Multifunctional combined all-in-one machine for labels

Abstract

The utility model relates to the technical field of label production and processing equipment, in particular to a multifunctional combined all-in-one machine for labels. Comprising a bearing mechanism, a feeding mechanism used for bearing a coiled material, a gloss oil flexographic printing mechanism used for conducting gloss oil flexographic printing on the surface of the material, a UV printing mechanism used for conducting printing on the material, a gold stamping mechanism used for conducting gold stamping on the surface of the material, and a die cutting mechanism used for cutting the surface of the material. The rolling mechanism is used for rolling the material, the conveying mechanism is used for conveying the material, and the material on the feeding mechanism passes through the flexible printing gloss oil mechanism, the UV printing mechanism, the gold blocking mechanism and the die cutting mechanism through the conveying mechanism and then is rolled by the rolling mechanism. The functions of flexographic printing gloss oil, printing, gold blocking and the like are integrated on one device, the overall device cost and the production cost are low, the occupied area is small, the product turnover time is shortened, the production efficiency is improved, and the automation degree is high.

Description

Technical Field

[0001] The utility model relates to the technical field of label production and processing equipment, in particular to a multi-functional combined machine for labels. Background Art

[0002] In the application of processing graphic products in industries such as existing labels, in order to make the graphics and texts present high gloss, three-dimensional sense, metallic sense in the front or part and improve anti-counterfeiting performance, processes such as laminating, partial or overall varnishing, and hot stamping are required. In the common product processing process, multiple processing procedures such as laminating, printing, varnishing, hot stamping, label cutting, slitting, and sheet cutting are required. Each process may be completed by an independent device. In the common process: first, the required patterns are printed or engraved on the material, and then the printed or engraved material is laminated, partially or overall varnished or hot stamped. After the pressing and peeling of the hot stamping material, the part where the aluminum foil on the hot stamping material contacts the UV glue adhesive remains on the surface of the printed matter and becomes integrated with the printed matter to complete the hot stamping process; then, the material is positioned and cut on a special cutting machine, and then slitting or sheet cutting is performed according to requirements. The above process requires the operation and operation processes of multiple devices, with high equipment costs and production costs, also requires multiple personnel, high personnel requirements, and the equipment requires a large floor area. Content of the Utility Model

[0003] The utility model aims to solve the above defects and provides a multi-functional combined machine for labels.

[0004] In order to overcome the defects in the background art, the technical solution adopted by the utility model to solve its technical problems is: a multi-functional combined machine for labels, including a bearing mechanism, a feeding mechanism for bearing a roll of material, a flexographic varnishing mechanism for applying flexographic varnish to the surface of the material, a UV printing mechanism for printing on the material, a hot stamping mechanism for hot stamping the surface of the material, a die-cutting mechanism for cutting the surface of the material, a winding mechanism for winding the material, and a transmission mechanism for conveying the material;

[0005] The feeding mechanism, the flexographic varnishing mechanism, the UV printing mechanism, the hot stamping mechanism, the die-cutting mechanism, the winding mechanism, and the transmission mechanism are all arranged on the bearing mechanism, and the material on the feeding mechanism passes through the transmission mechanism so that the material passes through the flexographic varnishing mechanism, the UV printing mechanism, the hot stamping mechanism, and the die-cutting mechanism respectively and is wound by the winding mechanism.

[0006] Further improvement includes replacing the UV printing mechanism and the hot stamping mechanism with a laminating mechanism, and the laminating mechanism is located between the feeding mechanism and the flexographic varnishing mechanism.

[0007] Further improvements include that the hot stamping mechanism comprises a hot stamping raw material roller rotatably arranged on the carrying mechanism for loading roll-shaped hot stamping materials, a hot stamping paper waste roller assembly for automatically winding up the waste of the hot stamping materials, and a hot stamping pair roller assembly for conveying materials and adjustable in pair roller spacing. The hot stamping materials are output from the hot stamping raw material roller, pass between the pair rollers of the hot stamping pair roller assembly, and then the waste is wound up by the hot stamping paper waste roller assembly.

[0008] Further improvements include that the hot stamping mechanism further comprises a hot stamping adjusting roller rotatably arranged on the carrying mechanism.

[0009] Further improvements include that the UV printing mechanism comprises a Y-axis moving module, a UV printing module axially moving on the Y-axis moving module, a visual acquisition component for visual positioning according to the material pattern, and a platform for carrying the material. Both the Y-axis moving module and the visual acquisition component are located above the platform, and the visual acquisition component, the Y-axis moving module and the platform are all arranged on the carrying mechanism.

[0010] Further improvements include that a deviation rectifying mechanism for rectifying the position of the material during conveying is arranged on the carrying mechanism, and the deviation rectifying mechanism is located above the feeding mechanism.

[0011] Further improvements include that a slitting mechanism for slitting the label paper, a sheet cutting mechanism for cutting the label paper into sheets, or both the slitting mechanism and the sheet cutting mechanism are arranged on the carrying mechanism.

[0012] Further improvements include that a material collecting mechanism for recycling the waste on the material after die cutting is arranged on the carrying mechanism.

[0013] Further improvements include that the material collecting mechanism comprises a material distributing and collecting driving roller assembly for automatically winding up the waste and a material distributing roller for passing around the material. The material distributing roller is rotatably arranged on the carrying mechanism, and the material distributing and collecting driving roller assembly is located above the material distributing roller.

[0014] Further improvements include that the material collecting mechanism further comprises a material distributing and peeling roller rotatably arranged on the carrying mechanism for improving the peeling effect of the waste from the material.

[0015] Further improvements include that the flexographic varnish mechanism comprises an engraved plate roller rotatably arranged on the bearing mechanism for printing varnish onto the surface of the material, an impression roller, and an anilox roller for conveying varnish from the varnish ink cartridge onto the material. The meshing teeth provided on the engraved plate roller are respectively meshed with the meshing teeth provided on the impression roller and the anilox roller, and the surface of the engraved plate roller body is respectively in contact with the surfaces of the impression roller and the anilox roller body. The bearing mechanism is provided with an adjustable varnish scraper assembly, a varnish ink cartridge, and a UV lamp. The varnish ink cartridge is located below the anilox roller so that the anilox roller is partially immersed in the varnish. The bearing mechanism is provided with a drive motor for driving the impression roller to rotate.

[0016] Further improvements include that the transmission mechanism comprises a pair of roller drive assemblies for conveying the material and with adjustable roller spacing, and an adjusting roller for changing the output angle of the material.

[0017] Further improvements include that the film laminating mechanism comprises a raw film roller rotatably arranged in the bearing mechanism and a pair of film laminating rollers for conveying the material and with adjustable roller spacing.

[0018] Further improvements include that a film transition roller rotatably arranged in the film laminating mechanism is used to adjust the angle of the film entering the pair of film laminating rollers.

[0019] Further improvements include that the bearing mechanism is provided with a magnetic powder brake for braking the raw film roller.

[0020] The beneficial effects of the present utility model are as follows: This design integrates functions of film laminating, flexographic varnishing, and die cutting on one device, with low equipment cost and production cost, few operators, high production efficiency and popularization value, small floor area of the device, reduced product turnover time, and high automation degree; This design can also adopt functions of printing, printing, hot stamping, and die cutting; This technology can also integrate functions of material receiving, slitting, and sheet cutting on one device. Description of the Drawings

[0021] The present utility model will be further described below in conjunction with the drawings and embodiments.

[0022] Figure 1 is the axonometric view of the first embodiment of the present utility model;

[0023] Figure 2 is the axonometric view of the second embodiment of the present utility model;

[0024] Figure 3 is the axonometric of the flexographic varnish mechanism in the present utility model Figure 1 ;

[0025] Figure 4 is the partial enlarged view of the flexographic varnish mechanism in the present utility model;

[0026] Figure 5 is the axonometric drawing of the flexographic varnish mechanism in the present utility model Figure 2 ;

[0027] Figure 6 is the partial enlarged view of the UV printing mechanism in the present utility model;

[0028] Figure 7 is the partial enlarged view of the hot stamping mechanism in the present utility model;

[0029] Figure 8 is the partial enlarged view of the material receiving mechanism in the present utility model;

[0030] Figure 9 is the partial enlarged view of the film laminating mechanism in the present utility model;

[0031] In the figure, 1 - feeding mechanism, 2 - deviation rectifying mechanism, 3 - flexographic varnish mechanism, 4 - UV printing mechanism, 5 - hot stamping mechanism, 6 - die cutting mechanism, 7 - material receiving mechanism, 8 - slitting mechanism, 9 - sheet cutting mechanism, 10 - winding mechanism, 11 - film laminating mechanism, 12 - transmission mechanism, 13 - bearing mechanism;

[0032] 301 - adjustable varnish scraper assembly, 302 - varnish ink cartridge, 303 - anilox roll, 304 - meshing teeth, 305 - printing plate roll, 306 - impression roll, 307 - UV lamp, 308 - driving motor;

[0033] 401 - UV printing module, 402 - vision acquisition component, 403 - Y-axis movement module, 404 - platform;

[0034] 501 - hot stamping raw material roll, 502 - hot stamping adjusting roll, 503 - hot stamping paper waste roll assembly, 504 - hot stamping counter roll assembly;

[0035] 701 - material distributing and receiving driving roll assembly, 702 - material distributing peeling roll, 703 - material distributing roll;

[0036] 111 - film winding raw material roll, 112 - film winding transition roll, 113 - film winding counter roll assembly;

[0037] 121 - adjusting roll, 122 - counter roll driving assembly. Detailed implementation mode

[0038] To make the objectives, technical solutions, and advantages of the embodiments of the present utility model clearer, the technical solutions in the embodiments of the present utility model will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present utility model. Apparently, the described embodiments are some, but not all, of the embodiments of the present utility model. All other embodiments obtained by those of ordinary skill in the art without creative efforts based on the embodiments in the present utility model fall within the protection scope of the present utility model.

[0039] According to Figure 1 As shown, a multifunctional combination all-in-one machine for labels includes a carrying mechanism 13, a feeding mechanism 1 for carrying a roll of material, a flexographic varnishing mechanism 3 for applying flexographic varnish to the surface of the material, a UV printing mechanism 4 for printing on the material, a hot stamping mechanism 5 for hot stamping the surface of the material, a die-cutting mechanism 6 for cutting the surface of the material, a winding mechanism 10 for winding the material, and a transmission mechanism 12 for conveying the material.

[0040] The feeding mechanism 1, the flexographic varnishing mechanism 3, the UV printing mechanism 4, the hot stamping mechanism 5, the die-cutting mechanism 6, the winding mechanism 10, and the transmission mechanism 12 are all arranged on the carrying mechanism 13, and the material on the feeding mechanism 1 passes through the transmission mechanism 12 so that the material passes through the flexographic varnishing mechanism 3, the UV printing mechanism 4, the hot stamping mechanism 5, and the die-cutting mechanism 6 respectively and is then wound by the winding mechanism 10.

[0041] According to Figure 2 As shown, the UV printing mechanism 4 and the hot stamping mechanism 5 are replaced with a film laminating mechanism 11, and the film laminating mechanism 11 is located between the feeding mechanism 1 and the flexographic varnishing mechanism 3. The film laminating function is realized by pressing the roll film onto the material through the film laminating mechanism 11.

[0042] According to Figure 7 As shown, the hot stamping mechanism 5 includes a hot stamping raw material roll 501 rotatably arranged on the carrying mechanism 13 for loading a roll of hot stamping material, a hot stamping paper waste roll assembly 503 for automatically winding the waste of the hot stamping material, and a hot stamping pair roll assembly 504 for conveying the material and adjustable in the pair roll spacing. The hot stamping material is output from the hot stamping raw material roll 501 and passes between the pair rolls of the hot stamping pair roll assembly 504, and then the waste is wound by the hot stamping paper waste roll assembly 503. When performing the hot stamping process, the hot stamping pair roll assembly 504 makes the aluminum foil on the hot stamping material contact and press with the UV glue adhesive on the material to be integrated, thereby completing the hot stamping process. The hot stamping pair roll assembly 504 simultaneously realizes the functions of hot stamping and conveying the material.

[0043] The hot stamping mechanism 5 further includes a hot stamping adjusting roller 502 rotatably arranged on the loading mechanism 13. The hot stamping adjusting roller 502 is provided to change the angle of the material before entering the hot stamping pair roller assembly 504, and the hot stamping adjusting roller 502 also has the function of adjusting the tension of the hot stamping material.

[0044] According to Figure 6 As shown, the UV printing mechanism 4 includes a Y-axis moving module 403, a UV printing module 401 axially moving on the Y-axis moving module 403, a visual acquisition component 402 for visual positioning according to the material pattern, and a platform 404 for loading the material. Both the Y-axis moving module 403 and the visual acquisition component 402 are located above the platform 404. The visual acquisition component 402, the Y-axis moving module 403, and the platform 404 are all arranged on the loading mechanism 13. The Y-axis moving module 403 drives the UV printing module 401 to print on the material, and through this design, UV varnish or UV hot stamping glue can be printed on the material.

[0045] According to Figure 1 and Figure 2 As shown, the loading mechanism 13 is provided with a deviation rectifying mechanism 2 for rectifying the position of the material during transportation, and the deviation rectifying mechanism 2 is located above the feeding mechanism 1. Through this design, the material output by the feeding mechanism 1 can be wound upward around the deviation rectifying mechanism 2, so as to rectify the deviation before processes such as flexographic varnishing, laminating, printing, hot stamping, and die cutting.

[0046] The loading mechanism 13 is further provided with a slitting mechanism 8 for slitting the label paper, a sheet cutting mechanism 9 for cutting the label paper into sheets, or both the slitting mechanism 8 and the sheet cutting mechanism 9. The slitting mechanism 8 or the sheet cutting mechanism 9 can be separately arranged on the loading mechanism 13, or the slitting mechanism 8 and the sheet cutting mechanism 9 can be combined and installed on the loading mechanism 13.

[0047] According to Figure 8 As shown, the loading mechanism 13 is further provided with a waste material collecting mechanism 7 for collecting the waste material on the material after die cutting. The waste material collecting mechanism 7 includes a material separating and collecting driving roller assembly 701 for automatically winding the waste material and a material separating roller 703 for winding the material. The material separating roller 703 is rotatably arranged on the loading mechanism 13, and the material separating and collecting driving roller assembly 701 is located above the material separating roller 703. The material separating roller 703 is used to peel the die-cut material from the waste material, and through this design, the waste material on the die-cut material can be collected.

[0048] The waste material collecting mechanism 7 further includes a material separating and peeling roller 702 rotatably arranged on the loading mechanism 13 for improving the peeling effect of the waste material from the material. The material separating and peeling roller 702 changes the peeling angle of the material waste to improve the peeling effect.

[0049] According to Figure 3 、 Figure 4 and Figure 5 As shown, the flexographic varnish mechanism 3 includes an engraved plate roller 305 rotatably arranged on the bearing mechanism 13 for printing varnish on the surface of the material, an impression roller 306, and an anilox roller 303 for conveying varnish from the varnish ink cartridge 302 to the material. The meshing teeth 304 provided on the engraved plate roller 305 are respectively meshed with the meshing teeth 304 provided on the impression roller 306 and the anilox roller 303 for synchronously rotating the engraved plate roller 305, the anilox roller 303, and the impression roller 306. And the roller surface of the engraved plate roller 305 is respectively attached to the roller surfaces of the impression roller 306 and the anilox roller 303. An adjustable varnish scraper assembly 301 for scraping off the excess varnish on the anilox roller 303, a varnish ink cartridge 302 for loading varnish, and a UV lamp 307 for curing the varnish on the material are provided on the bearing mechanism 13. The varnish ink cartridge 302 is located below the anilox roller 303 so that the anilox roller 303 is partially immersed in the varnish. A drive motor 308 for driving the rotation of the impression roller 306 is provided on the bearing mechanism 13. The material passes between the engraved plate roller 305 and the impression roller 306, thereby flexographically printing the varnish on the material.

[0050] According to Figure 1 As shown, the transmission mechanism 12 includes a pair of roller drive assembly 122 for conveying the material and adjustable roller spacing, and an adjusting roller 121 for changing the output angle of the material. While the pair of roller drive assembly 122 drives the conveyance of the material, it can also clamp the material, facilitating the loading and unloading of the material from the equipment. The material enters the deviation rectifying mechanism 2, the UV printing mechanism 4, the hot stamping mechanism 5, the die-cutting mechanism 6, the material receiving mechanism 7, the slitting mechanism 8, the sheet cutting mechanism 9, the flexographic varnish mechanism 3, and the film laminating mechanism 11 in a horizontal input or input from bottom to top manner through the adjusting roller 121.

[0051] According to Figure 9 As shown, the film laminating mechanism 11 includes a film raw material roller 111 rotatably arranged in the bearing mechanism 13 and a film pair of rollers assembly 113 for conveying the material and adjustable roller spacing. The film is pressed onto the material through the film pair of rollers assembly 113. The film raw material roller 111 is used to carry the film. In a further embodiment, a film transition roller 112 rotatably arranged in the film laminating mechanism 11 is used to adjust the angle of the film entering the film pair of rollers assembly 113, thereby adjusting the tension of the film. In a further embodiment, a magnetic powder brake for braking the film raw material roller 111 is provided on the bearing mechanism 13, and the magnetic powder brake is used to control the tension of the film.

[0052] This design is not limited to this. The feeding mechanism 1, deviation rectifying mechanism 2, flexographic varnishing mechanism 3, UV printing mechanism 4, hot stamping mechanism 5, die-cutting mechanism 6, material receiving mechanism 7, slitting mechanism 8, sheet cutting mechanism 9, winding mechanism 10, and film laminating mechanism 11 can be combined in various ways to achieve various different functions.

[0053] Working principle: The roll-shaped material is loaded on the feeding mechanism 1. After being rectified by the deviation rectifying mechanism 2, the material is sent to the flexographic varnishing mechanism 3 for varnishing, and then sent into the UV printing mechanism 4. Through the visual acquisition component 402, the position of the material with the printed pattern is found. The UV printing mechanism 4 prints UV varnish or UV hot stamping glue to the corresponding position according to the data after positioning and rectifying. After printing, the material passes through the hot stamping mechanism 5, and the part where the aluminum foil on the hot stamping material contacts the UV glue adhesive is retained on the surface of the printed matter by the hot stamping counter-roller assembly 504 and becomes integrated with the printed matter, thus completing the hot stamping process; The hot-stamped material is conveyed into the die-cutting mechanism 6 for semi-cutting or full-cutting; The die-cut material continues to be conveyed, and during the conveying process, the waste material is peeled off and wound up by the material receiving mechanism 7, and finally the finished product is wound up by the winding mechanism 10. If slitting treatment is required, the material after peeling off the waste material is slit and wound up by the slitting mechanism 8. If sheet cutting is required, the material after peeling off the waste material is sheet-cut by the sheet cutting mechanism 9;

[0054] The roll-shaped material is loaded on the feeding mechanism 1. After being rectified by the deviation rectifying mechanism 2, the material is sent into the film laminating mechanism 11, and the roll film is laminated onto the surface of the material by the film laminating mechanism 11. After laminating, the material passes through the flexographic varnishing mechanism 3, and the flexographic mechanism prints varnish onto the surface through the anilox roll 303, printing plate roll 305 and impression roll 306 and becomes integrated with the printed matter, thus completing the varnishing process; The material after flexographic varnishing is conveyed into the die-cutting mechanism 6 for semi-cutting or full-cutting; The die-cut material continues to be conveyed, and during the conveying process, the waste material is peeled off and wound up by the material receiving mechanism 7, and finally the finished product is wound up by the winding mechanism 10. If slitting treatment is required, the material after peeling off the waste material is slit and wound up by the slitting mechanism 8. If sheet cutting is required, the material after peeling off the waste material is sheet-cut by the sheet cutting mechanism 9.

[0055] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution of the present invention and its inventive concept, makes equivalent substitutions or changes, and all should be covered within the protection scope of the present invention.

Claims

1. A multifunctional integrated machine for labeling, characterized in that: It comprises a carrying mechanism (13), a feeding mechanism (1) for carrying a roll material, a flexographic varnish mechanism (3) for applying flexographic varnish to the surface of the material, a UV printing mechanism (4) for printing on the material, a hot stamping mechanism (5) for hot stamping the surface of the material, a die-cutting mechanism (6) for cutting the surface of the material, a winding mechanism (10) for winding the material, and a transmission mechanism (12) for conveying the material; The feeding mechanism (1), the flexographic varnish mechanism (3), the UV printing mechanism (4), the hot stamping mechanism (5), the die-cutting mechanism (6), the reeling mechanism (10) and the transmission mechanism (12) are all arranged on the supporting mechanism (13), and the material on the feeding mechanism (1) passes through the transmission mechanism (12) so that the material passes through the flexographic varnish mechanism (3), the UV printing mechanism (4), the hot stamping mechanism (5) and the die-cutting mechanism (6) respectively, and is then reeled up by the reeling mechanism (10).

2. A multifunctional integrated machine for labeling as claimed in claim 1, characterized in that: The UV printing mechanism (4) and the hot stamping mechanism (5) are replaced by a laminating mechanism (11), and the laminating mechanism (11) is located between the feeding mechanism (1) and the flexographic varnish mechanism (3).

3. A multifunctional integrated machine for labeling as claimed in claim 2, characterized in that: The laminating mechanism (11) comprises a film raw material roller (111) rotatably arranged in the supporting mechanism (13) and a film roll pair roller assembly (113) for conveying materials and having an adjustable roller spacing; the film roll transition roller (112) rotatably arranged in the laminating mechanism (11) is used to adjust the angle at which the film roll enters the film roll pair roller assembly (113).

4. The multifunctional integrated machine for labeling as claimed in claim 1, characterized in that: The hot stamping mechanism (5) comprises a hot stamping raw material roller (501) rotatably arranged on the supporting mechanism (13) for loading rolled hot stamping material, a hot stamping paper waste roller assembly (503) for automatically rolling up hot stamping material waste, and a hot stamping roller assembly (504) for conveying material and having an adjustable roller spacing. The hot stamping material is output from the hot stamping raw material roller (501) and passed between the rollers of the hot stamping roller assembly (504), and then the waste material is rolled up by the hot stamping paper waste roller assembly (503). The hot stamping mechanism (5) further comprises a hot stamping adjustment roller (502) rotatably arranged on the supporting mechanism (13).

5. The multifunctional integrated machine for labeling as claimed in claim 1, characterized in that: The UV printing mechanism (4) comprises a Y-axis moving module (403), a UV printing module (401) arranged to move axially on the Y-axis moving module (403), a visual acquisition component (402) for visual positioning according to a material pattern, and a platform (404) for carrying materials, wherein the Y-axis moving module (403) and the visual acquisition component (402) are both located above the platform (404), and the visual acquisition component (402), the Y-axis moving module (403), and the platform (404) are all arranged on the carrying mechanism (13).

6. A multifunctional integrated machine for labels as claimed in claim 1 or 2, characterized in that: The support mechanism (13) is provided with a correction mechanism (2) for correcting the position of the material during the conveying process, and the correction mechanism (2) is located above the feeding mechanism (1).

7. A multifunctional integrated machine for labels as claimed in claim 1 or 2, characterized in that: The carrying mechanism (13) is also provided with a slitting mechanism (8) for slitting label paper, a sheet cutting mechanism (9) for cutting label paper, or a slitting mechanism (8) and a sheet cutting mechanism (9).

8. A multifunctional integrated machine for labels as claimed in claim 1 or 2, characterized in that: The support mechanism (13) is also provided with a material receiving mechanism (7) for recovering waste materials on the material after die-cutting. The material receiving mechanism (7) comprises a material receiving drive roller assembly (701) for automatically winding the waste materials and a material receiving roller (703) for winding the material. The material receiving roller (703) is rotatably arranged on the support mechanism (13). The material receiving drive roller assembly (701) is located above the material receiving roller (703). The material receiving mechanism (7) also comprises a material receiving stripping roller (702) rotatably arranged on the support mechanism (13) for improving the stripping effect of the waste materials from the material.

9. A multifunctional integrated machine for labels as claimed in claim 1 or 2, characterized in that: The flexographic printing varnish mechanism (3) comprises a printing plate roller (305) rotatably arranged on the supporting mechanism (13) for printing varnish on the surface of a material, an embossing roller (306), and an anilox roller (303) for conveying varnish from an optic ink box (302) to the material, wherein the meshing teeth (304) arranged on the printing plate roller (305) are respectively meshed with the meshing teeth (304) arranged on the embossing roller (306) and the anilox roller (303), and the printing plate roller (305) is roller-shaped. The body surface is respectively in contact with the roller body surface of the embossing roller (306) and the anilox roller (303); the supporting mechanism (13) is provided with an adjustable varnish scraper assembly (301), a varnish ink box (302) and a UV lamp (307); the varnish ink box (302) is located below the anilox roller (303) so that the anilox roller (303) is partially immersed in varnish; and the supporting mechanism (13) is provided with a driving motor (308) for driving the embossing roller (306) to rotate.

10. A multifunctional integrated machine for labels as claimed in claim 1 or 2, characterized in that: The transmission mechanism (12) comprises a pair of roller driving components (122) for conveying materials and having an adjustable roller spacing, and an adjusting roller (121) for changing a material output angle.

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