阅读说明：本技术 一种抗菌柳木编织品的加工工艺 (Processing technology of antibacterial willow woven product ) 是由 李明 李东猛 于 2021-10-21 设计创作，主要内容包括：本发明涉及一种抗菌柳木编织品的加工工艺,属于编织品加工技术领域,包括以下步骤：第一步、制备剥皮柳条；第二步、制备预处理柳条；第三步、将预处理柳条进行编织,得到柳木编织品；第四步、用氨水调节苯丙乳液的pH至8,将柳木编织品置于苯丙乳液中浸润3-5min,取出后晾至表干,再干燥,得到一种抗菌柳木编织品；首先对柳条进行剥皮处理,利用冷热交替处理剥皮柳条,降低柳条内部分子运动的动能,减少热胀冷缩带来柳条不稳定问题,提高力学性能得到预处理柳条；利用苯丙乳液对编织品进行涂覆,赋予编织品优异的抗菌性能和耐老化性能。(The invention relates to a processing technology of an antibacterial willow woven product, belonging to the technical field of woven product processing, and comprising the following steps: firstly, preparing peeled wickers; step two, preparing pretreated wickers; thirdly, weaving the pretreated wicker to obtain a wicker woven product; fourthly, adjusting the pH value of the styrene-acrylic emulsion to 8 by using ammonia water, soaking the willow woven product in the styrene-acrylic emulsion for 3-5min, taking out the willow woven product, drying the willow woven product to be surface dry, and drying the willow woven product to obtain an antibacterial willow woven product; firstly, peeling the wicker, and peeling the wicker by utilizing cold-hot alternative treatment, so that the kinetic energy of the movement of molecules in the wicker is reduced, the problem of instability of the wicker caused by expansion with heat and contraction with cold is reduced, and the mechanical property is improved to obtain the pretreated wicker; the styrene-acrylic emulsion is used for coating the woven product, so that the woven product has excellent antibacterial performance and ageing resistance.)

1. The processing technology of the antibacterial willow woven product is characterized by comprising the following steps:

firstly, weaving pretreated wickers to obtain wicker woven products;

secondly, adjusting the pH value of the styrene-acrylic emulsion to 8 by using ammonia water, soaking the willow woven product in the styrene-acrylic emulsion for 3-5min, taking out the willow woven product, drying the willow woven product to the surface, and drying the willow woven product to obtain an antibacterial willow woven product;

wherein, the styrene-acrylic emulsion is prepared by the following steps:

step 1, weighing raw materials;

step 2, mixing 1/2 mass sodium dodecyl sulfate and 1/2 mass deionized water, adding acrylic acid, butyl acrylate, styrene and functional monomers, and mixing for 1-2 hours to obtain a pre-emulsion;

and 3, adding the residual sodium dodecyl sulfate, the residual deionized water and sodium bicarbonate into a reaction kettle, heating to 80 ℃, adding the pre-emulsion with the mass of 1/10 and potassium persulfate, stirring for 20min, heating to 85 ℃, adding the residual pre-emulsion and the filling particles, carrying out heat preservation reaction for 2-3h, and cooling to 40 ℃ to obtain the styrene-acrylic emulsion.

2. The process of claim 1, wherein the pretreated wicker is obtained by the following steps:

heating peeled wicker in 70-75 deg.C oven for 30min, standing at 0-5 deg.C for 30min, repeating for 3-5 times, soaking in water for 5-10min, and drying in 55-60 deg.C oven for 2-4 hr to obtain pretreated wicker.

3. The process of claim 2, wherein the peeled wicker is prepared by the steps of:

peeling the wicker, drying in an oven at 55 ℃ for 2h, and polishing with wood sand paper of 240 meshes to obtain peeled wicker.

4. The processing technology of the antibacterial willow woven product according to claim 1, wherein the raw materials in the step 1 are as follows according to the weight part ratio:

1 part of acrylic acid, 20-30 parts of butyl acrylate, 20 parts of styrene, 5-7 parts of functional monomer, 1 part of filling particles, 1 part of sodium dodecyl sulfate, 0.5 part of potassium persulfate, 230-280 parts of deionized water and 1-2 parts of sodium bicarbonate.

5. The process for manufacturing antibacterial willow woven product according to claim 1, wherein the functional monomer is prepared by the following steps:

step S1, mixing ultraviolet absorbers UV-1300, N-dimethylethanolamine and N-octane, heating to 90-95 ℃, adding tetraisopropyl titanate, reacting for 3-4h, cooling to 60 ℃, adding deionized water, reacting for 20-30min, filtering, and concentrating the filtrate under reduced pressure to obtain an intermediate 1;

step S2, mixing the intermediate 1, p-aminobenzyl bromide and isopropanol, carrying out reflux reaction for 4-6h, carrying out reduced pressure distillation, and recrystallizing to obtain an intermediate 2;

and step S3, adjusting the pH value of isopropanol to 8.0 by using KOH, adding the intermediate 2 and glycidyl methacrylate, heating to 80 ℃, reacting for 2-4h under the condition of heat preservation, washing, extracting, and distilling under reduced pressure to obtain the functional monomer.

6. The process of claim 1, wherein the filler particles are prepared by the steps of:

step A1, calcining kieselguhr at 450 ℃ for 2h, placing the kieselguhr in a sulfuric acid solution with the mass fraction of 37%, performing ultrasonic treatment, filtering and drying to obtain acidified kieselguhr;

and step A2, adding acidified diatomite into a zinc nitrate solution for ultrasonic dispersion, adding a sodium carbonate solution, stirring for reaction for 1-2 hours, carrying out suction filtration, washing a filter cake, and sintering at 300 ℃ for 1 hour to obtain the filling particles.

7. The process of claim 6, wherein the amount ratio of the diatomite to the sulfuric acid solution in step A1 is 0.2 g: 40-50 mL.

8. The process of claim 6, wherein the amount of the acidified diatomite, the zinc nitrate solution and the sodium carbonate solution used in step A2 is 0.3-0.6 g: 35-40 mL: 5.6-7.7 mL.

Technical Field

The invention belongs to the technical field of woven product processing, and particularly relates to a processing technology of an antibacterial willow woven product.

Background

In recent years, wicker artware is more popular with consumers and widely applied to furniture, life and decoration, the existing common wicker raw materials are poplar, rattan, bamboo chips, wood and the like, and the raw materials are all natural wood fiber raw materials, so that the wicker artware woven from the raw materials is not strong in corrosion resistance and weather resistance, and is easy to rot, crack and break in daily use and storage, thereby affecting the quality and service life of use. In order to improve the problem, people coat a layer of paint on the surface of the wicker handicraft to enhance the protection effect, change the performance of the wicker handicraft and play a good role. However, with the increasing demand of people for products, the use quality of most of the existing paints is not satisfactory, and needs to be improved continuously. In addition, the existing method for processing the wicker artware is simple, cannot give full play to the use quality of paint, and needs continuous optimization and improvement.

Disclosure of Invention

The invention aims to provide a processing technology of an antibacterial willow woven product, which aims to solve the problems in the background technology.

The purpose of the invention can be realized by the following technical scheme:

a processing technology of an antibacterial willow woven product comprises the following steps:

firstly, peeling the wickers, drying the wickers in an oven at 55 ℃ for 2 hours, polishing the wickers by using 240-mesh woodwork abrasive paper after drying, and increasing the surface roughness of the wickers to obtain peeled wickers;

secondly, heating the peeled wicker in an oven at 70-75 ℃ for 30min, then placing the peeled wicker in an environment at 0-5 ℃ for 30min, repeating the heating and the heating for 3-5 times, soaking the peeled wicker in water for 5-10min, and then placing the peeled wicker in an oven at 55-60 ℃ for drying for 2-4h to obtain pretreated wicker;

the cold and hot alternate treatment is utilized to peel the wicker, so that the kinetic energy of the molecular motion in the wicker is reduced, the problem of instability of the wicker caused by expansion with heat and contraction with cold is reduced, and the mechanical property is improved;

thirdly, weaving the pretreated wicker to obtain a wicker woven product;

fourthly, adjusting the pH value of the styrene-acrylic emulsion to 8 by using ammonia water with the mass fraction of 25%, then soaking the willow woven product in the styrene-acrylic emulsion for 3-5min, taking out the willow woven product, airing the willow woven product to be surface dry, and then drying the willow woven product in an oven at the temperature of 60 ℃ for 2-4h to obtain the antibacterial willow woven product.

Further, the styrene-acrylic emulsion is prepared by the following steps:

step 1, preparing the following raw materials in parts by weight: 1 part of acrylic acid, 20-30 parts of butyl acrylate, 20 parts of styrene, 5-7 parts of functional monomer, 1 part of filling particles, 1 part of sodium dodecyl sulfate, 0.5 part of potassium persulfate, 230-280 parts of deionized water and 1-2 parts of sodium bicarbonate;

step 2, adding sodium dodecyl sulfate with the mass of 1/2 into deionized water with the mass of 1/2, uniformly mixing, adding acrylic acid, butyl acrylate, styrene and functional monomers, and mixing for 1-2 hours at the rotation speed of 100-;

and 3, adding the residual sodium dodecyl sulfate, the residual deionized water and sodium bicarbonate into a reaction kettle, heating to 80 ℃, adding the pre-emulsion with the mass of 1/10 and potassium persulfate, stirring for 20min, heating to 85 ℃, adding the residual pre-emulsion and the filling particles, after dropwise adding, keeping the temperature for reacting for 2-3h, and cooling to 40 ℃ to obtain the styrene-acrylic emulsion.

Further, the functional monomer is prepared by the following steps:

step S1, adding ultraviolet absorbers UV-1300, N-dimethylethanolamine and N-octane into a three-neck flask, uniformly stirring, heating to 90-95 ℃, adding tetraisopropyl titanate, reacting for 3-4h, cooling to 60 ℃, adding deionized water, reacting for 20-30min, filtering, and concentrating the filtrate under reduced pressure to obtain an intermediate 1;

wherein the dosage ratio of the ultraviolet absorbent UV-1300 to the N, N-dimethylethanolamine to the N-octane to the tetraisopropyl titanate is 0.04 mol: 0.05 mol: 50mL of: 0.3-0.45 g; under the action of a catalyst, carrying out ester exchange reaction on ultraviolet absorbent UV-1300 and N, N-dimethylethanolamine to obtain an intermediate 1;

step S2, sequentially adding the intermediate 1, p-aminobenzyl bromide and isopropanol into a three-neck flask, stirring and heating until reflux reaction is carried out for 4-6h, after the reaction is finished, carrying out reduced pressure distillation to remove the isopropanol, and then, adding the mixture into a reaction kettle, wherein the volume ratio of the isopropanol to ethyl acetate is 1: 1, recrystallizing for 3 times in the mixed solvent to obtain an intermediate 2;

wherein the dosage ratio of the intermediate 1, the p-aminobenzyl bromide and the isopropanol is 0.05 mol: 0.05-0.06 mol: 50-75mL, and carrying out quaternization reaction on the intermediate 1 and p-aminobenzyl bromide in isopropanol solution to obtain an intermediate 2 containing terminal amino;

step S3, adding isopropanol into a three-neck flask, adding KOH to adjust the pH value to 8.0, then adding an intermediate 2 and glycidyl methacrylate, heating to 80 ℃, carrying out heat preservation reaction for 2-4h under magnetic stirring, after the reaction is finished, adding deionized water for washing, extracting with ethyl acetate, and carrying out reduced pressure distillation to remove the ethyl acetate, thus obtaining a functional monomer;

wherein the dosage ratio of the isopropanol, the intermediate 2 and the glycidyl methacrylate is 80-100 mL: 0.05 mL: 0.05-0.06mL, and the functional monomer is obtained by the ring-opening reaction of the amino group of the intermediate 2 and the epoxy group of the glycidyl methacrylate.

Further, the filler particles are made by the steps of:

step A1, placing the diatomite in a muffle furnace to be calcined for 2 hours at 450 ℃, placing the calcined diatomite in a sulfuric acid solution with the mass fraction of 37%, performing ultrasonic treatment for 30min, then filtering, and drying a filter cake to obtain acidified diatomite;

step A2, adding acidified diatomite into a zinc nitrate solution with the mass fraction of 25%, ultrasonically dispersing for 30min, adding a sodium carbonate solution with the mass fraction of 30%, stirring and reacting for 1-2h under the condition of the rotation speed of 100-.

Further, the dosage ratio of the diatomite and the sulfuric acid solution in the step A1 is 0.2 g: 40-50 mL.

Further, the dosage ratio of the acidified diatomite, the zinc nitrate solution and the sodium carbonate solution in the step A2 is 0.3-0.6 g: 35-40 mL: 5.6-7.7 mL.

The invention has the beneficial effects that:

the method comprises the following steps of peeling the wicker, and peeling the wicker by using cold and hot alternative treatment, so that kinetic energy of molecular motion in the wicker is reduced, the problem of instability of the wicker caused by expansion with heat and contraction with cold is reduced, and the mechanical property of the wicker is improved; then weaving the treated wicker to obtain a woven product, placing the woven product in styrene-acrylic emulsion for soaking, taking out and drying to obtain an antibacterial willow woven product, wherein the invention is characterized in that an ultraviolet absorbent UV-1300, N-dimethylethanolamine is subjected to ester exchange reaction to obtain an intermediate 1, the intermediate 1 and p-aminobenzyl bromide are subjected to quaternization reaction in isopropanol solution to obtain an intermediate 2 containing terminal amino groups, and then the amino groups of the intermediate 2 and epoxy groups of glycidyl methacrylate are subjected to ring opening reaction to obtain a functional monomer, because the ultraviolet absorbent UV-1300 is a hydroxyphenyl benzotriazole ultraviolet absorbent, the gloss of a coating can be effectively protected, cracks and spots are avoided, but the ultraviolet absorbent is easy to migrate in the coating, the invention takes the ultraviolet absorbent UV-1300 as a substrate, the functional monomer is modified through a series of chemical reactions to obtain the functional monomer, the functional monomer contains a quaternary ammonium salt structure and unsaturated double bonds, has antibacterial performance and can participate in polymerization reaction, stably exists in a coating and persistently exerts ultraviolet absorption and antibacterial performance, and the styrene-acrylic emulsion is added with filling particles, wherein the filling particles are particles of acidified diatomite loaded with nano zinc oxide, the zinc oxide belongs to an N-type semiconductor, electrons on a valence band can accept energy in ultraviolet rays to generate transition, can absorb the ultraviolet rays and also has an antibacterial effect.

Detailed Description

The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

Example 1

This example prepares a styrene-acrylic emulsion by the following steps:

step 1, preparing the following raw materials in parts by weight: 1 part of acrylic acid, 20 parts of butyl acrylate, 20 parts of styrene, 5 parts of functional monomer, 1 part of filling particles, 1 part of sodium dodecyl sulfate, 0.5 part of potassium persulfate, 230 parts of deionized water and 1 part of sodium bicarbonate;

step 2, adding sodium dodecyl sulfate with the mass of 1/2 into deionized water with the mass of 1/2, uniformly mixing, adding acrylic acid, butyl acrylate, styrene and functional monomers, and mixing for 1h at the rotating speed of 100r/min to obtain a pre-emulsion;

and 3, adding the residual sodium dodecyl sulfate, the residual deionized water and sodium bicarbonate into a reaction kettle, heating to 80 ℃, adding the pre-emulsion with the mass of 1/10 and potassium persulfate, stirring for 20min, heating to 85 ℃, adding the residual pre-emulsion and the filling particles, after dropwise adding, keeping the temperature for reacting for 2h, and cooling to 40 ℃ to obtain the styrene-acrylic emulsion.

The filler particles are made by the steps of:

step A1, placing 0.2g of diatomite in a muffle furnace, calcining for 2h at 450 ℃, placing the calcined diatomite in 40mL of sulfuric acid solution with the mass fraction of 37%, performing ultrasonic treatment for 30min, then filtering, and drying a filter cake to obtain acidified diatomite;

and A2, adding 0.3g of acidified diatomite into 35mL of zinc nitrate solution with the mass fraction of 25%, ultrasonically dispersing for 30min, adding 5.6mL of sodium carbonate solution with the mass fraction of 30%, stirring at the rotating speed of 100r/min for reaction for 1h, after the reaction is finished, performing suction filtration, washing a filter cake with deionized water for 3 times, and sintering at the temperature of 300 ℃ for 1h to obtain the filling particles.

The functional monomer is prepared by the following steps:

step S1, adding 0.04mol of ultraviolet absorbent UV-1300, 0.05mol of N, N-dimethylethanolamine and 50mL of N-octane into a three-neck flask, uniformly stirring, heating to 90 ℃, adding 0.3g of tetraisopropyl titanate, reacting for 3 hours, cooling to 60 ℃, adding deionized water, reacting for 20 minutes, filtering, and concentrating the filtrate under reduced pressure to obtain an intermediate 1;

step S2, sequentially adding 0.05mol of intermediate 1, 0.05mol of p-aminobenzyl bromide and 50mL of isopropanol into a three-neck flask, stirring and heating until reflux reaction is carried out for 4h, removing the isopropanol through reduced pressure distillation after the reaction is finished, and then, after the volume ratio of the isopropanol to the ethyl acetate is 1: 1, recrystallizing for 3 times in the mixed solvent to obtain an intermediate 2;

step S3, adding 80mL of isopropanol into a three-neck flask, adding KOH to adjust the pH value to 8.0, then adding 0.05mL of intermediate 2 and 0.05mL of glycidyl methacrylate, heating to 80 ℃, carrying out heat preservation reaction for 2h under magnetic stirring, after the reaction is finished, adding deionized water to wash, extracting with ethyl acetate, and carrying out reduced pressure distillation to remove the ethyl acetate, thus obtaining the functional monomer.

Example 2

This example prepares a styrene-acrylic emulsion by the following steps:

step 1, preparing the following raw materials in parts by weight: 1 part of acrylic acid, 25 parts of butyl acrylate, 20 parts of styrene, 6 parts of functional monomer, 1 part of filling particles, 1 part of sodium dodecyl sulfate, 0.5 part of potassium persulfate, 250 parts of deionized water and 1.5 parts of sodium bicarbonate;

step 2, adding sodium dodecyl sulfate with the mass of 1/2 into deionized water with the mass of 1/2, uniformly mixing, adding acrylic acid, butyl acrylate, styrene and functional monomers, and mixing for 1.5 hours at the rotating speed of 150r/min to obtain a pre-emulsion;

and 3, adding the residual sodium dodecyl sulfate, the residual deionized water and sodium bicarbonate into a reaction kettle, heating to 80 ℃, adding the pre-emulsion with the mass of 1/10 and potassium persulfate, stirring for 20min, heating to 85 ℃, adding the residual pre-emulsion and the filling particles, after dropwise adding, keeping the temperature for reacting for 2.5h, and cooling to 40 ℃ to obtain the styrene-acrylic emulsion.

The filler particles are made by the steps of:

step A1, placing 0.2g of diatomite in a muffle furnace, calcining for 2h at 450 ℃, placing the calcined diatomite in 45mL of sulfuric acid solution with mass fraction of 37%, performing ultrasonic treatment for 30min, then filtering, and drying a filter cake to obtain acidified diatomite;

and A2, adding 0.4g of acidified diatomite into 38mL of zinc nitrate solution with the mass fraction of 25%, ultrasonically dispersing for 30min, adding 5.8mL of sodium carbonate solution with the mass fraction of 30%, stirring and reacting for 1.5h under the condition of the rotation speed of 150r/min, after the reaction is finished, performing suction filtration, washing a filter cake for 4 times by using deionized water, and sintering for 1h at 300 ℃ to obtain the filling particles.

The functional monomer is prepared by the following steps:

step S1, adding 0.04mol of ultraviolet absorbent UV-1300, 0.05mol of N, N-dimethylethanolamine and 50mL of N-octane into a three-neck flask, uniformly stirring, heating to 92 ℃, adding 0.35g of tetraisopropyl titanate, reacting for 3.5h, cooling to 60 ℃, adding deionized water, reacting for 25min, filtering, and concentrating the filtrate under reduced pressure to obtain an intermediate 1;

step S2, sequentially adding 0.05mol of intermediate 1, 0.055mol of p-aminobenzyl bromide and 58mL of isopropanol into a three-neck flask, stirring and heating until reflux reaction is carried out for 5h, removing the isopropanol through reduced pressure distillation after the reaction is finished, and then, after the volume ratio of the isopropanol to the ethyl acetate is 1: 1, recrystallizing for 3 times in the mixed solvent to obtain an intermediate 2;

step S3, adding 90mL of isopropanol into a three-neck flask, adding KOH to adjust the pH value to 8.0, then adding 0.05mL of intermediate 2 and 0.055mL of glycidyl methacrylate, heating to 80 ℃, carrying out heat preservation reaction for 3 hours under magnetic stirring, after the reaction is finished, adding deionized water to wash, extracting with ethyl acetate, and carrying out reduced pressure distillation to remove the ethyl acetate, thus obtaining the functional monomer.

Example 3

This example prepares a styrene-acrylic emulsion by the following steps:

step 1, preparing the following raw materials in parts by weight: 1 part of acrylic acid, 30 parts of butyl acrylate, 20 parts of styrene, 7 parts of functional monomer, 1 part of filling particles, 1 part of sodium dodecyl sulfate, 0.5 part of potassium persulfate, 280 parts of deionized water and 1-2 parts of sodium bicarbonate;

step 2, adding sodium dodecyl sulfate with the mass of 1/2 into deionized water with the mass of 1/2, uniformly mixing, adding acrylic acid, butyl acrylate, styrene and functional monomers, and mixing for 2 hours at the rotating speed of 200r/min to obtain a pre-emulsion;

and 3, adding the residual sodium dodecyl sulfate, the residual deionized water and sodium bicarbonate into a reaction kettle, heating to 80 ℃, adding the pre-emulsion with the mass of 1/10 and potassium persulfate, stirring for 20min, heating to 85 ℃, adding the residual pre-emulsion and the filling particles, after dropwise adding, keeping the temperature for reaction for 3h, and cooling to 40 ℃ to obtain the styrene-acrylic emulsion.

The filler particles are made by the steps of:

step A1, placing 0.2g of diatomite in a muffle furnace, calcining for 2h at 450 ℃, placing the calcined diatomite in 50mL of sulfuric acid solution with the mass fraction of 37%, performing ultrasonic treatment for 30min, then filtering, and drying a filter cake to obtain acidified diatomite;

step A2, adding 0.6g of acidified diatomite into 40mL of zinc nitrate solution with the mass fraction of 25%, ultrasonically dispersing for 30min, adding 7.7mL of sodium carbonate solution with the mass fraction of 30%, stirring at the rotation speed of 200r/min for reaction for 2h, after the reaction is finished, performing suction filtration, washing a filter cake with deionized water for 5 times, and sintering at 300 ℃ for 1h to obtain the filling particles.

The functional monomer is prepared by the following steps:

step S1, adding 0.04mol of ultraviolet absorbent UV-1300, 0.05mol of N, N-dimethylethanolamine and 50mL of N-octane into a three-neck flask, uniformly stirring, heating to 90-95 ℃, adding 0.45g of tetraisopropyl titanate, reacting for 4 hours, cooling to 60 ℃, adding deionized water, reacting for 30 minutes, filtering, and concentrating the filtrate under reduced pressure to obtain an intermediate 1;

step S2, sequentially adding 0.05mol of intermediate 1, 0.06mol of p-aminobenzyl bromide and 75mL of isopropanol into a three-neck flask, stirring and heating until reflux reaction is carried out for 6h, removing the isopropanol through reduced pressure distillation after the reaction is finished, and then, after the volume ratio of the isopropanol to the ethyl acetate is 1: 1, recrystallizing for 3 times in the mixed solvent to obtain an intermediate 2;

step S3, adding 100mL of isopropanol into a three-neck flask, adding KOH to adjust the pH value to 8.0, then adding 0.05mL of intermediate 2 and 0.06mL of glycidyl methacrylate, heating to 80 ℃, carrying out heat preservation reaction for 4 hours under magnetic stirring, after the reaction is finished, adding deionized water to wash, extracting with ethyl acetate, and carrying out reduced pressure distillation to remove the ethyl acetate, thus obtaining the functional monomer.

Comparative example 1

The filler particles in example 1 were removed and the remaining raw materials and preparation were unchanged.

Comparative example 2

The functional monomers in example 2 were removed, and the remaining raw materials and preparation process were unchanged.

Example 4

A processing technology of an antibacterial willow woven product comprises the following steps:

firstly, peeling the wickers, drying the wickers in an oven at 55 ℃ for 2 hours, polishing the wickers by using 240-mesh woodwork abrasive paper after drying, and increasing the surface roughness of the wickers to obtain peeled wickers;

secondly, heating the peeled wicker in a 70 ℃ oven for 30min, then placing the peeled wicker in a 0 ℃ environment for 30min, repeating the heating for 3 times, soaking the wicker in water for 5min, and placing the peeled wicker in a 55 ℃ oven for drying for 2-4h to obtain pretreated wicker;

thirdly, weaving the pretreated willow twigs into baskets to obtain willow woven products;

fourthly, adjusting the pH value of the styrene-acrylic emulsion in the embodiment 1 to 8 by using ammonia water with the mass fraction of 25%, then soaking the willow woven product in the styrene-acrylic emulsion for 3min, taking out the willow woven product, airing the willow woven product to be surface dry, and then drying the willow woven product in an oven at the temperature of 60 ℃ for 2h to obtain the antibacterial willow woven product.

Example 5

A processing technology of an antibacterial willow woven product comprises the following steps:

firstly, peeling the wickers, drying the wickers in an oven at 55 ℃ for 2 hours, polishing the wickers by using 240-mesh woodwork abrasive paper after drying, and increasing the surface roughness of the wickers to obtain peeled wickers;

secondly, placing the peeled wicker in a 72 ℃ oven for heating for 30min, then placing the peeled wicker in a 3 ℃ environment for 30min, repeating the heating and the heating for 4 times, soaking the peeled wicker in water for 8min, and placing the peeled wicker in a 58 ℃ oven for drying for 3h to obtain pretreated wicker;

thirdly, weaving the pretreated willow twigs into baskets to obtain willow woven products;

fourthly, adjusting the pH value of the styrene-acrylic emulsion in the embodiment 2 to 8 by using ammonia water with the mass fraction of 25%, then soaking the willow woven product in the styrene-acrylic emulsion for 4min, taking out the willow woven product, airing the willow woven product to be surface dry, and then drying the willow woven product in an oven at the temperature of 60 ℃ for 3h to obtain the antibacterial willow woven product.

Example 6

A processing technology of an antibacterial willow woven product comprises the following steps:

firstly, peeling the wickers, drying the wickers in an oven at 55 ℃ for 2 hours, polishing the wickers by using 240-mesh woodwork abrasive paper after drying, and increasing the surface roughness of the wickers to obtain peeled wickers;

secondly, placing the peeled wicker in a 75 ℃ oven for heating for 30min, then placing the peeled wicker in a 5 ℃ environment for 30min, repeating the heating and the heating for 5 times, soaking the peeled wicker in water for 10min, and placing the peeled wicker in a 60 ℃ oven for drying for 4h to obtain pretreated wicker;

thirdly, weaving the pretreated willow twigs into baskets to obtain willow woven products;

fourthly, adjusting the pH value of the styrene-acrylic emulsion in the embodiment 3 to 8 by using ammonia water with the mass fraction of 25%, then soaking the willow woven product in the styrene-acrylic emulsion for 4min, taking out the willow woven product, airing the willow woven product to be surface dry, and then drying the willow woven product in an oven at the temperature of 60 ℃ for 3h to obtain the antibacterial willow woven product.

Comparative example 3

The styrene-acrylic emulsion from example 4 was replaced by the styrene-acrylic emulsion from comparative example 1, and the remaining processing steps were unchanged.

Comparative example 4

The styrene-acrylic emulsion of example 5 was replaced by the styrene-acrylic emulsion of comparative example 2, the remaining processing steps remaining unchanged.

Comparative example 5

The styrene-acrylic emulsion in example 6 was replaced with a styrene-acrylic emulsion sold by Jingyi New materials, Inc., Guangzhou.

Comparative example 6

The comparative example is a wicker basket sold by Jining Beipo old elm furniture Co.

The wicker baskets of examples 4-6 and comparative examples 3-6 were subjected to a performance test, test

Water resistance: according to the test of the standard GB/T1733-1993, each group of test materials are soaked in water, and the phenomenon of bubbling and shedding is observed after 10 days;

adhesion force: tested according to standard GB/T9286-1998;

and (3) antibacterial property: according to the test of a standard HG/T3950-2007 antimicrobial paint, the test strain is escherichia coli;

aging resistance: naturally aging each group of test materials for half a year, then testing the brittleness of each group of test materials, selecting the same tester to extrude each group of test materials, and observing whether brittle fracture and breakage phenomena occur;

and (3) antibacterial durability: naturally aging each group of test materials for 3 months, and testing the bacteriostasis rate of the test materials;

the test results are shown in table 1:

TABLE 1

Item	Water resistance	Adhesion force	Bacteriostatic ratio (%)	Aging resistance	Bacteriostatic ratio after 3 months (%)
						Example 4	Without change	0	99.9	Without change	92.3
Example 5	Without change	0	99.9	Without change	92.1
						Example 6	Without change	0	99.9	Without change	91.8
Comparative example 3	Without change	0	91.9	Brittle fracture	84.5
						Comparative example 4	Without change	0	93.9	Brittle fracture	89.6
Comparative example 5	Foaming	1	57.6	Crushing	35.2
						Comparative example 6	Foaming	1	51.2	Crushing	31.9

As can be seen from Table 1, the willow woven products obtained by the processing technology of the examples 4 to 6 have better water resistance, bacterial inhibition and aging resistance compared with those obtained by the processing technology of the comparative examples 3 to 6.

In the description herein, references to the description of "one embodiment," "an example," "a specific example" or the like are intended to mean that a particular feature, structure, material, or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the invention. In this specification, the schematic representations of the terms used above do not necessarily refer to the same embodiment or example. Furthermore, the particular features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments or examples.

The foregoing is illustrative and explanatory only and is not intended to be exhaustive or to limit the invention to the precise embodiments described, and various modifications, additions, and substitutions may be made by those skilled in the art without departing from the scope of the invention or exceeding the scope of the claims.