Integrated screen printing machine

Abstract

This utility model discloses an integrated screen printing machine, which employs a first conveying unit and a second conveying unit respectively arranged on the horizontal sides of the printing mechanism. The first conveying unit conveys the carrier plate to the first transfer unit, so that the corresponding printed product completes one drying process during the first transfer unit's upward and downward movement. A third conveying unit connects the first transfer unit with a second transfer unit that also uses a stacking and vertical conveying method, so that the printed product dried in the first transfer unit is conveyed to the second transfer unit and moves upward and downward again, completing a second drying process during the movement. The printed product that has completed the second drying is conveyed by the second conveying unit to the unloading station for unloading or to the printing mechanism for the next cycle of printing. Through the conveying method within the first and second transfer units, the drying stroke and time are extended within a limited space, thereby improving the baking efficiency.

Description

Technical Field

[0001] This utility model relates to the field of screen printing equipment technology, and in particular to an integrated screen printing machine. Background Technology

[0002] Screen printing, also known as silkscreen printing, uses a squeegee to force ink through the mesh of the image area onto the substrate, creating an image identical to the original artwork. Screen printing is widely used due to its simple equipment, convenient operation, easy printing and plate making, low cost, and strong adaptability.

[0003] Most screen printing machines in related technologies adopt a circulating printing line, which is a reciprocating printing production line with a box-type drying mechanism, a box-type air-cooling mechanism, and a printing mechanism. For example, the circulating screen printing machine of Chinese Patent (Publication No.: CN221315457U, by the same creator as this application) uses a stacking mechanism to stack carrier plates into an empty material frame and to transfer the frame of a preset number of stacked carrier plates to the drying oven mechanism. The drying oven mechanism dries the target printed products of the same batch simultaneously. Then, the products are transferred and air-cooled by a cooling conveyor mechanism, and the cooled target printed products are divided by a material distribution mechanism. Although this solves the problem of ink overflow in screen printing machines in related technologies, which affects the quality of printed products, it has the problems of large space occupation, many equipment components required, limited adaptability to various scenarios, and high equipment cost.

[0004] Currently, no effective solution has been proposed to address the issues of large footprint and high equipment cost associated with screen printing machines in related technologies. Utility Model Content

[0005] In view of this, it is necessary to provide an integrated screen printing machine to at least solve the problems of large footprint and high equipment cost of screen printing machines in related technologies.

[0006] This utility model provides the following technical solution: an integrated screen printing machine, including a printing mechanism for screen printing printed materials and mounted on a frame. A first conveying unit and a second conveying unit are respectively provided on the lateral sides of the printing mechanism. The first and second conveying units, on their opposite sides from the printing mechanism, are respectively connected to a first transfer unit and a second transfer unit of a stacking and unloading mechanism. Both the first and second transfer units are equipped with an oven mechanism for baking the printed materials, and are connected via a third conveying unit. The first conveying unit is used to transfer a carrier plate carrying the first printed material from the loading unit... The first printed product is transferred one by one to the first transfer unit, wherein the first printed product includes one of the following: a product to be printed after being loaded, or a printed product that has been screen printed and transferred by the printing mechanism; the third transfer unit is used to transfer the carrier plate carrying the second printed product one by one to the second transfer unit, wherein the second printed product is the first printed product that has been stacked and transferred and baked in the first transfer unit; the second transfer unit is used to transfer the carrier plate carrying the third printed product one by one to the unloading station and / or the printing mechanism, wherein the third printed product is the second printed product that has been stacked and transferred and baked in the second transfer unit.

[0007] In some embodiments, the printing mechanism includes a base plate mounted on the frame, a vacuum adsorption stage on the base plate, alignment devices around the vacuum adsorption stage, a first conveyor connected to a top support drive unit, a support frame with a lifting plate movable by the first lifting drive unit, a screen printing head capable of sliding laterally along the lifting plate on the lifting plate, and a screen tray support frame located above the vacuum adsorption stage. The top support drive unit is used to drive the first conveyor to lift and align with a second conveying unit, so that the first conveyor receives a carrier plate carrying a third printed product, and to convey the corresponding carrier plate to the vacuum adsorption stage. After the substrate is placed above the vacuum adsorption table, the first conveyor descends to place the corresponding carrier plate on the vacuum adsorption table. The alignment device is used to calibrate the carrier plate placed on the vacuum adsorption table so that the corresponding third printed product is located in a preset printing position. The first lifting drive unit is used to drive the lifting plate to raise the screen holder and the screen printing head to a preset position directly above the vacuum adsorption table before the first conveyor receives and transports the corresponding carrier plate to the vacuum adsorption table, and after the corresponding third printed product is located in the preset printing position, drive the lifting plate to drive the screen holder to place the screen onto the third printed product. After the screen is placed on the third printed product, the screen printing head is driven to slide laterally to perform screen printing on the third printed product.

[0008] In some embodiments, the screen printing head includes a slide, a squeegee bracket, a second lifting drive unit, a squeegee adjustment drive unit, a printing squeegee, and a return ink blade. The slide is movably connected to a first slide rail mounted on the lifting plate and extending laterally, and is driven by a horizontal drive unit mounted on the lifting plate. The squeegee bracket is movably connected to a second slide rail vertically mounted on the slide, and is driven by a second lifting drive unit. The squeegee bracket is also connected to the printing squeegee and the return ink blade respectively through the squeegee adjustment drive unit.

[0009] In some embodiments, the top support drive unit includes a U-shaped trough frame, the first conveyor is mounted on the U-shaped trough frame, the U-shaped trough frame is fixedly connected to a guide rod movably passing through a bushing via an L-shaped connecting seat, the bushing is fixedly mounted on the base plate, and a guide frame connected to the U-shaped trough frame is also movably mounted on the base plate. The U-shaped trough frame is also connected to a lifting drive device, wherein the lifting drive device is used to drive the U-shaped trough frame to move vertically with the guide rod and the guide frame as guides, and to transmit the first conveyor to move vertically.

[0010] In some embodiments, the alignment device includes a lateral alignment device and a longitudinal alignment device. The lateral alignment device includes a lateral limiting device and a lateral adjusting device disposed on both sides of the lateral side of the vacuum adsorption stage. The limiting bearing of the lateral limiting device can be driven to move vertically to limit the lateral movement of the corresponding carrier plate. The alignment bearing of the lateral adjusting device can be driven to move both vertically and horizontally to push the corresponding carrier plate laterally until it is against the limiting bearing. The longitudinal alignment device includes a longitudinal limiting device and a longitudinal adjusting device. The longitudinal limiting device is fixed on one side of the longitudinal direction of the vacuum adsorption stage and is used to longitudinally limit and align the longitudinal side of the corresponding carrier plate. The longitudinal adjusting device is disposed on the other side of the longitudinal direction of the vacuum adsorption stage. The adjusting bearing of the longitudinal adjusting device can be driven to move longitudinally to push the corresponding carrier plate laterally until it is against the longitudinal limiting device.

[0011] In some embodiments, the first conveying unit, the second conveying unit, and the third conveying unit each include a plurality of sequentially docked carrier conveyors. The carrier conveyors of the first conveying unit and the second conveying unit near the printing mechanism are movably docked with the first conveyor. The carrier conveyors of the first conveying unit and the third conveying unit near the first transfer unit are respectively docked with the transfer conveyor of the first transfer unit. The carrier conveyors of the second conveying unit and the third conveying unit near the second transfer unit are respectively docked with the transfer conveyor of the second transfer unit.

[0012] In some embodiments, the first transfer unit further includes a first stacking transfer assembly, a first pushing assembly, and a second stacking transfer assembly. The second transfer unit further includes a third stacking transfer assembly, a second pushing assembly, and a fourth stacking transfer assembly. The first stacking transfer assembly is disposed above the transfer conveyor located on the side of the first transfer unit away from the printing mechanism. The second stacking transfer assembly and the fourth stacking transfer assembly are respectively disposed above two transfer conveyors located on the lateral sides of the third transfer unit. The third stacking transfer assembly is disposed above the transfer conveyor located on the side of the second transfer unit away from the printing mechanism. The first pushing assembly is disposed between the first stacking transfer assembly and the second stacking transfer assembly. The second pushing assembly is disposed between the third stacking transfer assembly and the fourth stacking transfer assembly. After the corresponding transfer conveyor transfers the carrier plate carrying the first printed product to the first stacking transfer assembly, the first... A stacking and transfer assembly is used to convey the carrier plates carrying the first printed product upwards one by one to the docking position with the first pushing assembly; the first pushing assembly is used to push the corresponding carrier plates horizontally to the second stacking and transfer assembly one by one; the second stacking and transfer assembly is used to convey the received carrier plates downwards one by one to the corresponding transfer conveyor, so that the corresponding transfer conveyor transports the carrier plate carrying the second printed product to the third transfer unit; after the corresponding transfer conveyor transports the carrier plate carrying the second printed product to the fourth stacking and transfer assembly, the fourth stacking and transfer assembly conveys the carrier plates carrying the second printed product upwards one by one to the docking position with the second pushing assembly; the second pushing assembly is used to push the corresponding carrier plates horizontally to the third stacking and transfer assembly; the third stacking and transfer assembly is used to convey the received carrier plates downwards one by one to the corresponding transfer conveyor, so that the corresponding transfer conveyor transports the carrier plate carrying the third printed product to the second transfer unit.

[0013] In some embodiments, the first, second, third, and fourth palletizing and transferring components each include two vertical chain conveyor belts facing each other. The rotating shafts of the two vertical chain conveyor belts are connected to the drive shaft of a synchronous drive unit via gears and transmission teeth. The vertical chain conveyor belts are also provided with multiple pallets. The synchronous drive unit is used to drive the rotating shafts through the drive shafts to move the two vertical chain conveyor belts synchronously vertically. The synchronous vertical movement of the two vertical chain conveyor belts drives the two pallets located at the same position to support the corresponding carrier plates and move them vertically.

[0014] In some embodiments, both the first and second pusher assemblies include a slide and a pusher rod. The slide is kinetically connected to the pusher rod and is used to drive the pusher rod to move from the first stacking transfer assembly toward the second stacking transfer assembly or from the fourth stacking transfer assembly toward the third stacking transfer assembly, so that the pusher rod pushes the corresponding carrier plate into place.

[0015] In some embodiments, the oven mechanism includes a blower dryer that connects the inner chambers of the first transfer unit and the second transfer unit. The blower dryer, located on the first transfer unit, is used to bake a carrier plate carrying a first printed product and being vertically transferred between the first and second stacking transfer components to dry the first printed product into a second printed product. The blower dryer, located on the second transfer unit, is used to bake a carrier plate carrying a second printed product and being vertically transferred between the fourth and third stacking transfer components to dry the second printed product into a third printed product.

[0016] Compared with the prior art, the integrated screen printing machine provided in this application embodiment adopts a first conveying unit and a second conveying unit respectively arranged on the horizontal sides of the printing mechanism. The first conveying unit conveys the corresponding carrier plate to the first transfer unit, which adopts a stacking-type up-and-down conveying transfer method. The corresponding printed product completes one drying process in the first transfer unit during the process of moving up and down. A third conveying unit connects the first transfer unit with the second transfer unit, which also adopts a stacking-type up-and-down conveying transfer method. The printed product that has been dried in the first transfer unit is then conveyed to the second transfer unit for drying again. The printing press moves upwards and then downwards, completing a second drying process during this movement. The printed material, after the second drying, is then conveyed by the second conveyor unit to the unloading station for unloading or to the printing mechanism for the next printing cycle. Through the conveying methods within the first and second transfer units, the drying process and time are extended within a limited space, improving baking efficiency and thus enhancing printing quality. Simultaneously, the printing mechanism and the stacking and unloading mechanism are cyclically connected through the first, second, and third conveyor units to form a cyclical screen printing system, reducing equipment components and lowering equipment costs within a limited space. Attached Figure Description

[0017] Figure 1 This is a three-dimensional structural schematic diagram of an integrated screen printing machine according to an embodiment of this application;

[0018] Figure 2 This is an assembly diagram of the printing mechanism, the first conveying unit, and the second conveying unit according to an embodiment of this application.

[0019] Figure 3 This is another assembly diagram of the printing mechanism, the first conveying unit, and the second conveying unit according to an embodiment of this application;

[0020] Figure 4 This is an exploded view of a printing mechanism according to an embodiment of this application;

[0021] Figure 5 This is a perspective view of the stacking and unloading mechanism according to an embodiment of this application;

[0022] Figure 6 This is a perspective view of the first and second material transfer units in the embodiments of this application.

[0023] Attached Figure

[0024] 001. Loading station; 002. Unloading station;

[0025] 100. Rack;

[0026] 200. Printing mechanism; 21. Base plate; 22. Vacuum adsorption table; 23. Alignment device; 24. Top support drive unit; 25. First conveyor; 26. Support frame; 27. First lifting drive unit; 28. Lifting plate; 29. ​​Screen printing head; 210. Screen plate support frame; 211. First slide rail; 212. Lateral drive unit; 231. Lateral alignment device; 232. Longitudinal alignment device; 233. Lateral limiting device; 23 4. Lateral adjustment device; 235. Longitudinal limiting device; 236. Longitudinal adjustment device; 241. U-shaped groove frame; 242. L-shaped connecting seat; 243. Bushing; 244. Guide rod; 245. Guide frame; 246. Lifting drive device; 291. Slide seat; 292. Squeegee bracket; 293. Second lifting drive unit; 294. Squeegee adjustment drive unit; 295. Printing squeegee; 296. Ink return knife; 297. Second slide rail;

[0027] 300. First conveying unit; 31. Carrier plate conveyor;

[0028] 400. Second transmission unit;

[0029] 500. Stacking and unloading mechanism; 51. First material transfer unit; 52. Second material transfer unit; 53. Material transfer conveyor; 54. First stacking transfer assembly; 55. First pushing assembly; 56. Second stacking transfer assembly; 57. Third stacking transfer assembly; 58. Second pushing assembly; 59. Fourth stacking transfer assembly; 541. Vertical chain conveyor belt; 542. Rotating shaft; 543. Driven gear; 544. Transmission gear; 545. Synchronous drive unit; 546. Transmission shaft; 547. Pallet; 551. Slide table; 552. Push rod;

[0030] 600. Oven mechanism; 61. Blower dryer;

[0031] 700, Third Transmission Unit;

[0032] 800, carrier board. Detailed Implementation

[0033] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0034] It should be noted that when a component is said to be "mounted on" another component, it can be directly mounted on the other component or may be interspersed with a component. When a component is said to be "set on" another component, it can be directly set on the other component or may be interspersed with a component. When a component is said to be "fixed to" another component, it can be directly fixed to the other component or may be interspersed with a component.

[0035] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains. The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. The term "or / and" as used herein includes any and all combinations of one or more of the associated listed items.

[0036] Please see Figures 1 to 6 The integrated screen printing machine of this application embodiment includes a printing mechanism 200 for screen printing printed materials and mounted on a frame 100. A first conveying unit 300 and a second conveying unit 400 are respectively provided on both lateral sides of the printing mechanism 200. The first conveying unit 300 and the second conveying unit 400, on their opposite sides from the printing mechanism 200, are respectively connected to a first transfer unit 51 and a second transfer unit 52 of a stacking and unloading mechanism 500. Both the first transfer unit 51 and the second transfer unit 52 are equipped with an oven mechanism 600 for baking the printed materials, and are connected via a third conveying unit 700.

[0037] The first conveying unit 300 is used to convey the carrier plate 800 carrying the first printed product from the loading station 001 to the first transfer unit 51 one by one. The first printed product includes one of the following: the product to be printed after loading, or the product that has been screen printed and conveyed by the printing mechanism 200.

[0038] In this embodiment, the loading station 001 is located on the right side of the printing mechanism 200. That is, for unprinted products to be printed, they need to be placed on the corresponding carrier plate 800 and conveyed sequentially through the first transfer unit 51 and the second transfer unit 52 along with the carrier plate 800. After drying once, the products to be printed are conveyed to the printing mechanism 200 for the first printing. For the first printed products output from the printing mechanism 200, after being conveyed through the loading station, they are also conveyed sequentially through the first transfer unit 51 and the second transfer unit 52 along with the corresponding carrier plate 800. In order to dry and cure the ink that has been printed once in the first transfer unit 51 and the second transfer unit 52, ink overflow will be avoided during the next printing.

[0039] In this embodiment, the first transfer unit 51 extends its travel distance in vertical space through an internal stacking and transfer method (e.g., by first rising and then falling, extending the distance the carrier plate 800 is transported). Under the condition of cyclic transport, it extends the baking time to ensure that the printed product or the ink is sufficiently dry, ensuring the quality of the next printing (one of the multiple printings). In this embodiment, the corresponding drying oven mechanism 600 generates hot air and transfers the generated hot air to the inner chamber of the first transfer unit 51 to dry the corresponding printed product a corresponding number of times.

[0040] The third conveying unit 700 is used to convey the carrier plate 800 carrying the second printed product to the second transfer unit 52 one by one. The second printed product is the first printed product that has been stacked and transferred in the first transfer unit 51 and has been baked.

[0041] In this embodiment, the third conveying unit 700 serves as a bridge between the first transfer unit 51 and the second transfer unit 52. Through the third conveying unit 700, the printed material or the material to be printed that has been dried in the first transfer unit 51 is conveyed to the second transfer unit 52 for secondary drying. At the same time, the inner chamber of the third conveying unit 700 is connected to the inner chambers of the first transfer unit 51 and the second transfer unit 52 respectively. When the carrier plate 800 carrying the printed material is conveyed along the third conveying unit 700, a constant dimension is maintained to ensure the drying effect in the first transfer unit 51.

[0042] In this embodiment, the second transfer unit 52 extends its travel distance in vertical space through an internal stacking and transfer method (e.g., by first rising and then falling, extending the distance the carrier plate 800 is conveyed). Under the condition of cyclic conveying, it extends the baking time to ensure that the printed product or the ink is sufficiently dry, ensuring the quality of the next printing (one of the multiple printings). In this embodiment, the corresponding oven mechanism 600 generates hot air and transfers the generated hot air to the inner chamber of the second transfer unit 52 to dry the corresponding printed product a corresponding number of times.

[0043] It should be understood that the first transfer unit 51 and the second transfer unit 52 are symmetrical structures set with the printing mechanism 200 as the center of symmetry. The distance that the carrier plate 800 carries the corresponding printed material to rise in the first transfer unit 51 is less than the distance in the second transfer unit 52, while the distance that the carrier plate 800 carries the corresponding printed material to fall in the first transfer unit 51 is greater than the distance in the second transfer unit.

[0044] In this embodiment, the corresponding drying oven mechanism 600 generates hot air and transfers the generated hot air to the inner chamber of the first transfer unit 51 to dry the corresponding printed matter a corresponding number of times.

[0045] The second conveying unit 400 is used to convey the carrier plate 800 carrying the third printed product to the unloading station 002 and / or the printing mechanism 200 one by one. The third printed product is the second printed product that has been stacked and transferred and baked in the second transfer unit 52.

[0046] In this embodiment, after the corresponding printed product is conveyed out of the second transfer unit 52, if the number of printing times of the corresponding printed product reaches the set number (e.g., 3 times), the carrier plate 800 carrying the corresponding printed product will be unloaded after the corresponding printed product arrives at the unloading station 002; while for printed products that have not completed the set number of printing times (e.g., products to be printed that have not been printed), the carrier plate 800 carrying the corresponding printed product will carry the corresponding printed product through the unloading station 002 and be conveyed to the printing mechanism 200 for printing.

[0047] In this embodiment, the printing mechanism 200 is used to print the third printed product that flows through the unloading station 002 and is carried on the corresponding carrier plate 800. That is, when the carrier plate 800 carrying the third printed product is conveyed to the printing mechanism 200, the printing mechanism 200 starts the screen printing operation and prints the preset target pattern on the corresponding third printed product. It should be noted that, whether it is the first printing or the repeated printing, when the corresponding printed product flows through the unloading station 002 and arrives at the printing station where the printing mechanism is located, the printed product to be printed has already completed the corresponding drying and air cooling operations (during the conveying process of the third conveying unit 700), and can start printing when it arrives at the printing mechanism 200.

[0048] In the aforementioned integrated screen printing machine, a first conveying unit 300 and a second conveying unit 400 are respectively arranged on both sides of the printing mechanism 200. The first conveying unit 300 conveys the corresponding carrier plate 800 to the first transfer unit 51, which adopts a stacking-type up-and-down conveying transfer method. The corresponding printed product completes one drying process in the first transfer unit 51 during the process of first rising and then falling. A third conveying unit 700 connects the first transfer unit 51 to the second transfer unit 52, which also adopts a stacking-type up-and-down conveying transfer method. The printed product that has been dried in the first transfer unit 51 is then conveyed to the second transfer unit 52 for another process of first rising and then falling. The printing material then descends and moves, completing a second drying process during this movement. The printed material after the second drying is then conveyed by the second conveyor unit 400 to the unloading station 002 for unloading or to the printing mechanism 200 for the next cycle of printing. Through the conveying method inside the first transfer unit 51 and the second transfer unit 52, the drying stroke and time are extended within a limited space, improving baking efficiency and thus enhancing printing quality. At the same time, the printing mechanism 200 and the stacking and unloading mechanism 500 are cyclically connected through the first conveyor unit 300, the second conveyor unit 400, and the third conveyor unit 700 to form a cyclic screen printing system, reducing equipment components and lowering equipment costs within a limited space.

[0049] In order to receive and print printed materials, refer to Figures 1 to 4 In some embodiments, the printing mechanism 200 includes a base plate 21 mounted on a frame 100. A vacuum adsorption stage 22 is mounted on the base plate 21, and alignment devices 23 are provided around the vacuum adsorption stage 22. The base plate 21 also includes a first conveyor 25 connected to a top support drive unit 24. The base plate 21 further includes a support frame 26, on which a lifting plate 28, driven by a first lifting drive unit 27, is mounted. A screen printing head 29, capable of sliding laterally along the lifting plate 28, is mounted on the lifting plate 28. The lifting plate 28 is also connected to a screen support frame 210 located above the vacuum adsorption stage 22.

[0050] In this embodiment, the screen support frame 210 is connected to two horizontal arms (not labeled) of the vertical lifting plate 28 via a pull rod (not labeled in the figure). This allows the screen support frame 210 to be located on the longitudinal front side of the lifting plate 28 and above the vacuum adsorption stage 22. When the lifting plate 28 moves vertically downward, the screen supported on the screen support frame 210 can be placed on the carrier plate 800 located on the vacuum adsorption stage 22, so that the pattern on the screen can be screen-printed onto the printed product by the printing head 29.

[0051] The top support drive unit 24 is used to drive the first conveyor 25 to be raised to dock with the second conveying unit 400 so that the first conveyor 25 can receive the carrier plate 800 carrying the third printed product, and after the first conveyor 25 conveys the corresponding carrier plate 800 to the vacuum adsorption stage 22, it drives the first conveyor 25 to be lowered to place the corresponding carrier plate 800 on the vacuum adsorption stage 22.

[0052] In this embodiment, the top support drive unit 24 is used to provide power to drive the first conveyor 25 to move vertically, and to move the first conveyor 25 between a position where the carrier plate 800 can be placed on the vacuum adsorption table 22 and a position flush with the first conveying unit 300 and the second conveying unit 400. The position flush with the first conveying unit 300 and the second conveying unit 400 is used to enable the first conveyor 25 to receive the corresponding carrier plate 800 or to transport the carrier plate 800 carrying the printed product that has been printed once to the first conveying unit 300.

[0053] In this embodiment, the top support drive unit 24 includes, but is not limited to, a motor and a cylinder.

[0054] The alignment device 23 is used to calibrate the carrier plate 800 placed on the vacuum adsorption stage 22 so that the corresponding third print is located in the preset printing position.

[0055] In this embodiment, during the initial loading of the carrier plate 800, due to the relatively arbitrary placement, a deviation may occur between the area to be printed on the printed product and the area on the screen printing plate after loading. Therefore, the carrier plate 800 needs to be positionally corrected to ensure that the pattern on the screen printing plate is correctly printed onto the corresponding area of ​​the product. Simultaneously, after the carrier plate 800 prints once and then returns to the printing mechanism 200 via a cyclic conveyor, the carrier plate 800 will experience some movement, at least in the lateral direction. For example, between the two carrier plate conveyors 31... When the material is being transported, if a single material deviates from its position, the positioning sensor on the carrier conveyor 31 will detect the positional shift and perform some correction. However, there will still be some deviation. The deviations generated by the transport of multiple carrier conveyors 31 and the material transfer process of the first transfer unit 51 and the second transfer unit 52 will accumulate to produce a large deviation. At this time, alignment is also required. In this embodiment, the method of limiting and adjusting the position in the horizontal and vertical directions is adopted to align the corresponding carrier 800 to the target area, so that the corresponding pattern can be screen-printed on the corresponding product to be printed.

[0056] The first lifting drive unit 27 is used to drive the lifting plate 28 to raise the screen support frame 210 and the screen printing head 29 to a preset position directly above the vacuum adsorption table 22 before the first conveyor 25 receives and conveys the corresponding carrier plate 800 to the vacuum adsorption table 22, and to drive the lifting plate 28 to drive the screen support frame 210 to place the screen on the third printed product after the corresponding third printed product is in the preset printing position.

[0057] In this embodiment, the first lifting drive unit 27 provides power to drive the lifting plate 28 to slide vertically along the support frame 26, thereby driving the screen holder 210 and the screen printing head 29 to rise and fall vertically. In this embodiment, in order to ensure that the carrier plate 800 can be loaded smoothly, before the first conveyor 25 receives and transports the carrier plate 800 to the vacuum adsorption table 22, the lifting plate 28 is driven to move the screen holder 210 and the screen printing head 29 vertically upward to leave enough space and avoid interfering with the loading of the first conveyor 25. In this embodiment, after the first conveyor 25 completes the corresponding loading, screen printing is performed. At this time, the screen holder 210 needs to move the screen to the carrier plate 800, and the screen needs to contact the product to be printed on the carrier plate 800. At the same time, the screen printing head 29 also needs to move to the screen and print the pattern on the screen onto the corresponding product.

[0058] It should be noted that the first lifting drive unit 27 includes, but is not limited to, an electric cylinder, a servo motor, and a pneumatic cylinder; in this embodiment, an electric cylinder is preferred; it should also be noted that any of the above first lifting drive units 27 are suitable for the first lifting drive unit 27 of this application embodiment. It is understood that how the corresponding lifting drive unit 27 is driven is clear to those skilled in the art and is not a limitation imposed on those who are not clear about it.

[0059] After the screen is placed on the third print, the screen printing head 29 is driven to slide laterally to screen print the third print.

[0060] Understandably, with this setup, the first lifting drive unit 27 drives the lifting plate 28, the screen printing head 29, and the screen support frame 210 to move as needed, satisfying the preset printing requirements while ensuring smooth loading and unloading.

[0061] For printing purposes, refer to Figures 2 to 4In some embodiments, the screen printing head 29 includes a slide 291, a squeegee bracket 292, a second lifting drive unit 293, a squeegee adjustment drive unit 294, a printing squeegee 295, and a back-inking blade 296. The slide 291 is movably connected to a first slide rail 211 mounted on a lifting plate 28 and extending laterally, and is drivenly connected to a horizontal drive unit 212 mounted on the lifting plate 28. The squeegee bracket 292 is movably connected to a second slide rail 297 vertically mounted on the slide 291, and is drivenly connected to the second lifting drive unit 293. The squeegee bracket 292 is also connected to the printing squeegee 295 and the back-inking blade 296 respectively through the squeegee adjustment drive unit 294.

[0062] It is understood that the printing mechanism 200 in the embodiments of this application includes, but is not limited to, the printing mechanism shown in the figure. It can be any existing printing head for screen printing. It should be understood that using any printing mechanism in the prior art does not constitute a limitation on the embodiments of this application. The printing process performed by the printing mechanism 200 will not be described here.

[0063] In this embodiment, the second lifting drive unit 293 that allows the squeegee bracket 292 to slide along the second slide rail 297 is suitable for the second lifting drive unit 293 of this application embodiment. For example, the second lifting drive unit 293 includes, but is not limited to, a cylinder and a motor screw module. In this embodiment, the printing squeegee 295 and the ink return blade 296 are respectively mounted on corresponding mounting brackets (not labeled in the figure). The corresponding mounting brackets are respectively connected to the corresponding blade adjustment drive unit 294. The adjustment drive unit 294 is used to drive the corresponding mounting bracket to move one of the printing squeegee 295 and the ink return blade 296 vertically to adjust the spacing with the screen, thereby controlling the printing thickness of the screen printing. In this embodiment, the blade adjustment drive unit 294 includes, but is not limited to, a pen-shaped cylinder.

[0064] In order to enable the top-support drive first conveyor 25 to move, refer to Figures 1 to 4 In some embodiments, the top support drive unit 24 includes a U-shaped trough frame 241, a first conveyor 25 mounted on the U-shaped trough frame 241, the U-shaped trough frame 241 being fixedly connected to a guide rod 244 movably passing through a bushing 243 via an L-shaped connecting seat 242, the bushing 243 being fixedly mounted on a base plate 21, and a guide frame 245 movably mounted on the base plate 21 and connected to the U-shaped trough frame 241, the U-shaped trough frame 241 being also connected to a lifting drive device 246, wherein the lifting drive device 246 is used to drive the U-shaped trough frame 241 to move vertically with the guide rod 244 and the guide frame 245 as guides, and to transmit the first conveyor 25 to move vertically.

[0065] In this embodiment, the guide rod 244 is movably placed inside the bushing 243, with one end fixed relative to the U-shaped slot frame 241. The bushing 243 is fixed relative to the base plate 21. When the output shaft of the lifting drive device 246 outputs power, the U-shaped slot frame 241 is lifted, the guide rod 244 slides upward relative to the bushing 243, and the guide frame 245 slides relative to the base plate 21. In this way, the U-shaped slot frame 241 moves vertically smoothly. In this embodiment, the lifting drive device 246 that satisfies the requirement of driving the U-shaped slot frame 241 to move vertically is suitable for the lifting drive device 246 of this application embodiment. For example, the lifting drive device 246 can be an electric cylinder, a pneumatic cylinder, or a linear module. The linear module includes, but is not limited to, a ball screw linear module and a rack and pinion linear module, and the corresponding linear module is connected to the corresponding power source (e.g., a motor).

[0066] To achieve position calibration of carrier plate 800, reference Figures 1 to 4 In some embodiments, the alignment device 23 includes a lateral alignment device 231 and a longitudinal alignment device 232. The lateral alignment device 231 includes a lateral limiting device 233 and a lateral adjusting device 234 disposed on both lateral sides of the vacuum adsorption stage 22. The limiting bearing (not labeled in the figure) of the lateral limiting device 233 can be driven to move vertically to limit the lateral movement of the corresponding carrier plate 800. The alignment bearing (not labeled in the figure) of the lateral adjusting device 234 can be driven to move both vertically and horizontally to push the corresponding carrier plate. The 800 plate moves laterally to abut against the limiting bearing; the longitudinal alignment device 232 includes a longitudinal limiting device 235 and a longitudinal adjustment device 236. The longitudinal limiting device 235 is fixed on one side of the longitudinal direction of the vacuum adsorption stage 22 and is used to longitudinally limit and align the longitudinal side of the corresponding carrier plate 800. The longitudinal adjustment device 236 is located on the other side of the longitudinal direction of the vacuum adsorption stage 22. The adjusting bearing of the longitudinal adjustment device 236 can be driven to move longitudinally to push the corresponding carrier plate 800 to move longitudinally to abut against the longitudinal limiting device 235.

[0067] In this embodiment, the lateral limiting device 233 includes a limiting bearing and a linear cylinder. The linear cylinder drives the limiting bearing to move vertically, thereby limiting and positioning the carrier plate 800 moving laterally. The lateral adjustment device 234 includes a positioning bearing, a lifting cylinder, and a horizontal pushing cylinder. The lifting cylinder drives the horizontal pushing cylinder and the positioning bearing to move vertically, adjusting their positions in the vertical direction. After reaching the corresponding position, the horizontal pushing cylinder drives the positioning bearing to move laterally, pushing the carrier plate 800 laterally until it rests against the limiting bearing, thus completing the lateral positioning. In this embodiment, the lateral limiting device 233 serves as a fixed positioning point in the lateral direction, while the lateral adjustment device serves as a movable adjustment point, thereby adjusting the carrier plate 800 by adjusting its position in the vertical direction. The pushing operation in the lateral direction allows the carrier plate 800 to complete the alignment in the lateral direction. In this embodiment, two longitudinal limiting devices 235, each including a positioning post and a positioning bearing, are provided. These two longitudinal limiting devices 235 serve as fixed positioning points in the longitudinal direction. They are used in conjunction with a longitudinal adjusting device 236, which consists of an adjusting bearing and a longitudinal thrust cylinder. The longitudinal thrust cylinder pushes the adjusting bearing and moves the carrier plate 800 in the longitudinal direction to adjust its position. The longitudinal alignment is achieved by limiting the two longitudinal limiting devices 235, which serve as fixed positioning points. It should be understood that the description is given separately in terms of direction. In the actual alignment process, the alignment is carried out simultaneously. The carrier plate 800 is moved to the target printing area by pushing it in both the longitudinal and lateral directions, thus completing the screen printing.

[0068] To achieve rapid, block-by-block implementation of carrier board 800, refer to... Figures 1 to 3 In some embodiments, the first conveying unit 300, the second conveying unit 400, and the third conveying unit 700 each include a plurality of sequentially docked carrier conveyors 31. The carrier conveyors 31 of the first conveying unit 300 and the second conveying unit 400 near the printing mechanism 200 are movably docked with the first conveyor 25. The carrier conveyors 31 of the first conveying unit 300 and the third conveying unit 700 near the first transfer unit 51 are respectively docked with the transfer conveyor 53 of the first transfer unit 51. The carrier conveyors 31 of the second conveying unit 400 and the third conveying unit 700 near the second transfer unit 52 are respectively docked with the transfer conveyor 53 of the second transfer unit 52.

[0069] To achieve palletizing, transfer, loading, and unloading, refer to... Figure 1 and Figure 5 , Figure 6In some embodiments, the first transfer unit 51 further includes a first stacking transfer component 54, a first pushing component 55, and a second stacking transfer component 56; the second transfer unit 52 further includes a third stacking transfer component 57, a second pushing component 58, and a fourth stacking transfer component 59. The first stacking transfer component 54 is disposed above the transfer conveyor 53 located on the side of the first conveying unit 300 away from the printing mechanism 200; the second stacking transfer component 56 and the fourth stacking transfer component 59 are respectively disposed above the two transfer conveyors 53 located on the lateral sides of the third conveying unit 700; the third stacking transfer component 57 is disposed above the transfer conveyor 53 located on the side of the second conveying unit 400 away from the printing mechanism 200; the first pushing component 55 is disposed between the first stacking transfer component 54 and the second stacking transfer component 56; and the second pushing component 58 is disposed between the third stacking transfer component 57 and the fourth stacking transfer component 59.

[0070] After the corresponding transfer conveyor 53 transfers the carrier plate 800 carrying the first printed product to the first stacking transfer assembly 54, the first stacking transfer assembly 54 is used to transfer the carrier plate 800 carrying the first printed product upwards piece by piece to the docking position with the first pusher assembly 55; the first pusher assembly 55 is used to push the corresponding carrier plate 800 horizontally piece by piece to the second stacking transfer assembly 56; the second stacking transfer assembly 56 is used to transfer the carrier plate 800 it receives downwards piece by piece to the corresponding transfer conveyor 53, so that the corresponding transfer conveyor 53 can transport the carrier plate 800 carrying the second printed product to the third transfer unit 700.

[0071] After the corresponding transfer conveyor 53 transfers the carrier plate 800 carrying the second printed product to the fourth stacking transfer assembly 59, the fourth stacking transfer assembly 59 transfers the carrier plates 800 carrying the second printed product upwards one by one to the docking position with the second pusher assembly 58; the second pusher assembly 58 is used to push the corresponding carrier plates 800 horizontally one by one to the third stacking transfer assembly 57; the third stacking transfer assembly 57 is used to transfer the carrier plates 800 it receives downwards one by one to the corresponding transfer conveyor 53, so that the corresponding transfer conveyor 53 transports the carrier plate 800 carrying the third printed product to the second transfer unit 400.

[0072] To achieve vertical transport of the carrier plate 800, refer to Figure 5 and Figure 6 In some embodiments, the first pallet transfer assembly 54, the second pallet transfer assembly 56, the third pallet transfer assembly 57, and the fourth pallet transfer assembly 59 each include two vertical chain conveyor belts 541 arranged opposite each other. The rotating shafts 542 of the two vertical chain conveyor belts 541 are connected to the drive shaft 546 of the synchronous drive unit 545 via a gear 543 and a transmission gear 544. The vertical chain conveyor belts 541 are also provided with multiple pallets 547.

[0073] The synchronous drive unit 545 is used to drive the rotating shaft 542 through the drive shaft 546 to drive the two vertical chain conveyor belts 541 to move synchronously vertically.

[0074] In this embodiment, the synchronous drive unit 545 consists of a motor and a reducer. The motor and reducer are connected by a drive mechanism, and the reducer is connected by a drive shaft 546. The two axial ends of the drive shaft 546 mesh with the driven gear 543 on the rotating shaft 542 through the drive teeth 544. The motor drives the reducer to drive the drive shaft 546 to rotate. Through the meshing of the corresponding drive teeth 544 and the driven gear 543, the two vertical chain conveyor belts 541 are driven to move vertically in a synchronous manner, so as to realize the synchronous drive unit 545 driving the two vertical chain conveyor belts 541 to move vertically in a synchronous manner.

[0075] Two vertical chain conveyor belts 541 move vertically in sync to drive two pallets 547 located at the same position to support the corresponding carrier plate 800 and move vertically.

[0076] To enable transfer between two palletizing transfer components, refer to Figure 1 , Figure 5 and Figure 6 In some embodiments, the first pushing assembly 55 and the second pushing assembly 58 both include a slide table 551 and a push rod 552. The slide table 551 is convexly connected to the push rod 552 and is used to drive the push rod 552 to move from the first stacking transfer assembly 54 toward the second stacking transfer assembly 56 or from the fourth stacking transfer assembly 59 toward the third stacking transfer assembly 57, so that the push rod 552 pushes the corresponding carrier plate 800 into place.

[0077] To achieve the drying of printed materials, refer to Figure 1 In some embodiments, the oven mechanism 600 includes a blower dryer 61, which connects to the inner chambers of the first transfer unit 51 and the second transfer unit 52, wherein...

[0078] The blower dryer 61, located on the first transfer unit 51, is used to bake the carrier plate 800, which carries the first printed product and is transferred up and down on the first stacking transfer assembly 54 and the second stacking transfer assembly 56, so as to dry the first printed product into the second printed product.

[0079] The blower dryer 61, located on the second transfer unit 52, is used to bake the carrier plate 800, which carries the second printed product and is transferred up and down on the fourth stacking transfer assembly 59 and the third stacking transfer assembly 57, so as to dry the second printed product into the third printed product.

[0080] In this embodiment, the blower dryer 61 of the oven mechanism 600 generates hot air, which is then blown into the inner chambers corresponding to the first transfer unit 51 and the second transfer unit 52. During the process of the first transfer unit 51 and the second transfer unit 52 stacking and transferring the corresponding printed materials, the drying of the printed materials is completed.

[0081] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0082] Those skilled in the art should recognize that the above embodiments are only used to illustrate the present utility model and are not intended to limit the present utility model. Any appropriate changes and variations made to the above embodiments within the scope of the essential spirit of the present utility model shall fall within the scope of protection claimed by the present utility model.

Claims

1. An integrated screen printing machine characterized in that, The system includes a printing mechanism (200) for screen printing printed materials and mounted on a frame (100). The printing mechanism (200) has a first conveying unit (300) and a second conveying unit (400) on its lateral sides. The first conveying unit (300) and the second conveying unit (400) are respectively connected to the first transfer unit (51) and the second transfer unit (52) of a stacking and unloading mechanism (500) on their opposite sides from the printing mechanism (200). Both the first transfer unit (51) and the second transfer unit (52) are equipped with an oven mechanism (600) for baking the printed materials and are connected via a third conveying unit (700). The first conveying unit (300) is used to convey the carrier plate (800) carrying the first printed product from the loading station (001) to the first transfer unit (51) one by one. The first printed product includes one of the following: the product to be printed after loading, or the product that has been screen printed and conveyed by the printing mechanism (200) in the previous screen printing. The third conveying unit (700) is used to convey the carrier plate (800) carrying the second printed product to the second transfer unit (52) one by one. The second printed product is the first printed product that has been stacked and transferred and baked in the first transfer unit (51). The second conveying unit (400) is used to convey the carrier plate (800) carrying the third printed product to the unloading station (002) and / or the printing mechanism (200) one by one, wherein the third printed product is the second printed product that has been stacked and transferred and baked in the second transfer unit (52).

2. The integrated screen printing press of claim 1, wherein, The printing mechanism (200) includes a base plate (21) mounted on the frame (100), a vacuum adsorption stage (22) mounted on the base plate (21), a positioning device (23) mounted around the vacuum adsorption stage (22), a first conveyor (25) connected to a top support drive unit (24) on the base plate (21), a support frame (26) mounted on the support frame (26), a lifting plate (28) mounted on the support frame (26) and moved by a first lifting drive unit (27), a screen printing head (29) mounted on the lifting plate (28) and capable of sliding laterally along the lifting plate (28), and the lifting plate (28) is also connected to a screen support frame (210) located above the vacuum adsorption stage (22). The top support drive unit (24) is used to drive the first conveyor (25) to be raised to dock with the second conveying unit (400) so that the first conveyor (25) receives the carrier plate (800) carrying the third printed product, and after the first conveyor (25) conveys the corresponding carrier plate (800) to the vacuum adsorption stage (22), it drives the first conveyor (25) to be lowered to place the corresponding carrier plate (800) on the vacuum adsorption stage (22); The alignment device (23) is used to calibrate the carrier plate (800) placed on the vacuum adsorption stage (22) so that the corresponding third print is located in the preset printing position; The first lifting drive unit (27) is used to drive the lifting plate (28) to lift the screen support frame (210) and the screen printing head (29) to a preset position directly above the vacuum adsorption table (22) before the first conveyor (25) receives and conveys the corresponding carrier plate (800) to the vacuum adsorption table (22), and to drive the lifting plate (28) to drive the screen support frame (210) to place the screen on the third printed product after the corresponding third printed product is in the preset printing position; After the screen is placed on the third print, the screen printing head (29) is driven to slide laterally to screen print the third print.

3. The integrated screen printing machine of claim 2, wherein, The screen printing head (29) includes a slide (291), a squeegee bracket (292), a second lifting drive unit (293), a blade adjustment drive unit (294), a printing squeegee (295), and a back-inking blade (296). The slide (291) is movably connected to a first slide rail (211) mounted on the lifting plate (28) and extending laterally, and is driven by a horizontal drive unit (212) mounted on the lifting plate (28). The squeegee bracket (292) is movably connected to a second slide rail (297) vertically mounted on the slide (291), and is driven by a second lifting drive unit (293). The squeegee bracket (292) is also connected to the printing squeegee (295) and the back-inking blade (296) respectively through the blade adjustment drive unit (294).

4. The integrated screen printing press of claim 2, wherein, The top support drive unit (24) includes a U-shaped trough frame (241), and the first conveyor (25) is mounted on the U-shaped trough frame (241). The U-shaped trough frame (241) is fixedly connected to the guide rod (244) movably passing through the bushing (243) via an L-shaped connecting seat (242). The bushing (243) is fixedly mounted on the base plate (21). The base plate (21) is also movably mounted with a guide frame (245) connected to the U-shaped trough frame (241). The U-shaped trough frame (241) is also connected to the lifting drive device (246) for transmission. The lifting drive device (246) is used to drive the U-shaped trough frame (241) to move vertically with the guide rod (244) and the guide frame (245) as guides, and to transmit the first conveyor (25) to move vertically.

5. The integrated screen printing press of claim 2, wherein, The alignment device (23) includes a lateral alignment device (231) and a longitudinal alignment device (232). The lateral alignment device (231) includes a lateral limiting device (233) and a lateral adjusting device (234) disposed on both sides of the vacuum adsorption stage (22). The limiting bearing of the lateral limiting device (233) can be driven to move vertically to limit the lateral movement of the corresponding carrier plate (800). The alignment bearing of the lateral adjusting device (234) can be driven to move both vertically and horizontally to push the corresponding carrier plate (800) to move laterally against the limiting bearing. The longitudinal alignment device (232) includes a longitudinal limiting device (235) and a longitudinal adjustment device (236). The longitudinal limiting device (235) is fixed on one side of the longitudinal direction of the vacuum adsorption stage (22) and is used to longitudinally limit and align the longitudinal side of the corresponding carrier plate (800). The longitudinal adjustment device (236) is located on the other side of the longitudinal direction of the vacuum adsorption stage (22). The adjusting bearing of the longitudinal adjustment device (236) can be driven to move longitudinally to push the corresponding carrier plate (800) to move longitudinally to abut against the longitudinal limiting device (235).

6. The integrated screen printing press of claim 2, wherein, The first conveying unit (300), the second conveying unit (400), and the third conveying unit (700) each include a plurality of sequentially docked carrier conveyors (31). The carrier conveyors (31) of the first conveying unit (300) and the second conveying unit (400) near the printing mechanism (200) are movably docked with the first conveyor (25). The carrier conveyors (31) of the first conveying unit (300) and the third conveying unit (700) near the first transfer unit (51) are respectively docked with the transfer conveyor (53) of the first transfer unit (51). The carrier conveyors (31) of the second conveying unit (400) and the third conveying unit (700) near the second transfer unit (52) are respectively docked with the transfer conveyor (53) of the second transfer unit (52).

7. The integrated screen printing machine of claim 6, wherein, The first transfer unit (51) further includes a first stacking transfer assembly (54), a first pushing assembly (55), and a second stacking transfer assembly (56). The second transfer unit (52) further includes a third stacking transfer assembly (57), a second pushing assembly (58), and a fourth stacking transfer assembly (59). The first stacking transfer assembly (54) is located above the transfer conveyor (53) on the side of the first transfer unit (300) away from the printing mechanism (200). The second stacking transfer assembly (56) and the fourth stacking transfer assembly (59) are respectively located above the first transfer unit (300) away from the printing mechanism (200). The third palletizing transfer assembly (57) is located above the two transfer conveyors (53) on the lateral sides of the third transfer unit (700), and above the transfer conveyor (53) on the side of the second transfer unit (400) away from the printing mechanism (200). The first pusher assembly (55) is located between the first palletizing transfer assembly (54) and the second palletizing transfer assembly (56), and the second pusher assembly (58) is located between the third palletizing transfer assembly (57) and the fourth palletizing transfer assembly (59). After the corresponding transfer conveyor (53) transfers the carrier plate (800) carrying the first printed product to the first stacking transfer assembly (54), the first stacking transfer assembly (54) is used to transfer the carrier plate (800) carrying the first printed product upwards piece by piece to the docking position with the first pusher assembly (55); the first pusher assembly (55) is used to push the corresponding carrier plate (800) horizontally piece by piece to the second stacking transfer assembly (56); the second stacking transfer assembly (56) is used to transfer the received carrier plate (800) piece by piece downwards to the corresponding transfer conveyor (53), so that the corresponding transfer conveyor (53) transports the carrier plate (800) carrying the second printed product to the third transfer unit (700). After the corresponding transfer conveyor (53) transfers the carrier plate (800) carrying the second printed product to the fourth stacking transfer assembly (59), the fourth stacking transfer assembly (59) transfers the carrier plate (800) carrying the second printed product upwards piece by piece to the docking position with the second pusher assembly (58); the second pusher assembly (58) is used to push the corresponding carrier plate (800) horizontally piece by piece to the third stacking transfer assembly (57); the third stacking transfer assembly (57) is used to transfer the received carrier plate (800) piece by piece downwards to the corresponding transfer conveyor (53), so that the corresponding transfer conveyor (53) transports the carrier plate (800) carrying the third printed product to the second transfer unit (400).

8. The integrated screen printing machine of claim 7, wherein, The first palletizing and transferring assembly (54), the second palletizing and transferring assembly (56), the third palletizing and transferring assembly (57), and the fourth palletizing and transferring assembly (59) each include two vertical chain conveyor belts (541) arranged opposite each other. The rotating shafts (542) of the two vertical chain conveyor belts (541) are connected to the drive shaft (546) of the synchronous drive unit (545) via gears (543) and transmission gears (544). The vertical chain conveyor belts (541) are also provided with multiple pallets (547). The synchronous drive unit (545) is used to drive the rotating shaft (542) through the transmission shaft (546) to drive the two vertical chain conveyor belts (541) to move synchronously vertically. The two vertical chain conveyor belts (541) move vertically in sync to drive the two pallets (547) located at the same position to carry the corresponding carrier plate (800) vertically.

9. The integrated screen printing press of claim 7, wherein, Both the first pusher assembly (55) and the second pusher assembly (58) include a slide (551) and a pusher (552). The slide (551) is connected to the pusher (552) and is used to drive the pusher (552) to move from the first stacking transfer assembly (54) toward the second stacking transfer assembly (56) or from the fourth stacking transfer assembly (59) toward the third stacking transfer assembly (57) so that the pusher (552) pushes the corresponding carrier plate (800) into place.

10. The integrated screen printing press of claim 7, wherein, The oven mechanism (600) includes a blower dryer (61), which connects the inner chambers of the first transfer unit (51) and the second transfer unit (52), wherein, The blower dryer (61) provided on the first transfer unit (51) is used to bake the carrier plate (800) carrying the first printed product and being transferred up and down on the first stacking transfer assembly (54) and the second stacking transfer assembly (56) to dry the first printed product into the second printed product. The blower dryer (61) provided on the second transfer unit (52) is used to bake the carrier plate (800) carrying the second printed product and being transferred up and down on the fourth stacking transfer assembly (59) and the third stacking transfer assembly (57) to dry the second printed product into the third printed product.

Images