize the cotton fabric on the premise of not introducing substances for increasing environmental load additionally, so that the adsorption capacity of the cotton fabric on anionic natural polyphenol extracts is improved, the three-dimensional crosslinking among the cationic modifier, the natural polyphenol extracts and the cotton fabric is realized through the baking and crosslinking of the crosslinking agent, so that the washing fastness is improved, and the whole process adopts the ultrasonic auxiliary technology, so that the dyeing and finishing efficiency is improved, and the energy consumption is reduced.
The first object of the present invention is to provide a dyeing and finishing method of an all-bio-based cotton fabric, comprising the steps of,
(1) Soaking cotton fabric in a cationic modifier solution for heating and ultrasonic treatment, and reacting to obtain cationic modified cotton fabric; the cationic modifier is one or more of carboxymethyl chitosan, hydroxypropyl trimethyl ammonium chloride chitosan (HACC), N-trimethyl chitosan (TMC) and chitosan oligosaccharide;
(2) Dissolving a natural polyphenol extract and a cross-linking agent in water to obtain a finishing liquid, and soaking the cation modified cotton fabric in the step (1) in the finishing liquid to perform heating, ultrasonic treatment, pre-baking and baking to obtain the all-biological-based cotton fabric; the natural polyphenol extract is one or more of tea polyphenol, chlorogenic acid, tannic acid and gallic acid; the cross-linking agent is citric acid and/or hydroxycitric acid.
In one embodiment of the invention, all raw materials used are bio-based and derivatives thereof; then, the cation modifier and the natural polyphenol extract have antibacterial effects which are coordinated with each other to enhance the synergistic antibacterial effect; the cationic property of the cationic modifier reduces the electrostatic repulsive force of the anionic natural polyphenol extract on cotton fibers, so that the natural polyphenol extract is temporarily deposited on the surfaces of the cotton fibers in an ionic bond mode, and the crosslinking agent further realizes durable crosslinking; the crosslinking agent is a hydroxyl crosslinking agent, and can react with cotton, natural polyphenol extract and cationic modifier, so that three-dimensional crosslinking can be realized, and the fastness is the combined action of ionic crosslinking and hydroxyl crosslinking.
In one embodiment of the invention, in step (1), the pH of the cationic modifier solution is 7.5-8.5. Chitosan is only water soluble under acidic conditions, whereas cotton is generally not treated under acidic conditions; the chitosan derivative is water soluble at full pH, and the aim of adjusting the pH of the cationic modifier solution to be alkaline is to enhance the anionic strength of the cotton fabric and enhance the binding with the chitosan derivative.
In one embodiment of the invention, in step (1), the concentration of the cationic modifier is 1-5g/L. Too high a concentration reduces the probability of subsequent cross-linking of the cross-linking agent and the natural polyphenol extract, affecting the fastness; too low a concentration affects the adsorption of the natural polyphenol extract.
In one embodiment of the invention, in step (1), the heating is at a temperature of 65-75 ℃; the ultrasonic treatment is 40-60kHz treatment for 25-35min.
In one embodiment of the invention, in step (1), the bath ratio of the cotton fabric and cationic modifier solution is 1:30-55.
In one embodiment of the present invention, in the step (2), the biological substrate of the natural polyphenol extract is an agricultural byproduct such as tea stem (tea polyphenol), grape seed (tannic acid) or eucalyptus robusta (gallic acid). These are also agricultural by-product waste materials, realizing the reutilization of the waste materials.
In one embodiment of the present invention, in step (2), the preparation method of the natural polyphenol extract comprises the steps of: grinding 50-200g of biological substrate into powder, adding into 1L of mixed solution of ethanol, acetone, ethyl acetate and petroleum ether, continuously stirring at 65-85 ℃ for 24-48h, naturally settling, filtering with filter paper, steaming, and drying in a dryer to obtain natural polyphenol extract powder.
In one embodiment of the invention, in step (2), the concentration of natural polyphenol extract in the finishing liquor is 1-10g/L; the mass ratio of the natural polyphenol extract to the cross-linking agent is 0.1-0.5:1.
in one embodiment of the invention, in step (2), the cationically modified cotton fabric and finishing liquor have a bath ratio of 1:30-55.
In one embodiment of the invention, in step (2), the heating is at a temperature of 55-65 ℃; the ultrasonic treatment is 20-40kHz treatment for 25-35min.
In one embodiment of the present invention, in step (2), the pre-baking is a pre-baking at 70-80 ℃ for 12-18min; the baking is at 115-135deg.C for 2-4min.
In one embodiment of the present invention, in the step (2), the ultrasonic treatment is performed by combining a green material with a clean production technology by using an ultrasonic auxiliary technology, and compared with the adsorption rate in the presence or absence of ultrasonic, the time and energy (energy represents cost and carbon dioxide emission) saved can be estimated, so that the energy conservation and emission reduction meet the recent high requirements on industrial production.
A second object of the present invention is to provide an all-bio-based cotton fabric prepared by the method.
The principle of the invention is as follows:
the raw materials adopted by the invention are all biological groups and derivatives thereof; then, the cation modifier and the natural polyphenol extract have antibacterial effects which are coordinated with each other to enhance the synergistic antibacterial effect; the cationic property of the cationic modifier reduces the electrostatic repulsive force of the anionic natural polyphenol extract on cotton fibers, so that the natural polyphenol extract is temporarily deposited on the surfaces of the cotton fibers in an ionic bond mode, and the adsorption of the natural polyphenol extract on the cotton fibers is enhanced by the cationic modifier; the cross-linking agent further realizes durable cross-linking, is a hydroxyl cross-linking agent, reacts on cotton, natural polyphenol extract and cationic modifier, performs three-dimensional cross-linking, has the fastness of ionic cross-linking and hydroxyl cross-linking, and finally obtains the functional cotton fabric with full biology base and good washing fastness.
Compared with the prior art, the technical scheme of the invention has the following advantages:
(1) The dyeing and finishing method combines the biomass extract with the high-efficiency energy-saving ultrasonic auxiliary technology to construct the green dyeing and finishing processing technology of the ecological textile, is energy-saving and environment-friendly, has low toxicity and no toxicity of wastewater, and improves the use safety of the textile. The biomass extract is utilized to improve dyeing and finishing efficiency of cotton fabric, reduce energy consumption, and has the advantages of reasonable process design, simple operation process and the like.
(2) The dyeing and finishing method of the invention utilizes the cationic modifier and the cross-linking agent to form a cationic deposition cross-linked structure on the surface of the cotton fiber, and is more environment-friendly compared with the traditional dyeing and finishing technology in which a large amount of synthetic dye, finishing agent and color fixing agent are used.
(3) The dyeing and finishing method has the characteristics of environmental friendliness, no toxic or harmful byproducts are produced in the processing process, and the processing time is shortened, the production cost is saved, and the energy consumption and the carbon emission are reduced under the assistance of an ultrasonic technology.
(4) The natural polyphenol extract and the cation modifier adopted by the all-biological-based cotton fabric have antibacterial functions, have stronger mutual synergistic functions, have ultraviolet absorption functions, can provide ultraviolet protection functions for the cotton fabric, can be used for cotton fabric products such as outdoor exercises, protects consumers, widens the application field of cotton fabrics, and improves the use safety of the cotton fabrics.
Drawings
In order that the invention may be more readily understood, a more particular description of the invention will be rendered by reference to specific embodiments thereof which are illustrated in the appended drawings, in which:
FIG. 1 is a graph showing the dye uptake and adsorption measurements of the extract of Nibea japonica in test example 1 of the present invention before and after modification of cotton fabrics.
FIG. 2 is a graph showing the antibacterial property and UV-protective property of the cotton fabric of test example 1 according to the present invention; wherein 1 is an unmodified cotton fabric, 2 is a cationic modified cotton fabric, 3 is a cotton fabric directly treated by 6g/L of the Rhus verniciflua extract, 4-6 are respectively a cotton fabric which is cationic modified and treated by 2g/L, 6g/L, 10g/L of the Rhus verniciflua extract and 5wt% of citric acid, and 7 is a cotton fabric which is cationic modified and treated by 10g/L of the Rhus verniciflua extract and 5wt% of citric acid and subjected to 5 repeated water washes.
FIG. 3 is a schematic illustration of a dyeing and finishing process for an all-bio-based cotton fabric in accordance with the present invention; wherein, (a) is a cationic modifier for modifying cotton fabric; (b) Is a deposited cross-link of a cationic modifier, a natural polyphenol extract and a cross-linking agent.
Detailed Description
The present invention will be further described with reference to the accompanying drawings and specific examples, which are not intended to be limiting, so that those skilled in the art will better understand the invention and practice it.
The test method related by the invention comprises the following steps:
extract adsorption rate: the measurement was carried out by the raffinate method by means of the lambert law using a double beam ultraviolet visible spectrophotometer (shimadzu uv-1800, shimadzu japan).
Color fastness: and (5) testing and evaluating the soaping-resistant color fastness according to the GB/T3921-2008 textile color fastness test.
Antibacterial rate: evaluation of antimicrobial Properties of textiles according to national Standard GB/T20944.3-2008 part 3: oscillation method.
Ultraviolet protection performance: GB/T18830-2009 test of evaluation of ultraviolet resistance of textiles.
Example 1
The full-biological cotton fabric and the dyeing and finishing method thereof specifically comprise the following steps:
(1) 1g of HACC was added to 1L of warm water, pH was adjusted to 7.5 by adding sodium carbonate and stirring was continued for 20min. Adding 20g of cotton fabric, then heating to 70 ℃, carrying out ultrasonic treatment at 50kHz frequency for 30min, washing with clear water, and drying in the shade to obtain cation modified cotton fabric;
(2) Immersing the cationically modified cotton fabric of step (1) in a natural tea polyphenol extract powder with citric acid to obtain a mixture of 1: in the mixed finishing liquid with the mass ratio of 5, the concentration of the natural tea polyphenol extract in the finishing liquid is 5g/L, and the bath ratio of the cation modified cotton fabric to the finishing liquid is 1:40, a step of performing a; ultrasonic treatment is carried out for 30min under the ultrasonic condition of 60 ℃/40kHz, pre-baking is carried out for 15min at the temperature of 75 ℃, and baking is carried out for 3min at the temperature of 120 ℃ to obtain the cationic and anionic codeposition crosslinking modified cotton fabric.
Example 2
The full-biological cotton fabric and the dyeing and finishing method thereof specifically comprise the following steps:
(1) 3g of HACC was added to 1L of warm water, pH was adjusted to 8 by adding sodium carbonate and stirring was continued for 20min. Adding 20g of cotton fabric, then heating to 70 ℃, carrying out ultrasonic treatment at 40kHz frequency for 30min, washing with clear water, and drying in the shade to obtain cation modified cotton fabric;
(2) Immersing the cation modified cotton fabric in the step (1) in natural chlorogenic acid extract powder and citric acid to obtain a mixture of 1: in the mixed finishing liquid with the mass ratio of 4, the concentration of the natural chlorogenic acid extract in the finishing liquid is 6g/L, and the bath ratio of the cationic modified cotton fabric to the finishing liquid is 1:30; ultrasonic treatment is carried out for 30min under the ultrasonic condition of 60 ℃/30kHz, pre-baking is carried out for 15min at the temperature of 75 ℃, and baking is carried out for 3min at the temperature of 130 ℃, thus obtaining the cationic and anionic codeposition crosslinking modified cotton fabric.
Example 3
The full-biological cotton fabric and the dyeing and finishing method thereof specifically comprise the following steps:
(1) 5g of HACC was added to 1L of warm water, pH was adjusted to 8 by adding sodium carbonate and stirring was continued for 20min. Adding 20g of cotton fabric, then heating to 70 ℃, carrying out ultrasonic treatment at 60kHz frequency for 30min, washing with clear water, and drying in the shade to obtain cation modified cotton fabric;
(2) Immersing the cationically modified cotton fabric of step (1) in a natural tannic acid extract powder with citric acid to produce a composition of 1: in the mixed finishing liquid with the mass ratio of 4, the concentration of the natural tannic acid extract in the finishing liquid is 2g/L, and the bath ratio of the cationic modified cotton fabric to the finishing liquid is 1:50; ultrasonic treatment is carried out for 30min under the ultrasonic condition of 60 ℃/20kHz, pre-baking is carried out for 15min at the temperature of 75 ℃, and baking is carried out for 3min at the temperature of 120 ℃ to obtain the cationic and anionic codeposition crosslinking modified cotton fabric.
Example 4
The full-biological cotton fabric and the dyeing and finishing method thereof specifically comprise the following steps:
(1) 1g of chitosan oligosaccharide is added into 1L of warm water, sodium carbonate is added to adjust the pH value to 7.5, and stirring is continued for 20min. Adding 20g of cotton fabric, then heating to 70 ℃, carrying out ultrasonic treatment at 50kHz frequency for 30min, washing with clear water, and drying in the shade to obtain cation modified cotton fabric;
(1) Impregnating the cationically modified cotton fabric of step (1) with natural tea polyphenol extract powder and hydroxycitric acid to give a composition of 1: in the mixed finishing liquid with the mass ratio of 5, the concentration of the natural tea polyphenol extract in the finishing liquid is 5g/L, and the bath ratio of the cation modified cotton fabric to the finishing liquid is 1:40, a step of performing a; ultrasonic treatment is carried out for 30min under the ultrasonic condition of 60 ℃/40kHz, pre-baking is carried out for 15min at the temperature of 75 ℃, and baking is carried out for 3min at the temperature of 120 ℃ to obtain the cationic and anionic codeposition crosslinking modified cotton fabric.
Example 5
The full-biological cotton fabric and the dyeing and finishing method thereof specifically comprise the following steps:
(3) 5g of N-trimethyl chitosan is added into 1L of warm water, sodium carbonate is added to adjust the pH value to 8, and stirring is continued for 20min. Adding 20g of cotton fabric, then heating to 70 ℃, carrying out ultrasonic treatment at 60kHz frequency for 30min, washing with clear water, and drying in the shade to obtain cation modified cotton fabric;
(4) Immersing the cationically modified cotton fabric of step (1) in a natural tannic acid extract powder with hydroxycitric acid to form a composition of 1: in the mixed finishing liquid with the mass ratio of 4, the concentration of the natural tannic acid extract in the finishing liquid is 2g/L, and the bath ratio of the cationic modified cotton fabric to the finishing liquid is 1:50; ultrasonic treatment is carried out for 30min under the ultrasonic condition of 60 ℃/20kHz, pre-baking is carried out for 15min at the temperature of 75 ℃, and baking is carried out for 3min at the temperature of 120 ℃ to obtain the cationic and anionic codeposition crosslinking modified cotton fabric.
Comparative example 1
Substantially as in example 1, except that in step (1), no modification with a cationic modifier was carried out:
(1) Adding 20g of cotton fabric into 1L of water, adding sodium carbonate to adjust the pH value to 7.5, then heating to 70 ℃, and carrying out ultrasonic treatment at 50kHz for 30min to obtain pretreated cotton fabric;
(2) Impregnating the pretreated cotton fabric of step (1) with natural tea polyphenol extract powder and citric acid to give a cotton fabric having a weight ratio of 1: in the mixed finishing liquid with the mass ratio of 5, the concentration of the natural tea polyphenol extract in the finishing liquid is 5g/L, and the bath ratio of the cation modified cotton fabric to the finishing liquid is 1:40, a step of performing a; ultrasonic treatment is carried out for 30min under the ultrasonic condition of 60 ℃/40kHz, pre-baking is carried out for 15min at the temperature of 75 ℃, and baking is carried out for 3min at the temperature of 120 ℃ to obtain the cotton fabric.
Comparative example 2
Substantially as in example 2, except that in step (2), crosslinking was carried out without using a crosslinking agent:
(1) 3g of HACC was added to 1L of warm water, pH was adjusted to 8 by adding sodium carbonate and stirring was continued for 20min. Adding 20g of cotton fabric, then heating to 70 ℃, carrying out ultrasonic treatment at 40kHz frequency for 30min, washing with clear water, and drying in the shade to obtain cation modified cotton fabric;
(2) Immersing the cation modified cotton fabric in the step (1) in a natural chlorogenic acid extract solution of 6g/L, wherein the bath ratio of the cation modified cotton fabric to the natural chlorogenic acid extract solution is 1:30; ultrasonic treatment is carried out for 30min under the ultrasonic condition of 60 ℃/30kHz, pre-baking is carried out for 15min at the temperature of 75 ℃, and baking is carried out for 3min at the temperature of 130 ℃ to obtain the cotton fabric.
Comparative example 3
Substantially as in example 3, except that in step (2), no ultrasound-assisted technique was employed:
the full-biological cotton fabric and the dyeing and finishing method thereof specifically comprise the following steps:
(1) 5g of HACC was added to 1L of warm water, pH was adjusted to 8 by adding sodium carbonate and stirring was continued for 20min. Adding 20g of cotton fabric, then heating to 70 ℃, carrying out ultrasonic treatment at 60kHz frequency for 30min, washing with clear water, and drying in the shade to obtain cation modified cotton fabric;
(2) Immersing the cationically modified cotton fabric of step (1) in a natural tannic acid extract powder with citric acid to produce a composition of 1: in the mixed finishing liquid with the mass ratio of 4, the concentration of the natural tannic acid extract in the finishing liquid is 2g/L, and the bath ratio of the cationic modified cotton fabric to the finishing liquid is 1:50; oscillating in water bath at 60deg.C for 30min, pre-baking at 75deg.C for 15min, and baking at 120deg.C for 3min to obtain cotton fabric.
Test example 1
(1) Based on example 1, the degree of improvement of the adsorption performance of the natural tea polyphenol extract on the cotton fabric before and after the HACC cationization was evaluated by the adsorption amount on the fabric, and the results are shown in fig. 1.
As can be seen from FIG. 1, the adsorption rate of the lacquer on the surface of the unmodified cotton fabric is lower than 15%, and the adsorption amount is lower than 10mg/L. After HACC cationization modification, the adsorption capacity of the extract of the Chinese lacquer on cotton fabrics is improved by about 4 times, and the adsorption capacity of the extract of the Chinese lacquer is further improved along with the increase of the dosage of the extract of the Chinese lacquer.
The degree of improvement of adsorption efficiency by ultrasonic technology is calculated by nonlinear fitting of pseudo-quadratic kinetic equation (1) to adsorption amounts at different times 1/2 ) (formula 2) for evaluation, the calculation formula is as follows:
wherein t represents adsorption time(s), C t Represents the adsorption amount (mg/g) and k on the fiber per unit mass at time t 2 Representing the pseudo-secondary adsorption kinetic coefficient, C e Represents the saturated adsorption amount (mg/g).
The result shows that the adsorption efficiency can be improved by 20-40% by introducing the ultrasonic technology, the dyeing and finishing processing time is shortened, and the energy consumption is saved.
(2) Based on example 1, the color fastness of the unmodified cotton fabric, the cationically modified cotton fabric, and the anionically co-deposited crosslinked modified cotton fabric in the examples was tested.
Table 1 shows the relevant performance parameters of the final measured cotton fabric:
TABLE 1
(3) Based on example 1, the antibacterial performance and ultraviolet protection performance of cotton fabrics were tested, and the cotton fabrics were divided into 7 groups: 1 is an unmodified cotton fabric; 2 is cation modified cotton fabric; 3 is cotton fabric directly treated by 6g/L of the lacquer palace extract; 4-6 are respectively cation modified cotton fabrics treated by 2g/L, 6g/L, 10g/L of the extract of the Rhizoctonia cerealis and 5wt% of citric acid; 7 is a cotton fabric cationically modified and treated with 10g/L of the Rhus verniciflua extract and 5% by weight of citric acid and subjected to 5 repeated water washes, the results are shown in FIG. 2. As can be seen from FIG. 2, the E.coli inhibition rate of the unmodified cotton fabric was less than 5% (1), and the inhibition rate of the cotton fabric treated with HACC and the Rhizoctonia solani extract respectively was still less than 40% (2-3). The antibacterial property of the cotton fabric treated by 2g/L of the extract of the Rhizoctonia cerealis is higher than 60%, and the antibacterial property is further improved along with the increase of the dosage (4-6). The E.coli inhibition rate after 5 washes was still higher than 80% (7). Also, after the treatment of the extract of the Rhynchosia volubilis, the ultraviolet protection coefficient of the cotton fabric is obviously improved, the UPF of the cotton fabric treated by 10g/L of the extract of the Rhynchosia volubilis is more than 40, and the T (UVA) is higher than the UPF of the cotton fabric treated by the extract of the Rhynchosia volubilis AV Less than 5%, meets the ultraviolet protection requirement, and has an ultraviolet protection coefficient higher than 30 after 5 times of washing.
Test example 2
The cotton fabrics prepared in examples 1 to 5 and comparative examples 1 to 3 were tested for the extract adsorption rate, color fastness, antibacterial rate and ultraviolet protection coefficient.
Table 2 shows the relevant performance parameters of the final measured cotton fabric:
TABLE 2
As can be seen from the results of example 1 and comparative example 1 in table 2, the adsorption rate of tea polyphenol on cotton fabric which is not cationized by chitosan derivative is only 11%, because the hydroxyl group on tea polyphenol is partially ionized into anionic group, and electrostatic repulsive force exists between the anionic hydroxyl group on cellulose structure on cotton fiber, so that the electrostatic repulsive force between the tea polyphenol and the cotton fabric can be remarkably reduced after HACC is added to inhibit adsorption, and adsorption is promoted (as shown in fig. 3). From the results of example 2 and comparative example 2 in table 2, it can be seen that when no bio-based cross-linking agent is added, the dry and wet rubbing color fastness is medium or lower, and after the cross-linking agent is added for baking and cross-linking, the dry and wet rubbing color fastness is about grade 4, which indicates that citric acid is cross-linked with chlorogenic acid and hydroxyl groups on cotton fibers, and the fastness is remarkably improved. Example 4 and example 5 use different chitosan derivatives and natural polyphenols, and the obtained adsorption amount, color fastness and functional results are similar, which shows that the technical scheme has good repeatability and general reference significance. Comparative example 3 and example 3 are adsorption efficiencies, and the results are also shown in test example 1.
The invention combines the ion deposition crosslinking technology of the natural polyphenol extract with the ultrasonic auxiliary technology, solves the problems of low affinity, poor fastness and low efficiency and high energy consumption of the traditional dyeing and finishing technology of the polyphenol extract on cotton fabrics, provides a new thought for improving the antibacterial and ultraviolet protective performance of the cotton fabrics, and has extremely wide application prospect.
It is apparent that the above examples are given by way of illustration only and are not limiting of the embodiments. Other variations and modifications of the present invention will be apparent to those of ordinary skill in the art in light of the foregoing description. It is not necessary here nor is it exhaustive of all embodiments. And obvious variations or modifications thereof are contemplated as falling within the scope of the present invention.

Claims (7)

1. A dyeing and finishing method of an all-biological-based cotton fabric is characterized by comprising the following steps of,
(1) Soaking cotton fabric in a cationic modifier solution for heating and ultrasonic treatment, and reacting to obtain cationic modified cotton fabric; the cationic modifier is one or more of carboxymethyl chitosan, hydroxypropyl trimethyl ammonium chloride chitosan, N-trimethyl chitosan and chitosan oligosaccharide; the pH of the cationic modifier solution is 7.5-8.5; the concentration of the cationic modifier is 1-5g/L;
(2) Dissolving a natural polyphenol extract and a cross-linking agent in water to obtain a finishing liquid, and soaking the cation modified cotton fabric in the step (1) in the finishing liquid to perform heating, ultrasonic treatment, pre-baking and baking to obtain the all-biological-based cotton fabric; the natural polyphenol extract is one or more of tea polyphenol, chlorogenic acid, tannic acid and gallic acid; the cross-linking agent is citric acid and/or hydroxycitric acid; the concentration of the natural polyphenol extract in the finishing liquid is 1-10g/L; the mass ratio of the natural polyphenol extract to the cross-linking agent is 0.1-0.5:1.
2. the dyeing and finishing method of an all-bio-based cotton fabric according to claim 1, wherein in the step (1), the heating temperature is 65-75 ℃; the ultrasonic treatment is 40-60kHz treatment for 25-35min.
3. The method of dyeing and finishing an all bio-based cotton fabric according to claim 1, wherein in step (1), the bath ratio of the cotton fabric and the cationic modifier solution is 1:30-55.
4. The method of dyeing and finishing an all bio-based cotton fabric according to claim 1, wherein in step (2), the bath ratio of the cationically modified cotton fabric and finishing liquor is 1:30-55.
5. The dyeing and finishing method of an all-bio-based cotton fabric according to claim 1, wherein in the step (2), the heating temperature is 55-65 ℃; the ultrasonic treatment is 20-40kHz treatment for 25-35min.
6. The dyeing and finishing method of all-bio-based cotton fabric according to claim 1, wherein in the step (2), the pre-drying is a pre-drying at 70-80 ℃ for 12-18min; the baking is at 115-135deg.C for 2-4min.
7. An all-bio-based cotton fabric made by the method of any one of claims 1-6.
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