JP6231304B2 - Cosmetic tube container and manufacturing method thereof - Google Patents

Description

  The present invention relates to a cosmetic tube container having a high-precision printed layer, and in particular, prevents peeling between the printed layer and the outer layer resin, speeds up the printing process, and supports low-cost order production in small lots. The present invention relates to a possible cosmetic tube container.

Currently, cosmetic containers filled with high-grade cosmetics such as makeup agents, body powders, skin care agents, and hair care preparations are known.
Such a cosmetic container is differentiated from other general-purpose tube containers filled with toothpaste and the like in order to maintain and improve the brand image of the contents. For example, there are few surface unevenness | corrugations in the side seam part seen in a general purpose tube container. In cosmetic containers, it is known to remove surface irregularities in a side seam portion by forming a synthetic resin layer after side seam.
Further, printing in a cosmetic container is required to have a high-class feeling due to a metallic color and high-definition printing rather than printing a general-purpose tube container.
For example, it is known to perform printing on a side seam portion in order to create a high-class feeling as a cosmetic container. Conventional laminate tubes used for cosmetics, medicines, toothpastes and the like cannot print on the side seam portion formed on the body portion.
Furthermore, such cosmetic containers are short life cycle products and tend to be single delivery items. In other words, it is often a limited-time product, or a color or content flavor, etc., is a small series and a variety of planned products in one series. For this reason, the product sales period is short, and the product design is frequently changed by renewal.
As a cosmetic container filled with such high-grade cosmetics, a polyfoil tube is known. References relating to polyfoil tubes include Patent Reference 1 and Patent Reference 2.

Such a polyfoil tube is characterized in that the whole body of the tube including the side seam is covered with a synthetic resin after the raw fabric is side seam in a cylindrical shape. By coating the synthetic resin after the side seam, the seam of the overlapped portion in the side seam portion is not apparent, and the unevenness is reduced, so that the appearance is finished beautifully.
In addition, since the unevenness of the side seam portion is reduced, printing can be performed on the entire body including the side seam portion.
However, the printing on the body surface of the polyfoil tube is performed by using a curved surface printing machine one by one after cutting the raw material processed into a cylindrical shape after being coated with a synthetic resin. Currently. The curved surface printing press used here is a dry offset letterpress printing press, which is inferior in print reproducibility and beauty, and cannot be color-matched, so high-precision printing such as photographic printing is impossible. Met. Moreover, since curved surface printing is performed one by one on the outer periphery of the body of the tube, the printing process takes time, which has been one of the causes of reduced production efficiency. Furthermore, special equipment for curved surface printing is required, and the curved surface printing machine is very expensive, so that the total cost increases.

On the other hand, it is possible to directly perform offset printing, intaglio printing such as gravure printing, or screen printing on the original fabric before the original fabric is processed into a cylindrical shape. Further, if gravure printing or the like is used, high-precision printing becomes possible. Furthermore, if printing is performed after the side seam portions are aligned, it is possible in principle to print the entire surface. That is, the sleeve can be formed by a conventional method of manufacturing a laminated tube. For example, the claims of Patent Document 3 disclose an aspect in which a printed layer is formed in a step before the raw fabric is processed into a cylindrical shape. If the tube disclosed in Patent Document 3 is combined with the above-described printing method such as gravure printing, highly accurate printing is possible, and it is possible to produce a polyfoil tube having no side seam unevenness. Become.
However, as is clear from FIG. 2 in Patent Document 3 and the description thereof, gravure printing or the like is usually performed by back printing on the surface of the film layer. This is because gravure printing uses an intaglio, so printing pressure cannot be applied and it is affected by uneven thickness (± 30 μm) of the laminated original laminate (usually about 200 to 300 μm). This is because the gravure printing cannot be performed directly on the laminate layer because the omission occurs. In addition, the printed surface is protected, and when viewed from the outside, the film layer is present on the printed layer, so that the printed portion is glossy and the appearance is improved.

However, when back-printed gravure printing as described above is used for a polyfoil tube, a synthetic resin layer is formed after side seam, so a film layer (generally 10 to 50 μm) is formed on the printed layer. (Thickness) and a synthetic resin layer are formed at a minimum, which causes a problem that printing becomes dull. Further, since the film on which the back surface of the gravure printing is printed and the laminate layer serving as the original fabric are bonded together, it is necessary to deal with a wide width, and there is a problem that the production process of the tube container becomes complicated. That is, gravure printing is generally performed on a 1200 mm wide film. And if the original fabric used for the container body is 200 mm, it is necessary to arrange the printing of the container body about 5 to 6 surfaces in the width direction. In this case, before processing into a cylindrical shape, which is the next step, a step of cutting a film printed on the width of the body of one container is necessary.
On the other hand, when gravure printing is performed on the surface of the film or when surface printing is performed using relief printing, it is necessary to apply an overcoat varnish to the entire surface in order to protect the printing layer. In this case, when the raw fabric is processed into a cylindrical shape, it is necessary to overlap the portions coated with such an overcoat varnish and perform side seam. As a problem at this time, there was a problem that the adhesiveness of the portion where the overcoat varnish was applied was lowered. Therefore, when letterpress printing is used for the polyfoil tube, the side seam portion cannot be varnished. That is, it is actually impossible to print the front surface on the entire body including the side seam.

In view of the above problems, the inventor of the present application has studied front printing. As a result, the above-mentioned problem of the side seam has been attributed to the silicone material contained in the overcoat varnish.
It was also found that the production process of the tube container can be simplified by adopting a letterpress printing or non-impact printing method instead of gravure printing which requires wide printing and back printing on a film layer.
However, it has been found that the UV ink used for letterpress printing has a problem in that the adhesion strength with the synthetic resin forming the outer layer of the extrusion coating layer is weak. The inventor of the present invention has arrived at the present invention as a result of intensive studies on means for solving such problems.

On the other hand, according to the non-impact printing method, the surface roughness (Ra) can be adjusted by adjusting the size of the toner to be used, etc., and high-precision printing such as photographic printing is possible. Is also possible.
However, it has been found that it is technically difficult to print on the surface of an original fabric having a high surface roughness by a non-impact method. Therefore, the inventor of the present application devised to perform printing by a non-impact method after forming an anchor coat layer on the entire surface of the original fabric.
In this way, high-precision printing on the surface of the original fabric became possible, but a further problem occurred. That is, in the step of forming the coating layer on the outside of the printing layer, peeling was observed at portions where the lower anchor coat layer where the printing layer was not formed was exposed on the surface.

  In response to this problem, the inventor of the present application formed an anchor coat layer on the entire surface of the original fabric, and then completely covered the entire surface of the anchor coat layer with the printing layer. That is, even for transparent colors and white portions, the entire surface of the anchor coat layer is covered with a printing layer using toner of an appropriate color tone, and the portion where the anchor coat layer is exposed to the surface is completely eliminated. I made it.

JP 2004-59132 A JP 2011-178403 A Japanese Patent Publication No. 1-32109 Japanese Patent Application No. 54-79988

SUMMARY OF THE INVENTION An object of the present invention is to provide a cosmetic tube container that prevents delamination in the container body of the cosmetic tube and that can be printed with high accuracy and beauty.
Moreover, it aims at providing the tube container for cosmetics which can be printed on the whole surface of a tube trunk | drum including the side seam.
It is another object of the present invention to provide a method for manufacturing a cosmetic tube container that can increase the speed without complicating the printing process and can also be produced at a low cost by order-made production in a small lot by narrow width printing.

The present inventor has adopted the following configuration in order to solve the above problems.
(1) A printed layer is formed on the outer surface of a laminate layer in which a resin layer is laminated on both sides of a metal layer as a raw material in a body portion of a laminated tube container that is bonded by a side seam and processed into a cylindrical shape. A cosmetic tube container in which an extrusion coating layer is formed by coating the entire surface in the outer direction of the printing layer with a transparent or translucent molten resin.
(2) The cosmetic described in (1) above, wherein the printing layer is formed by letterpress printing, and a primer that does not contain a silicon-based material is applied to the entire outer surface of the printing layer. Tube container.

(3) The above (1), wherein an anchor coat layer is formed on the entire outer surface of the laminate layer, and a printed layer is formed on the outer surface of the anchor coat layer by a non-impact method. It is a tube container for cosmetics described in the above.
(4) The cosmetic tube container according to any one of claims 1 to 3, wherein a colored resin is blended in the extrusion coat.
(5) A roll-shaped original fabric is formed by winding up a surface of a long laminate layer in which a resin layer is laminated on both sides of the metal layer, and then winding the roll-shaped original fabric. Feeding out, overlapping both sides in the short direction to form an overlapped part, bonding the overlapped part with a side seam to process the raw material into a cylindrical shape, and then processing a transparent or translucent molten resin into a cylindrical shape A method for producing a cosmetic tube container, comprising: forming an extruded coating layer by coating the entire surface of the original film, and then sequentially cutting the original film into a length of a body portion of the tube container. is there.

(6) The method for producing a cosmetic tube container according to (5), wherein the printing layer is formed by letterpress printing.
(7) An anchor coat layer is formed on the entire surface of the long laminate layer, and a printed layer is formed on the surface of the anchor coat layer by a non-impact method. This is a method for manufacturing a cosmetic tube container.

The present invention has an effect of providing a cosmetic tube container capable of preventing delamination in the container body of the cosmetic tube and capable of high-precision and beautiful printing.
In addition, a cosmetic tube container capable of printing on the entire surface of the tube body including the side seam is provided.
Furthermore, the present invention provides a method for manufacturing a cosmetic tube container that can increase the speed without complicating the printing process, and can also be produced at a low cost by a narrow-width printing for a small-lot order production.

It is sectional drawing which shows the layer structure of the container trunk | drum in Embodiment 1 of the tube container for cosmetics which concerns on this invention. It is sectional drawing which shows the layer structure of the container trunk | drum in Embodiment 2 of the tube container for cosmetics which concerns on this invention. Container body of the tube container for cosmetics according to the present invention used in the resin adhesion strength test according to Example 1 Container body of the tube container for cosmetics according to the present invention used in the resin adhesion strength test according to Example 2 Container body of the tube container for cosmetics according to the present invention used in the resin adhesion strength test according to Example 3

Hereinafter, embodiments of the cosmetic tube container according to the present invention will be described with reference to FIGS. 1 and 2. The following description is merely an example and does not limit the present invention.
Embodiment 1
As shown in FIG. 1, a cosmetic tube container 10 according to the present invention has a resin layer laminated on both sides of a metal layer, which is a raw fabric, in a body portion of a laminated tube container bonded by a side seam and processed into a cylindrical shape. A feature is that the printed layer 13 is formed on the entire surface of the laminated layer 11 in the outer direction.
Here, a laminate material having a metal foil is used for the laminate layer 11 used in the present invention in view of weather resistance, chemical resistance, and the like. Specific examples of such a laminate material include PE / colored PE / PET / EMAA / Al / EMAA / coextruded sheet biaxially stretched (PE / Ny / EVOH / Ny / PE) / PE from the outermost layer side. Used. In addition, PE / colored PE / PE / PET / PE / EAA / Al / EAA / PE may also be mentioned from the outermost layer side. Any laminate material may be used as long as it is a material capable of laminating a metal foil and forming a printed layer in the outer direction.

The printing layer 13 used in the present invention is preferably formed by relief printing. The letterpress printing includes LTP printing, letterpress printing, flexographic printing, and the like, but LTP printing is particularly preferable from the viewpoint of ease of handling and reduction in manufacturing cost.
In the cosmetic tube container 10 according to the present invention, the extrusion coat layer 15 is formed in which the entire surface in the outer direction of the printing layer is covered with a transparent or translucent molten resin.
Here, the material for forming the extrusion coating layer 15 used in the present invention is polyethylene resin (PE), polystyrene resin (PS), polyvinyl chloride resin (PVC), polypropylene resin (PP), acrylonitrile styrene resin (AS), Examples thereof include polyethylene terephthalate resin (PET) and polymethyl methacrylic resin (PMMA). In particular, from the viewpoint of processability and permeability, a polyethylene resin is particularly preferable. Furthermore, as a material for forming the extrusion coating layer 15, a translucent molten resin or a molten resin colored in a pearl tone or the like in advance by dispersing and blending a translucent molten resin or a colored pellet resin instead of the transparent molten resin. It is also possible to create a unique decorative effect.

By adopting such a configuration, compared with a conventional back-printed polyfoil tube, the dullness of the printed layer is eliminated, and the cosmetic tube container 10 having a high-definition printed layer is provided.
In the cosmetic tube container 10 according to the present invention, the printing layer 13 can be formed by letterpress printing. The letterpress printing includes LTP printing, letterpress printing, flexographic printing, and the like, but LTP printing is particularly preferable from the viewpoint of ease of handling and reduction in manufacturing cost.
When employing such LTP printing, the surface of the laminate layer 11 on which the print layer 13 is formed is subjected to corona treatment to facilitate the formation of the print layer 13. Further, printing is performed by applying UV curable ink, and the printing layer 13 is formed by curing by UV irradiation.
Moreover, when the printing layer 13 of this invention is formed by the said relief printing, it is preferable to apply | coat the primer 14 which does not contain a silicone type material to the whole surface of the outer side of the printing layer 13. FIG. Conventionally, since back side printing was used, there was no problem with the adhesion between the extrusion coating layer 15 and the film, but when using relief printing, the printing layer 13 and the extrusion coating layer 15 directly contacted, Peeling occurred without sufficient adhesive strength. Therefore, by applying a primer 14 not containing a silicone material that does not inhibit the side seam to the entire surface, the problem of the adhesive strength with the extrusion coating layer laminated in the outer direction can be solved and the entire surface printing can be performed. Since the primer 14 can be applied with a thickness of 0.5 to 1.0 μm, it is possible to solve the problem that the printing by the film layer (10 to 50 μm thickness) in the conventional gravure printing becomes dull.

  Here, examples of the primer 14 include organic titanium-based, isocyanate-based, polyethyleneimine-based and the like, and more specifically, vinyl chloride-acrylic primer, vinyl chloride-acrylic primer, sapphire coat, and the like. The primer is not limited to the above examples as long as it does not contain silicone used as an adhesion promoter, and any material can be used. When such a primer 14 was used, there was no problem of adhesiveness in the side seam. Therefore, it is possible to print the entire surface of the container body including the side seam portion.

Embodiment 2
As shown in FIG. 2, the cosmetic tube container 12 according to the present invention has an anchor coat layer 16 formed on the entire outer surface of the laminate layer 11 and non-impact on the entire outer surface of the anchor coat layer 16. The printing layer 17 is formed by a method.
Examples of the non-impact printing method include an inkjet method, an electrophotographic method using a copying machine and a toner printer, and a thermal transfer method using a sublimation type and a melt type thermal transfer machine. In particular, an electrophotographic system that can adhere to the surface with heat or ultraviolet light (UV curable ink) and form a thin and uniform printed layer 17 is preferable.
By adopting such an electrophotographic system, higher-definition printing can be formed. Further, it is possible to print on the entire surface of the tube body including the side seam. In addition to speeding up the printing process, it is possible to respond to order production in a small lot at a low cost.

When the non-impact method is adopted, since it is difficult to print directly on the laminate layer 11, it is preferable to laminate the anchor coat layer 16 on the entire surface in the outer direction of the laminate layer 11.
The formation of the printing layer 17 by the non-impact method used in the present invention is characterized in that the anchor coat layer 16 is completely covered with the printing layer. In general non-impact printing, since toner or the like is attached only to the colored portion, the anchor coat layer 16 appears on the surface of the non-colored portion. When the cosmetic tube container is manufactured in such a state, peeling occurs between the extrusion coating layer 18 and the printing layer 17.
Therefore, in the present invention, after the anchor coat layer 16 is formed on the entire surface of the original fabric, the anchor coat layer 16 is also used for the transparent color and white portion of the anchor coat layer 16 using a toner having an appropriate color tone. This is characterized in that the entire surface is covered with a printing layer, and the portion where the anchor coat layer 16 protrudes from the surface is completely eliminated.
Here, as the material for forming the anchor coat layer 16, organic titanium-based, isocyanate-based, polyethyleneimine-based, etc., more specifically, vinyl chloride-acrylic material, vinyl chloride-acrylic material, silicone-based material And a sapphire coat.

Embodiment 3
Next, the manufacturing method of the tube container for cosmetics which concerns on this invention is demonstrated below.
The cosmetic tube container according to the present invention first forms a long laminate layer in which resin layers are laminated on both surfaces of a metal layer. Here, the metal layer is preferably formed of an aluminum foil from the viewpoints of gas barrier properties, chemical resistance, and the like. The resin layers laminated on both sides of the metal layer include polyethylene resin (PE), ionomer resin (IO), polyvinyl chloride resin (PVC), polyvinylidene chloride resin (PVDC), polyvinyl alcohol resin (PVA), polypropylene. Resin (PP), thermoplastic polyester resin (PET), polycarbonate resin (PC), polystyrene resin (PS), polyacrylonitrile resin (PAN), ethylene vinyl acetate copolymer resin (EVA), ethylene-vinyl alcohol copolymer Resin (EVOH), ethylene-methacrylic acid copolymer resin (EMAA), 6 nylon (Ny), polyamide resin (PA), etc. are mentioned. Of course, other resins may be used as long as they can be used as a raw material for the tube container for cosmetics. Two or more of the above resins may be laminated.
For example, PE / colored PE / PET / EMAA / Al / EMAA / (PE / Ny / EVOH / Ny / PE) / PE, PE / colored PE / PE / PET / PE / EAA / Al / EAA / PE, etc. It is mentioned as a laminate material used in the invention.

Next, a printing layer is formed on one side of the long laminate layer. Here, the printing layer is formed on the entire outer side of the laminate layer. At this time, it is preferable to form a printed layer on the anchor coat layer. Here, examples of the anchor coat agent for forming the anchor coat layer include a salt vinegar-acrylic material, a salt vinegar-acrylic material, a silicone material, and a sapphire coat. Of course, other anchor coating agents may be used as long as they are suitable for forming a printed layer.
Next, a printed layer printed by the non-impact method is formed on the entire surface of the anchor coat layer. Here, the non-impact method refers to a printing method using a printing plate and an image forming method other than the dot impact method. For example, an inkjet method, an electrophotographic method, a thermal transfer method, and the like can be given. By printing with these methods, it is possible to print without using a plate as in gravure printing, which speeds up the printing process and enables low-cost support for order production in small lots. It becomes. Moreover, what is called a back printing process which forms a printing layer at the time of lamination sheet preparation currently disclosed by patent document 4 can be skipped. In such a back printing process, since the plate is also expensive, it is difficult to respond to order production in a small lot at a low cost. Furthermore, photographic printing, which was difficult with the dot impact method such as the ink ribbon method, is also possible, and the body of the cosmetic tube container can be finished more beautifully than before.

Among the non-impact methods, the electrophotographic method is most preferable. This is because by using the electrophotographic method, a high-precision image can be printed at a high speed and the quick drying property is excellent.
At this time, the printing by the non-impact method needs to completely print the entire surface of the anchor coat layer. In the electrophotographic method, printing may be performed without using toner on transparent colors and white areas, but even on transparent and white areas, printing may be performed on the whole using toners of appropriate colors. Apply. By eliminating the contact portion between the anchor coat layer and the coating layer formed in the next step, the problem of peeling between the coating layer and the printing layer is eliminated. After the above process, the printed layer is formed by curing by hot air drying.

By the above-mentioned process, the long original fabric in which the printing layer is formed on the anchor coat layer of the original fabric is wound into a roll shape. Thereafter, the roll-shaped raw material is sequentially fed out, and both ends in the lateral direction are overlapped to form an overlapped portion, and the overlapped portion is bonded by a side seam to process the original fabric into a cylindrical shape. In this way, a pipe-shaped member is completed.
Here, in the case of printing by the non-impact method, a special overcoat varnish that protects the printing layer is unnecessary, so that the problem of adhesiveness in the side seam can be solved. Therefore, it is possible to print on the entire surface of the tube body.

Next, an extrusion coating layer is formed by uniformly applying a transparent or translucent molten resin over the entire surface of the pipe-shaped member. The molten resin is applied by passing through the center of an annular circular die having an inner diameter slightly larger than the diameter of the pipe-shaped member. On the inner surface of such a circular die, an outlet for the molten resin is provided, and when the pipe-shaped member passes through the center of the annular circular die, the molten resin that is uniformly transparent or translucent flows out, The entire surface of the pipe-shaped member can be coated with the molten resin. By covering the entire surface of the pipe-shaped member uniformly with the molten resin in this way, it is possible to obtain a smooth surface by making the unevenness of the side seam portion uniform.
Here, examples of the molten resin include PE, PS, PVC, PP, AS, PET, and PMMA.

  Next, the pipe-shaped member on which the extrusion coat layer is formed is sequentially cut to the length of the body portion of the tube container. Thereafter, the shoulder of the tube container is attached to the cut body by injection molding or compression molding, and the cap is screwed to complete the cosmetic tube container. Of course, a material other than those exemplified above may be used as long as it can form a transparent or translucent extrusion coating layer and is suitable for protecting the printed layer in the tube container body.

Examples for explaining the effects of the cosmetic tube container according to the present invention will be described below. The following examples are the results of measuring the resin adhesion strength between the printed layer and the extrusion coat layer in the container body of the cosmetic tube container according to the present invention.
Example 1
A core material in which EMAA is laminated on both sides of an aluminum foil is prepared, PE / colored PE / PE is laminated on the core material, and PE / coextruded sheet is biaxially stretched on the inside. (PE / Ny / EVOH / Ny / PE) and PE were laminated | stacked and the roll-shaped elongate original fabric was manufactured.
Since the outermost PE layer is inactive, an anchor coat layer was formed using a sapphire coating agent.
Next, a printing layer was formed on the entire surface of the anchor coat layer using an electrophotographic method. The printing machine used in Example 1 is an HP Indigo WS6000 Digital Press (manufactured by Hured Packard). The liquid pattern shown in FIG. 3 was printed using liquid toner as ink. Here, as shown in FIG. 3, the fruit pattern has a vertically white portion near the right end, and this portion is also printed using white toner. Reference numeral 1 is the darkest part, reference numeral 2 is a yellowish green tone, reference numeral 3 is a yellow tone, and reference numeral 4 is a yellow-red tone.

Next, the long original fabric on which the printing layer was formed was wound into a roll. Thereafter, the roll-shaped raw material was successively fed out, and the raw material was processed into a cylindrical shape with both ends in the short direction being overlapped and bonded with side seams. In this way, a pipe-shaped member was manufactured.
Next, the pipe-shaped member is sequentially sent to the center of an annular circular die having an inner diameter slightly larger than the diameter of the pipe-shaped member, and a transparent polyethylene resin is caused to flow out from the outlet formed inside the circular die, and then extruded. A coat layer was formed. After drying the extrusion coat layer, the side seam portion was cut to obtain a test object as shown in FIG.

Example 2
A long original fabric having an anchor coat layer formed thereon was produced in the same manner as in Example 1, and the floral pattern shown in FIG. 4 was printed on the surface using the printing machine used in Example 1. Here, as shown in FIG. 3, the floral pattern is generally white in color, and the upper (reference 5) is printed with almost white toner only, and the lower (reference 6) is printed in pink. Yes.

Example 3
A long original fabric having an anchor coat layer formed thereon was produced in the same manner as in Example 1, and the girl pattern shown in FIG. 5 was printed on the surface using the printing machine used in Example 1. Here, the upper part (symbol 7) shown in FIG. 3 is printed with almost white toner only, and the girl pattern 8 is printed with a variety of color tones such as 8 for skin tone and 9 for yellow-purple.

With respect to the three types of test objects manufactured as described above, the adhesion strength of the resin between the extrusion coating layer and the printing layer was measured. This measurement is performed by cutting the barrel of the specimen formed in a cylindrical shape and cutting it to a width of 15 mm, making a cut from the inner layer, peeling the layers between the printed layer and the extrusion coating layer, and then removing the peeled ends from the autograph test device. It was carried out by measuring the adhesion strength when it was sandwiched and pulled at a speed of 300 mm / min. The measurement results of the adhesion strength are shown below.

Since the resin adhesion strength between the anchor coat layer and the extrusion coat layer is considered to be “0”, as shown in Table 1, delamination occurs in the container body for the cosmetic tube container according to the present invention. It was proved difficult.
In addition, it was proved that high-precision photo printing was possible on the container body for the tube container for cosmetics.
Furthermore, it has been demonstrated that it is possible to print on the entire surface of the tube barrel, including on the side seams.
In the above experiment, by using the method for manufacturing a tube container for cosmetics according to the present invention, it has been demonstrated that the printing process can be speeded up and that it is possible to respond to order production in a small lot at a low cost. .

10, 12 Tube container for cosmetics 11 Laminate layer 13, 17 Print layer 14 Primer 15, 18 Extrusion coat layer 16 Anchor coat layer

Claims (5)

In the body of a laminated tube container that is bonded by a side seam and processed into a cylindrical shape, a printing layer by letterpress printing is formed on the outer surface of the laminate layer in which resin layers are laminated on both sides of the original metal layer. A primer layer that does not contain a silicone-based material is applied to the entire surface in the outer direction of the printed layer, and an extruded coat layer in which the entire surface in the outer direction of the primer layer is coated with a transparent or translucent molten resin is formed. A cosmetic tube container. A laminate layer in which a resin layer is laminated on both sides of a metal layer that is a raw fabric is formed on the body of a laminated tube container that is bonded by a side seam and processed into a cylindrical shape, and is formed on the entire outer surface of the laminate layer. An anchor coat layer is formed , a printed layer is formed on the entire surface including a transparent or white printed portion on the outer surface of the anchor coat layer by a non-impact method , and the entire outer surface of the printed layer is further transparent. Or the cosmetics tube container in which the extrusion coat layer coat | covered with the translucent molten resin is formed . The cosmetic tube container according to claim 1, wherein a colored resin is blended in the extrusion coating layer. After forming a printing layer on the surface of the long laminate layer with the resin layer laminated on both sides of the metal layer using letterpress printing, a primer that does not contain a silicone material is applied to the entire surface in the outer direction of the printing layer. After winding the coated material into a roll-shaped original fabric, the roll-shaped original fabric is fed out in order, and the overlapping portions are formed by overlapping both ends in the short direction, and the overlapping portions are formed by side seams. After bonding and processing the raw material into a cylindrical shape, after forming an extrusion coating layer by covering the entire surface of the raw material processed into a cylindrical shape with a transparent or translucent molten resin, the raw material is then tubed A method for producing a tube container for cosmetics, characterized by sequentially cutting the length of the body of the container. An anchor coat layer is formed on the entire surface of a long laminate layer in which resin layers are laminated on both sides of the metal layer, and the surface of the anchor coat layer is printed on the entire surface including a transparent or white printed portion by a non-impact method. After the layered material is wound up into a roll-shaped original fabric, the roll-shaped original fabric is fed out in sequence, and both ends in the short direction are overlapped to form an overlapped portion. After the raw material is processed into a cylindrical shape by bonding with a seam, an extrusion coating layer is formed by covering the entire surface of the original material processed into a cylindrical shape with a transparent or translucent molten resin, and then the original material Is sequentially cut into the length of the body portion of the tube container.