Printing, gilding and die cutting function combined all-in-one machine

Abstract

The utility model relates to the technical field of label production and processing equipment, in particular to a printing, gilding and die-cutting function combined all-in-one machine which comprises a bearing mechanism, a feeding mechanism, a gloss oil mechanism, a die-cutting mechanism and a winding mechanism, and the feeding mechanism, the gloss oil mechanism, the die-cutting mechanism and the winding mechanism are all arranged in the bearing mechanism. The feeding mechanism, the gloss oil mechanism, the die cutting mechanism and the winding mechanism are sequentially distributed, and materials on the feeding mechanism sequentially pass through the gloss oil mechanism and the die cutting mechanism and then are wound by the winding mechanism. Equipment for printing gloss oil, die cutting and the like is integrated on one piece of equipment, the overall equipment 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, and in particular to a combined all-in-one machine with printing, hot stamping and die-cutting functions. Background Art

[0002] In existing applications of graphic products in industries like labels, varnishing and hot stamping are required to achieve a high gloss, three-dimensional effect, a metallic feel, and enhance anti-counterfeiting. This process typically involves multiple processes, including printing, partial or full varnishing, hot stamping, label cutting, slitting, and sheet cutting. Each step may be performed by a separate piece of equipment. The typical process is as follows: the desired image is first printed or printed on the material. The printed or printed material is then partially or fully varnished or hot stamped. After laminating and peeling the hot stamping material, the area where the aluminum foil contacts the UV glue remains on the printed material, becoming one with the printed material, completing the hot stamping process. Next, the material is visually aligned and cut on a dedicated cutting machine, followed by slitting or sheet cutting as needed. This process requires the operation and operation of multiple pieces of equipment, resulting in high equipment and production costs, the need for multiple personnel, and the significant floor space required for the equipment. Utility Model Content

[0003] The utility model aims to solve the above-mentioned defects and provides an all-in-one machine with printing, hot stamping and die-cutting functions.

[0004] In order to overcome the defects existing in the background technology, the technical solution adopted by the present invention to solve the technical problems thereof is: a printing, hot stamping and die-cutting combined machine, comprising a carrying mechanism, a feeding mechanism for carrying a roll material, a varnishing mechanism for printing varnish on the material, a die-cutting mechanism for cutting the surface of the material, and a winding mechanism for winding the material;

[0005] The feeding mechanism, varnish mechanism, die-cutting mechanism and winding mechanism are all arranged in the supporting mechanism, and the feeding mechanism, varnish mechanism, die-cutting mechanism and winding mechanism are distributed in sequence, and the material on the feeding mechanism passes through the varnish mechanism and the die-cutting mechanism in sequence and is then wound up by the winding mechanism.

[0006] A further improvement includes that the varnish mechanism comprises a flexographic varnish mechanism for printing varnish on the entire surface, a UV varnish mechanism for printing varnish on a partial surface, or a flexographic varnish mechanism and a UV varnish mechanism.

[0007] A further improvement includes that the carrying mechanism is also provided with a hot stamping mechanism for hot stamping the surface of the material, and the hot stamping mechanism is located between the varnishing mechanism and the die-cutting mechanism.

[0008] Further improvements include that the UV varnish printing mechanism includes a Y-axis moving module, a UV varnish printing module axially movable on the Y-axis moving module, a visual acquisition component for visual positioning based on the material pattern, and a platform for carrying materials, and the Y-axis moving module and the visual acquisition component are both located above the platform, and the visual acquisition component and the Y-axis moving module are both arranged on the carrying mechanism.

[0009] Further improvements include that the flexographic varnish mechanism includes a plate roller, an embossing roller, and an anilox roller rotatably arranged on the supporting mechanism for printing varnish onto the surface of the material, the meshing teeth arranged on the plate roller are respectively meshed with the meshing teeth arranged on the embossing roller and the anilox roller, and the surface of the plate roller is respectively in contact with the surface of the embossing roller and the anilox roller, the supporting mechanism is provided with an adjustable varnish scraper assembly, a varnish cartridge and a UV lamp, the varnish cartridge is located below the anilox roller so that the anilox roller is partially immersed in varnish, and the supporting mechanism is provided with a drive motor for driving the embossing roller to rotate.

[0010] Further improvements include that the hot stamping mechanism includes a hot stamping raw material roller rotatably arranged on the supporting mechanism and used to load rolled hot stamping materials, a hot stamping paper waste roller assembly for winding up hot stamping material waste, and a hot stamping roller assembly with adjustable roller spacing and capable of conveying materials.

[0011] A further improvement includes that the hot stamping mechanism further includes a hot stamping adjustment roller rotatably arranged on the supporting mechanism, and the hot stamping adjustment roller is used to change the angle of the material before entering the hot stamping movable roller assembly.

[0012] Further improvements include that the supporting mechanism includes a front side plate, a rear side plate and a connecting beam, the connecting beam is used to connect the front side plate and the rear side plate, and a varnish mechanism and a die-cutting mechanism are set between the front side plate and the rear side plate.

[0013] A further improvement includes providing a correction mechanism on the carrying mechanism for correcting the position of the material during the conveying process, and the correction mechanism is located above the feeding mechanism.

[0014] A further improvement includes providing the supporting mechanism with a material collecting mechanism for recycling waste materials after die-cutting.

[0015] Further improvements include that the material receiving mechanism includes a material dividing and receiving drive roller assembly for automatically winding the waste material and a material dividing roller for winding the material, the material dividing roller is rotatably arranged on the supporting mechanism, and the material dividing and receiving drive roller assembly is located above the material dividing roller.

[0016] A further improvement includes that the material receiving mechanism further includes a material separation and stripping roller for stripping the waste material from the material, and the material separation and stripping roller is used to change the stripping angle of the waste material.

[0017] A further improvement includes that the carrying mechanism is also provided with a slitting mechanism for slitting the material.

[0018] A further improvement includes that the slitting mechanism includes a slitting knife seat arranged on the supporting mechanism, a slitting knife installed on the slitting knife seat, and a slitting drive roller assembly located directly below the slitting knife.

[0019] A further improvement includes providing a plurality of winding mechanisms in the carrying mechanism for classifying and winding the slit materials.

[0020] A further improvement includes providing a cutting mechanism on the carrying mechanism.

[0021] Further improvements include that the cutting mechanism includes a carrying plate for carrying materials, a roller drive unit with adjustable roller spacing and for conveying materials, a lower cutter unit, an upper cutter unit, a discharge plate connected to the lower cutter unit, and a color code sensor assembly, the lower cutter unit is connected to the discharge plate, the carrying plate, the roller drive unit and the lower cutter unit are arranged side by side, and the upper cutter unit is located on the lower cutter unit so as to cooperate with the lower cutter unit to cut the material.

[0022] A further improvement includes providing a pair of roller drive components in the carrying mechanism for conveying materials and with an adjustable roller spacing.

[0023] A further improvement includes an adjusting roller that is arranged in a rolling manner within the supporting mechanism and is used to change the material input angle.

[0024] The beneficial effects of the utility model are as follows: the design integrates the functions of printing varnish, hot stamping and die-cutting on one device, the equipment cost and production cost are low, the number of operators is small, the production efficiency is improved and it has promotion value, the equipment occupies a small area, reduces the product turnover time, and has a high degree of automation; and it also has the functions of cutting and slitting. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0026] Figure 1 This is the axial side view of the first embodiment of the present invention Figure 1 ;

[0027] Figure 2 This is the axial side view of the first embodiment of the present invention Figure 2 ;

[0028] Figure 3This is the axial side view of the first embodiment of the present invention Figure 3 ;

[0029] Figure 4 This is the axial side view of the first embodiment of the present invention Figure 4 ;

[0030] Figure 5 This is the assembly diagram of the material receiving mechanism, sheet cutting mechanism and slitting mechanism in the utility model;

[0031] Figure 6 This is a structural view of the UV printing varnish mechanism in the utility model;

[0032] Figure 7 This is a structural view of the hot stamping mechanism in the utility model;

[0033] Figure 8 This is a structural view of the cutting mechanism in the utility model;

[0034] Figure 9 This is an axonometric view of the second embodiment of the present utility model;

[0035] Figure 10 This is the axial side view of the flexographic varnish mechanism in the utility model. Figure 1 ;

[0036] Figure 11 This is the axial side view of the flexographic varnish mechanism in the utility model. Figure 2 ;

[0037] Figure 12 This is the axial side view of the flexographic varnish mechanism in the utility model. Figure 3 ;

[0038] In the figure, 1-feeding mechanism, 2-carrying mechanism, 3-correcting mechanism, 4-varnish mechanism, 4A-flexographic varnish mechanism, 4B-UV printing varnish mechanism, 5-hot stamping mechanism, 6-die-cutting mechanism, 7-receiving mechanism, 8-slitting mechanism, 9-winding mechanism, 10-sheet cutting mechanism, 11-adjusting roller, 12-roller drive assembly;

[0039] 101-carrying plate, 102-color mark sensor assembly, 103-roller drive unit, 104-upper cutter unit, 105-lower cutter unit, 106-unloading plate;

[0040] 201-front side panel, 202-rear side panel, 203-connecting crossbeam;

[0041] 401-UV varnish printing module, 402-visual acquisition component, 403-Y-axis movement module, 404-platform, 405-adjustable varnish scraper assembly, 406-varnish ink cartridge, 407-anilox roller, 408-meshing gear, 409-plate roller, 410-impression roller, 411-UV lamp, 412-drive motor;

[0042] 501- hot stamping raw material roller, 502- hot stamping adjusting roller, 503- hot stamping paper waste roller, 504- hot stamping roller assembly;

[0043] 701- material separation and collection drive roller assembly, 702- material separation and stripping roller, 703- material separation roller;

[0044] 801- slitting knife, 802- slitting knife seat, 803- slitting drive roller assembly. DETAILED DESCRIPTION

[0045] To make the purpose, technical solutions, and advantages of the embodiments of the present invention more clear, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings of the embodiments of the present invention. Obviously, the embodiments described are part of the embodiments of the present invention, not all of them. The embodiments of the basic utility model and all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present utility model.

[0046] according to Figure 1 and Figure 9 As shown, a printing, hot stamping and die-cutting combined machine includes a carrying mechanism 2, a feeding mechanism 1 for carrying a roll material, a varnishing mechanism 4 for printing varnish on the material, a die-cutting mechanism 6 for cutting the surface of the material, and a winding mechanism 9 for winding the material;

[0047] The feeding mechanism 1, varnish mechanism 4, die-cutting mechanism 6 and winding mechanism 9 are all arranged in the supporting mechanism 2, and the feeding mechanism 1, varnish mechanism 4, die-cutting mechanism 6 and winding mechanism 9 are distributed in sequence, and the material on the feeding mechanism 1 passes through the varnish mechanism 4 and the die-cutting mechanism 6 in sequence and is then wound up by the winding mechanism 9.

[0048] The varnish mechanism 4 includes a flexo varnish mechanism 4A for full-surface varnish printing, a UV varnish mechanism 4B for partial varnish printing, or a flexo varnish mechanism 4A and a UV varnish mechanism 4B.

[0049] The carrying mechanism 2 is further provided with a hot stamping mechanism 5 for hot stamping the surface of the material. The hot stamping mechanism 5 is located between the varnishing mechanism 4 and the die-cutting mechanism 6 .

[0050] according to Figure 6As shown, the UV varnish printing mechanism 4B includes a Y-axis moving module 403, a UV varnish printing module 401 axially movable 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 carrying the material, and the Y-axis moving module 403 and the visual acquisition component 402 are both located above the platform 404, the visual acquisition component 402 and the Y-axis moving module 403 are both arranged on the carrying mechanism 2, and the Y-axis moving module 403 drives the UV varnish printing module 401 to print on the material. Through this design, local printing of UV varnish or UV hot stamping glue on the material is achieved.

[0051] according to Figure 10 、 Figure 11 and Figure 12 As shown, the flexographic varnish mechanism 4A includes a plate roller 409, an impression roller 410, and an anilox roller 407 for conveying varnish from a varnish ink cartridge 406 to the material, which are rotatably arranged on the carrier mechanism 2. The meshing teeth 408 arranged on the plate roller 409 are respectively engaged with the meshing teeth 408 arranged on the impression roller 410 and the anilox roller 407 to make the plate roller 409, the anilox roller 407 and the impression roller 410 rotate synchronously, and the surface of the plate roller 409 is respectively engaged with the impression roller 410 and the anilox roller 407. 7 is fitted to the surface of the roller body of the anilox roller 407, and the supporting mechanism 2 is provided with an adjustable varnish scraper assembly 405 for scraping off excess varnish on the anilox roller 407, a varnish ink box 406 for loading varnish, and a UV lamp 411 for curing the varnish on the material. The varnish ink box 406 is located below the anilox roller 407 so that the anilox roller 407 is partially immersed in the varnish. The supporting mechanism 2 is provided with a drive motor 412 for driving the embossing roller 410 to rotate, and the material passes between the printing plate roller 409 and the embossing roller 410 so that the varnish is flexographically printed on the material.

[0052] according to Figure 7 As shown, the hot stamping mechanism 5 includes a hot stamping raw material roller 501 rotatably arranged on the supporting mechanism 2 and used for loading rolled hot stamping material, a hot stamping paper waste roller assembly 503 for winding up hot stamping material waste, and a hot stamping roller assembly 504 with adjustable roller spacing for conveying materials. The hot stamping material is output from the hot stamping raw material roller 501 and passed between the hot stamping roller assembly 504 rollers, and then the waste material is wound up by the hot stamping paper waste roller assembly 503. When the hot stamping process is performed, the hot stamping roller assembly 504 brings the aluminum foil on the hot stamping material into contact with the UV glue adhesive on the material to press them together, thereby completing the hot stamping process. The hot stamping and conveying functions of the material are simultaneously realized through the hot stamping roller assembly 504.

[0053] The hot stamping mechanism 5 further includes a hot stamping adjusting roller 502 rotatably arranged on the supporting mechanism 2 , and the hot stamping adjusting roller 502 is used to change the angle of the material before entering the hot stamping movable roller assembly 504 .

[0054] according to Figure 4 As shown, the supporting mechanism 2 includes a front side plate 201, a rear side plate 202 and a connecting beam 203. The connecting beam 203 is used to connect the front side plate 201 and the rear side plate 202, and a varnish mechanism 4, a hot stamping mechanism 5 and a die-cutting mechanism 6 are arranged between the front side plate 201 and the rear side plate 202. It can further be used to install a material receiving mechanism 7, a slitting mechanism 8, a winding mechanism 9, and a sheet cutting mechanism 10. Through this design, multiple functions are integrated into one device, realizing multiple functions while greatly reducing the footprint of the equipment.

[0055] according to Figure 1 As shown, the supporting mechanism 2 is provided with a correction mechanism 3 for correcting the position of the material during the conveying process, and the correction mechanism 3 is located above the feeding mechanism 1. Through this design, the material output by the feeding mechanism 1 can be directed upwards through the correction mechanism 3, so that the material can be corrected before entering the printing, hot stamping and die-cutting processes, avoiding the need to correct the position of the material during transportation.

[0056] according to Figure 5 As shown, the supporting mechanism 2 is also provided with a receiving mechanism 7 for recycling waste materials on the material after die-cutting. The receiving mechanism 7 includes a material dividing and receiving drive roller assembly 701 for automatically winding the waste materials and a material dividing roller 703 for winding the material. The material dividing roller 703 is rotatably arranged on the supporting mechanism 2, and the die-cut material and the waste materials are separated on the material dividing roller 703. The material dividing and receiving drive roller assembly 701 is located above the material dividing roller 703. This design is used to recycle waste materials on the die-cut material.

[0057] The material receiving mechanism 7 further includes a separating and stripping roller 702 for stripping the waste material from the material. The separating and stripping roller 702 is used to change the stripping angle of the waste material so as to improve the stripping effect.

[0058] according to Figure 5As shown, the supporting mechanism 2 is also provided with a slitting mechanism 8 for slitting materials, and the slitting mechanism 8 includes a slitting seat 802 arranged on the supporting mechanism 2, a slitting knife 801 installed on the slitting seat 802, and a slitting drive roller assembly 803 located directly below the slitting knife 801. The slitting drive roller assembly 803 also conveys materials, and the slitting knife 801 cooperates with the slitting drive roller assembly 803 to axially slit the material passing through the slitting drive roller assembly 803. Through this design, the material after printing, hot stamping and die-cutting is slit. In a further embodiment, a plurality of winding mechanisms 9 for classifying and winding the slit materials are provided in the supporting mechanism 2.

[0059] In order to realize the cutting function of the material, according to Figure 8 As shown, a cutting mechanism 10 is provided on the carrying mechanism 2, and the cutting mechanism 10 includes a carrying plate 101 for carrying materials, a roller driving unit 103 with adjustable roller spacing and for conveying materials, a lower cutter unit 105, an upper cutter unit 104, a discharge plate 106 connected to the lower cutter unit 105, and a color mark sensor assembly 102. The lower cutter unit 105 is connected to the discharge plate 106 for carrying the cut materials. The carrying plate 101, the roller driving unit 103 and the lower cutter unit 105 are arranged side by side. The upper cutter unit 104 is located on the lower cutter unit 105 so as to cooperate with the lower cutter unit 105 to cut the materials, thereby realizing the material cutting function. The roller driving unit 103 has the function of pressing and conveying the materials. The color mark sensor assembly 102 is used to position the materials.

[0060] according to Figure 1 、 Figure 2 and Figure 3 As shown, the carrying mechanism 2 is provided with a roller driving assembly 12 for conveying materials and with an adjustable roller spacing, and the roller driving assembly 12 is used to facilitate the removal of materials from the device.

[0061] An adjusting roller 11 for changing the material input angle is rolled in the supporting mechanism 2, and the material is input horizontally into each mechanism or input from bottom to top into the correction mechanism, varnish mechanism, hot stamping mechanism, die-cutting mechanism, material receiving mechanism or slitting mechanism through the adjusting roller 11.

[0062] This design is not limited to this. On the basis of the original printing, hot stamping and cutting, a correction mechanism 3, a material receiving mechanism 7, a slitting mechanism 8, and a sheet cutting mechanism 10 are set to realize material correction, recycling of cutting waste, material slitting and material sheet cutting, and various different combinations can be made to realize various different functions.

[0063] The feeding mechanism, the hot stamping paper waste roller assembly, the material dividing and collecting drive roller assembly, and the winding mechanism all include a roller body and a motor. The roller body is driven to rotate by the motor. In a further embodiment, the roller body can also be rotated by gear transmission and belt transmission.

[0064] Working Principle: Rolled material is loaded onto the feed mechanism 1. After being corrected by the deflection correction mechanism 3, it is fed into the varnish mechanism 4. The visual acquisition component 402 locates the location of the printed material. The varnish mechanism 4 applies varnish or UV hot stamping glue to the corresponding location based on the corrected data. After printing, the material passes through the hot stamping mechanism. The hot stamping roller assembly 504 ensures that the contact area between the aluminum foil and the UV glue on the hot stamping material remains on the printed surface, integrating the material with the printed product, thus completing the hot stamping process. The hot stamped material is then conveyed to the die-cutting mechanism 6 for partial or complete cutting. The die-cut material continues to be conveyed, and during this process, it passes through the material receiving mechanism 7 for waste stripping and rewinding. Finally, the rewinding mechanism 9 rewinds the finished product. If slitting is required, the material, after waste stripping, passes through the slitting mechanism 8 for slitting and rewinding. If sheeting is required, the material, after waste stripping, passes through the sheet cutting mechanism 10 for sheeting.

[0065] The above is only a preferred specific implementation method of the present invention, but the protection scope of the present invention is not limited to this. Any technician familiar with the technical field within the technical scope disclosed by the present invention can make equivalent replacements or changes based on the technical solution and utility model concept of the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A printing, hot stamping and die-cutting integrated machine, characterized by: It comprises a carrying mechanism (2), a feeding mechanism (1) for carrying a roll material, a varnishing mechanism (4) for printing varnish on the material, a die-cutting mechanism (6) for cutting the surface of the material, and a winding mechanism (9) for winding the material; The feeding mechanism (1), the varnishing mechanism (4), the die-cutting mechanism (6) and the rewinding mechanism (9) are all arranged in the supporting mechanism (2), and the feeding mechanism (1), the varnishing mechanism (4), the die-cutting mechanism (6) and the rewinding mechanism (9) are distributed in sequence, and the material on the feeding mechanism (1) passes through the varnishing mechanism (4) and the die-cutting mechanism (6) in sequence and is then rewinded by the rewinding mechanism (9).

2. The printing, hot stamping and die-cutting integrated machine according to claim 1, characterized in that: The varnish mechanism (4) comprises a flexographic varnish mechanism (4A) for printing varnish on the entire surface, a UV printing varnish mechanism (4B) for printing varnish on a partial surface, or a flexographic varnish mechanism (4A) and a UV printing varnish mechanism (4B).

3. The printing, hot stamping and die-cutting integrated machine according to claim 2, characterized in that: The carrying mechanism (2) is also provided with a hot stamping mechanism (5) for hot stamping the surface of the material. The hot stamping mechanism (5) is located between the varnishing mechanism (4) and the die-cutting mechanism (6).

4. The printing, stamping and die-cutting integrated machine according to claim 2, characterized in that: The UV varnish printing mechanism (4B) comprises a Y-axis moving module (403), a UV varnish 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) and the Y-axis moving module (403) are both arranged on the carrying mechanism (2).

5. The printing, hot stamping and die-cutting combined machine according to claim 3, characterized in that: The hot stamping mechanism (5) comprises a hot stamping raw material roller (501) rotatably arranged on the supporting mechanism (2) and used for loading rolled hot stamping material, a hot stamping paper waste roller assembly (503) for rolling up hot stamping material waste, and a hot stamping roller assembly (504) capable of adjusting the distance between the rollers and conveying the material. The hot stamping mechanism (5) further comprises a hot stamping adjustment roller (502) rotatably arranged on the supporting mechanism (2), and the hot stamping adjustment roller (502) is used to change the angle of the material before it enters the hot stamping movable roller assembly (504).

6. The printing, hot stamping and die-cutting combined machine according to claim 1, characterized in that: The bearing mechanism (2) comprises a front side plate (201), a rear side plate (202) and a connecting crossbeam (203); the connecting crossbeam (203) is used to connect the front side plate (201) and the rear side plate (202); and a varnish mechanism (4) and a die-cutting mechanism (6) are provided between the front side plate (201) and the rear side plate (202).

7. The printing, hot stamping and die-cutting combined machine according to claim 1, characterized in that: The supporting mechanism (2) is provided with a correction mechanism (3) for correcting the position of the material during the conveying process, and the correction mechanism (3) is located above the feeding mechanism (1).

8. The printing, hot stamping and die-cutting combined machine according to claim 1, characterized in that: The supporting mechanism (2) is also provided with a receiving mechanism (7) for recovering waste materials on the material after die-cutting. The receiving mechanism (7) comprises a material separation and receiving drive roller assembly (701) for automatically winding the waste materials and a material separation roller (703) for winding the material. The material separation roller (703) is rotatably arranged on the supporting mechanism (2), and the material separation and receiving drive roller assembly (701) is located above the material separation roller (703).

9. The printing, hot stamping and die-cutting combined machine according to claim 1, characterized in that: The carrying mechanism (2) is further provided with a slitting mechanism (8) for slitting the material, the slitting mechanism (8) comprising a slitting knife seat (802) provided on the carrying mechanism (2), a slitting knife (801) installed on the slitting knife seat (802), and a slitting drive roller assembly (803) located directly below the slitting knife (801), and a cutting mechanism (10) is provided on the carrying mechanism (2), the cutting mechanism (10) comprising a carrying plate (101) for carrying the material, a pair of rollers with an adjustable roller spacing and for conveying the material, and a pair of rollers for conveying the material. A drive unit (103), a lower cutter unit (105), an upper cutter unit (104), a discharge plate (106) connected to the lower cutter unit (105), and a color mark sensor assembly (102); the lower cutter unit (105) is connected to the discharge plate (106); the supporting plate (101), the roller drive unit (103), and the lower cutter unit (105) are arranged side by side; the upper cutter unit (104) is located on the lower cutter unit (105) and cooperates with the lower cutter unit (105) to cut the material.

10. The printing, hot stamping and die-cutting combined machine according to any one of claims 1 to 9, characterized in that: The carrying mechanism (2) is provided with a pair of roller drive assemblies (12) for conveying materials and having an adjustable roller spacing, and an adjusting roller (11) for changing a material input angle is provided in a rolling manner in the carrying mechanism (2).

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