A system for security marking of printed matter

Abstract

The present application relates to the technical field of printing processing, and provides a printed matter surface anti-counterfeiting processing system, which comprises a system input module, a system storage module, a central control module and an execution module, the system module is configured to collect user input option data, the system storage module is configured to store preset system parameter data, the central control module is configured to collect data received by the system input module and call data stored in the system storage module, and control the execution module to perform corresponding operations; the execution module is configured to select an execution operation according to a control instruction issued by the central control module; the present application can realize full-process automatic control from feeding to coating to curing to collection, can quickly switch according to different application scenarios, and realizes automatic and intelligent anti-counterfeiting printing in a true sense.

Description

Technical Field

[0001] This invention relates to the field of printing processing technology, and more specifically to an anti-counterfeiting treatment system for the surface of printed materials. Background Technology

[0002] Printing anti-counterfeiting technology is a comprehensive anti-counterfeiting technology, including anti-counterfeiting design and plate making, precision printing equipment, and supporting inks and paper. With the development of technology, printing anti-counterfeiting technology has also expanded unprecedentedly, from the original limited and single anti-counterfeiting methods to the numerous composite high-tech anti-counterfeiting methods currently available. From the perspective of printing technology alone, printing anti-counterfeiting technologies mainly include: engraving plate making, computer-aided design of printing patterns, gravure printing, rainbow printing, pattern alignment, double-sided printing technology, multi-color inline printing, multi-color overprinting, microprinting technology, refractive latent images, invisible images, and image scrambling printing. With the development of high technology and people's demands for high-quality packaging and printed products, the combined use of multiple printing equipment and the mutual penetration of multiple printing processes have made printed products more unpredictable and diverse. Products printed using these new technologies create layers of obstacles and resistance for counterfeiters.

[0003] However, all anti-counterfeiting technologies must adhere to the principles of effectiveness, economy, practicality, and ease of identification. Otherwise, even the best anti-counterfeiting technologies cannot be promoted and applied. Currently, the more commonly used anti-counterfeiting technologies such as ink anti-counterfeiting, plate pattern anti-counterfeiting, and rainbow printing have overly complex anti-counterfeiting printing devices and low reliability. Especially in the era of widespread intelligentization, the demand for automated, intelligent, and highly reliable anti-counterfeiting printing systems is becoming increasingly urgent. Summary of the Invention

[0004] To address the shortcomings of existing technologies, this invention provides a surface anti-counterfeiting treatment system for printed materials. This system can be fully automated from feeding to coating to curing to collection, and can quickly switch according to different application scenarios, truly achieving automated and intelligent anti-counterfeiting printing.

[0005] The present invention solves the technical problem by adopting the following technical solution: This invention provides a surface anti-counterfeiting treatment system for printed materials, comprising a system input module, a system storage module, a central control module, and an execution module. The system input module is configured to collect user-input option data, including one or more of the following: anti-counterfeiting type selection data, surface finishing process selection data, printed material parameter selection data, substrate ink composition selection data, gloss selection data, or dryness selection data. The system storage module is configured to store preset system parameter data, including one or more of the following: anti-counterfeiting sub-category data, material composition data, process parameter data, surface finishing process sub-category data, process parameter data, production rate data, and production line parameters and indicators data. The central control module is configured to control the execution module to perform corresponding operations based on the data collected by the system input module and the data stored in the system storage module. The execution module is configured to select and execute one or more of the following operations based on control commands issued by the central control module: feeding the printed material, anti-counterfeiting base coating, base coating curing, personalized anti-counterfeiting, mid-process curing, top coating, pre-curing, surface decoration, enhanced curing, and receiving operations.

[0006] Compared with the prior art, the present invention has the following beneficial effects: The anti-counterfeiting surface treatment system for printed materials of this invention features fully automated control from feeding to coating to curing to collection. It can quickly switch between different application scenarios, achieving true automated and intelligent anti-counterfeiting printing. To realize the automated and intelligent functions of the anti-counterfeiting printing system of this invention, the coating device, curing device, feeding device, and collecting device are innovatively modularized according to the entire production line design. This makes the anti-counterfeiting printing system of this invention easier to assemble, provides high system scalability and good compatibility. Furthermore, the design of each module of the entire system meets the needs of automated, intelligent, and unmanned production. Other outstanding substantive features and significant advancements of this invention compared to existing technologies are further described in detail in the embodiments section. Attached Figure Description

[0007] Other features, objects, and advantages of the present invention will become more apparent from the following detailed description of non-limiting embodiments with reference to the accompanying drawings: Figure 1 This is a schematic diagram of the system structure of the present invention; Figure 2 This is a schematic diagram of the execution module structure of the system of the present invention; Figure 3 This is a three-dimensional complete structural diagram of the feeding device in Example 1; Figure 4 This is a schematic diagram of the upwardly inclined three-dimensional structure of the feeding device in Example 1; Figure 5 This is a right-side structural schematic diagram of the feeding device in Example 1; Figure 6 This is a rear view schematic diagram of the feeding device in Example 1; Figure 7 This is a schematic diagram of the shaft side structure of the feeding device in Example 1; Figure 8 This is a three-dimensional structural diagram of the feeding device in Example 1; Figure 9 This is a partially enlarged schematic diagram of the third conveyor roller. Figure 10 This is a partially enlarged structural diagram of the timing pressing component; Figure 11 Left-side perspective three-dimensional schematic diagram of part of the feeding device structure; Figure 12 Right-side perspective view of the partial structure of the feeding device after removing the second mounting plate on one side; Figure 13 This is a schematic diagram of the linkage component structure; Figure 14 This is a schematic diagram of the mobile component structure; Figure 15 This is an enlarged schematic diagram of a part of the linkage component; Figure 16 A magnified schematic diagram of the local structure of the main shaft; Figure 17 This is an enlarged schematic diagram of a portion of the material stacking platform. Figure 18 A three-dimensional structural diagram of the coating device; Figure 19 This is a left rear view three-dimensional structural diagram of the coating device; Figure 20 This is a schematic diagram of the three-dimensional structure of the reciprocating translation component; Figure 21 This is a schematic diagram of the three-dimensional structure of the material tank; Figure 22 This is a schematic diagram of the adjustment mechanism. Figure 23 This is a schematic diagram of the feeding component structure; Figure 24 A schematic diagram of the improved coating device; Figure 24 This is a three-dimensional structural diagram of the curing device; Figure 25 This is a schematic diagram of the internal structure of the curing device; Figure 26 This is a schematic diagram of the second conveying mechanism of the curing device; Figure 27 This is a perspective structural diagram of the curing device; Figure 28 This is a three-dimensional schematic diagram of the adjustment mechanism; Figure 29 This is a schematic diagram of the internal structure of the curing chamber; Figure 30 This is a schematic diagram of the heating component structure; Figure 31 This is a right rear view of the three-dimensional structure of the material receiving device; Figure 32 This is a three-dimensional structural diagram of the material receiving device; Figure 33 This is a schematic diagram of the right-side structure of the material receiving device; Figure 34 This is a schematic diagram of the isometric structure of the receiving device; Figure 35 This is a schematic diagram of the front guide mechanism of the receiving device; Figure 36 This is a partially enlarged schematic diagram of the front guide mechanism; Figure 37 This is a partially enlarged structural diagram of the distance measurement and control component; Figure 38 This is a partial enlarged structural diagram of the platform. Figure 39 This is a magnified schematic diagram of a portion of the structure at the location of the scroll in the platform. Detailed Implementation

[0008] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0009] Furthermore, those skilled in the art will recognize that various aspects of the present invention can be implemented as a system, method, or computer program product. Therefore, various aspects of the present invention can be specifically implemented in a combination of hardware and software, collectively referred to herein as a "circuit," "module," or "system." Additionally, in some embodiments, various aspects of the present invention can also be implemented as a computer program product contained in one or more microcontroller-readable media, the microcontroller-readable medium containing microcontroller-readable program code. Example 1

[0010] like Figure 1-39 As shown, this embodiment of a printed material surface anti-counterfeiting treatment system includes a system input module, a system storage module, a central control module, and an execution module. The system input module is configured to collect user-input option data, which includes one or more of the following: anti-counterfeiting type selection data, surface decoration process selection data, printed material parameter selection data, substrate ink composition selection data, gloss selection data, or dryness selection data. The system storage module is configured to store preset system parameter data, which includes one or more of the following: anti-counterfeiting sub-category data, material composition data, process parameter data, surface decoration process sub-category data, process parameter data, production rate data, and production line parameters and indicators data. The central control module is configured to control the execution module to perform corresponding operations based on the data collected by the system input module and the data stored in the system storage module. The execution module is configured to select one or more of the following operations based on the control commands issued by the central control module: feeding operation, anti-counterfeiting base coating operation, base coating curing operation, personalized anti-counterfeiting operation, mid-process curing operation, top coating operation, pre-curing operation, decorative surface operation, enhanced curing operation, and material collection operation. The selection can be made as needed and will not be elaborated here. Among them, personalized anti-counterfeiting operation generally includes one or more of the following: internal pattern operation, internal inkjet coding operation, temperature-controlled coating operation, light-sensing anti-counterfeiting operation, and holographic anti-counterfeiting operation. The selection can be made as needed and will not be elaborated here.

[0011] The execution module of this embodiment includes one or more of a coating device, a curing device, a feeding device, and a receiving device. The coating device is configured to perform anti-counterfeiting base coating or top coating operation on the printable material. The feeding device is configured to perform feeding operation on the printable material. The receiving device is configured to perform receiving operation on the printable material. The curing device is configured to perform base coating curing operation, pre-curing operation, or enhanced curing operation on the printable material.

[0012] The execution module in this embodiment includes a feeding device 10, a first coating device 20a, a first curing device 30a, a second coating device 20b, a second curing device 30b, and a receiving device 40, which are cascaded in sequence. The first coating device and the second coating device are the same, and the first curing device and the second curing device are the same. Of course, curing devices and coating devices can be added as needed, but this will not be elaborated here.

[0013] In this invention, the feeding device 10, coating device 20, curing device 30 and receiving device 40 are all designed with originality. Specifically, the feeding device 10 in this embodiment includes a feeding frame 101 and a feeding placement mechanism 102 and a conveying guide mechanism 103 arranged on the feeding frame. The conveying guide mechanism 103 and the feeding placement mechanism 102 are matched and arranged to work together to achieve the gripping and delivery of planar materials. Generally, the conveying guide mechanism 103 is installed on the outside of the feeding frame 101, and the feeding placement mechanism 102 is arranged inside the feeding frame. In this embodiment, the conveying and guiding mechanism 103 is installed on one side of the feeding frame 101. The conveying and guiding mechanism 103 includes a second guiding component 1031 and a second conveying component 1032. The second guiding component 1031 and the second conveying component 1032 are matched and arranged to achieve stable conveying of planar materials. That is, the conveying and guiding mechanism 103 is configured to receive and deliver planar materials under the drive of the conveying power component 104. Specifically, the second guiding component 1031 includes a guide panel 10311 and a telescopic support rod 10312. One end of 311 is rotatably connected to the feeder frame 101, while one end of the telescopic support rod 10312 is hinged to the feeder frame 101, and the other end is hinged to the side of the guide panel 10311. Through the above settings, the tilt angle of the guide panel 10311 can be freely adjusted, so that it can better dock with the subsequent platform, greatly improving the scalability and adaptability of the entire device. Here, the telescopic support rod 10312 can be selected as a pneumatic or hydraulic telescopic support rod with positioning function as needed. Those skilled in the art can choose for themselves, and it will not be described in detail here.

[0014] In this embodiment, the second conveying component 1032 includes a fourth conveyor belt 10321, a third conveyor roller 10322, a front pressure guide roller 10323, and a rear pressure guide roller 10324. The fourth conveyor belt 10321 is disposed in the middle of the guide panel 10311 and sleeved on the third conveyor roller 10322. The width of the fourth conveyor belt 10321 can be set as needed, generally matching the size of the planar material. In this embodiment, the third conveyor roller 10322 includes a third driving roller 103221, a third driven roller 103222, and several third auxiliary rollers 103223. Generally, the third driving roller 103221 and the third driven roller 103222... The third active roller 103221 is rotatably mounted at both ends of the guide panel 10311 and is poweredly connected to the transmission power component 104. This connection can be achieved through a synchronous belt or chain. The transmission power component 104 can be a motor or other power source component, which will not be elaborated here. In this embodiment, the third auxiliary roller 103223 is spaced apart on the lower side of the guide panel 10311, and the fourth conveyor belt 10321 is wound around the third auxiliary roller 103223. The third auxiliary roller 103223 is set up for two purposes: one is to change the running direction of the fourth conveyor belt 10321, and the other is to achieve the effect of tightening the fourth conveyor belt 10321, which will not be elaborated here.To enhance the smoothness of planar material transport, and particularly to facilitate smooth material reception with the feeding mechanism 102, this embodiment uniquely designs a front pressure guide wheel 10323 and a rear pressure guide wheel 10324. Specifically, the rear pressure guide wheel 10324 is connected to the feeding frame 101 via a mounting bracket 103241; the front pressure guide wheel 10323 is connected to the feeding frame 101 via a timed pressing component 103231. In this embodiment, the timed pressing component 103231 includes a guide wheel mounting shaft 1032311, which is rotatably connected to the feeding frame 101. Rotational reset components 1032312 are sleeved at both ends of the guide wheel mounting shaft 1032311. Generally, the rotational reset component 1032312 can be a reset spring, or a rotational reset component structure, as long as it allows the guide wheel mounting shaft 1032311 to rotate and return to its original position. Further details are omitted here. The guide wheel 10323 is fixedly sleeved on the guide wheel mounting shaft 1032311. A lower pressure arm 1032313 is also sleeved on the guide wheel mounting shaft 1032311. A third lifting wheel 1032315, matching the third eccentric wheel 1032314, is installed at the free end of the lower pressure arm 1032313. The third eccentric wheel 1032313 is powered by the feeding power unit 105. The third eccentric wheel 1032314 rotates under the drive of the feeding power unit 105. The third lifting wheel 1032315 is moved and intermittently collides with the third lifting wheel 1032315. The third lifting wheel 1032315 drives the lower pressing arm 1032313 to press down, thereby driving the guide wheel mounting shaft 1032311 to rotate, so that the front pressing guide wheel 10323 can press down intermittently. In this embodiment, the third eccentric wheel 1032314 can be directly sleeved on the main rotating shaft 108 to achieve the effect of being driven by the feeding power component 105. Of course, other connection methods can also be used, which will not be elaborated here. In this embodiment, a front bearing roller 103224, which is matched with the front pressure guide roller 10323, is also provided on the outer side of the adjacent third active roller 103221. The front bearing roller 103224 is rotatably mounted on the feeding frame 101 and is poweredly connected to the transmission power component 104. When the front pressure guide roller 10323 is pressed down by the timed pressing component 103231, it abuts against the front bearing roller 103224. Through the design of the front bearing roller 103224, when the front pressure guide roller 10323 contacts the front bearing roller 103224, it can clamp the flat material in the middle on the one hand, and push the flat material backward on the other hand, so as to achieve smooth and stable material receiving and feeding. The rear pressure guide roller 10324 abuts against the third active roller 103221 at the interval of the fourth conveyor belt 10321. This design can continue to clamp the flat material conveyed by the front pressure guide roller 10323 and stably convey it backward.

[0015] Another important component in this embodiment is the placement and feeding mechanism 102, which specifically includes a placement component 1021 and a feeding component 1022. The placement component is configured to move vertically under the control of the placement power component 106, while the feeding component 1022 is configured to sequentially absorb planar materials and feed them into the conveying and guiding mechanism 103 under the drive of the feeding power component 105. The two work together to automatically feed stacks of planar materials upwards and outwards. More specifically, the placement component 1021 in this embodiment includes a material stacking platform 10211 and a distance sensing component 10212. Generally, a second reel 10213 is rotatably mounted on the top of the feeding frame 101. The second reel 10213 is poweredly connected to the placement power component 106. The placement power component 106 is generally a controlled servo motor, but other controlled power devices can also be used, which will not be elaborated here. In this embodiment, the second reel 10213 has two fixedly mounted second synchronous reels 10214 at both ends, and the material stacking platform 10211 has four fixedly connected lifting ropes 10215 at its four corners. The lifting ropes 10215 are connected to the second synchronous reels 10214, and generally the lifting ropes 10215 are made of steel wire rope. Under the drive of the power unit 106, the second reel 10213 drives the second synchronous reels 10214 to move upward or downward, thereby controlling the material stacking platform 10211 to rise or fall. The material stacking platform 10211 is also provided with a guide plate 10216, which is sleeved on the second vertical guide rail 10217 installed on the feeder frame 101. Generally, the guide plate 10216 and the second vertical guide rail 10217 are two symmetrically arranged, which can well ensure the stability of the entire material stacking platform 10211 during the rising or falling process. In this embodiment, the distance sensing component 10212 includes a horizontal support 102121 mounted on the feeding frame 101. A plurality of second distance sensors 102122 are installed on the horizontal support 102121. These second distance sensors 102122 can automatically measure their distance from the planar material, thereby transmitting the data to a second controller 107. The second controller 107 issues a command to the placement power component 106, which controls the material stacking platform 10211 to rise or fall, ensuring the material is always kept at a suitable height. This, combined with the efficient operation of the feeding component, facilitates the efficient operation of the feeding component. The selection of the second controller 107 and the communication and electrical connection methods between the second controller 107, the second distance sensors 102122, and other controlled components are common knowledge to those skilled in the art. Technicians can choose according to their needs, and these will not be elaborated upon here.

[0016] An important and key design feature of this embodiment is the feeding component 1022, which includes an adsorption component 10221 and a moving component 10222. The adsorption component 10221 includes a support rod 102211, on which a plurality of vacuum suction cups 102212 are spaced apart. The vacuum suction cups 102212 are connected to the suction port of the vacuum pump 102213. The adsorption of the vacuum suction cups 102212 can not only stably adsorb and extract planar materials, but also avoid the sticking between adjacent materials caused by other gripping methods. In this embodiment, the movable component 10222 is detachably suspended and mounted on the top of the feeding frame 101. The movable component 10222 includes a second mounting plate 102221 with a support. The second mounting plate 102221 has a linkage component 10223 inside. The linkage component 10223 is connected to the support rod 102211. The movable component 10222 mainly realizes the upward and forward movement of the adsorption component 10221 at a certain frequency, so as to accurately cooperate with the conveying guide mechanism 103 to realize the sequential extraction and feeding of planar materials.The unique linkage component 10223 design in this embodiment mainly includes a first mounting shaft 102231, a first movable arm 102232, a first support arm 102233, a second mounting shaft 102234, a second support arm 102235, a second movable arm 102236, a third mounting shaft 102237, and a main rotating shaft 102238. In this embodiment, the first support arm 102233, the second support arm 102235, and the second movable arm 102236 are symmetrically arranged in pairs. The first mounting shaft 102231 is fixedly connected to the second mounting plate 102221. The second mounting plate 102221 is symmetrically arranged on the left and right sides and is detachably connected to the top of the feeding frame 101. One end of the first movable arm 102232 is sleeved on the first mounting shaft 102231, and the other end is sleeved on the main rotating shaft 102238. On the first rotating shaft 102239, a lifting wheel 102240 is installed in the middle of the first movable arm 102232; one end of the first support arm 102233 is rotatably connected to the first rotating shaft 102239, and the other end is sleeved on the support rod 102211; the second mounting shaft 102234 is fixedly connected to the second mounting plate 102221; one end of the second support arm 102235 is sleeved on the second mounting shaft 102234, and the other end is fixedly connected to the third mounting shaft 102237; a sliding groove 102242 is opened on the inner side of the second support arm 102235; one end of the second movable arm 102236 is rotatably connected to the slider 102243 provided in the sliding groove 102242, and the other end is fixedly connected to the second rotating shaft 102244 that passes through the middle of the first support arm 102233; The third mounting shaft 102237 is fixedly fitted with a lifting plate 102245, and a second lifting roller 102246 is mounted on one end of the lifting plate 102245; the main rotating shaft 108 is rotatably connected to the second mounting plate 102221 and is poweredly connected to the feeding power component 105. The feeding power component 105 can be a servo motor, or other controlled power sources, which will not be elaborated here. The main rotating shaft 108 is fixedly fitted with a first eccentric wheel 1081 and a second eccentric wheel 1082, which are respectively matched with the first lifting roller 102240 and the second lifting roller 102246. During rotation, the two eccentric wheels 1082, the first eccentric wheel 1081, and the second eccentric wheel 1082 will periodically lift the first lifting wheel 102240 and the second lifting wheel 102246 upwards or outwards, thereby driving the first movable arm 102232 and the lifting plate 102245 to move upwards and outwards, thereby driving the support rod 102211 to move upwards and outwards, and finally realizing the upward and outward movement of the planar material, completing the action of picking up and feeding into the conveying guide mechanism 103. This linkage mechanism is ingeniously designed, with mutually fitting structures and high reliability.In this embodiment, a first gear 1083 is also fixedly sleeved on the main rotating shaft 108. A further innovative design in this embodiment is that the vacuum pump 102213 is installed on the outside of the second mounting plate 102221, and the rotating shaft of the vacuum pump 102213 passes through the second mounting plate 102221 and is fixedly sleeved with a second gear 1084. The first gear 1083 and the second gear 1084 mesh, further expanding the convenience of the device. In this embodiment, the third eccentric wheel 1032314 is sleeved on the main rotating shaft 108 to realize the power connection between the third eccentric wheel 1032314 and the feeding power component 105. At the same time, the power connection between the main rotating shaft 108 and the feeding power component 105 can be achieved through gear meshing, synchronous belts, or chains, etc., which can be selected as needed. Moreover, the main rotating shaft 108 can be a single long rotating shaft or multiple rotating shafts cascaded together. The multiple sections are connected by universal joints, or even multiple zigzag rotating shafts. The appropriate matching can be selected and used as needed, which will not be elaborated here.

[0017] The coating device 20 in this embodiment specifically includes a base 201 and a mounting plate 202 that can be detachably installed on both sides of it. This detachability can be achieved by common bolt connection. The mounting plate 202 is rotatably equipped with a support roller 203, a coating roller 204, a material application roller 205 and a material take-up roller 206 that are matched with each other. In this embodiment, the support roller 203, coating roller 204, application roller 205, and take-up roller 206 are arranged adjacent to each other in sequence. The support roller 203 is located directly below the coating roller 204. The rotating shafts of the take-up roller 206 and the coating roller 204 both pass through one side of the mounting plate 202 and are connected to a transmission gear 207. The transmission gear 207 can be used to drive a power device such as a motor, which will not be described in detail here. In this embodiment, both the support roller 203 and the dressing roller 205 are rotatably connected to the adjustment mechanism 208 mounted on the mounting plate. Specifically, the adjustment mechanism 208 is fixedly connected from bottom to top to a telescopic component 2081, a fixing component 2082, and a reset component 2083. In this embodiment, both ends of the rotating shafts of the support roller 203 and the dressing roller 205 are rotatably connected to the fixing component 2082. Generally, the telescopic component is a hydraulic cylinder 2081, but other controlled telescopic components can also be used. Those skilled in the art can choose according to their needs, which will not be elaborated here. In this embodiment, the fixing component 2082 is an H-type bearing seat, and the reset component 2083 is a reset spring. Specifically, the top of the hydraulic cylinder 2081 and the bottom of the reset spring are fixedly connected to both ends of the H-type bearing seat, and both ends of the rotating shafts of the support roller 203 and the dressing roller 205 are rotatably connected to the middle of the H-type bearing seat 2082. The bottom of the hydraulic cylinder 2081 and the top of the reset spring 2083 are fixedly connected to the mounting plate 202. The positioning mechanism 208 can adjust the positions of the support roller 203 and the coating roller 205, thereby changing the adhesion between the support roller 203 and the coating roller 204, as well as the adhesion between the coating roller 205 and the coating roller 204 and the take-up roller 206. The adhesion between the coating roller 204, the coating roller 205 and the take-up roller 206 can adjust the uniformity of the primer emulsion on the coating roller 205, and the adhesion between the support roller 203 and the coating roller 204 can adjust the coating thickness and the discharge speed. In this embodiment, the positioning mechanism 208, through this design, can not only accurately adjust the position, but also ensure the stability of the mechanism and ensure the consistency of the coating effect.

[0018] In particular, during the research and development process, in order to cooperate with the full range of water-soluble emulsions to replace plastic oils, the support roller 203 is set as a rubber roller in this embodiment. This can effectively utilize the slight deformation of rubber to effectively improve the coating effect. In addition, in this embodiment, the coating roller 205 is one of ceramic anilox roller and etched steel roller. This design can achieve unexpected results. The network texture of the anilox roller and etched steel roller can effectively improve the uniformity of the primer emulsion.

[0019] In this invention, a loading tray 209 is provided below the material taking roller 206. The two ends of the loading tray 209 are detachably connected to the mounting plate 202. The loading tray 209 is used to receive excess primer emulsion.

[0020] In this embodiment, a material trough 2010 and a feeding mechanism 2011 are installed on the top of the mounting plate 202, and a conveying mechanism 2012 is respectively provided on both sides of the coating roller 204 on the base 201.

[0021] Specifically, the material tank includes a coating liquid tank 20101, several additive tanks 20102 and diluent tanks 20103 arranged horizontally adjacent to each other. Generally, the coating liquid tank 20101 is located directly above the coating roller 204. The coating liquid tank 20101, the additive tanks 20102 and the diluent tanks 20103 are all equipped with discharge nozzles 20104. In particular, the discharge nozzles 20104 can be in a controlled form to control the flow rate.

[0022] In this embodiment, the feeding mechanism 2011 includes a controlled reciprocating translation component 20111 and a feeding component 20112. The feeding component 20112 is mounted on the reciprocating translation component 20111. The reciprocating translation component 20111 includes a servo motor 201111, a slide rail 201112, a synchronous belt 201113, and a moving seat 201114. The slide rail 201112 is connected to the mounting plate 202 via a slide rail mounting bracket. The servo motor 201111 is located at one end of the slide rail 201112. The moving seat 201114 is slidably connected to the slide rail 201112. The synchronous belt 201113 is fixedly connected to the moving seat 201114. The synchronous belt 201113 is rotatably connected to its corresponding servo motor 201111 via a synchronous pulley. The feeding component 20112 is detachably mounted on the moving seat 201114.

[0023] In this embodiment, the feeding component 20112 is a peristaltic pump matched with the material trough 2010. The peristaltic pump 20112 is provided with an inlet 201121 corresponding to the discharge nozzle. The discharge nozzle 20104 and the inlet 201121 are connected by a hose. The peristaltic pump has a discharge port 201122 above the feeding roller 206. In this embodiment, the use of the peristaltic pump can achieve precise liquid control without pollution or leakage. In addition, emulsions, additives and diluents are generally high-viscosity, corrosive or volatile liquids. The peristaltic pump 20112 is suitable for conveying such liquids. Through the five pipelines, the peristaltic pump 20112 can effectively control the mixing ratio and flow rate of the agent and material. With the use of the reciprocating translation component 20111, the coating can be more evenly coated on the feeding roller, laying the foundation for subsequent coating.

[0024] In this embodiment, the conveying mechanism 2012 includes a conveyor belt 20121, which is rotatably disposed in the middle of the base 201. Specifically, in this embodiment, the base 201 includes three adjacent frame-type supports, wherein the height of the middle support is lower than that of the two side supports. The conveyor belt 20121 is rotatably disposed on the opposite side of the two side supports. The conveyor belt 20121 can be configured to be driven by a power source or can be driven without a power source. When driven without a power source, the printing paper moves forward under the clamping of the coating roller 204 and the support roller 203 during operation, without the need for the conveyor belt to drive it. Those skilled in the art can choose according to their needs, which will not be elaborated here.

[0025] like Figure 24 As shown in this embodiment, in order to match the height of other feeding devices 10 and curing devices 30 and to facilitate their assembly, the coating device 20 has been improved. Specifically, an elevated base 2013 is provided under the base 201, and the three adjacent frame supports are extended outward.

[0026] The curing device 30 in this embodiment specifically includes a curing frame 301, a second conveying mechanism 302, and a curing box 303. In this embodiment, a base plate 3011 is installed on the curing frame 301, and a plurality of ventilation holes 3012 are evenly opened on the base plate 3011. The main function of the base plate 3011 is to improve the heating and heat preservation effect of the heating curing process. In this embodiment, the second conveying mechanism 302 is installed on the base plate 3011. Specifically, the second conveying mechanism 302 includes a conveying roller 3021 and a second conveyor belt 3022 sleeved on the conveying roller 3021. In this embodiment, the second conveyor belt 3022 is a metal mesh belt. The use of a metal mesh belt has good air permeability, which can effectively improve the efficiency of heating and curing. Secondly, it is not easily deformed and is corrosion resistant, and it will not stick to the flat material to be cured.

[0027] In this embodiment, the conveying roller 3021 includes a driving roller 30211, a driven roller 30212, and several auxiliary rollers 30213. The driving roller 30211 is detachably mounted on one end of the base plate 3011, the driven roller 30212 is adjustablely mounted on the other end of the base plate 3011, and the auxiliary rollers 30213 are spaced apart on the upper and lower sides of the base plate 3011. It should be noted that the driving roller 30211 and the driven roller 30212 can be directly mounted on the base plate 3011. However, in order to improve the applicability and convenience of the device, an adjustable mechanism 304 is used as an intermediate component connecting the driving roller 30211 or the driven roller 30212 to the base plate 3011. In this embodiment, the driven roller 30212 is mounted on the other end of the base plate 3011 via an adjustable mechanism 304. Specifically, the adjustable mechanism 304 includes a sliding component 3041 and a controlled adjustment component 3042. The sliding component 3041 includes a second slide rail 30411 and a slider 30412 sleeved on the second slide rail 30411. The slider 30412 is connected to both ends of the rotating shaft of the driven roller 30212. The second slide rail 30411 is fixedly installed on the base plate 3011. In this embodiment, the controlled adjustment component 3042 is either a cylinder or a second hydraulic cylinder. The base of the cylinder or the second hydraulic cylinder is mounted on the base plate, and the telescopic end of the cylinder or the second hydraulic cylinder is connected to the slider 30411. Of course, other controlled adjustment components, such as electric push rods, can also be used, as long as they meet the functional requirements of controlled telescopic positioning.

[0028] In this embodiment, the use of the adjustment mechanism 304 can effectively adjust the tension of the second conveyor belt 3022, and also greatly increases the ease of assembly and extended use of the entire second conveyor mechanism 302.

[0029] In this embodiment, a power unit 305 is installed on the curing frame 1. The power unit 305 is preferably a servo motor, but other power source devices can also be used, which will not be described in detail here. The power unit 305 is powered by the drive roller 30211. This power connection can be made by a synchronous belt or a chain, which will not be described in detail here.

[0030] In this embodiment, several curing boxes 303 are installed at intervals above the second conveying mechanism 302. There can be gaps between the curing boxes 303 or they can be cascaded. You can choose according to your needs, which will not be described in detail here. One or more of the heating component 306, the dehumidifying component 307 and the curing component 308 are installed in the curing box 303. In particular, in this embodiment, the top of the curing box 303 protrudes upward in a trapezoidal shape, and several ventilation holes 3031 are provided on the top and sides of the curing box 303. The four sides of the curing box are hinged with flip doors 3032. This design of flip doors 3032 can facilitate installation and maintenance.

[0031] In this embodiment, the heating component 306 is a far-infrared radiation heater. The far-infrared radiation heaters are evenly spaced at the bottom of the curing chamber 303. The infrared radiation heater 306 in this embodiment includes an infrared heating cover 3061 and a plurality of infrared heating tubes 3062 disposed below the infrared heating cover 3061. This far-infrared radiation heating can effectively stimulate the release of free radicals inside the material to form a network bonded film. Matching the LED light source is more suitable for the applicant's full range of water-soluble emulsion replacement plastic oil technology.

[0032] In this embodiment, the dehumidification component 307 is an exhaust fan, and the curing component 308 is an LED light source. In this embodiment, the LED light source 308 is installed at the bottom of the curing chamber 303 on both sides of the far-infrared radiation heater 306. The LED light source 308 has several light-emitting diodes of different wavelengths arranged in a dot matrix staggered manner.

[0033] The LED light source 308 and the far-infrared radiator 306 can adjust the luminous amplitude according to the width of the planar material to be processed.

[0034] The curing frame 1 in this embodiment includes a frame body 3013 and a sealing plate 3014. Several adjustable bases 3015 are installed at intervals at the bottom of the frame body 3013, which can effectively improve the stability and safety of the device and the applicability of the site.

[0035] The device in this embodiment is also equipped with a controller 309, which is further equipped with a heating management module, a dehumidification management module, and a curing management module. Temperature, humidity sensors, and irradiance sensors are also installed in the curing chamber 303. These sensors collect and transmit temperature and humidity data to the controller 309. The controller 309 sends control commands to the regulating mechanism 304, servo motor, heating management module, dehumidification management module, and curing management module based on the collected data or manually input instructions, thereby controlling the operating parameters of the LED light source 308, far-infrared radiator 306, and exhaust fan 307. The selection of electrical connections and management modules for these devices can be made by those skilled in the art as needed, and will not be described in detail here.

[0036] The material receiving device 40 in this embodiment specifically includes: a material receiving frame 401, on one side of which a front conveying guide mechanism 402 is adjustablely installed outward, and inside the material receiving frame 401, a collection and placement mechanism 403 is installed in match with the front conveying guide mechanism 402. In this embodiment, the collection and placement mechanism 403 is used to receive the planar material fed in by the front conveying and guiding mechanism 402, and automatically accumulate and collect the planar material downwards. It cooperates with the front conveying and guiding mechanism 402. In this embodiment, the collection and placement mechanism 403 is configured to move in a controlled manner in the vertical direction under the drive of the first power component 404. Specifically: The collection and placement mechanism 403 includes a placement platform 4031 and a distance measuring and control component 4032. The distance measuring and control component 4032 is located above the placement platform 4031. The placement platform 4031 is used for controlled raising or lowering to collect and place planar materials. The distance measuring and control component 4032 is used to measure the collection status of the planar materials to control the position of the placement platform 4031, thereby achieving stable and uniform accumulation of the planar materials. More specifically: The distance measurement and control component 4032 in this embodiment includes an adjustable base 40321, a crossbar 40322, and a distance sensor 40323. The adjustable base 40321 is mounted on the receiving frame, the crossbar 40322 is connected to the adjustable base 40321, and the distance sensor 40323 is mounted on the crossbar 40322. The adjustable base 40321 includes a mounting base 403211, on which a sliding shaft 403212 is fixedly mounted, and a sliding seat 4032 is sleeved on the sliding shaft 403212. 13. The sliding seat 403213 is fixedly connected to the crossbar 40322. This design allows for quick and convenient adjustment of the position of the distance sensor 40323, which can be adjusted in three dimensions to suit different processes and planar material requirements. The distance sensor 40323 is connected to the first power component 404 via the control module 405 to collect distance data and transmit it to the control module 405. The selection of the control module 405 and the communication connection method can be chosen by technicians as needed, and will not be elaborated here.

[0037] In this embodiment, lifting cables 40311 are fixedly connected to the four corners of the placement platform 4031. The lifting cables 40311 are connected to the reel 40312 rotatably mounted on the receiving frame 401. The reel 40312 is powered by the first power component 404, which is generally a controlled servo motor. The servo motor is communicatively connected to the control module 405. Synchronous reels 40313 are fixedly mounted at both ends of the reel 40312. The lifting cables 40311 are connected to the synchronous reels 40313. The servo motor receives instructions from the control module 405 and drives the placement platform 4031 to move to the target position through the lifting cables 40311. In this embodiment, a guide slider 40314 is also provided on the placement platform 4031. The guide slider 40314 is sleeved on the vertical guide rail 40315 installed on the receiving frame 401. Generally, the guide slider 40314 and the vertical guide rail 40315 are two symmetrically arranged. This arrangement can well ensure the stability of the entire placement platform 4031 during the rising or falling process.

[0038] In this embodiment, the front guide mechanism 402 includes a first guide component 4021 and a first conveying component 4022 disposed on the first guide component 4021. The front guide mechanism 402 is configured to transmit the material to be collected into the collection and placement mechanism 403 under the drive of a second power component 406. The second power component 406 is generally a servo motor, but other power source devices can also be selected, which will not be elaborated here.

[0039] In this embodiment, the first guide component 4021 includes a guide plate 40211 and an adjustable support rod 40212. One end of the guide plate 40211 is rotatably connected to the receiving frame 1. One end of the adjustable support rod 40212 is hinged to the receiving frame 401, and the other end is hinged to the side of the guide plate 40211. Generally, the adjustable support rod 40212 can be an electric push rod or a pneumatic telescopic rod, etc., which have telescopic positioning functions. This design can freely adjust the tilt angle of the guide plate 40211 to better adapt to other devices on the production line.

[0040] In this embodiment, the first conveying component 4022 includes a third conveyor belt 40221, a second conveyor roller 40222, and a front guide wheel 40223 and a rear guide wheel 40224 respectively disposed at the bottom and top of the guide plate 40211; the third conveyor belt 40221 is disposed in the middle of the guide plate 40211 and sleeved on the second conveyor roller 40222; in this embodiment, the second conveyor roller 40222 includes a second driving roller 402221, a second driven roller 402222, and a plurality of second auxiliary rollers 402223, the second driving roller 402221 and the second driven roller 402222 are rotatably disposed at both ends of the guide plate 40211, and the second driving roller 40222... 21 is powered by the second power component 406. This connection can be made using a synchronous belt, chain, etc., which will not be elaborated here. The second auxiliary rollers 402223 are spaced apart on the lower side of the guide plate 40211. The second auxiliary rollers 402223 can partially tension the belt and change the direction of movement of the third conveyor belt 40221. In this embodiment, the front guide wheel 40223 and the rear guide wheel 40224 are connected to the guide plate 40211 and the receiving frame 401 respectively through the mounting shaft 40225. In this embodiment, the rear guide wheel 40224 includes a front wheel 402241 and a rear wheel 402242 arranged in a cross pattern. In particular, the second conveyor roller 40222 in this invention also includes a tension roller 402224, which is disposed on the side of the second drive roller 402221 near the guide plate 40211. The tension roller 402224 can, on the one hand, tension the third conveyor belt 40221, and on the other hand, smoothly and steadily convert the inclined motion of the third conveyor belt 40221 into horizontal motion. In this embodiment, the front wheel 402241 and the rear wheel 402242 respectively abut against the tension roller 402224 and the second drive roller 402221 at intervals of the third conveyor belt 40221. The front guide wheel 40223 abuts against the second driven roller 402222 at intervals of the third conveyor belt 40221. This combination arrangement enables the stable and smooth conveying of planar materials. In this embodiment, the first conveying component 4022 also includes a baffle strip 40226, which is located on both sides of the rear guide wheel 40224 and installed on the receiving frame 401. The baffle strip 40226 can effectively guide the planar material onto the placement platform 4031, thereby improving the collection effect.

[0041] In this embodiment, through innovative design of each module in the system, from feeding to coating to curing to receiving, the entire process is designed to achieve assembly line operation, providing a solid foundation for industrialized mass production. Specifically: First, the feeding device 10 has a specially designed feeding component 1022. Specifically, the design of the linkage component 10223 can simultaneously achieve upward and forward displacement. The structure is simple, the failure rate is low, and the use of vacuum adsorption effectively reduces damage to the material and reduces the possibility of multiple sheets of material sticking together. Secondly, through the matching design of the pressure roller 103224 and the front pressure guide wheel 10323, the material can be quickly grabbed and put into the fourth conveyor belt 10321. The special timed pressing structure makes the gripping more stable. In addition, by using the material stacking platform 10211 in conjunction with the distance sensing component 10212, the platform height can be automatically adjusted according to the thickness of the material to be conveyed, making the material conveying more stable and avoiding feeding disorder caused by the placement distance being too high or too low, without the need for manual intervention. Finally, through the matching use of the rear pressure guide wheel 10324 and the fourth conveyor belt 10321, the flat material can be stably conveyed backward, making the entire feeding action convenient, time-saving and labor-saving.

[0042] Secondly, the coating device 20, with its four matched rollers, effectively adjusts the film thickness, uniformity, and discharge speed. The cooperation between the coating roller 205 and the take-up roller 206 ensures excellent film uniformity, while the cooperation between the support roller 203 and the coating roller 204 effectively controls the discharge speed and film thickness. This combination ensures the adhesion of the raw material and the coating, improving coating quality. Specifically, the positioning mechanism 208 precisely controls the position of the support roller 203 and the coating roller 205. The adhesion of the coating roller 204 or the feeding roller 206 accurately adjusts the film thickness. Through the setting of various material troughs 2010 and feeding mechanism 2011, especially the coordinated use of the controlled reciprocating component 20111 and the feeding component 20112 in the feeding mechanism 2011, the mixing ratio and flow rate of the agent can be effectively controlled, so that the coating is controlled and uniform, and the equipment operates stably. This lays the foundation for automated and intelligent coating and provides the premise for achieving high gloss, matte, tactile, and laser decoration functions without adding curing agents and plasticizers.

[0043] Secondly, the curing device 30, in this embodiment, through the assembly design of the base plate 3011, the second conveying mechanism 302 and the curing box 303, can effectively improve the expandability and compatibility of the device. The combination of heating, dehumidification and curing components further enhances the variability and adjustability of the process. In order to match the applicant's full range of water-soluble emulsion alternative plastic oil technologies, the heating component 306 and curing component 308 are optimized and innovatively designed here. Different wavelength light-emitting diodes are arranged in a dot matrix staggered arrangement, which can form a stable light field with a single or mixed wavelength and a low light intensity as needed. Combined with far-field radiation heating, it can effectively stimulate the release of free radicals inside the material to form a network bond film. Furthermore, the unique design of the second conveying mechanism 302 makes assembly more convenient, effectively improving the conveying effect of the second conveyor belt 3022 and the degree of contact with the printed materials. It can achieve automated batch continuous use and is well compatible with the equipment in the printing process.

[0044] Finally, there is the material collection device 40. In this embodiment, the material collection device, through the matching front conveying and guiding mechanism 402 and the collection and placement mechanism 403, can conveniently and efficiently collect and sort flat materials. On the one hand, by using the guide plate 40211 and the first conveying component 4022, especially the matching use of the front guide wheel 40223 and the rear guide wheel 40224, the flat materials can be conveyed upwards in a stable and close manner and sent to the placement platform 4031 for stacking. On the other hand, by using the placement platform 4031 in conjunction with the distance measuring and control component 4032, the platform height can be automatically adjusted according to the thickness of the collected materials, making the material conveying and collection more stable and avoiding uneven collection caused by the placement distance being too high or too low. No manual intervention is required, and the sorting action is convenient, time-saving and labor-saving.

[0045] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0046] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A surface anti-counterfeiting treatment system for printed materials, characterized in that, It includes a system input module, a system storage module, a central control module, and an execution module: The system input module is configured to collect user-inputted option data, which includes several of the following: anti-counterfeiting type selection data, surface decoration process selection data, printing material parameter selection data, substrate ink composition selection data, gloss selection data, or drying degree selection data. The system storage module is configured to store preset system parameter data, which includes several of the following: anti-counterfeiting sub-category data, material composition data, process parameter data, surface finishing process sub-category data, production rate data, and production line parameters and indicator data. The central control module is configured to collect data from the system input module and retrieve data stored in the system storage module, and control the execution module to perform corresponding operations. The execution module is configured to select and execute the following operations based on the control instructions issued by the central control module: feeding operation, anti-counterfeiting base coating operation, base coating curing operation, personalized anti-counterfeiting operation, mid-process curing operation, top coating operation, pre-curing operation, decorative surface operation, enhanced curing operation, and receiving operation; The execution module includes a coating device, a curing device, a feeding device, and a receiving device. The coating device is configured to perform anti-counterfeiting base coating or top coating operations on the printable material. The feeding device is configured to perform feeding operations on the printable material. The receiving device is configured to perform receiving operations on the printable material. The curing device is configured to perform base coating curing operations, pre-curing operations, or enhanced curing operations on the printable material. The coating device includes a base and mounting plates that can be detachably installed on both sides thereon. The mounting plates are rotatably arranged with mutually matched support rollers, coating rollers, application rollers and pick-up rollers. Both the support roller and the dressing roller are rotatably connected to the adjustment mechanism mounted on the mounting plate; The mounting plate is equipped with a material trough and a feeding mechanism on its top, and a conveying mechanism is respectively provided on both sides of the coating roller on the base. The support roller, coating roller, application roller and take-up roller are arranged adjacent to each other in sequence; The rotating shafts of both the material taking roller and the coating roller pass through one side of the mounting plate and are connected to a transmission gear; The adjustment mechanism includes a telescopic component, a fixed component, and a reset component that are fixedly connected in sequence from bottom to top. Both ends of the rotating shafts of the support roller and the dressing roller are rotatably connected to the fixed component. The support roller is located directly below the coating roller. The support roller is a rubber roller. The coating roller is one of a ceramic anodized roller or an etched steel roller. The coating roller and the take-up roller are silicone rollers. A loading tray is located below the take-up roller. Both ends of the loading tray are detachably connected to the mounting plate. The material tank includes a coating liquid tank, several additive tanks and diluent tanks arranged horizontally adjacent to each other, and each of the coating liquid tank, additive tanks and diluent tanks is provided with a discharge nozzle; The feeding mechanism includes a controlled reciprocating translation component and a feeding component, wherein the feeding component is mounted on the reciprocating translation component; The reciprocating translation component includes a servo motor, a slide rail, a synchronous belt, and a moving base. The slide rail is connected to the mounting plate via a slide rail mounting bracket. The servo motor is located at one end of the slide rail. The moving base is slidably connected to the slide rail. The synchronous belt is fixedly connected to the moving base. The synchronous belt is rotatably connected to the servo motor via a synchronous pulley. The feeding component is detachably mounted on the moving base. The feeding component is a peristaltic pump that is matched with the material trough. The peristaltic pump is provided with an inlet corresponding to the discharge nozzle. The discharge nozzle and the inlet are connected by a hose. The peristaltic pump has a discharge port located above the material taking roller.

2. The anti-counterfeiting treatment system for printed materials according to claim 1, characterized in that, The personalized anti-counterfeiting operations include one or more of the following: internal patterning, internal coding, temperature-controlled coating, light-sensitive anti-counterfeiting, and holographic anti-counterfeiting.

3. The anti-counterfeiting treatment system for printed materials according to claim 1, characterized in that, The execution module includes a feeding device, a first coating device, a first curing device, a second coating device, a second curing device, and a receiving device, which are connected in sequence.

4. The anti-counterfeiting treatment system for printed materials according to claim 1, characterized in that, The feeding device includes a feeding frame and a conveying guide mechanism and a feeding placement mechanism that are matched with each other. The conveying guide mechanism is installed on the outside of the feeding frame, and the feeding placement mechanism is installed inside the feeding frame. The placement and feeding mechanism includes a placement component and a feeding component. The placement component is configured to move in a controlled manner in the vertical direction under the drive of the placement power component. The feeding component is configured to sequentially adsorb planar materials and feed them into the conveying and guiding mechanism under the drive of the feeding power component. The conveying and guiding mechanism includes a second guiding component and a second conveying component that are matched with each other. The conveying and guiding mechanism is configured to receive and deliver planar materials under the drive of the conveying power component.

5. The anti-counterfeiting treatment system for printed materials according to claim 4, characterized in that, The placement components include a material stacking platform and a distance sensing component; A second reel is rotatably mounted on the top of the feeding frame, and the second reel is poweredly connected to the power unit. The second reel is fixedly equipped with a second synchronous reel at both ends, and the material stacking platform is fixedly connected with lifting ropes at the four corners, and the lifting ropes are connected to the second synchronous reel. The material stacking platform is also equipped with a guide plate, which is sleeved on the second vertical guide rail installed on the feeder frame; The distance sensing component includes a horizontal support mounted on the feeder frame, and a plurality of second distance sensors are mounted on the horizontal support. The feeding component includes an adsorption component and a moving component; The adsorption assembly includes a support rod, on which a plurality of vacuum suction cups are spaced apart, and the vacuum suction cups are connected to the suction port of a vacuum pump. The movable component is detachably suspended on the top of the feeder frame. The movable component includes a symmetrically arranged second mounting plate. A linkage component is provided inside the second mounting plate, and the linkage component is connected to the support rod.

6. The anti-counterfeiting treatment system for printed materials according to claim 1, characterized in that, The curing device includes a curing frame, a second conveying mechanism, and a curing chamber. The second conveying mechanism is installed on the curing frame, and several curing chambers are installed at intervals above the second conveying mechanism. Each curing chamber contains a heating component, a dehumidifying component, and a curing component. The heating component is a far-infrared radiation heater, the dehumidifying component is an exhaust fan, and the curing component is an LED light source.

7. The anti-counterfeiting treatment system for printed materials according to claim 1, characterized in that, The receiving device includes a receiving frame, a front conveying guide mechanism is adjustablely installed on one side of the receiving frame, and a collection and placement mechanism is installed inside the receiving frame to match the front conveying guide mechanism. The collection and placement mechanism is configured to move in a controlled manner in the vertical direction under the drive of a first power component; The front conveying and guiding mechanism includes a first guiding component and a first conveying component disposed on the first guiding component. The front conveying and guiding mechanism is configured to convey the material to be collected into the collection and placement mechanism under the drive of a second power component.

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