KR100638675B1 - Silver-nanometer infrared rays transcription film and manufacturing process thereof - Google Patents

Abstract

TECHNICAL FIELD The present invention relates to a silver nano far-infrared transfer paper and a method for manufacturing the same, and more particularly, processed wood (hereinafter referred to as "MDF"), PS for finishing materials for building interiors, finishing materials for furniture, and the like. PP. In order to obtain the effect of emitting far infrared rays by incorporating silver nanoparticles into a transfer paper transferred to a transfer material of synthetic resin materials such as PVC, glass materials, metal materials, leather, paper, ceramics, etc. (hereinafter referred to as "transfer materials"). A silver nano far-infrared transfer paper and a manufacturing method thereof are provided.

A first feature of the present invention is a glossy or matte base film layer (1) made of polyester (PET), OPP, CPP, PP, or PE; A release agent layer (2) formed on the base film layer (1) to facilitate separation of the base film layer (1) when transferring to the transfer target, to obtain the efficacy of silver, and to be processed into nanoparticles; A top primer layer (3) containing silver processed on the release agent layer (2), resistant to solvent resistance, scratch resistance and water resistance, and processed into nanoparticles; A primer layer (4) formed on the top primer layer (3) to prevent separation from the pattern printing layer and containing silver processed into nanoparticles to obtain the efficacy of silver; A pattern printing layer (5) to print letters, symbols, patterns, shapes, etc. designed on the primer layer (4) and to obtain silver efficacy by containing silver processed into nanoparticles; An ink veda layer (6) formed on the pattern printing layer (5) to conceal the surface of the transfer object and contain silver processed into nanoparticles to obtain the efficacy of silver; The silver nano far-infrared transfer paper is formed on the ink bed layer 6 and consists of an adhesive layer 7 which can be adhered by a low heat temperature.

And a second feature is the first step (S1) of forming a glossy or matte base film layer (1) of polyester (PET), OPP, CPP, PP, or PE; The agent is formed on the base film layer (1) to facilitate the separation of the base film layer (1) when transferring to the transfer target, to obtain the efficacy of the silver and to form a release agent layer (2) containing silver processed into nanoparticles Two steps (S2); The third step (S3) to obtain the efficacy of the silver on the release agent layer (2) and to form a top primer layer (3) containing silver, which is resistant to solvent resistance, scratch resistance and water resistance and processed into nanoparticles; ; A fourth layer formed on the top primer layer 3 to prevent separation from the pattern printing layer and to form a primer layer 4 containing silver processed into nanoparticles to obtain the efficacy of silver; Step S4; The fifth step (S5) of forming a pattern printing layer (5) to print the letters, symbols, patterns, etc. designed on the primer layer (4) and to obtain the efficacy of the silver containing silver processed into nanoparticles (S5) )Wow; A sixth step (S6) formed on the pattern printing layer (5) to conceal the surface of the transfer object and to form an ink veda layer (6) containing silver processed into nanoparticles to obtain the efficacy of silver; And a seventh step (S7) of forming an adhesive layer 7 coated on the ink bed layer S6 and attachable by a low heat temperature.

The present invention as described above, first, the "silver nano far-infrared transfer paper" of the present invention by containing silver processed by nanoparticles in each layer laminated on the transfer paper, far infrared rays are released, antibacterial antifungal effect, insect repellent effect, strong bactericidal power, hormone in the human body The balance of the system, the electromagnetic wave blocking, the water wave blocking, far-infrared emission, toxic neutralization and deodorizing effect and the effect of silver (은) can be obtained.

Second, the "silver nano far-infrared transfer paper" of the present invention is resistant to scratches and solvent resistance, resistant to heat resistance to heat, resistant to moisture, and can be easily and satisfactorily transferred to the surface of the transfer object by low heat temperature.

Third, the "silver nano far-infrared transfer paper" of the present invention does not apply an adhesive such as a bond when transferring to a transfer object, and is directly transferred without spray coating treatment, which is eco-friendly, and improves the working environment, shortens the work process, reduces material cost, and works efficiency. And productivity can be obtained.

Fourth, the PVC material itself by transferring the print layer laminated on the base film layer 1 with a film made of polyester (PET), OPP, CPP, PP, or PE made of glossy or matte material as a material. Overcome limitations such as regulation.

Fifth, when the patterned print layer 5 laminated on the base film layer 1 is transferred onto the transfer body, various colors and designs are formed on all the transfer products such as architectural interior materials, furniture, home appliances, kitchen furniture or interiors. It has the effect of making you feel beauty, luxury and nature-friendly.

Sixth, the adhesive layer (7) laminated on the base film layer (1) is not harmful to the human body, it is natural, it is resistant to moisture and can be a good adhesion to the surface of the transfer object by low heat temperature.

Silver processed with base film layer, release agent layer, top primer layer, primer layer, pattern printing layer, ink bed layer, adhesive layer, nanoparticles

Description

Silver nano far infrared transcription paper and manufacturing method thereof {Silver-nanometer infrared rays transcription film and manufacturing process}

Figure 1 is an enlarged cross-sectional view showing the configuration of the "silver nano far infrared transfer paper" according to the present invention.

Figure 2 is an enlarged cross-sectional view of the "silver nano far-infrared transfer paper" transferred to the transfer target according to the present invention.

3 and 4 is a manufacturing process chart for the "silver nano far-infrared transfer paper" according to the present invention.

<Brief description of symbols for the main parts of the drawings>

1: base film layer 2: release agent layer

3: top primer layer 4: primer layer

5: pattern printing layer 6: ink cutting layer

7: adhesive layer S1: first step

S2: second step S3: third step

S4: Fourth Step S5: Fifth Step

S6: Sixth Step S7: Seventh Step

TECHNICAL FIELD The present invention relates to a silver nano far-infrared transfer paper and a method for manufacturing the same, and more particularly, processed wood (hereinafter referred to as "MDF"), PS for finishing materials for building interiors, finishing materials for furniture, and the like. PP. In order to obtain the effect of emitting far infrared rays by incorporating silver nanoparticles into a transfer paper transferred to a transfer material of synthetic resin materials such as PVC, glass materials, metal materials, leather, paper, ceramics, etc. (hereinafter referred to as "transfer materials"). A silver nano far-infrared transfer paper and a manufacturing method thereof are provided.

In the present invention, the term "silver nano" refers to an object in which silver (silver) is granulated to 1 billionth of a millimeter.

Silver is known to emit the most far-infrared rays among the current metals, and is a metal that has been closely related to poisoning since ancient times.

The far-infrared ray has a stronger heat action than visible light in the range of 3 ~ 1000㎛ of the wavelength range of light, and radiant energy is direct and instantaneous heat transfer, heating, energy saving effect is large, dry heating, heating, heat treatment, health products, food It is widely used for processing, building interior materials, living products and biological effects of animals and plants.

And silver has proved experimentally that metals can kill almost all single cell germs on the ground.

The absence of any bacteria that survives for more than six minutes in contact with silver dramatically represents its strong antibacterial function.

If a bacterium that is not killed by vaccines or chemicals encounters silver, it's no surprise that it dies quickly.

This phenomenon, which has not yet been elucidated by modern science, is most strongly accepted as a theory that silver acts as a catalyst to inhibit the action of enzymes that cause single cell germs to respiration and metabolize, and consequently halt the life activity of the germs. have.

In addition to killing germs in a metal state, when released into water in an ionized state (Ag +), it eliminates the reproductive function of bacteria in the water.

After all, it is scientific and justified that silver has antimicrobial functions that kill germs and prevent the growth of germs.

Therefore, silver is known to have antimicrobial antifungal effect, insect repellent effect, strong bactericidal power, balance of hormonal system in human body, electromagnetic wave blocking, water wave blocking, far infrared emission, toxic neutralization and deodorizing effect. Focusing on the efficacy of such silver, the field of application has been widely studied and put to practical use.

The present inventors have also focused on this point of silver and invented the transfer paper containing silver processed with nanoparticles in each layer composed of a base film made of polyester (PET), OPP, CPP, PP, or PE. In the case of transcription, far-infrared rays as described above are released, and the efficacy of silver can be obtained.

In addition, it does not apply a bond or adhesive to the transfer object, and is directly transferred without spray coating treatment, thereby being eco-friendly and improving the working environment, reducing the work process, reducing material cost, and increasing work efficiency and productivity.

Conventional transfer paper is generally known to cause harm to the human body, such as environmental hormone release or atopic disease caused by the printing layer or adhesive composed of PET itself.

In addition, conventionally, the transfer paper to be transferred to the transfer target is coated with a bond or an adhesive, and then transferred to the top coat again to spray the coating to induce atopic disease, environmental hormone release, air pollution, workplace environmental pollution, efficiency reduction, etc. I have a problem.

In addition, the existing transfer film prints the transfer paper on the film, and then forms a bond layer on the transfer object, thereby transferring the toxic substances harmful to the human body according to the bond layer as well as the print layer, and causing atopic disease and environmental hormone release. There was a problem.

Therefore, the present invention has been invented to solve the above problems, the object of the present invention contains silver processed by nanoparticles in a base film made of polyester (PET), OPP, CPP, PP, or PE Each layer containing silver nanoparticles is composed to release far infrared rays, as well as antibacterial, antifungal effect, insect repellent effect, strong bactericidal power, balance of hormone system in the human body, electromagnetic wave blocking, water wave blocking, toxic neutralization and deodorizing effect. The present invention provides a silver nano far-infrared transfer paper and a method of manufacturing the same to obtain the effect of silver.

As a first embodiment for achieving the object of the present invention, a glossy or matte base film layer made of polyester (PET), OPP, CPP, PP, or PE; A release agent layer containing silver which is formed on the base film layer to facilitate separation of the base film layer when transferring to a transfer object, obtains the effect of silver, and is processed into nanoparticles; A top primer layer containing silver processed on the release agent layer and resistant to solvent resistance, scratch resistance and water resistance and processed into nanoparticles; A primer layer formed on the top primer layer to prevent separation from the pattern printing layer and containing silver processed into nanoparticles to obtain the effect of silver; A pattern printing layer on which a letter, symbol, pattern, shape, etc. designed on the primer layer is printed and silver processed into nanoparticles is contained to obtain the effect of silver; An ink veda layer formed on the pattern printing layer to conceal the surface of the transfer object and contain silver processed into nanoparticles to obtain the efficacy of silver; The silver nano far infrared transfer paper is applied on the ink bed layer and made of an adhesive layer that can be bonded by a low heat temperature.

As a second embodiment for achieving the object of the present invention, a first step of forming a glossy or matte base film layer made of polyester (PET), OPP, CPP, PP, or PE; A second step of forming a release agent layer containing silver processed on the base film layer to facilitate separation of the base film layer, transfer of silver, and processed into nanoparticles upon transfer to a transfer target; A third step of obtaining a potency of silver on the release agent layer, forming a top primer layer containing silver processed into nanoparticles, resistant to solvent resistance, scratch resistance, and water resistance; A fourth step of forming a primer layer formed on the top primer layer to prevent separation from the pattern printing layer and containing silver processed into nanoparticles to obtain the efficacy of silver; A fifth step of forming a pattern printing layer in which letters, symbols, patterns, etc. designed on the primer layer are printed and silver processed into nanoparticles are contained to obtain the effect of silver; A sixth step of forming an ink veding layer formed on the pattern printing layer to conceal the surface of the transfer object and containing silver processed into nanoparticles to obtain the efficacy of silver; And a seventh step of forming an adhesive layer coated on the ink bed layer and capable of being adhered by a low heat temperature.

Hereinafter, described in detail with reference to the accompanying drawings shown as a preferred embodiment as follows.

First, an embodiment of the "silver nano far infrared transfer paper" according to the present invention will be described with reference to FIG.

As shown in FIG. 1, a base film layer 1 of a glossy or matte agent is formed.

The material of the base film layer 1 is preferably a film of polyester (PET), OPP, CPP, PP, or PE made of glossy or matte, and more preferably a film made of polyester (PET).

The base film layer 1 preferably has a thickness of 12 to 38 μm and has a function of a base layer.

On the upper surface of the base film layer (1) to facilitate the separation of the base film layer (1) when transferring to the transfer target, to obtain the efficacy of silver and to form a release agent layer (2) containing silver processed into nanoparticles.

The release agent layer (2) is made of a material mixed with silver of nanoparticles, an acrylic resin, and a surfactant.

The content of silver of the nanoparticles is preferably 1 to 5% by weight, 78 to 85% by weight of acrylic resin, and 12 to 18% by weight of surfactant.

And the thickness of the release agent layer (2) is preferably formed in 2 ~ 5㎛.

The top surface of the release agent layer 2 forms a top primer layer 3 containing silver, which is effective in solvent resistance, scratch resistance and water resistance, and which is processed into nanoparticles.

The Top Primer layer (3) is made of a material obtained with the effect of silver, resistant to scratch, solvent resistance and water resistance, and mixed with silver, urethane-based resin, surfactant, acrylic resin, and curing agent of nanoparticles. .

Silver content of the nanoparticles is 1 to 5% by weight, urethane-based resin is 60 to 70% by weight, surfactant is 10 to 20% by weight, acrylic resin is 15 to 25% by weight, the curing agent is 2 to 4% by weight It is preferable to.

Top primer layer (3) as described above has a strong effect on scratch resistance, solvent resistance and water resistance and emits far infrared rays to have the effect of silver.

The top surface of the top primer layer 3 prevents separation from the pattern printing layer and forms a primer layer 4 that contains silver processed with nanoparticles to obtain the efficacy of silver.

The primer layer 4 is made of a material containing an acrylic resin and a surfactant in a silver nanoparticle and a urethane-based resin resistant to heat.

The content of silver of the nanoparticles is preferably 2 to 5% by weight, 60 to 65% by weight of urethane resin, 15 to 22% by weight of acrylic resin, and 15 to 22% by weight of surfactant.

The primer layer 4 serves to print the pattern printing layer 5 and to prevent separation of the printing layer.

On the upper surface of the primer layer 4, letters, symbols, patterns, shapes, etc., which are designed, are printed, and silver processed by nanoparticles is contained to form a pattern printing layer 5 which can obtain the efficacy of silver.

The pattern printing layer 5 contains silver processed with nanoparticles in a pigment of heat-resistant light containing acrylic resin, urethane resin, methyl ethyl ketone (MEK) and toluene (To). Print forms.

The acrylic resin is 35 to 45% by weight, the urethane resin is 35 to 45% by weight, methyl ethyl ketone is 8 to 10% by weight, toluene is 8 to 10% by weight, silver (은) processed into nanoparticles is 2 to It is preferable to set it as 5 weight%.

The pattern printing layer 5 may express various colors and designs or various patterns, and the pattern printing layer 5 may be formed of a material made of a special resin and a pigment resistant to heat resistance. Effective against heat In addition, far infrared rays are emitted to obtain the efficacy of silver.

The upper surface of the pattern printing layer (5) to conceal the surface of the transfer target and contains the silver processed by nanoparticles to form an ink Veda layer (6) to obtain the efficacy of the silver.

The ink bed layer 6 is formed by printing silver nano-processed silver in an ink containing a urethane resin, an acrylic resin, a wax, methyl ethyl ketone (MEK), and toluene of heat-resistant light.

The urethane-based resin is 70 to 71% by weight, acrylic resin is 8 to 9% by weight, wax is 4 to 5% by weight, methyl ethyl ketone is 8 to 9% by weight, toluene is 8 to 9% by weight, processed into nanoparticles It is preferable to make silver into 1 to 2 weight%.

The ink bed layer 6 is made of a material made of a special resin and a pigment that is resistant to heat resistance of heat and is effective in heat resistance of heat, and far infrared rays are emitted to obtain the efficacy of silver.

The upper surface of the ink bed layer 6 is formed by applying an adhesive layer 7 which can be bonded by a low heat temperature.

The adhesive layer 6 includes urethane-based resins, hot melt resins, acrylic resins, waxes, methyl ethyl ketone (MEK) and toluene (Toluene; To), resistant to moisture, and 130 ° C. to 150 ° C. It is made of a material that can be bonded by low heat temperature, so that it can be easily fused when transferring to the surface of the transfer body, and it is not harmful to the human body and is environmentally friendly.

The urethane-based resin is 30 to 40% by weight, hot melt resin is 30 to 40% by weight, acrylic resin is 10 to 20% by weight, wax is 4 to 6% by weight, methyl ethyl ketone (MEK) is 4 to It is preferable to set it as 6 weight% and 4 to 6 weight% of toluene (To).

The "silver nano far-infrared transcription paper" of the present invention configured as described above is far-infrared radiation, antibacterial, anti-fungal effect, insect repellent effect, strong bactericidal power, maintaining the balance of hormone system in the human body, electromagnetic wave blocking, water vein wave blocking, toxic neutralization and deodorizing effect, etc. The benefits of silver can be obtained.

In addition, it is strong in scratch resistance and solvent resistance, resistant to light heat resistance (140 ° C. to 220 ° C.), resistant to moisture, and can be easily and satisfactorily transferred to the surface of the transfer object by low heat temperature (130 ° C. to 150 ° C.).

In addition, when transferring to the transfer object, the adhesive is not applied as a bond, but also directly transferred without spray coating treatment, which is eco-friendly, and improves the working environment, shortens working process, reduces material cost, increases work efficiency and productivity. It can be.

Referring to the embodiment to be transferred to the transfer object using the "silver nano far-infrared transfer paper" of the present invention as described above are as follows.

That is, the "silver nano far-infrared transfer paper" of the present invention is placed on the surface of the transfer material, in particular, synthetic resins such as PS, PVC, PP, MDF, as shown in Figure 2, and the temperature of 130 ℃ ~ 150 ℃ and 2 ~ 4 kg / ㎠ Complete the transfer to the transfer subject at a speed of 15-25M per minute under pressure.

As described above, when transferring to the transfer object as the "silver nano far-infrared transfer paper" of the present invention, it is not necessary to separately apply an adhesive such as a bond on the surface of the transfer object and also do not need a separate spray coating treatment after the transfer.

Therefore, it is not necessary to repaint and subdivide, to prevent waste of paint, to improve the work environment, to solve the problem of pollution caused by the volatility of solvent, to improve the cost and to improve productivity, and to produce high-quality transcription products.

In addition, the transfer layer of the base film layer 1 made of polyester (PET), OPP, CPP, PP, or PE and laminated on the transfer layer is transferred to the transfer member to limit the limitations of the PVC material itself. It can be overcome.

In particular, each layer transferred to the transfer target contains silver processed with nanoparticles to emit far-infrared rays as described above, antibacterial, antifungal effect, insect repellent effect, strong bactericidal power, balance of hormone system in the human body, electromagnetic wave The effect of silver can be obtained by blocking, blocking water waves, neutralizing toxic effects and deodorizing effect.

 And a strong effect on scratch resistance and solvent resistance.

As described above, the structural layer, which is formed by press-forming and transferring the "silver nano far-infrared transfer paper" of the present invention onto the transfer member, has an adhesive layer 70, an ink cutting layer 60, and a pattern printing layer on the transfer target (MDF) (M). 50), the primer layer 40, the top primer layer 30, the release agent layer 20 and the base film layer 10, and after the transfer is completed, the base film layer 10 is peeled off.

Next, an embodiment of the "manufacturing method of silver nano far infrared transfer paper" according to the present invention will be described with reference to Figs.

First step (S1)-A base film layer 1 of glossy or matt is formed.

The material of the base film layer 1 is preferably a film of polyester (PET), OPP, CPP, PP, or PE made of glossy or matte, more preferably a film made of polyester (PET) do.

The base film layer 1 preferably has a thickness of 12 to 38 μm and has a function of a base layer.

Second step (S2)-When the transfer to the transfer object on the upper surface of the base film layer (1) of the first step (S1) to facilitate the separation of the base film layer (1) containing silver processed into nanoparticles The release agent layer 2 is formed.

The release agent layer 2 may be formed by mixing silver nanoparticles with an acrylic resin and a surfactant, wherein the content of silver nanoparticles is 1 to 5% by weight, acrylic resin is 78 to 85% by weight, and the surfactant is It is preferable to set it as 12-18 weight%.

The mixed solution (release agent) mixed as described above is put into the stirrer (a) as shown in Figure 4 and rotated at 1400 ~ 1800rpm per minute and stirred for 5 to 10 minutes, buried in a copper plate depth (b) of 175 ~ 200 mesh (Mash) Together with the rubber roller (c) is applied to the upper surface of the base film layer (1) at a rate of 70 ~ 80M per minute to form a release agent layer (2).

The thickness of the mold release agent layer 2 is formed in 2-5 micrometers as mentioned above.

Third step (S3)-Top Primer containing silver processed on the release agent layer 2 of the second step (S2), resistant to solvent resistance, scratch resistance and water resistance, and processed into nanoparticles Form layer 3.

The top primer layer 3 is formed by mixing silver particles of urethane, urethane series resin, surfactant, acrylic resin, and curing agent, and the content of silver particles of the nanoparticle is 1 to 5% by weight, urethane. The series resin is 60 to 70% by weight, the surfactant is 10 to 20% by weight, the acrylic resin is 15 to 25% by weight, the curing agent is 2 to 4% by weight and put in the stirrer (a1) to rotate at 1400-1800 rpm per minute 5 After stirring for 10 minutes and buried in a copper plate depth (b1) of 150 mesh (Mash) and coated with a rubber roller (c1) on the upper surface of the base film layer (1) at a speed of 70 ~ 80M per minute ) Layer 3 is formed.

Top primer layer (3) as described above has a strong effect on scratch resistance, solvent resistance and water resistance and emits far infrared rays to have the effect of silver.

Fourth step S4-On the top primer layer 3 of the third step S3, a primer layer 4 containing silver processed with nanoparticles is prevented from being separated from the pattern printing layer. ).

The formation of the primer layer 4 may be performed by mixing an acrylic resin and a surfactant with silver of nanoparticles and a urethane-based resin resistant to heat, and the content of silver of the nanoparticles is 2 to 5% by weight, urethane 60 to 65% by weight of resin, 15 to 22% by weight of acrylic resin, 15 to 22% by weight of surfactant was mixed in the stirrer (a2) and stirred for 5 to 10 minutes at 1400 ~ 1800rpm rotation per minute and then 150 mesh ( Buried in the copper plate depth (b2) of Mash) and the rubber roller (c2) is applied on the top primer (Top Primer) layer (3) at a rate of 70 ~ 80M per minute to form a primer layer (4).

The primer layer 4 serves to print the pattern printing layer 5 and to prevent separation of the printing layer.

The fifth step (S5)-The letter, symbol, pattern, shape, etc. designed on the primer layer (4) of the fourth step (S4) is printed and silver processed into nanoparticles can be obtained to obtain the efficacy of the silver The printed pattern printing layer 5 is formed.

The pattern printing layer 5 may be formed by mixing silver processed with nanoparticles with a pigment of heat-resistant light containing acrylic resin, urethane resin, methyl ethyl ketone (MEK), and toluene (To). However, the acrylic resin is 35 to 45% by weight, the urethane-based resin is 35 to 45% by weight, methyl ethyl ketone is 8 to 10% by weight, toluene is 8 to 10% by weight, silver (銀) processed into nanoparticles is 2 to 5% by weight of the mixed solution in the ink container (f) and buried in a copper plate depth (b3) in which various designs or patterns are carved, and together with the rubber roller (c3) on the primer layer (4) 70 per minute The pattern printing layer 5 is formed by printing at a speed of ˜80M.

6th step (S6)-the ink layer (6) to conceal the surface of the transfer object on the pattern printing layer (5) of the fifth step (S5) and to obtain the efficacy of the silver containing silver processed into nanoparticles Form.

The ink bed layer 6 may be formed by mixing silver processed with nanoparticles in an ink containing a urethane-based resin, an acrylic resin, a wax, methyl ethyl ketone (MEK), and toluene of heat-resistant light, 70-71 wt% urethane resin, 8-9 wt% acrylic resin, 4-5 wt% wax, 8-9 wt% methylethylketone, 8-9 wt% toluene, processed with nanoparticles Silver was mixed at 1 to 2% by weight, mixed in a stirrer (a3) and stirred at 1400 to 1800 rpm per minute for 5 to 10 minutes, and then buried in a copper plate depth (b4) of 150 mesh (rubber roller) (c4). With the pattern printing layer 4 is repeatedly printed 3 to 4 times at a speed of 60 ~ 80M per minute to form an ink bed layer (5).

The ink bed layer 6 formed by repeatedly printing on the pattern printing layer 4 is formed to a thickness of 10 ~ 15㎛.

The ink bed layer 6 is made of a material made of a special resin and a pigment that is resistant to heat resistance of heat and is effective in heat resistance of heat, and far infrared rays are emitted to obtain the efficacy of silver.

Seventh step (S7)-The adhesive layer (7) that can be adhered by the low heat temperature is formed on the ink bed layer (6) of the sixth step (S6).

The adhesive layer 7 is formed of urethane resin, hot melt resin, acrylic resin, wax, methyl ethyl ketone (MEK), and toluene (Toluene; To), which is resistant to moisture and 130 ° C. to 150 ° C. It is coated with a material that can be bonded by a low heat temperature of ℃, the urethane-based resin 30 to 40% by weight, hot melt resin 30 to 40% by weight, acrylic resin 10 to 20% by weight, wax 4 to 6% by weight %, Methyl ethyl ketone (MEK) is mixed with 4 to 6% by weight and toluene (Toluene; To) 4 to 6% by weight into a stirrer (a4) and stirred for 10 to 15 minutes at 1400 ~ 1800rpm rotation per minute Then, it is buried in a copper plate depth (b5) of 150 mesh (Mash) and coated with a rubber roller (c5) on the ink bed layer 6 at a rate of 60 ~ 80M per minute to form an adhesive layer (7).

The adhesive layer 7 formed by applying on the ink bed 6 is formed to a thickness of 3 ~ 6㎛.

By the above method, "silver nano far infrared transfer paper" is manufactured.

As described above, the "silver nano far-infrared transcription paper" produced as described above emits far-infrared rays, and has antibacterial, anti-fungal effect, insect repellent effect, strong bactericidal power, balance of hormone system in the human body, electromagnetic wave blocking, water wave blocking, and toxic neutralization. And the efficacy of silver, such as deodorizing effect.

It is also resistant to scratch and solvent resistance, resistant to heat-resistant heat (140 ℃ ~ 220 ℃), resistant to moisture, and can be easily and easily transferred to the surface of the transfer target by low heat temperature (130 ℃ ~ 150 ℃). When transferring to the carcass, not only the adhesive such as the bond is applied, but also the direct transfer without spray coating treatment is environmentally friendly and can improve the working environment, shorten the work process, reduce material cost, increase work efficiency and productivity.

The present invention as described above can obtain the following effects.

First, the "silver nano far-infrared transcription paper" of the present invention is far infrared is released by containing silver processed by nanoparticles in each layer laminated on the transfer paper, antibacterial antifungal effect, insect repellent effect, strong sterilizing power, maintain the balance of the hormone system in the human body The effect of silver (전자), such as electromagnetic wave blocking, water wave blocking, far infrared emission, toxic neutralization and deodorizing effect can be obtained.

Second, the "silver nano far-infrared transfer paper" of the present invention is resistant to scratches and solvent resistance, resistant to heat resistance to heat, resistant to moisture, and can be easily and satisfactorily transferred to the surface of the transfer object by low heat temperature.

Third, the "silver nano far-infrared transfer paper" of the present invention does not apply an adhesive such as a bond when transferring to a transfer object, and is directly transferred without spray coating treatment, which is eco-friendly, and improves the working environment, shortens the work process, reduces material cost, and works efficiency. And productivity can be obtained.

Fourth, the PVC material itself by transferring the print layer laminated on the base film layer 1 with a film made of polyester (PET), OPP, CPP, PP, or PE made of glossy or matte material as a material. Overcome limitations such as regulation.

Fifth, when the patterned print layer 5 laminated on the base film layer 1 is transferred onto the transfer body, various colors and designs are formed on all the transfer products such as architectural interior materials, furniture, home appliances, kitchen furniture or interiors. It has the effect of making you feel beauty, luxury and nature-friendly.

Sixth, the adhesive layer (7) laminated on the base film layer (1) is not harmful to the human body, it is natural, it is resistant to moisture and can be a good adhesion to the surface of the transfer object by low heat temperature.

Claims (20)

A glossy or matt base film layer (1) made of polyester (PET), OPP, CPP, PP, or PE; A release agent layer (2) formed on the base film layer (1) to facilitate separation of the base film layer (1) when transferring to the transfer target, to obtain the efficacy of silver, and to be processed into nanoparticles; A top primer layer (3) containing silver processed on the release agent layer (2), resistant to solvent resistance, scratch resistance and water resistance, and processed into nanoparticles; A primer layer (4) formed on the top primer layer (3) to prevent separation from the pattern printing layer and containing silver processed into nanoparticles to obtain the efficacy of silver; A pattern printing layer (5) to print letters, symbols, patterns, shapes, etc. designed on the primer layer (4) and to obtain silver efficacy by containing silver processed into nanoparticles; An ink veda layer (6) formed on the pattern printing layer (5) to conceal the surface of the transfer object and contain silver processed into nanoparticles to obtain the efficacy of silver; Silver nano-infrared transfer paper, characterized in that made of an adhesive layer (7) is applied on the ink bed layer (6) and can be bonded by a low heat temperature. 2. The silver nano far-infrared transfer paper according to claim 1, wherein the release agent layer (2) is made of silver nanoparticles mixed with an acrylic resin and a surfactant. The silver nano-far infrared transfer paper according to claim 2, wherein the silver content of the nanoparticles is 1 to 5% by weight, the acrylic resin is 78 to 85% by weight, and the surfactant is 12 to 18% by weight. The top primer layer (3) according to claim 1, wherein the top primer layer (3) obtains the effect of silver and is resistant to scratch, solvent resistance and water resistance, and is composed of nanoparticles of silver, urethane resin, surfactant, Silver nano-infrared transfer paper, characterized in that the mixture is made of acrylic resin and a curing agent. The method of claim 4, wherein the silver content of the nanoparticles is 1 to 5% by weight, 60 to 70% by weight of the urethane-based resin, 10 to 20% by weight of the surfactant, 15 to 25% by weight of the acrylic resin, the curing agent 2 Silver nano-infrared transfer paper, characterized in that from 4% by weight. The silver nano far-infrared transfer paper according to claim 1, wherein the primer layer (4) is formed by mixing acrylic resin and a surfactant with silver made of nanoparticles and a urethane-based resin resistant to heat. According to claim 6, wherein the silver content of the nanoparticles is 2 to 5% by weight, urethane-based resin is 60 to 65% by weight, acrylic resin is 15 to 22% by weight, surfactant is 15 to 22% by weight Silver nano far-infrared transcription paper. The method of claim 1, wherein the pattern printing layer 5 is processed with nanoparticles in a pigment of heat-resistant light containing acrylic resin, urethane resin, methyl ethyl ketone (MEK), toluene (To) Silver nano-far infrared transfer paper, characterized in that made by mixing silver. According to claim 8, wherein the acrylic resin is 35 to 45% by weight, the urethane-based resin is 35 to 45% by weight, methyl ethyl ketone is 8 to 10% by weight, toluene is 8 to 10% by weight, silver nano-processed silver ( X) silver nano far infrared transfer paper, characterized in that 2 to 5% by weight. The ink bed layer (6) according to claim 1, wherein the ink bed layer (6) is a mixture of silver particles processed with nanoparticles in an ink containing a urethane resin, an acrylic resin, a wax, methyl ethyl ketone (MEK), and toluene. Silver nano-infrared transfer paper, characterized in that made by. The urethane-based resin is 70 to 71% by weight, acrylic resin is 8 to 9% by weight, wax is 4 to 5% by weight, methyl ethyl ketone is 8 to 9% by weight, toluene is 8 to 9% by weight Silver nano-far infrared transfer paper, characterized in that the processed silver nanoparticles 1 to 2% by weight. The method of claim 1, wherein the adhesive layer 7 is a silver nano, characterized in that a mixture of urethane resin, hot melt resin, acrylic resin, wax, methyl ethyl ketone (MEK) and toluene (To) Far Infrared Transfer Paper. The method of claim 12, wherein the urethane resin is 30 to 40% by weight, the hot melt resin is 30 to 40% by weight, the acrylic resin is 10 to 20% by weight, the wax is 4 to 6% by weight, methyl ethyl ketone (Methyl ethyl ketone; MEK) is 4 to 6% by weight and toluene (Toluene; To) 4 to 6% by weight of the silver nano far infrared transfer paper. A first step S1 of forming a glossy or matte base film layer 1 made of polyester (PET), OPP, CPP, PP, or PE; The agent is formed on the base film layer (1) to facilitate the separation of the base film layer (1) when transferring to the transfer target, to obtain the efficacy of the silver and to form a release agent layer (2) containing silver processed into nanoparticles Two steps (S2); A third step (S3) of obtaining a potency of silver on the release agent layer 2 and forming a top primer layer 3 containing silver processed into nanoparticles, resistant to solvent resistance, scratch resistance and water resistance; ; A fourth layer formed on the top primer layer 3 to prevent separation from the pattern printing layer and to form a primer layer 4 containing silver processed into nanoparticles to obtain the efficacy of silver; Step S4; The fifth step (S5) of forming a pattern printing layer (5) to print the letters, symbols, patterns, etc. designed on the primer layer (4) and to obtain the efficacy of the silver containing silver processed into nanoparticles (S5) )Wow; A sixth step (S6) formed on the pattern printing layer (5) to conceal the surface of the transfer object and to form an ink veda layer (6) containing silver processed into nanoparticles to obtain the efficacy of silver; And a seventh step (S7) of forming an adhesive layer (7) coated on the ink bed layer (S6) and capable of being bonded by a low heat temperature. 15. The method of claim 14, wherein the release agent layer (2) of the second step (S2) is formed of silver nanoparticles, acrylic resins and surfactants are mixed, the content of the silver nanoparticles is 1 to 5% by weight, acrylic 78 to 85% by weight of resin, 12 to 18% by weight of the surfactant, characterized in that the silver nano-infrared transfer paper manufacturing method. 15. The method of claim 14, wherein the forming of the top primer layer 3 in the third step (S3) is performed by mixing silver nanoparticles with urethane-based resins, surfactants, acrylic resins and curing agents. 1 to 5% by weight of silver, 60 to 70% by weight of urethane resin, 10 to 20% by weight of surfactant, 15 to 25% by weight of acrylic resin, and 2 to 4% by weight of curing agent. Silver nano-far infrared transfer paper manufacturing method to do. 15. The method of claim 14, wherein the forming of the primer layer 4 in the fourth step (S4) is performed by mixing acrylic resin and surfactant with silver nanoparticles and urethane-based resins resistant to heat. The content of silver is 2 to 5% by weight, 60 to 65% by weight of the urethane-based resin, 15 to 22% by weight of the acrylic resin, 15 to 22% by weight of the surfactant nano silver far infrared transfer paper manufacturing method. 15. The method of claim 14, wherein the pattern printing layer 5 is formed in the fifth step (S5) is a heat-resistant lumen containing acrylic resin, urethane resin, methyl ethyl ketone (MEK), toluene (To) The processed silver is mixed with a pigment of nanoparticles, wherein the acrylic resin is 35 to 45% by weight, the urethane resin is 35 to 45% by weight, methyl ethyl ketone is 8 to 10% by weight, toluene is 8 to 10% by weight Silver nano-processed silver nano-infrared transfer paper manufacturing method characterized in that the mixing in 2 to 5% by weight. 15. The method of claim 14, wherein the formation of the ink bed layer 6 in the sixth step (S6) is performed in an ink containing a urethane resin, an acrylic resin, a wax, methyl ethyl ketone (MEK), and toluene of heat-resistant light. Mixing silver processed with nanoparticles, the urethane-based resin is 70 to 71% by weight, acrylic resin is 8 to 9% by weight, wax is 4 to 5% by weight, methyl ethyl ketone is 8 to 9% by weight, toluene is 8 to 9% by weight, silver nano-processed silver (銀) is mixed with 1 to 2% by weight of the method for producing a silver nano-far infrared transfer paper. 15. The method of claim 14, wherein the adhesive layer (7) of the seventh step (S7) is formed of urethane resin, hot melt resin, acrylic resin, wax, methyl ethyl ketone (MEK) and toluene (To) Mixed, but the urethane-based resin 30 to 40% by weight, hot melt resin 30 to 40% by weight, acrylic resin 10 to 20% by weight, wax 4 to 6% by weight, methyl ethyl ketone (MEK) 4 to 6% by weight of silver and Toluene (Toluene; To) 4 to 6% by weight of the method for producing a silver nano-infrared transfer paper.

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