JP4910658B2 - Printed matter - Google Patents

Description

  The present invention is provided with a seal-like transfer layer having a glittering layer such as a hologram image on a printed matter, and prevents illegal acts by making it extremely difficult to prevent duplication, counterfeiting and falsification of the printed matter by a color copier, etc. The present invention relates to a printed matter such as a lottery ticket, a stock certificate, a bond, and a gift certificate configured so as to enhance the performance.

  In recent years, a case of duplicating a printed matter using a color copier has become a problem. In particular, banknotes (Japanese banknotes) cannot be copied by image recognition on the copier side.

  However, there are many targets for printed matter issued by corporations such as stock certificates, bonds, and gift certificates, and the current situation is that the copy machine manufacturer cannot take effective measures. For this reason, securities and lottery tickets (for example, see Patent Document 1) in which a transfer layer for preventing counterfeiting such as a seal provided with a hologram image or a metal vapor deposition film seal is attached to a partial area or the entire surface of a printed sheet. )It has been known.

  The securities and the lottery ticket are prepared by preparing a Lippmann hologram on a roll-shaped photopolymerized photopolymer, and bringing the roll-shaped film coated with a diffusing agent into close contact with the photopolymerized photopolymer. Then, a hologram is produced by shifting the reproduction wavelength by changing the interval of the interference fringes recorded in the photopolymerized photopolymer.

  Further, in the securities formed by transferring the produced hologram to a part or the entire surface of the securities main body, before or after the roll film coated with the diffusing agent is adhered to the photopolymerized photopolymer as the hologram. Before heating, roll-shaped film coated with the diffusing agent is exposed to ultraviolet light to generate patterns with different reproduction wavelengths, thereby continuously recording different individual information such as serial numbers, letters, figures, etc. It is characterized by having a hologram.

  By simply transferring the above-described seal or the like, the transfer layer is peeled off by using delamination of paper, and pasted on the surface of other printed matter, and the ticket is tampered with an amount higher than the amount actually purchased.

  In addition, as in recent counterfeit banknotes, since there is no effect at all on the paper in the printed matter divided into two front and back sides and tampered with, a plurality of through holes are provided in a partial region of the paper such as printed matter, There is known a printed matter (for example, see Patent Document 2) on which anti-counterfeiting measures are performed, in which a seal-like transfer layer having a glittering layer is thermally transferred from the front and back of the paper so as to conceal the through hole. Yes.

  The printed matter subjected to the forgery prevention measure has a plurality of through holes in a partial area of the paper, has a glitter layer from the front and back surfaces of the paper so as to conceal the through holes, and has a strength equal to or higher than the paper strength. A strong seal-like transfer layer is thermally transferred. Then, the adhesive of the seal-like transfer layer is melted by heat at the time of transfer to reinforce the sheet embedded in the through hole.

Prior art documents are shown below.
Japanese Patent Laid-Open No. 7-149088 Japanese Patent Laid-Open No. 9-30172

  The securities and lottery tickets of Patent Document 1 are provided with holograms to prevent forgery and tampering. However, as described above, there is a problem that the front and back of the printing paper such as securities and lottery tickets or the middle layer portion can be divided and falsified.

  Further, the printed matter subjected to the forgery prevention measure of Patent Document 2 has a plurality of through holes in a partial area of the paper, and has a glitter layer from the front and back surfaces of the paper so as to conceal the through holes, and A seal-like transfer layer having a strength equal to or higher than the paper strength is thermally transferred. And it is a wonderful invention in which the through-hole is fixed by the adhesive of the seal-like transfer layer by the heat of heat transfer.

  However, when the through-hole provided as a forgery prevention measure is fixed, there is a problem that it is easy to divide the front and back sides of the paper or the like as described in Patent Document 1 or the intermediate layer portion. And there exists a problem that the operation | work which provides the through-hole formed in order to make forgery more difficult is useless and useless.

  Furthermore, since the through hole is fixed, there is a problem that it is difficult to confirm light from the through hole through a seal-like transfer layer that conceals the front and back surfaces. In addition, there is a problem that it is not easy to select a method or a device for confirming whether the securities are counterfeit or tampered securities.

  The present invention has been made in view of the above-described conventional problems, and the problem is that it is difficult to forge or tamper, and whether it is forged or tampered with is expensive and special equipment or the like. It can be easily discriminated without using it. And it aims at providing the printed matter in which the forgery prevention measure in which mass production is efficient is taken.

In order to solve the above problems, the invention according to claim 1 of the present invention provides:
In printed matter such as stock certificates, bonds, and gift certificates, a glitter layer is provided on the entire surface of the sheet-like substrate or partially, and at least the substrate is not penetrated in the region where the glitter layer is provided. A printed material having a plurality of fine holes.

Next, the invention according to claim 2 of the present invention is as follows:
In addition to the non-penetrating fine holes, a through-hole penetrating the glittering layer and having a depth substantially the same as the non-penetrating fine holes is formed in the base material. The printed matter according to claim 1 .

Next, the invention according to claim 3 of the present invention is
A plurality of non-penetrating fine holes and / or through holes provided in the entire surface or a partial region of the sheet-like base material are provided in an illustration, a character, a pattern, or a graphic shape. Item 3. A printed material according to item 1 or 2.

Next, the invention according to claim 4 of the present invention is
Illustrations, characters, patterns, and graphic shapes consisting of fine holes and / or through-holes formed in the sheet-like base material are formed on a transfer layer having a glittering layer, characters, patterns, graphic shapes and The printed matter according to any one of claims 1 to 3, wherein the printed matter is transferred in a correspondingly heated and pressurized form.

  Since the printed matter of the present invention has the above-described configuration, when copying with a color copying machine or the like, the transfer layer having the glittering layer is transferred, so that the copy is different from the original. And even if it is duplicated, it is possible to easily authenticate.

  Moreover, when it is going to peel off a transfer layer, a part of penetrating or non-penetrating fine hole formed in the sheet-like base material will be destroyed. And the external appearance is impaired.

  In addition, since the fine holes that penetrate or do not penetrate the sheet-like base material are formed vertically or obliquely, it is possible to easily perform authenticity judgment only by passing light through the printed matter.

  Also, if you try to peel off the transfer layer by transferring it corresponding to the illustration, characters, designs, figure shape and illustrations formed on the transfer layer, characters, designs, figure shapes formed with fine holes Micropores are destroyed. When the peeled material is counterfeited or tampered with, the shape of the hole is different, and a part of the hole is rolled up, so that authenticity can be easily determined.

  In addition, a transfer layer in which a glittering layer having a glittering property such as a hologram is formed on the front surface, back surface, or both front and back surfaces of fine holes provided in a sheet-like base material is transferred in a heated and pressurized form. For this reason, the sheet-like base material intensity | strength of the part to which the transfer layer is transcribe | transferred, and the partial area | region of the periphery can be strengthened.

  The printed matter of the present invention will be described below in detail along the embodiments with reference to the drawings.

  FIG. 1 is a schematic cross-sectional view showing a cross section of one embodiment of the printed matter of the present invention. FIG. 2 is a schematic cross-sectional view showing a cross section of another embodiment of the printed matter of the present invention.

  The printed matter of the present invention is a kind of securities such as stock certificates, bonds, lotteries, or gift certificates, various certificates, or other printed matter, and particularly a printed matter that requires a forgery prevention measure. The printed matter of the present invention can be easily verified even if it is illegally used. Furthermore, it is easy to persuade an unauthorized user that counterfeiting / tampering is being performed.

  For this reason, as shown in FIG. 1, the printed matter of the present invention forms a plurality of fine holes 20 penetrating through the entire surface or a partial region of the sheet-like substrate 1. Then, the transfer layer 6 on which the surface of the fine hole 20, or the back surface (not shown), or the front and back surfaces as shown in FIG. It is transcribed into a shape and covered.

  The fine hole 20 may be a through hole or a non-through hole, and the opening may be on the front side, the back side, or both sides of the sheet-like substrate.

  Moreover, as a typical example of the glitter layer, a surface relief type hologram (or diffraction grating) can be mentioned, and in particular, a layer provided with a reflective thin film for enhancing an optical effect is preferable. In addition to these, for example, a multilayer thin film whose color changes depending on an observation angle by applying optical interference by an optical thin film, a reflective film using a metal material, and the like.

  For example, in the case of a surface relief type hologram (or diffraction grating) provided with a reflective thin film, the printed matter was simply observed because of the optical action due to the combination of fine irregularities related to the diffraction structure and the reflective thin film. It is difficult to visually recognize the presence of the micropores only with this. However, when this printed material is observed under light (or applied to a backlight), the presence of micropores can be visually recognized. This effect can be applied as a simple authenticity determination method.

  A color copy is obtained by transferring a transfer layer 6 on which a hologram covering a plurality of penetrating fine holes 20 or a special image having glitter such as metallic luster is formed on the entire surface or a partial region of the sheet-like substrate 1. Copying by machine can be prevented. Furthermore, the strength of the sheet-like base material 1 in the portion where the transfer layer 6 has been transferred and the partial region around it can be increased.

  Further, the size of the plurality of through holes 20 provided on the entire surface or a partial region of the sheet-like substrate 1 is not particularly limited, but a diameter of about 10 μm to 1000 μm is preferable. . Moreover, the space | interval of the micropore 20, a pitch, an area | region, etc. are selected suitably. Furthermore, the sizes of the fine holes 20 formed in the same sheet-like substrate 1 may all be the same diameter, or the diameters may be different.

Further, the through holes 20 formed in a partial region or the entire surface of the sheet-like base 1 are formed by a CO ₂ laser, a YAG laser, a punching press, a perforation device using a perforation, a needle, or the like. Can be used. Then, an apparatus and a method are appropriately selected depending on the state in which the micropores 20 are formed in the sheet-like substrate 1, for example, the size, number (number), shape, and the like of the micropores 20.

  Furthermore, an illustration, a character, a pattern, a figure shape, or the like can be formed by the through-holes 20 formed in a partial region or the entire surface of the sheet-like substrate 1. Then, it can be transferred in register with similar illustrations, characters, designs, figure shapes and the like formed on the transfer layer 6 formed with a glittering layer having a glittering property such as a hologram.

  Register illustrations, characters, patterns, graphic shapes, etc., formed in the sheet-like substrate 1 with the fine holes 20 with similar illustrations, characters, patterns, graphic shapes, etc., formed on the transfer layer 6. By transferring, it is possible to further prevent counterfeiting / tampering of the printed matter, and it is possible to easily judge even if unauthorized use is performed. And it is easy to persuade a fraudulent user to forge or falsify.

  Moreover, although the transfer layer 6 transferred to the sheet-like substrate 1 is individually provided on the support 30 as shown in FIG. 7A, as another aspect, the transfer layer 6 is continuous. It may be designed to be transferred as a layer and heated and pressed.

  As shown in FIG. 7B, the hologram transfer layer 6 formed on the support 30 is formed with a release layer 5 as an upper layer, and the hologram formation layer 4 is provided on the release layer 5. A reflective thin film layer 3 is formed on 4, and an adhesive layer 2 is formed on the reflective thin film layer 3. Then, the transfer layer 6 in which the adhesive layer 2, the reflective thin film layer 3, the hologram forming layer 4, and the peelable protective layer 5 are sequentially laminated on the surface of the fine holes 20 of the sheet-like substrate 1 is transferred by heat and pressure transfer. Covered.

  The configuration of the hologram transfer layer 6 formed on the support 30 is not particularly limited. For example, after providing the hologram forming layer 4 and forming a hologram on the hologram forming layer 4, a transmissive thin film layer is formed on the hologram forming layer 4, and a reflective thin film layer is formed on the transmissive thin film layer. The adhesive layer 2 may be formed on the reflective thin film layer. Furthermore, a protective layer (not shown) can be provided between the release layer 5 and the hologram forming layer 4.

  The reflective thin film layer 3 is formed of any one of a metallic vapor-deposited layer, gold, a silver ink layer, a metal foil, and the like having a glitter property. Then, the transfer layer 6 on which a glitter image that diffusely reflects the light source of the copying machine during copying is produced.

The support 30 is a base sheet for the transfer layer 6 and is not particularly limited as long as it has a certain degree of rigidity and surface smoothness. For example, a polyester film, a polycarbonate film, a polyolefin film, and the like The polymeric resin film of this is mention | raise | lifted.

  Next, although the peeling layer 5 is formed, the peeling layer 5 is not specifically limited, What is necessary is just to have stability in post-processing. For example, there are thermoplastic acrylic resins, chlorinated rubber resins, vinyl chloride-vinyl acetate copolymer resins, cellulose resins, chlorinated polypropylene resins, or those obtained by adding oil silicon, fatty acid amides, and zinc stearate. Moreover, an inorganic substance may be sufficient. As shown in FIG. 7A, the release layer 5 may be formed so as to be transferred in a pattern at the time of transfer, and a specific pattern, mark, character, or the like is used as a pattern so that it can be visually discriminated. Can be arbitrarily selected depending on the application.

  The release layer 5 is formed by coating the above resin or a mixture of the above resins, etc., and a known coating method such as a bar coating, blade coating, air knife coating, gravure coating, roll coating or other solvent coating method or screen printing method. A resin layer having a thickness of about 1 to 2 μm is formed by applying and drying.

  Further, the protective layer not shown can be selected from various compositions depending on the application and purpose. For example, optical layers such as plastics such as polyolefin, polyvinyl chloride, polyvinylidene chloride, polyvinyl alcohol, or polyethylene terephthalate can be used. A transparent material is laminated on the surface.

  Next, the hologram forming layer 4 is formed. The hologram forming layer 4 is made of a thermoplastic resin such as polycarbonate resin, polystyrene resin, or polyvinyl chloride resin, unsaturated polyester resin, melamine resin, epoxy resin, urethane (meth) acrylate, Thermosetting resin such as polyester (meth) acrylate, epoxy (meth) acrylate, polyol (meth) acrylate, melamine (meth) acrylate, triazine (meth) acrylate or a mixture thereof, and further has a radical polymerizable unsaturated group Examples include thermoformable substances. Any one can be used as long as the hologram image is stable enough to be formed. Although the hologram image is not particularly limited, for example, there is a relief hologram that expresses an image with minute irregularities of about 0.5 to 2 μm.

  Further, although not shown in the drawing, a transmissive thin film layer may be formed on the hologram forming layer 4. The transmissive thin film layer is an important component that affects the use conditions of the hologram, and can be formed by a vacuum deposition method, a sputtering method, an ion plating method, or the like.

  Next, the reflective thin film layer 3 is formed. The reflective thin film layer 3 is formed by laminating a plurality of ceramics having different refractive indexes alternately with a specific film thickness. Magnesium (refractive index n = 1.6), silicon dioxide (n = 1.5), magnesium fluoride (n = 1.4), calcium fluoride (n = 1.3 to 1.4), cerium fluoride (N = 1.6), aluminum fluoride (n = 1.3), aluminum oxide (n = 1.6), and titanium dioxide (n = 2.4) as the high refractive index layer 7 Zirconium dioxide (n = 2.0), zinc sulfide (n = 2.3), zinc oxide (n = 2.1), indium oxide (n = 2.0), cerium dioxide (n = 2.3) ) And one of tantalum oxide (n = 2.1) are laminated with a predetermined film thickness. This transparent vapor deposition layer can also provide two or more layers which consist of said combination.

  The reflective thin film layer 3 reflects or transmits light in a predetermined wavelength region, and changes the viewing angle, thereby changing the optical path length in the thin film and changing the color of transmitted light or reflected light. . This demonstrates anti-counterfeiting properties.

  The reflective thin film layer 3 can be formed by any film forming method as long as the film thickness can be controlled. In particular, the dry method is excellent for the production of a thin film, and for this, a normal vapor deposition method, a physical vapor deposition method such as sputtering, or a chemical vapor deposition method such as a CVD method can be used.

  Next, the adhesive layer 2 is formed on the reflective thin film layer 3. If the adhesive layer 2 is in contact with the reflective thin film layer 3, it may be used as long as it is not altered or affected, for example, vinyl chloride. -There are vinyl acetate copolymers, acrylic adhesives, polyester polyamides, etc., but there is no particular limitation. Further, the adhesive layer 2 may be formed in a pattern shape, as long as it can be discriminated visually, and a specific pattern, mark, character, etc. can be used, and can be arbitrarily selected according to each application. .

  And the contact bonding layer 2 has the said acrylic resin, vinyl resin, etc. as a main component, for example, and the thickness is formed in about 0.5-2 micrometers with the coating method mentioned above.

  The adhesive for forming the adhesive layer 2 of the transfer layer 6 is premised on that the adhesive strength of the transfer layer 6 exceeds that of the sheet-like substrate 1. And when transferring the transfer layer 6 to the sheet-like base material 1 by heating and pressurization, there is no adhesiveness at room temperature, but it is activated and develops adhesiveness when heated, and the heating temperature decreases. However, it is a type that maintains its adhesive strength.

  For example, a thermoplastic resin adhesive obtained by varnishing polyester, acrylic, vinyl chloride or the like with an appropriate solvent is used. And by the coating method mentioned above, thickness is formed in about 2-20 micrometers.

  When the transfer layer 6 is transferred, the adhesive 2 is thermally transferred from the support 30 side of the transfer layer 6 by a thermocompression roller or a heat press. The transfer layer 6 is firmly adhered in a state where the adhesive is melted to cover the plurality of fine holes formed in the sheet-like base material 1, and is firmly fixed to the sheet-like base material 1 to be integrated. .

  When the transfer layer 6 is fixed to the sheet-like base material 1 and integrated to peel off the transfer layer 6, the delamination phenomenon does not occur and the transfer layer 6 cannot be peeled cleanly. That is, it is difficult to divide the surface or front and back transfer layers 6 one by one. Furthermore, if it is forcibly removed, any layer of the transfer layer 6 transferred to either the front surface or the front and back surfaces is destroyed and cannot be reproduced.

  Next, FIG. 3 is a schematic cross-sectional view showing a cross section of still another embodiment of the printed matter of the present invention. FIG. 4 is a schematic cross-sectional view showing a cross section of still another embodiment of the printed matter of the present invention.

  As shown in FIGS. 3 and 4, the printed matter of the present invention forms a plurality of non-penetrating fine holes 21 on the entire surface or a partial region of the sheet-like substrate 1. The transfer layer 6 on which the surface of the fine holes 21 or the front and back surfaces as shown in FIG. 4 is formed with a glittering layer having the glittering properties such as the hologram described above is covered by heat and pressure transfer.

  The formation of the non-penetrating fine holes 21 is performed by the above-described apparatus and method. Then, an apparatus and a method are appropriately selected depending on the size, number (number), shape, or illustration, character, pattern, figure shape, or the like of the fine holes 21.

  Furthermore, an illustration, a character, a picture, a figure shape, etc. can be formed by the non-penetrating fine holes 21 formed in a partial region or the entire surface of the sheet-like substrate 1. In the same manner as described above, the image can be transferred in register with the same illustrations, characters, designs, figure shapes, etc. formed on the transfer layer 6 formed with a glittering layer such as a hologram. . And, forgery and tampering become more difficult because the illustrations, characters, patterns, and graphic shapes of the fine holes 21 correspond to the illustrations, characters, patterns, and graphic shapes of the transfer layer 6. In addition, it is possible to judge whether it is a forged or tampered item.

  Next, FIG. 5 is a schematic cross-sectional view showing a cross section of still another embodiment of the printed matter of the present invention.

  As shown in FIG. 5, a plurality of non-penetrating fine holes 21 are formed on the entire surface or a partial region of the sheet-like substrate 1. Then, the transfer layer 6 in which the glitter layer such as the hologram described above is formed on the surface of the fine hole 21 is covered by the transfer. Further, through-holes 22 penetrating through the plurality of transfer layers 6 in substantially the same depth as the depths of the non-through-holes 21 formed in the sheet-like substrate 1 from the upper surface of the transferred transfer layer 6 are formed.

  By forming the through-hole 22 penetrating the transfer layer 6 in the transfer layer 6 and the sheet-like base material 1, it becomes more difficult to peel off the transfer layer 6. Further, by forming illustrations, characters, pictures, graphic shapes, etc. by the through holes 22 penetrating the transfer layer 6, it becomes easier to authenticate.

  The size of the through hole 22 that penetrates the transfer layer 6 is not particularly limited, but a diameter of about 10 μm to 500 μm is preferable. Further, the interval (pitch), region, and the like of the through holes 22 that penetrate the transfer layer 6 are appropriately selected. Furthermore, the sizes of the through holes 22 penetrating the transfer layer 6 formed on the same sheet-like substrate 1 may be the same diameter or may be different from each other.

  And although the through-hole 22 which penetrates this transfer layer 6 is not shown in the figure, you may penetrate the sheet-like base material 1. In addition to forming vertically as shown in FIG. 5, it may be formed obliquely although not shown.

As the through hole 22 penetrating the transfer layer 6, the above-described CO ₂ laser, YAG laser, punching press, perforation, needle or the like is used. Then, an apparatus and a method are appropriately selected depending on the state of the through hole 22 penetrating the transfer layer 6, for example, the size, number (number), and shape of the through hole 22 penetrating the transfer layer 6.

  Next, FIG. 6 is a schematic sectional view showing a section of still another embodiment of the printed matter of the present invention.

  As shown in FIG. 6, the printed matter of the present invention forms a plurality of oblique micropores 23 penetrating through the entire surface or a partial region of the sheet-like substrate 1. Then, the transfer layer 6 on which the surface of the oblique micropores 23 or the front and rear surfaces (not shown) is formed with a glittering layer having the glittering properties such as the hologram described above is covered by heat and pressure transfer. Yes.

  By forming the oblique micro holes 23 in the sheet-like base material 1, it is difficult to easily divide from the target portion when forging or falsification by dividing from the sheet-like base material 1. Become. Then, it can be easily visually observed that the image has been divided.

  Furthermore, since the oblique microscopic holes 23 are formed, authenticity can be easily determined by forming a light source such as light at a predetermined angle. And it is easy to persuade a fraudulent user to forge or falsify.

The oblique microholes 23 are formed using the above-described CO ₂ laser, YAG laser, perforation press, microperforation device using a perforation, a needle, or the like. And an apparatus and a method are suitably selected by the material of the sheet-like base material 1, thickness, the objective, the usage method, etc.

  Next, the sheet-like substrate 1 used in the printed material of the present invention has mechanical properties that can withstand use as a printed material, water resistance, chemical resistance, printing properties for printing the surface of the sheet-like substrate 1 and the like. Is required.

  Depending on the environment used, plastic film or sheet, ivory paper, postcard, high quality paper, art paper, coated paper, etc., synthetic paper, metal foil, aluminum foil, or a composite thereof may be used. Can do. And it is not specifically limited.

  As a method for imparting water resistance and chemical resistance to the paper, there are a method in which the paper is processed during papermaking and a method in which the paper is subjected to impregnation or coating.

  For example, the water-proofing agent added by the method used when paper is processed is usually an internally added water-proofing agent that is internally added to the pulp suspension before papermaking. As a wet paper strength enhancer, urea-formaldehyde resin, melamine N-formaldehyde resin, epoxidized polyamide resin, polyethyleneimine resin, dialdehyde starch, glyoxalized polyacrylamide resin. The amount of the water-resistant agent added varies depending on the type of pulp used, the type of chemical, and the intended water resistance.

  In addition, as a secondary processing agent that imparts water resistance to paper that has been processed, waxes such as carnauba wax, baraffin wax, polyethylene wax, etc., which have an excellent balance in price or performance, are often used. .

  Further, a polymer solution or emulsion such as polyvinyl chloride, polyvinylidene chloride, polyvinyl acetate, ethylene-vinyl acetate copolymer, vinylidene chloride-vinyl acetate copolymer insoluble in water is used.

  In addition, as secondary processing chemicals that impart water resistance to papers that have been processed, waxes such as carnauba wax, baraffin wax, polyethylene wax, etc., which have an excellent balance in price or performance, are often used. .

  Further, a polymer solution or emulsion such as polyvinyl chloride, polyvinylidene chloride, polyvinyl acetate, ethylene-vinyl acetate copolymer, vinylidene chloride-vinyl acetate copolymer insoluble in water is used.

  In addition, when processing the paper-making paper with a water-proofing agent or an oil-proofing agent, a roll coater, an air knife coater, a metering bar coater, a fountain blade coater, a bevel blade coater, a short dwell coater, a curtain coater, etc. are particularly limited. However, the coating is applied to the front side, the back side, or both sides of the paper using any suitable coating machine.

  The printed matter of the present invention is excellent as a printed matter having anti-counterfeiting measures such as securities such as lottery tickets, stock certificates, bonds, gift certificates, and various certificates, as well as imitations such as pharmaceuticals and precision members. It is a wonderful invention that can also be used as a packaging member for prevention.

It is a schematic sectional drawing which shows the cross section of one Example of the printed matter of this invention. It is a schematic sectional drawing which shows the cross section of other one Example of the printed matter of this invention. It is a schematic sectional drawing which shows the cross section of another one Example of the printed matter of this invention. It is a schematic sectional drawing which shows the cross section of further another Example of the printed matter in which the forgery prevention measure of this invention is performed. It is a schematic sectional drawing which shows the cross section of another one Example of the printed matter of this invention. It is a schematic sectional drawing which shows the cross section of another one Example of the printed matter of this invention. (A) is the schematic for demonstrating the transfer layer transcribe | transferred to the printed matter of this invention. (B) is the cross-sectional schematic for demonstrating the AA 'line cross section of (a).

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 ... Sheet-like base material 2 ... Adhesive layer 3 ... Reflective thin film layer 4 ... Hologram formation layer 5 ... Release layer 6 ... Transfer layer 20 ... Micropore (penetration)
21 ... Micropore (not penetrated)
22 ... Through hole penetrating the transfer layer 30 ... Support

Claims (4)

In printed matter such as stock certificates, bonds, and gift certificates, a glitter layer is provided on the entire surface of the sheet-like substrate or partially, and at least the substrate is not penetrated in the region where the glitter layer is provided. A printed matter having a plurality of fine holes. In addition to the non-penetrating fine holes, a through-hole penetrating the glittering layer and having a depth substantially the same as the non-penetrating fine holes is formed in the base material. The printed matter according to claim 1 . A plurality of non-penetrating fine holes and / or through holes provided in the entire surface or a partial region of the sheet-like base material are provided in an illustration, a character, a pattern, or a graphic shape. Item 3. The printed material according to item 1 or 2. Illustrations, characters, patterns, and graphic shapes consisting of fine holes and / or through-holes formed in the sheet-like base material are formed on a transfer layer having a glittering layer, characters, patterns, graphic shapes and The printed matter according to any one of claims 1 to 3, wherein the printed matter is transferred in a correspondingly heated and pressurized form.

Images