Laminating equipment and laminating process for high-precision FFC (flexible flat cable)

Abstract

The invention relates to a high-precision FFC (flexible flat cable) laminating device and laminating process, the high-precision FFC laminating device comprises a lower base, a lower layer assembly, a lead plate layer, a dust hood, an upper base, an upper layer assembly, a reinforcing white strip frame, a first hot pressing roller assembly, a reinforcing plate frame, a film covering assembly and a shearing assembly, the lower layer assembly is mounted on the upper end surface of the lower base, and the lead plate layer is arranged above the lower layer assembly; the PET insulating layers are attached to the upper end and the lower end of the copper wire, holes are selectively formed in the upper PET insulating layer and the lower PET insulating layer, and the reinforcing plates are hot-pressed; the holes are punched on the lower PET insulating layer, so that the subsequent copper wire gold plating at the opening is facilitated; after the flat-angle copper wire is attached to the upper PET insulating layer and the lower PET insulating layer, the flat-angle copper wire and the upper PET insulating layer and the lower PET insulating layer are subjected to thermal compression bonding through a compression roller, a reinforcing plate is subjected to thermal compression bonding at the joint of the FFC after thermal compression bonding to increase the strength of the inserting position of the FFC, the surface is covered with an isolating film, and the isolating film can adsorb excessive glue at the hole opening position. And then stripping and winding are carried out according to the size requirement of the flat cable after the film is rewound and coated.

Description

Technical Field

[0001] The present application relates to the technical field of FFC cable bonding, and in particular to a high-precision FFC cable bonding device and bonding process. Background Art

[0002] FFC cable bonding equipment is a kind of equipment used to produce FFC cable. FFC cable is a kind of flexible flat cable, which is widely used in signal transmission and board-to-board connection of various printers, plotters, scanners, copiers, audio equipment, LCD appliances, fax machines, various DVD players and other products. The production process of FFC cable mainly includes: crimping (start-up) - short circuit, open circuit test - wire cutting - QC - processing - re-QC - packaging and other production processes. In the production process of FFC cable, the bonding process is a key step. The bonding process usually involves combining materials such as conductors, adhesive tape, and reinforcement plates together through high temperature and pressure to form a whole. This process requires precise temperature and pressure control to ensure the quality and performance of the cable. In the prior art, the related technology of FFC cable bonding can refer to the Chinese patent application number CN201710612362.X, which discloses a FFC soft flat cable and Mylar bonding instrument and bonding process. The bonding instrument includes a limiting stripping block for limiting the conveying position of the FFC soft flat cable and peeling off the release paper pasted on the Mylar, a first pressing roller assembly for pressing the Mylar from which the paper has been peeled off onto the FFC soft flat cable, and a power device for driving the first pressing roller assembly to rotate; the limiting stripping block is arranged on one side of the first pressing roller assembly; the power device is connected to the first pressing roller assembly in a transmission manner, and the bonding process includes the steps of shaping, stripping and pressing. The limiting stripping block, the pressing roller assembly, and the power device are arranged; by pulling the pre-positioned FFC soft flat cable and Mylar into the limiting stripping block, pressing is performed while peeling off the release paper, thereby realizing automatic bonding, greatly improving production efficiency, and ensuring the pressing effect. The low efficiency and high labor cost of manual lamination in the prior art are solved. For longer FFC flexible flat cables, the length of the Mylar also needs to be of a corresponding length to basically completely cover the entire FFC flexible flat cable. If manual alignment is used, the Mylar is easily misaligned, resulting in product scrapping.

[0003] The inventor discovered the following problems in the prior art during the implementation of this application: At present, in the electronic product manufacturing industry, FFC cables are used as an important internal connector in various portable electronic devices. With the growth of market demand and technological advancement, the quality requirements for FFC cables are getting higher and higher, especially the demand for connection stability and durability is more prominent. The FFC cable production equipment currently on the market mainly includes two types: single-function machines and multi-function integrated machines. Single-function machines usually only have one of the functions of punching or hot pressing and bonding, and require multiple devices to cooperate to complete the entire production process. It not only takes up a large space, but also increases cost investment and management difficulty; multi-function integrated machines integrate multiple processing functions on the same platform, which improves production efficiency, but existing equipment generally has problems such as low precision and poor adaptability, and it is difficult to meet the production of products with complex structures and high-precision requirements. In addition, due to the large differences in size specifications of different models of products, existing multi-function equipment often lacks flexibility and cannot quickly adjust the production line to adapt to changes in demand for new products. Summary of the invention

[0004] The purpose of this application is to provide a high-precision FFC cable bonding device and bonding process.

[0005] The present application provides a high-precision FFC cable bonding device and bonding process using the following technical solutions: In the first aspect, the present application provides an FFC cable bonding device, including a lower base, a lower layer component, a wire plate layer, a dust cover, an upper base, an upper layer component, a reinforcing white strip frame, a first hot pressing roller component, a reinforcing plate frame, a laminating component and a shearing component, wherein the lower layer component is installed on the upper end surface of the lower base, and a wire plate layer is arranged above the lower layer component, a dust cover is arranged above the wire plate layer, and an upper base is arranged above the dust cover, an upper layer component is arranged on the upper end surface of the upper base, and a reinforcing white strip frame is arranged on one side of the upper layer component, and the reinforcing plate frame is arranged on the upper end surface of the upper base. A first hot-pressing roller assembly is arranged on the side of the reinforced white strip frame away from the upper component, a reinforcing plate frame is arranged on the side of the first hot-pressing roller assembly away from the reinforced white strip frame, a coating assembly is arranged on the side of the reinforcing plate frame away from the first hot-pressing roller assembly, a shearing assembly is arranged on the side of the coating assembly away from the reinforcing plate frame, the lower base, the lower component, the wire plate layer, the dust cover, the upper base, the upper component, the reinforced white strip frame, the first hot-pressing roller assembly, the reinforcing plate frame, the coating assembly and the shearing assembly are all installed on the upper end surface of the base, and an air pump is arranged in the inner cavity of the base; The lower layer component includes a first roller group, a second roller group, a stamping assembly, a hot pressing device body and a third roller group. The first roller group is installed on the upper end surface of the lower base, and the second roller group is arranged on one side of the first roller group, the stamping assembly is arranged on the side of the second roller group away from the first roller group, the hot pressing device body is arranged on the side of the stamping assembly away from the second roller group, and the third roller group is arranged on the side of the hot pressing device body away from the stamping assembly. The structure of the connection between the lower base and the lower layer component is the same as the structure of the connection between the upper base and the upper layer component.

[0006] By adopting the above technical scheme, the raw materials of the FFC cable are first guided, and then the raw materials required for the FFC cable are sequentially passed through the first roller group, the second roller group, the stamping assembly, the heat pressing device body and the third roller group in the lower layer assembly, so as to punch holes and heat press the FFC cable, wherein the upper and lower layers of the insulation layer transported are made of PET material, with hot melt adhesive on the surface, the PET insulation layer is attached to the upper and lower ends of the flat-angle copper wire, and holes and heat-pressed reinforcement plates are selectively punched on the upper and lower PET insulation layers; this product is to punch holes on the lower PET insulation layer to facilitate the subsequent gold plating of the copper wire at the opening; then the flat-angle copper wire is attached to the upper and lower PET insulation layers and then heat-pressed by a pressure roller, and after heat-pressing, the FFC cable is heat-pressed at the connection to increase the strength of the plug-in position of the FFC cable, and then the surface is coated with an isolation film, the isolation film will absorb the overflow glue at the opening position, and then the film is re-wound and divided into strips and rolled according to the cable size requirements.

[0007] The first roller group includes a first frame and a first guide wheel, a first guide wheel is arranged on one side of the first frame, a slide groove is arranged on the side wall of the inner cavity of the first frame, a first pressure wheel is fixedly installed on the side wall of the inner cavity of the first frame, a second pressure wheel is slidably connected to the side wall of the inner cavity of the first frame through the slide groove, first electric telescopic rods are installed on both ends of the second pressure wheel through connecting frames, the second roller group includes a second frame and a support rod, a support rod is arranged on the side end surface of the second frame, an adjustment frame is connected to the inner side of the second frame through a bearing, and one end of the adjustment frame is provided with The first gear, the adjustment frame is meshed and connected with the first servo motor, the stamping assembly includes a stamping lower seat and an elastic reset rod, the end of the elastic reset rod away from the stamping lower seat is provided with a stamping upper seat, the upper end surface of the stamping upper seat is installed with a stamping electric telescopic rod, the upper end surface of the stamping lower seat is provided with a punching seat, the bottom end surface of the stamping upper seat is provided with a punching head, the third roller group includes a support plate and a roller group, the support plate is installed at the edge of one side of the hot pressing device body, and the upper end surface of the support plate is provided with a roller group, and one side of the roller group is provided with a second guide wheel.

[0008] By adopting the above technical scheme, the first guide wheel in the first roller group is used to guide the FFC cable raw material, and the first electric telescopic rod drives the second pressure wheel to be close to the first pressure wheel through the slide groove, so that the FFC cable raw material can be guided and pressed at the same time, and then the FFC cable raw material flows to the stamping assembly through the adjustment frame in the second roller group, and the first gear is driven to rotate by the first servo motor, so that the adjustment frame is adjusted in angle, and the support rod is used to convey and guide the FFC cable raw material, so as to facilitate the stamping step of the stamping assembly, wherein the FFC cable raw material passes between the stamping lower seat and the stamping upper seat, and the punching head is driven by the stamping electric telescopic rod to press against the punching seat to achieve the punching effect, and then the elastic reset rod is used to achieve the rapid reset step, after punching, the FFC cable raw material moves to the main body of the hot pressing device for hot pressing, and subsequently the roller group and the second guide wheel in the third roller group are used to further guide the FFC cable raw material out.

[0009] The shape of the cross-section of the dust hood is the same as the shape of the upper end surface of the conductor plate layer; the contact surface between the stamping assembly, the heat pressing device body and the third roller group and the lower base in the lower layer component is provided with a moving assembly; the moving assembly includes a second servo motor and a threaded rod; the output end of the second servo motor is provided with a threaded rod, and the outer diameter surface of the threaded rod is provided with a threaded sleeve; a first slide rail is provided above the threaded rod; the first slide rail is slidably connected to a limiting frame; the contact surface between the limiting frame and the lower base is provided with a second slide rail; the stamping assembly, the heat pressing device body and the third roller group in the lower layer component are specifically installed on the limiting frame.

[0010] By adopting the above technical solution, when punching holes in the FFC cable raw material, the moving component can simultaneously drive the punching point and the FFC cable raw material to move relatively still, wherein the second servo motor drives the threaded rod to rotate, and the threaded sleeve drives the limit frame and the first slide rail and the second slide rail to move. The above structure avoids the occurrence of wrinkles in the movement of the FFC cable raw material.

[0011] The first hot pressure roller assembly includes a first support column and a first heating roller, the first heating roller is installed on the inner side of the first support column through a first connecting block, a second heating roller is arranged above the first heating roller, a second connecting block is arranged on the contact surface between the second heating roller and the first support column, a second electric telescopic rod is arranged on the upper end surface of the second connecting block, a heating plate is arranged on the inner diameter of the first heating roller and the second heating roller, the heating plate is electrically connected to a conductive sheet, and an elastic telescopic rod is arranged at one end of the conductive sheet.

[0012] By adopting the above technical scheme, the upper layer raw material, the lower layer raw material and the copper wire are three-layer pressed together by the first hot pressing roller assembly, wherein the heating plate is energized through the conductive sheet, and the second connecting block is driven by the second electric telescopic rod along the first support column so that the second heating roller is connected to the first connecting block. The elastic telescopic rod is used to always make the conductive sheets fit each other so as to transmit power, and at the same time, it is convenient for the first hot pressing roller assembly to generate heat so as to make the upper and lower PET insulating layers and the copper wire hot-pressed and fitted together.

[0013] The reinforcement plate frame includes a support frame and a belt roller disk, the belt roller disk is installed on the bottom end surface of the inner side of the support frame through a sliding clamping mechanism, a belt conveyor is arranged between the belt roller disk and the sliding clamping mechanism, a controller is arranged on the upper end surface of the support frame, a film placing disk is arranged on one side of the controller, and the sliding clamping mechanism includes a sliding module and a clamping claw, and the clamping claw is installed on the moving end of the sliding module.

[0014] By adopting the above technical solution, the horizontal bar structure is strengthened by a reinforcement plate frame, wherein a reinforcement bar is placed on the belt roller disk, and the sliding module and the clamping claw in the sliding clamping mechanism are used to collect and grab the reinforcement bar so that the reinforcement bar moves along the belt pulley. At the same time, the entire device is controlled to move by a controller, and a film roll is placed on the film disk for subsequent lamination work steps, and the clamping claw is installed with a hot pressing machine to hot-press the reinforcement bar and the FFC cable.

[0015] The film coating assembly comprises a second supporting column and a second hot-pressing roller assembly, wherein the second hot-pressing roller assembly is installed on the inner side of the second supporting column, and a film guide disk is arranged on the side end surface of the second supporting column.

[0016] By adopting the above technical scheme, the FFC cable that has been three-layer pressed is subjected to a coating assembly. First, the contact between the second hot pressure roller assembly in the coating assembly and the FFC cable is the same as the result of the first hot pressure roller assembly performing three-layer pressing on the upper layer raw material, the lower layer raw material and the copper wire, and the coating is also performed along the film guide disk.

[0017] The shearing assembly includes a shearing table and a third support column, a third support column is arranged on one side of the shearing table, and a guide wheel is arranged at the edge of the upper end surface of the shearing table, a fourth support column is arranged above the shearing table, and a third electric telescopic rod is installed on one side of the fourth support column, a shearing tool is arranged at the telescopic end of the third electric telescopic rod, and a tool groove is arranged directly below the shearing tool.

[0018] By adopting the above technical solution, the processed FFC cable is sheared by the shearing assembly, wherein the third electric telescopic rod drives the shearing tool to move toward the knife groove, and the raw material is guided by the guide wheel. Through the above structure, the FFC cable is coated and sheared.

[0019] On the other hand, the present application also provides an FFC cable bonding device, and the bonding process steps are as follows: Step 1: First, guide the raw materials of the FFC cable, and then the raw materials required for the FFC cable pass through the first roller group, the second roller group, the stamping assembly, the hot pressing device body and the third roller group in the lower layer assembly in turn, wherein the FFC cable raw materials are guided by the first guide wheel in the first roller group, and the first electric telescopic rod drives the second pressing wheel to be close to the first pressing wheel through the slide groove, so that the FFC cable raw materials can be pressed while being guided, and then the FFC cable raw materials pass through the adjustment frame in the second roller group to flow to the stamping assembly, and the first gear is driven to rotate by the first servo motor, so that the adjustment frame is adjusted in angle, and the support rod is used to convey and guide the FFC cable raw materials, so as to facilitate the stamping step of the stamping assembly, wherein the FFC cable raw materials pass through the stamping lower seat Between the punching seat, and the punching head is driven by the punching electric telescopic rod to press the punching seat to achieve the punching effect, and then the elastic reset rod is used to realize the quick reset step. After punching, the FFC cable raw material moves to the hot pressing device body for hot pressing, and then the roller group and the second guide wheel in the third roller group are used to further guide the FFC cable raw material out, and the structure of the connection between the lower base and the lower component is the same as the structure of the connection between the upper base and the upper component, and the lower component in the lower base has the same structure as the upper component in the upper base, resulting in the same working steps of the lower component as the upper component, and the copper wire is transported through the conductor plate layer at the same time, and the dust hood is connected to the air pump through an external air pipe to absorb dust while transporting the copper wire, and the punching and hot pressing work are realized through the above structure; Step 2: The upper raw material, the lower raw material and the copper wire are laminated by the first hot pressing roller assembly, wherein the heating plate is energized by the conductive sheet, and the second connecting block is driven by the second electric telescopic rod along the first support column to make the second heating roller connected to the first connecting block to the first heating roller, and the elastic telescopic rod is used to always make the conductive sheets fit each other for power transmission, and then the horizontal bar structure is strengthened by the reinforcing plate frame, wherein the reinforcing bar is placed on the belt roller disk, and the sliding module and the clamping claw in the sliding clamping mechanism are used to collect and grab the reinforcing bar so that the reinforcing bar moves along the belt pulley, and the whole device is controlled to move by the controller, and a film roll is placed on the film placing disk for subsequent laminating work steps; Step three: the FFC cable that has been three-layer pressed is subjected to a laminating assembly. First, the contact between the second hot-pressing roller assembly in the laminating assembly and the FFC cable is the same as the result of the three-layer pressing of the upper raw material, the lower raw material and the copper wire by the first hot-pressing roller assembly, and the laminating is also performed along the film guide plate. Subsequently, the processed FFC cable is sheared by the shearing assembly, wherein the third electric telescopic rod drives the shearing tool to move toward the knife groove, and the raw material is guided by the guide wheel to complete the laminating and shearing of the FFC cable; Step 4: When punching holes in the FFC cable raw material, the moving component can simultaneously drive the punching point and the FFC cable raw material to move relatively still, wherein the second servo motor drives the threaded rod to rotate, and the threaded sleeve drives the limit frame and the first slide rail and the second slide rail to move, thereby avoiding wrinkles in the FFC cable raw material during movement.

[0020] In summary, the present application includes at least one of the following beneficial technical effects: 1. The raw materials required for FFC cable arrangement pass through the first roller group, the second roller group, the stamping assembly, the hot pressing device body and the third roller group in the lower layer assembly in sequence, wherein the FFC cable arrangement raw materials are guided by the first guide wheel in the first roller group, and the first electric telescopic rod drives the second pressing wheel to be close to the first pressing wheel through the slide groove, and the FFC cable arrangement raw materials can be pressed while being guided, and then the FFC cable arrangement raw materials flow to the stamping assembly through the adjustment frame in the second roller group, and the first gear is driven to rotate by the first servo motor, so that the adjustment frame is adjusted in angle, and the support rod is used to convey and guide the FFC The wire arrangement raw material is convenient for the stamping component to perform the stamping step, wherein the FFC wire arrangement raw material passes between the stamping lower seat and the stamping upper seat, and the punching head is driven by the stamping electric telescopic rod to press against the punching seat to achieve the punching effect, and then the elastic reset rod is used to achieve the rapid reset step. After punching, the FFC wire arrangement raw material moves to the hot pressing device body for hot pressing, and subsequently the roller group and the second guide wheel in the third roller group are further guided out of the FFC wire arrangement raw material, and the structure of the connection between the lower base and the lower component is the same as the structure of the connection between the upper base and the upper component, and the lower component in the lower base has the same structure as the upper component in the upper base, and the guide The working steps of the lower layer assembly are the same as those of the upper layer assembly, and the copper wire is transported through the conductor plate layer at the same time, and the dust hood is connected to the air pump through an external air pipe to form a connection structure so as to absorb dust while transporting the copper wire. Punching and hot pressing are achieved through the above structure, wherein the PET insulating layer is attached to the upper and lower ends of the copper wire, and holes and hot pressing reinforcement plates are selectively punched on the upper and lower PET insulating layers; this product is a hole punched on the lower PET insulating layer to facilitate the subsequent gold plating of the copper wire at the opening; then the flat angle copper wire is attached to the upper and lower PET insulating layers and then hot pressed by a pressure roller, and after hot pressing, the FFC cable is hot pressed at the connection to increase the FFC cable The strength of the plug-in position is measured, and then the surface is coated with an isolation film, which absorbs the overflow glue at the opening position, and then the coating is rewound and divided into strips and reeled according to the cable size requirements, wherein the first servo motor and the second servo motor accurately control the movement of the isolation film, copper wire and PET insulating layer used in this device, so that this device can accurately process the FFC cable, thereby improving the accuracy, and the gaps between the lower layer assembly, the upper layer assembly, the first hot pressing roller assembly, the reinforcement plate frame, the coating assembly and the shearing assembly in this device can be adjusted, and this device can also be suitable for raw materials of different widths, thereby solving the problem of poor adaptability.

[0021] 2. The upper raw material, the lower raw material and the copper wire are laminated in three layers by the first hot pressing roller assembly, wherein the heating plate is energized by the conductive sheet, and the second connecting block is driven by the second electric telescopic rod along the first supporting column to make the second heating roller connected to the first connecting block, and the elastic telescopic rod is used to always make the conductive sheets fit each other for power transmission, and then the horizontal bar structure is strengthened by the reinforcing plate frame, wherein the reinforcing bar is placed on the belt roller disk, and the sliding module and the clamping claw in the sliding clamping mechanism are used to collect and grab the reinforcing bar so that the reinforcing bar moves along the belt conveyor wheel, and the whole device is controlled to move by the controller, and a film roll is placed on the film placing disk for subsequent laminating work steps, wherein the FFC cable after three-layer lamination is laminated, and the lamination assembly is first laminated The contact between the second hot pressing roller assembly and the FFC cable in the component is the same as the result of the three-layer pressing of the upper raw material, the lower raw material and the copper wire by the first hot pressing roller assembly, and the film is also coated along the film guide disk. The processed FFC cable is subsequently sheared by the shearing assembly, wherein the third electric telescopic rod drives the shearing tool to move toward the knife groove, and the raw material is guided by the guide wheel. Through the above structure, the coating and shearing of the FFC cable are completed. When punching the FFC cable raw material, the moving assembly can simultaneously drive the punching place and the FFC cable raw material to move relatively still, wherein the second servo motor drives the threaded rod to rotate, and the threaded sleeve drives the limit frame and the first slide rail and the second slide rail to move. The above structure avoids wrinkles during the movement of the FFC cable raw material. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 is a schematic diagram of the front cross-sectional structure of the lower base in the embodiment of the present application; Figure 2 It is a schematic diagram of the front cross-section structure of the lower layer component of the embodiment of the present application; Figure 3 is a schematic diagram of the front cross-section structure of the first roller assembly in the embodiment of the present application; Figure 4 is a schematic diagram of the front cross-section structure of the second roller assembly in the embodiment of the present application; Figure 5 It is a schematic diagram of the front cross-section structure of the stamping assembly of the embodiment of the present application; Figure 6 is a schematic diagram of the side cross-sectional structure of the stamping assembly of the embodiment of the present application; Figure 7 is a schematic diagram of the front cross-section structure of the first hot-pressing roller assembly of the embodiment of the present application; Figure 8 is a schematic diagram of the side cross-sectional structure of the first hot-pressing roller assembly of the embodiment of the present application; Fig. 9 is a schematic diagram of the front cross-section structure of the reinforcement plate frame according to an embodiment of the present application; Fig.10 is a schematic diagram of the structure of the sliding clamping mechanism of an embodiment of the present application from a top view; Fig.11 is a schematic diagram of the front cross-sectional structure of the film covering assembly of the embodiment of the present application; Fig.12 is a schematic diagram of the front cross-sectional structure of the shear assembly of the embodiment of the present application; Fig.13 yes Figure 1 The structural diagram at A in the middle; Description of reference numerals: 1, lower base; 2, lower layer assembly; 21, first roller assembly; 211, first frame; 212, first guide wheel; 213, slideway; 214, first pressing wheel; 215, second pressing wheel; 216, first electric telescopic rod; 22, second roller assembly; 221, second frame; 222, support rod; 223, adjustment frame; 224, first gear; 225, first servo motor; 23, stamping assembly; 231, stamping lower seat; 2 32. Elastic reset rod; 233. Stamping upper seat; 234. Stamping electric telescopic rod; 235. Punching seat; 236. Punching head; 24. Heat pressing device body; 25. Third roller group; 251. Support plate; 252. Roller group; 253. Second guide wheel; 3. Wire plate layer; 4. Dust cover; 5. Upper base; 6. Upper layer assembly; 7. Strengthening white strip frame; 8. First hot pressing roller assembly; 81. First support column; 82. First heating roller; 83 , first connecting block; 84, second heating roller; 85, second connecting block; 86, second electric telescopic rod; 87, heating plate; 88, conductive sheet; 89, elastic telescopic rod; 9, reinforcing plate frame; 91, support frame; 92, belt roller disc; 93, sliding clamping mechanism; 931, sliding module; 932, clamping claw; 94, belt pulley; 95, controller; 96, film placing disc; 10, laminating assembly; 101, second supporting column; 102, second hot pressing roller group Parts; 103, film guide plate; 11, shearing assembly; 111, shearing table; 112, third support column; 113, guide wheel; 114, fourth support column; 115, third electric telescopic rod; 116, shearing tool; 117, tool groove; 12, base; 13, air pump; 14, moving assembly; 141, second servo motor; 142, threaded rod; 143, threaded sleeve; 144, first slide rail; 145, limit frame; 146, second slide rail. DETAILED DESCRIPTION

[0023] The following is combined with Figure 1 - Attachment Fig.13 , further details of this application are given.

[0024] Embodiment: An FFC cable bonding device comprises a lower base 1, a lower component 2, a wire plate layer 3, a dust cover 4, an upper base 5, an upper component 6, a reinforcing white strip frame 7, a first hot pressing roller component 8, a reinforcing plate frame 9, a laminating component 10 and a shearing component 11, wherein the lower component 2 is mounted on the upper end surface of the lower base 1, and the wire plate layer 3 is arranged above the lower component 2, a dust cover 4 is arranged above the wire plate layer 3, and an upper base 5 is arranged above the dust cover 4, an upper component 6 is arranged on the upper end surface of the upper base 5, and a reinforcing white strip frame 7 is arranged on one side of the upper component 6, a first hot pressing roller component 8 is arranged on the side of the reinforcing white strip frame 7 away from the upper component 6, a reinforcing plate frame 9 is arranged on the side of the first hot pressing roller component 8 away from the reinforcing white strip frame 7, and a reinforcing plate frame 9 is provided with a coating assembly 10 on the side away from the first hot-pressing roller assembly 8, and a shearing assembly 11 is provided on the side away from the reinforcing plate frame 9 of the coating assembly 10. The lower base 1, the lower layer assembly 2, the wire plate layer 3, the dust cover 4, the upper base 5, the upper layer assembly 6, the reinforcing white strip frame 7, the first hot-pressing roller assembly 8, the reinforcing plate frame 9, the coating assembly 10 and the shearing assembly 11 are all installed on the upper end surface of the base 12, and the inner cavity of the base 12 is provided with an air pump 13; the lower layer assembly 2 includes a first roller group 21, a second roller group 22, a stamping assembly 23, a hot pressing device body 24 and a third roller group 25, the first roller group 21 is installed on the upper end surface of the lower base 1, and a second roller group 22 is provided on one side of the first roller group 21, and the second roller group 22 is away from the first roller group A stamping assembly 23 is provided on one side of the group 21, a hot pressing device body 24 is provided on the side of the stamping assembly 23 away from the second roller group 22, a third roller group 25 is provided on the side of the hot pressing device body 24 away from the stamping assembly 23, the structure of the connection between the lower base 1 and the lower component 2 is the same as the structure of the connection between the upper base 5 and the upper component 6, the first roller group 21 includes a first frame 211 and a first guide wheel 212, a first guide wheel 212 is provided on one side of the first frame 211, a slide groove 213 is provided on the side wall of the inner cavity of the first frame 211, a first pressing wheel 214 is fixedly installed on the side wall of the inner cavity of the first frame 211, a second pressing wheel 215 is slidably connected to the side wall of the inner cavity of the first frame 211 through the slide groove 213, and both ends of the second pressing wheel 215 are connected to the inner cavity of the first frame 211. A first electric telescopic rod 216 is installed through the connecting frame, the second roller group 22 includes a second frame 221 and a support rod 222, the side end surface of the second frame 221 is provided with a support rod 222, the inner side of the second frame 221 is connected with an adjusting frame 223 through a bearing, one end of the adjusting frame 223 is provided with a first gear 224, and the first gear 224 is meshed and connected with a first servo motor 225, the stamping assembly 23 includes a stamping lower seat 231 and an elastic reset rod 232, the end of the elastic reset rod 232 away from the stamping lower seat 231 is provided with a stamping upper seat 233, the upper end surface of the stamping upper seat 233 is provided with a stamping electric telescopic rod 234, the upper end surface of the stamping lower seat 231 is provided with a punching seat 235, and the bottom end surface of the stamping upper seat 233 is provided with a punching head 236,The third roller group 25 includes a support plate 251 and a roller group 252. The support plate 251 is installed at the edge of one side of the heat pressing device body 24, and the upper end surface of the support plate 251 is provided with a roller group 252, and one side of the roller group 252 is provided with a second guide wheel 253. The cross-sectional shape of the dust cover 4 is the same as the shape of the upper end surface of the conductor plate layer 3. First, the raw material of the FFC cable is guided, and then the raw material required for the FFC cable passes through the first roller group 21, the second roller group 22, the stamping assembly 23, the heat pressing device body in the lower layer component 2 in sequence. The FFC cable material is guided by the first guide wheel 212 in the first roller group 21, and the first electric telescopic rod 216 drives the second pressing wheel 215 to be in close contact with the first pressing wheel 214 through the slide slot 213, so as to guide the FFC cable material and press it at the same time, and then the FFC cable material flows to the stamping assembly 23 through the adjustment frame 223 in the second roller group 22, and the first gear 224 is driven to rotate by the first servo motor 225, so as to make the adjustment frame 223 rotate. The angle is adjusted, and the support rod 222 is used to convey and guide the FFC cable raw material, so as to facilitate the stamping step of the stamping assembly 23, wherein the FFC cable raw material passes between the stamping lower seat 231 and the stamping upper seat 233, and the punching head 236 is driven by the stamping electric telescopic rod 234 to press against the punching seat 235 to achieve the punching effect, and then the elastic reset rod 232 is used to achieve the rapid reset step. After the punching, the FFC cable raw material moves to the hot pressing device body 24 for hot pressing, and then passes through the roller group 252 in the third roller group 25 The second guide wheel 253 further guides the FFC cable raw material out, and the structure of the connection between the lower base 1 and the lower component 2 is the same as the structure of the connection between the upper base 5 and the upper component 6. The lower component 2 in the lower base 1 and the upper component 6 in the upper base 5 have the same structure, resulting in the same working steps of the lower component 2 as the working steps of the upper component 6. At the same time, the copper wire is transported through the conductor plate layer 3, and the dust hood 4 is connected to the air pump 13 through an external air pipe to absorb dust while transporting the copper wire. Punching and hot pressing work are achieved through the above structure.

[0025] The contact surface between the stamping assembly 23, the hot pressing device body 24 and the third roller group 25 in the lower assembly 2 and the lower base 1 is provided with a moving assembly 14, and the moving assembly 14 includes a second servo motor 141 and a threaded rod 142, the output end of the second servo motor 141 is provided with a threaded rod 142, and the outer diameter surface of the threaded rod 142 is provided with a threaded sleeve 143, and the upper part of the threaded rod 142 is provided with a first slide rail 144, and the first slide rail 144 is slidably connected to the limit frame 145, and the contact surface between the limit frame 145 and the lower base 1 is provided with a second slide rail 14 6. The stamping assembly 23, the hot pressing device body 24 and the third roller assembly 25 in the lower component 2 are specifically installed on the limit frame 145. When punching the FFC cable raw material, the moving assembly 14 can simultaneously drive the punching position and the FFC cable raw material to move relatively still, wherein the second servo motor 141 drives the threaded rod 142 to rotate, and the threaded sleeve 143 drives the limit frame 145 and the first slide rail 144 and the second slide rail 146 to move. The above structure avoids the occurrence of wrinkles in the movement of the FFC cable raw material.

[0026] The first hot pressing roller assembly 8 includes a first supporting column 81 and a first heating roller 82. The first heating roller 82 is installed on the inner side of the first supporting column 81 through a first connecting block 83. A second heating roller 84 is arranged above the first heating roller 82. A second connecting block 85 is arranged on the contact surface between the second heating roller 84 and the first supporting column 81. A second electric telescopic rod 86 is arranged on the upper end surface of the second connecting block 85. A heating plate 87 is arranged on the inner diameter of the first heating roller 82 and the second heating roller 84. The heating plate 87 is electrically connected to a conductive sheet 88, and an elastic telescopic rod 89 is arranged at one end of the conductive sheet 88. The reinforcing plate frame 9 includes a supporting frame 91 and a belt roller disk 92. The belt roller disk 92 is installed on the bottom end surface of the inner side of the supporting frame 91 through a sliding clamping mechanism 93. A belt conveyor pulley 94 is arranged between the belt roller disk 92 and the sliding clamping mechanism 93. A controller 95 is arranged on the upper end surface of the supporting frame 91. A film placing disk 96 is arranged on one side of the controller 95. The sliding clamping mechanism 93 includes The sliding module 931 and the clamping claw 932, the clamping claw 932 is installed at the moving end of the sliding module 931, and the upper layer raw material, the lower layer raw material and the copper wire are three-layered by the first hot pressing roller assembly 8, wherein the heating plate 87 is energized by the conductive sheet 88, and the second connecting block 85 is driven by the second electric telescopic rod 86 to make the second heating roller 84 along the first support column 81 to make the first heating roller 82 connected to the first connecting block 83, and the elastic telescopic rod 89 is used to always make the conductive sheets 88 fit each other for power transmission, and then the horizontal bar structure is strengthened by the reinforcement plate frame 9, wherein the reinforcement bar is placed on the belt roller disk 92, and the sliding module 931 and the clamping claw 932 in the sliding clamping mechanism 93 are used to collect and grab the reinforcement bar so that the reinforcement bar moves along the belt pulley 94, and the whole device is controlled to move by the controller 95, and a film roll is placed on the film placing disk 96 for subsequent lamination work steps.

[0027] The laminating assembly 10 includes a second support column 101 and a second hot pressing roller assembly 102, the second hot pressing roller assembly 102 is installed on the inner side of the second support column 101, and a film guide disk 103 is provided on the side end face of the second support column 101, the shearing assembly 11 includes a shearing table 111 and a third support column 112, one side of the shearing table 111 is provided with the third support column 112, and a guide wheel 113 is provided at the edge of the upper end face of the shearing table 111, a fourth support column 114 is provided above the shearing table 111, and a third electric telescopic rod 115 is installed on one side of the fourth support column 114, and a shearing tool 116 is provided at the telescopic end of the third electric telescopic rod 115, and the shearing tool 116 is provided at the telescopic end of the third electric telescopic rod 115. A knife groove 117 is provided directly below the cutting tool 116, wherein the FFC cable after three-layer lamination is subjected to the laminating component 10, and firstly, the contact between the second hot pressing roller component 102 and the FFC cable in the laminating component 10 is the same as the result of the three-layer lamination of the upper raw material, the lower raw material and the copper wire by the first hot pressing roller component 8, and the lamination is also performed along the film guide disk 103, and then the processed FFC cable is sheared by the shearing component 11, wherein the third electric telescopic rod 115 drives the shearing tool 116 to move to the knife groove 117, and the raw material is guided by the guide wheel 113, and the lamination and shearing of the FFC cable are completed through the above structure.

[0028] On the other hand, the embodiment of the present application also provides a bonding process of an FFC cable bonding device, and the bonding process steps are as follows: Step 1: First, guide the raw materials of the FFC cable, and then the raw materials required for the FFC cable pass through the first roller group, the second roller group, the stamping assembly, the hot pressing device body and the third roller group in the lower layer assembly in turn, wherein the FFC cable raw materials are guided by the first guide wheel in the first roller group, and the first electric telescopic rod drives the second pressing wheel to be close to the first pressing wheel through the slide groove, so that the FFC cable raw materials can be pressed while being guided, and then the FFC cable raw materials pass through the adjustment frame in the second roller group to flow to the stamping assembly, and the first gear is driven to rotate by the first servo motor, so that the adjustment frame is adjusted in angle, and the support rod is used to convey and guide the FFC cable raw materials, so as to facilitate the stamping step of the stamping assembly, wherein the FFC cable raw materials pass through the stamping lower seat Between the punching seat, and the punching head is driven by the punching electric telescopic rod to press the punching seat to achieve the punching effect, and then the elastic reset rod is used to realize the quick reset step. After punching, the FFC cable raw material moves to the hot pressing device body for hot pressing, and then the roller group and the second guide wheel in the third roller group are used to further guide the FFC cable raw material out, and the structure of the connection between the lower base and the lower component is the same as the structure of the connection between the upper base and the upper component, and the lower component in the lower base has the same structure as the upper component in the upper base, resulting in the same working steps of the lower component as the upper component, and the copper wire is transported through the conductor plate layer at the same time, and the dust hood is connected to the air pump through an external air pipe to absorb dust while transporting the copper wire, and the punching and hot pressing work are realized through the above structure; Step 2: The upper raw material, the lower raw material and the copper wire are laminated by the first hot pressing roller assembly, wherein the heating plate is energized by the conductive sheet, and the second connecting block is driven by the second electric telescopic rod along the first support column to make the second heating roller connected to the first connecting block to the first heating roller, and the elastic telescopic rod is used to always make the conductive sheets fit each other for power transmission, and then the horizontal bar structure is strengthened by the reinforcing plate frame, wherein the reinforcing bar is placed on the belt roller disk, and the sliding module and the clamping claw in the sliding clamping mechanism are used to collect and grab the reinforcing bar so that the reinforcing bar moves along the belt pulley, and the whole device is controlled to move by the controller, and a film roll is placed on the film placing disk for subsequent laminating work steps; Step three: the FFC cable that has been three-layer pressed is subjected to a laminating assembly. First, the contact between the second hot-pressing roller assembly in the laminating assembly and the FFC cable is the same as the result of the three-layer pressing of the upper raw material, the lower raw material and the copper wire by the first hot-pressing roller assembly, and the laminating is also performed along the film guide plate. Subsequently, the processed FFC cable is sheared by the shearing assembly, wherein the third electric telescopic rod drives the shearing tool to move toward the knife groove, and the raw material is guided by the guide wheel to complete the laminating and shearing of the FFC cable; Step 4: When punching holes in the FFC cable raw material, the moving component can simultaneously drive the punching point and the FFC cable raw material to move relatively still, wherein the second servo motor drives the threaded rod to rotate, and the threaded sleeve drives the limit frame and the first slide rail and the second slide rail to move, thereby avoiding wrinkles in the FFC cable raw material during movement.

[0029] The implementation principle of the embodiment of the present application is as follows: first, the raw material of the FFC cable is guided, and the raw material of the FFC cable passes through the first roller group 21, the second roller group 22, the stamping assembly 23, the heat pressing device body 24 and the third roller group 25 in the lower layer component 2 in sequence, wherein the first guide wheel 212 in the first roller group 21 guides the raw material of the FFC cable, and the first electric telescopic rod 216 drives the second pressing wheel 215 to be in close contact with the first pressing wheel 214 through the slide groove 213, so that the raw material of the FFC cable can be pressed while being guided, and then the FFC cable The wire material flows to the stamping assembly 23 through the adjustment frame 223 in the second roller group 22, wherein the first gear 224 is driven to rotate by the first servo motor 225, thereby adjusting the angle of the adjustment frame 223, and the support rod 222 is used to convey and guide the FFC wire material, thereby facilitating the stamping assembly 23 to perform the stamping step, wherein the FFC wire material passes between the stamping lower seat 231 and the stamping upper seat 233, and the punching head 236 is driven by the stamping electric telescopic rod 234 to press against the punching seat 235 to achieve the punching effect, and then the elastic reset rod 23 is used to reset the FFC wire material. 2 realizes the quick reset step. After the holes are punched, the FFC cable raw material moves to the hot pressing device body 24 for hot pressing, and the FFC cable raw material is further guided out by the roller group 252 and the second guide wheel 253 in the third roller group 25. The structure in which the lower base 1 and the lower component 2 are connected is the same as the structure in which the upper base 5 and the upper component 6 are connected. The lower component 2 in the lower base 1 and the upper component 6 in the upper base 5 have the same structure, resulting in the working steps of the lower component 2 being the same as the working steps of the upper component 6. At the same time, the copper wire is transported through the conductor plate layer 3, and The dust cover 4 is connected to the air pump 13 through an external air pipe to absorb dust while transporting the copper wire. Punching and hot pressing are achieved through the above structure. When punching holes in the FFC cable material, the moving component 14 can simultaneously drive the punching position and the FFC cable material to move relatively statically, wherein the second servo motor 141 drives the threaded rod 142 to rotate, and the threaded sleeve 143 drives the limit frame 145 and the first slide rail 144 and the second slide rail 146 to move. The above structure prevents the FFC cable material from wrinkling during movement. The upper layer of raw material, the lower layer of raw material and the copper wire are laminated in three layers by the first hot pressing roller assembly 8, wherein the heating plate 87 is energized by the conductive sheet 88, and the second connecting block 85 is driven by the second electric telescopic rod 86 along the first support column 81 to make the second heating roller 84 to the first heating roller 82 connected to the first connecting block 83, and the elastic telescopic rod 89 is used to always make the conductive sheets 88 fit each other for power transmission, and then the cross-bar structure is strengthened by the reinforcing plate frame 9, wherein the reinforcing strip is placed on the belt roller disk 92, and the sliding module 931 and the clamping claw 932 in the sliding clamping mechanism 93 are used to collect and grab the reinforcing strip, so that the reinforcing strip moves along the conveyor pulley 94. The whole device moves, and the controller 95 controls the movement of the whole device at the same time, and a film roll is placed on the film placing disk 96, wherein the FFC cable that has been three-layer pressed is subjected to the coating assembly 10, and firstly, the contact between the second hot pressing roller assembly 102 and the FFC cable in the coating assembly 10 is the same as the result of the three-layer pressing of the upper raw material, the lower raw material and the copper wire by the first hot pressing roller assembly 8, and the coating is also carried out along the film guide disk 103, and then the processed FFC cable is sheared by the shearing assembly 11, wherein the third electric telescopic rod 115 drives the shearing tool 116 to move to the knife groove 117, and the raw material is guided by the guide wheel 113 to complete the coating and shearing of the FFC cable.

[0030] The embodiments of this specific implementation are all preferred embodiments of the present application, and are not intended to limit the protection scope of the present application. The same components are represented by the same figure marks. Therefore, any equivalent changes made based on the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. An FFC cable bonding device, comprising a lower base (1), a lower layer assembly (2), a conductor plate layer (3), a dust cover (4), an upper base (5), an upper layer assembly (6), a reinforcing white strip frame (7), a first hot pressing roller assembly (8), a reinforcing plate frame (9), a laminating assembly (10) and a shearing assembly (11), characterized in that: The lower layer component (2) is mounted on the upper end surface of the lower base (1), and a conductor plate layer (3) is arranged above the lower layer component (2), a dust cover (4) is arranged above the conductor plate layer (3), and an upper base (5) is arranged above the dust cover (4), an upper layer component (6) is arranged on the upper end surface of the upper base (5), and a reinforcing white strip frame (7) is arranged on one side of the upper layer component (6), a first hot pressing roller component (8) is arranged on the side of the reinforcing white strip frame (7) away from the upper layer component (6), and a reinforcing plate frame is arranged on the side of the first hot pressing roller component (8) away from the reinforcing white strip frame (7) (9), a coating assembly (10) is arranged on the side of the reinforcing plate frame (9) away from the first hot-pressing roller assembly (8), a shearing assembly (11) is arranged on the side of the coating assembly (10) away from the reinforcing plate frame (9), the lower base (1), the lower layer assembly (2), the wire plate layer (3), the dust cover (4), the upper base (5), the upper layer assembly (6), the reinforcing white strip frame (7), the first hot-pressing roller assembly (8), the reinforcing plate frame (9), the coating assembly (10) and the shearing assembly (11) are all mounted on the upper end surface of the base (12), and the inner cavity of the base (12) is provided with an air pump (13); The lower layer component (2) comprises a first roller group (21), a second roller group (22), a punching assembly (23), a heat pressing device body (24) and a third roller group (25); the first roller group (21) is mounted on the upper end surface of the lower base (1); the second roller group (22) is arranged on one side of the first roller group (21); the punching assembly (23) is arranged on a side of the second roller group (22) away from the first roller group (21); the heat pressing device body (24) is arranged on a side of the punching assembly (23) away from the second roller group (22); the third roller group (25) is arranged on a side of the heat pressing device body (24) away from the punching assembly (23); the structure of connecting the lower base (1) and the lower layer component (2) is the same as the structure of connecting the upper base (5) and the upper layer component (6).

2. The FFC cable bonding device according to claim 1, characterized in that: The first roller assembly (21) comprises a first frame (211) and a first guide wheel (212); a first guide wheel (212) is arranged on one side of the first frame (211); a sliding groove (213) is arranged on the side wall of the inner cavity of the first frame (211); a first pressing wheel (214) is fixedly mounted on the side wall of the inner cavity of the first frame (211); a second pressing wheel (215) is slidably connected to the side wall of the inner cavity of the first frame (211) via the sliding groove (213); first electric telescopic rods (216) are mounted on both ends of the second pressing wheel (215) via a connecting frame; the second roller assembly (22) comprises a second frame (221) and a support rod (222); a support rod (222) is arranged on the side end surface of the second frame (221); an adjusting frame (223) is connected to the inner side of the second frame (221) via a bearing; a first gear ( 224), the adjustment frame (223) is meshingly connected to a first servo motor (225), the stamping assembly (23) comprises a stamping lower seat (231) and an elastic reset rod (232), an end of the elastic reset rod (232) away from the stamping lower seat (231) is provided with a stamping upper seat (233), the upper end surface of the stamping upper seat (233) is mounted with a stamping electric telescopic rod (234), and the upper end surface of the stamping lower seat (231) is provided with A punching seat (235) is provided, and a punching head (236) is provided on the bottom end surface of the punching upper seat (233). The third roller group (25) comprises a support plate (251) and a roller group (252). The support plate (251) is installed at the edge of one side of the heat pressing device body (24), and the upper end surface of the support plate (251) is provided with a roller group (252), and a second guide wheel (253) is provided on one side of the roller group (252).

3. The FFC cable bonding device according to claim 1, characterized in that: The cross-section of the dust cover (4) is the same as the shape of the upper end surface of the conductor plate layer (3); the contact surface between the stamping assembly (23), the heat pressing device body (24) and the third roller group (25) in the lower layer assembly (2) and the lower base (1) is provided with a moving assembly (14); the moving assembly (14) comprises a second servo motor (141) and a threaded rod (142); the output end of the second servo motor (141) is provided with a threaded rod (142); the outer diameter surface of the threaded rod (142) is provided with a threaded sleeve (143); a first slide rail (144) is provided above the threaded rod (142); the first slide rail (144) is slidably connected to a limit frame (145); the contact surface between the limit frame (145) and the lower base (1) is provided with a second slide rail (146); the stamping assembly (23), the heat pressing device body (24) and the third roller group (25) in the lower layer assembly (2) are specifically mounted on the limit frame (145).

4. The FFC cable bonding device according to claim 1, characterized in that: The first hot pressing roller assembly (8) comprises a first supporting column (81) and a first heating roller (82); the first heating roller (82) is mounted on the inner side of the first supporting column (81) via a first connecting block (83); a second heating roller (84) is arranged above the first heating roller (82); a second connecting block (85) is arranged on the contact surface between the second heating roller (84) and the first supporting column (81); a second electric telescopic rod (86) is arranged on the upper end surface of the second connecting block (85); a heating plate (87) is arranged on the inner diameter of the first heating roller (82) and the second heating roller (84); the heating plate (87) is electrically connected to a conductive sheet (88), and an elastic telescopic rod (89) is arranged at one end of the conductive sheet (88).

5. The FFC cable bonding device according to claim 1, characterized in that: The reinforcing plate frame (9) comprises a support frame (91) and a belt roller disk (92); the belt roller disk (92) is mounted on the bottom end surface of the inner side of the support frame (91) via a sliding clamping mechanism (93); a belt conveyor wheel (94) is arranged between the belt roller disk (92) and the sliding clamping mechanism (93); a controller (95) is arranged on the upper end surface of the support frame (91); a film placing disk (96) is arranged on one side of the controller (95); the sliding clamping mechanism (93) comprises a sliding module (931) and a clamping claw (932); the clamping claw (932) is mounted on the moving end of the sliding module (931).

6. The FFC cable bonding device according to claim 1, characterized in that: The laminating assembly (10) comprises a second supporting column (101) and a second hot pressing roller assembly (102); the second hot pressing roller assembly (102) is mounted on the inner side of the second supporting column (101), and a film guide disk (103) is provided on the side end surface of the second supporting column (101).

7. The FFC cable bonding device according to claim 1, characterized in that: The shearing assembly (11) comprises a shearing platform (111) and a third support column (112); the third support column (112) is arranged on one side of the shearing platform (111), and a guide wheel (113) is arranged at the edge of the upper end surface of the shearing platform (111); a fourth support column (114) is arranged above the shearing platform (111), and a third electric telescopic rod (115) is installed on one side of the fourth support column (114); a shearing tool (116) is arranged at the telescopic end of the third electric telescopic rod (115), and a tool groove (117) is arranged directly below the shearing tool (116).

8. A bonding process of an FFC cable bonding device, using the FFC cable bonding device of claim 7, characterized in that: The lamination process steps are as follows: Step 1: First, the raw material of the FFC cable is guided, and then the raw material required for the FFC cable passes through the first roller group (21), the second roller group (22), the stamping assembly (23), the heat pressing device body (24) and the third roller group (25) in the lower layer component (2) in sequence, wherein the FFC cable raw material is guided by the first guide wheel (212) in the first roller group (21), and the first electric telescopic rod (216) drives the second pressing wheel (215) and the first pressing wheel (216) through the slide groove (213) to move toward each other. 4) close contact, guiding the FFC cable raw material while pressing it, and then the FFC cable raw material flows to the stamping assembly (23) through the adjustment frame (223) in the second roller group (22), and the first gear (224) is driven by the first servo motor (225) to rotate, thereby adjusting the angle of the adjustment frame (223), and at the same time, the support rod (222) is used to convey and guide the FFC cable raw material, thereby facilitating the stamping assembly (23) to perform the stamping step, wherein the FFC cable raw material passes through the stamping lower seat (231) and the punching upper seat (233), and the punching head (236) is driven by the punching electric telescopic rod (234) to press against the punching seat (235) to achieve the punching effect, and then the elastic reset rod (232) is used to achieve a quick reset step. After the punching, the FFC cable raw material moves to the hot pressing device body (24) for hot pressing, and subsequently the roller group (252) and the second guide wheel (253) in the third roller group (25) are further guided out, and the lower base (1 ) and the lower component (2) are connected in the same structure as the upper base (5) and the upper component (6), and the lower component (2) in the lower base (1) and the upper component (6) in the upper base (5) are of the same structure, resulting in the working steps of the lower component (2) being the same as the working steps of the upper component (6), and the copper wire is transported through the conductor plate layer (3), and the dust hood (4) is connected to the air pump (13) through an external air pipe to form a connection structure so as to absorb dust while transporting the copper wire, and punching and hot pressing operations are achieved through the above structure; Step 2: The upper layer raw material, the lower layer raw material and the copper wire are laminated by the first hot pressing roller assembly (8), wherein the heating plate (87) is energized by the conductive sheet (88), and the second connecting block (85) is driven by the second electric telescopic rod (86) along the first support column (81) so that the second heating roller (84) is connected to the first connecting block (83) The first heating roller (82), and the conductive sheets (88) are always kept in contact with each other by the elastic telescopic rod (89) to facilitate power transmission, and then the horizontal bar structure is reinforced by the reinforcing plate frame (9), wherein a reinforcing bar is placed on the belt roller disk (92), and the sliding module (931) and the clamping claw (932) in the sliding clamping mechanism (93) are used to collect and grab the reinforcing bar so that the reinforcing bar moves along the belt pulley (94), and the entire device is controlled to move by the controller (95), and a film roll is placed on the film placing disk (96) to facilitate the subsequent laminating work steps; Step three: the FFC cable that has undergone three-layer lamination is subjected to a laminating assembly (10). First, the contact between the second hot-pressing roller assembly (102) in the laminating assembly (10) and the FFC cable is the same as the result of the three-layer lamination of the upper layer raw material, the lower layer raw material and the copper wire by the first hot-pressing roller assembly (8), and the lamination is also performed along the film guide disk (103). Subsequently, the processed FFC cable is sheared by the shearing assembly (11), wherein the third electric telescopic rod (115) drives the shearing tool (116) to move toward the knife groove (117), and the raw material is guided by the guide wheel (113), thereby completing the lamination and shearing of the FFC cable; Step 4: When punching holes in the FFC cable material, the moving component (14) can simultaneously drive the punching position and the FFC cable material to move relatively still, wherein the second servo motor (141) drives the threaded rod (142) to rotate, and the threaded sleeve (143) drives the limit frame (145) and the first slide rail (144) and the second slide rail (146) to move, thereby preventing the FFC cable material from wrinkling during movement.

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