Full-automatic cutting and edge covering all-in-one machine

Abstract

The utility model discloses a full-automatic cutting and edge covering all-in-one machine which comprises a plate shearing mechanism, a feeding mechanism, a plate stacking mechanism, a rubber coating mechanism and a plate collecting mechanism, cutting, edge covering and other machining procedures are carried out on the same production line, circulation in different working areas is not needed, unnecessary repeated labor is reduced, and compared with an existing machining method, the machining efficiency is greatly improved. The method has the advantages of high production efficiency, simple process, low labor intensity, low production cost and the like. According to the all-in-one machine, the whole all-in-one machine adopts a modular design, the functional modules can be tightly matched while being kept relatively independent, the overall layout is compact, the occupied area is relatively small, and precious space resources can be saved while efficient production of equipment is kept.

Description

TECHNICAL FIELD

[0001] The utility model relates to automatic equipment technical field more specifically, is related to a full -automatic cutting edge covering all -in -one. BACKGROUND

[0002] FPC is the abbreviation of Flexible Printed Circuit, also called soft circuit board, flexible printed circuit board, flexible circuit board, simply called soft board or FPC, has the characteristics of high wiring density, light weight, thin thickness, is mainly used in mobile phones, notebook computers, PDA, digital cameras, LCM and other products, FPC soft printed circuit is made of polyimide or polyester film as the base material, which is a highly reliable and excellent flexible printed circuit.

[0003] The existing rubber coating line feeding process of FPC plate industry is: the finished product roll is placed in front of the plate shearing machine, the centering device is placed at the rear end of the plate shearing machine and connected with the plate shearing machine, a pad is placed on the centering device first, then the plate shearing machine cuts the roll into fixed length pieces, and the pieces are slid into the centering device with a pad, after the stacking of the pieces is completed, the plate shearing machine stops working, then an aluminum sheet is placed on the centering device, then the centering is carried out, then the stacked material after centering is transplanted to the next station, and the feeding is completed, then a pad is placed on the centering device, and the plate shearing machine is started to cut the plate, and the cycle is repeated. That is, the plate shearing machine cuts the material → manual stacking → manual rubber coating on the semi-automatic device → manual collection and arrangement to the next process. The current rubber coating process has high labor cost, low production efficiency and low precision. UTILITY MODEL CONTENTS

[0004] In order to overcome the problems of high labor cost, low production efficiency and low precision of the existing rubber coating process, the utility model provides a full -automatic cutting edge covering all -in -one.

[0005] The technical scheme of the utility model is as follows:

[0006] A full -automatic cutting edge covering all -in -one, including plate shearing mechanism, feeding mechanism, plate stacking mechanism, rubber coating mechanism and plate collecting mechanism, the plate shearing mechanism and the feeding mechanism are arranged in front and back, the plate stacking mechanism is parallel with the plate shearing mechanism and the feeding mechanism, and the plate stacking mechanism moves between the plate shearing mechanism and the feeding mechanism, the rubber coating mechanism is located at the rear of the plate stacking mechanism, the plate collecting mechanism is located at the rear of the feeding mechanism, and the plate collecting mechanism is parallel with the rubber coating mechanism.

[0007] According to the utility model of the above scheme, the plate shearing mechanism comprises:

[0008] The blanking and cutting module comprises a copper foil roll, a cutting unit and a conveying belt, the copper foil is wound on the copper foil roll, the cutting unit is used for cutting the copper foil, and the conveying belt is arranged obliquely downward and is used for conveying the cut copper foil to the stacking mechanism;

[0009] The flattening module is located above the conveying belt, and comprises a support frame, an extension unit and a flattening roller.

[0010] According to the above scheme, the feeding mechanism comprises a storage table and a plurality of storage columns arranged on the storage table, the plurality of storage columns separate the storage table into a plurality of storage spaces, the storage columns comprise first storage columns and second storage columns, the first storage columns are mounted on the surface of the storage table, and the second storage columns are mounted in the strip-shaped holes of the storage table through mounting blocks.

[0011] According to the above scheme, the stacking mechanism comprises a stacking frame, a jacking unit, a first stacking unit and a second stacking unit arranged on the stacking frame, the stacking frame is provided with a first stacking slide rail and a second stacking slide rail, the first stacking slide rail and the second stacking slide rail are arranged in an up-down staggered manner, the first stacking unit is slidingly arranged on the first stacking slide rail, the second stacking unit is slidingly arranged on the second stacking slide rail, and the second stacking unit is further connected with the jacking unit.

[0012] According to the above scheme, the encapsulating mechanism comprises a plurality of encapsulating units and a rotating table located between the plurality of encapsulating units, the encapsulating unit comprises an encapsulating machine, an encapsulating screw, a first encapsulating slide rail, a mounting plate and a second encapsulating slide rail, the encapsulating machine is connected with the encapsulating screw and slides along the first encapsulating slide rail under the driving of the encapsulating screw, the encapsulating screw and the first encapsulating slide rail are both mounted on the mounting plate, and the mounting plate is slidingly connected with the second encapsulating slide rail; the rotating table comprises a rotating frame and a suction disc, the rotating frame is cross-shaped, the suction disc is disc-shaped, and the suction disc is located in the middle of the rotating frame.

[0013] According to the above scheme, the collecting mechanism comprises a lifting frame, a lifting slide rail, a lifting column, a lifting motor and a lifting table, the lifting slide rail is mounted on the lifting frame, the lifting column is mounted in the middle of the lifting slide rail, the output end of the lifting motor is connected with the lifting column, the lifting table is connected with the lifting slide rail through a sliding block, and the lifting table is further connected with the lifting column.

[0014] The utility model discloses according to above-mentioned scheme, the first translation module is transferred between the copper foil of the laminated plate mechanism and the rubber -coated mechanism, the second translation module is transferred between the rubber -coated mechanism and the plate receiving mechanism.

[0015] The utility model discloses according to above-mentioned scheme, the first translation module and the second translation module structure are same, the first translation module includes elevating unit and clamping unit, elevating unit is slidably arranged on the translation slide rail, elevating unit is connected with clamping unit, is used for driving clamping unit moves up and down along vertical direction.

[0016] The utility model discloses according to above-mentioned scheme, clamping unit is installed on the clamping platform, and the clamping platform is connected with elevating unit, and clamping unit includes clamping cylinder and clamping block, and the output end of clamping cylinder is connected with one end of clamping block, and clamping block is irregular " S " shape, and the middle part of clamping block is rotatably connected with clamping platform.

[0017] The utility model discloses according to above-mentioned scheme, the pad plate is transferred between the feeding mechanism and the laminated plate mechanism through the plate suction module, and the plate suction module is slidably arranged on the plate suction rail, and the plate suction module includes plate suction frame, plate suction height adjusting belt and plate suction height adjusting motor, and the plate suction frame is connected with the plate suction height adjusting belt, and the plate suction height adjusting belt is connected with the plate suction height adjusting motor, so that the plate suction height adjusting motor adjusts the height of the plate suction frame through the plate suction height adjusting belt.

[0018] The utility model discloses according to above-mentioned scheme, its beneficial effect lies in, a kind of full-automatic cutting and binding integrated machine of the utility model, cutting, binding and other processing procedures are carried out on the same production line, need not in different work area and carry on flow, unnecessary repeated labor is reduced, relative to the processing method of prior art, it has production efficiency high, process simple, reduce labor intensity, and reduce production cost and the advantages such as.

[0019] Overall modular design, each functional module is relatively independent while being able to cooperate closely, forming a compact overall layout, relatively small footprint, so that the equipment can save valuable space resources while maintaining high efficiency production, providing strong support for factory production layout and cost control. BRIEF DESCRIPTION OF DRAWINGS

[0020] Figure 1 It is the structure schematic drawing of the utility model;

[0021] Figure 2 It is the structure schematic drawing of the plate shearing mechanism of the utility model;

[0022] Figure 3It is a structure schematic view of the feeding mechanism of the utility model;

[0023] Figure 4 It is a structure schematic view of the plate stacking mechanism of the utility model;

[0024] Figure 5 It is a structure schematic view of the rubber coating mechanism of the utility model;

[0025] Figure 6 It is a structure schematic view of the plate collecting mechanism of the utility model;

[0026] Figure 7 It is a structure schematic view of the plate collecting mechanism of the utility model from another perspective;

[0027] Figure 8 It is a structure schematic view of the first translation module of the utility model;

[0028] Figure 9 It is a structure schematic view of the plate suction module of the utility model.

[0029] In the drawings, various reference signs are as follows:

[0030] 10, plate shearing mechanism; 11, blanking and cutting module; 111, copper foil roll; 112, cutting unit; 113, conveying belt; 12, flattening module; 121, support frame; 122, telescopic unit; 123, flattening roller; 20, feeding mechanism; 21, storage table; 211, strip-shaped hole; 22, storage column; 221, first storage column; 222, second storage column; 30, plate stacking mechanism; 31, plate stacking frame; 311, first plate stacking slide rail; 312, second plate stacking slide rail; 32, jacking unit; 33, first plate stacking unit; 34, second plate stacking unit; 40, rubber coating mechanism; 41, rubber coating unit; 411, rubber coating machine; 412, rubber coating screw; 413, first rubber coating slide rail; 414, mounting plate; 415, second rubber coating slide rail; 42, rotary table; 421, rotary frame; 422, suction cup; 50, plate collecting mechanism; 51, lifting frame; 52, lifting slide rail; 53, lifting column; 54, lifting motor; 55, lifting table; 56, plate collecting frame; 60, first translation module; 61, lifting unit; 62, clamping unit; 621, clamping cylinder; 622, clamping block; 63, translation slide rail; 64, clamping table; 70, second translation module; 80, plate suction module; 81, plate suction frame; 82, plate suction height adjusting belt; 83, plate suction height adjusting motor; 84, plate suction track. DETAILED DESCRIPTION

[0031] In order to make the technical problems, technical schemes and beneficial effects to be solved by the utility model more clear and obvious, the utility model is further described in detail below in combination with the drawings and embodiments.

[0032] It should be noted that the terms "comprising" and "having" and any variations thereof in the specification and claims of the present application are intended to cover the non-exclusive inclusion of the listed steps or elements. For example, a process, method, system, product or device that includes a list of steps or elements does not necessarily limit the process, method, system, product or device to only those steps or elements listed, but can optionally include additional steps or elements not listed. The terms "provided" and the like should be broadly interpreted, for example, can be fixedly connected, or can be detachably connected, or can be integrated; can be mechanically connected, or can be electrically connected; can be directly connected, or can be indirectly connected through an intermediate medium; can be the internal communication or interaction relationship of two elements, unless otherwise explicitly limited. The terms "up", "down", "left", "right", "front", "back", "bottom" and the like indicate the orientation or position based on the orientation or position shown in the drawings, and are only for the convenience of description, and cannot be understood as a limitation on the technical solution.

[0033] It should be noted that the existing rubber coating line loading process in the FPC board industry is: the finished roll material is placed in front of the cutting machine, the centering device is placed at the rear end of the cutting machine and connected with the cutting machine, a mat is first placed on the centering device, then the cutting machine cuts the roll material into fixed length pieces, and the pieces are slid into the centering device with a mat, after the stacking of the pieces is completed, the cutting machine stops working, then an aluminum sheet is placed on the centering device, then the centering is performed, then the stacked material after centering is transplanted to the next station, and one loading is completed, then a mat is placed on the centering device, and the cutting machine is started to cut the board, and the process is repeated. That is: cutting machine cutting → manual stacking → manual rubber coating on semi-automatic equipment → manual collection and arrangement to the next process. The current rubber coating process has high labor cost, low production efficiency and low precision.

[0034] As shown in Figures 1-9 The present embodiment provides a full-automatic cutting and edge covering all-in-one machine, the cutting, edge covering and other processing procedures are carried out on the same production line, without flowing through different working areas, unnecessary repeated labor is reduced, and compared with the existing processing method, the full-automatic cutting and edge covering all-in-one machine has the advantages of high production efficiency, simple process, reduced labor intensity, and reduced production cost.

[0035] The whole is designed in a modular manner, each functional module is relatively independent while being able to cooperate closely to form a compact overall layout, the occupied area is relatively small, so that the equipment can save valuable space resources while maintaining high efficiency, and provides strong support for the production layout and cost control of the factory.

[0036] Specifically, the full-automatic cutting and edge covering integrated machine comprises a plate cutting mechanism 10, a feeding mechanism 20, a plate stacking mechanism 30, a rubber coating mechanism 40 and a plate collecting mechanism 50. The plate cutting mechanism 10 and the feeding mechanism 20 are arranged in front and back. The plate cutting mechanism 10 is used for cutting copper foil according to a preset size. The feeding mechanism 20 is used for providing an upper pad plate and a lower pad plate of the copper foil to prevent the copper foil from being damaged or deformed during processing. The plate stacking mechanism 30 is parallel to the plate cutting mechanism 10 and the feeding mechanism 20, and moves between the plate cutting mechanism 10 and the feeding mechanism 20. The plate stacking mechanism 30 places the lower pad plate at the feeding mechanism 20. Then, the plate stacking mechanism 30 moves to the plate cutting mechanism 10 to collect the cut copper foil. After the collection is completed, the plate stacking mechanism 30 moves to the feeding mechanism 20 to place the upper pad plate to complete the stacking of the copper foil. The rubber coating mechanism 40 is located behind the plate stacking mechanism 30. The stacked copper foil can be directly moved to the rubber coating mechanism 40 for edge covering. The plate collecting mechanism 50 is located behind the feeding mechanism 20 and is parallel to the rubber coating mechanism 40.

[0037] In one embodiment, the plate cutting mechanism 10 comprises a plate cutting module 11 and a flattening module 12. The plate cutting module 11 comprises a copper foil roll 111, a cutting unit 112 and a conveying belt 113. The copper foil is wound on the copper foil roll 111. The cutting unit 112 is used for cutting the copper foil. The conveying belt 113 is arranged obliquely downward and is used for conveying the cut copper foil to the plate stacking mechanism 30. The conveying belt 113 adopts an oblique downward layout, which not only saves vertical space, but also utilizes the action of gravity to make the cut copper foil smoothly and stably slide to the plate stacking mechanism 30. The precise control of the conveying belt 113 and the close cooperation with the cutting unit 112 ensure that each cut copper foil can be accurately and correctly delivered to the plate stacking mechanism 30, which provides great convenience for the subsequent plate stacking work.

[0038] The flattening module 12 is located above the conveying belt 113. The flattening module 12 comprises a support frame 121, a telescopic unit 122 and a flattening roller 123. The support frame 121 is installed on the plate cutting module 11. The telescopic unit 122 connects the support frame 121 and the flattening roller 123. The telescopic unit 122 drives the flattening roller 123 to move up and down, so that the flattening roller 123 can adhere to the surface of each cut copper foil. The flattening roller 123 slightly rolls the copper foil to eliminate the curling or unevenness that may occur during the cutting process. Through the processing of the flattening module 12, the surface flatness of the copper foil is significantly improved, so that each copper foil can be closely adhered during the plate stacking process, and the misalignment or loosening is not easy to occur.

[0039] In one embodiment, the feeding mechanism 20 comprises a storage table 21 and a plurality of storage columns 22 arranged on the storage table 21, the plurality of storage columns 22 separate the storage table 21 into a plurality of storage spaces, the storage columns 22 comprise a first storage column 221 and a second storage column 222, the first storage column 221 is installed on the surface of the storage table 21, and the second storage column 222 is installed in the strip-shaped hole 211 of the storage table 21 through the mounting block. The position of the first storage column 221 on the storage table 21 is fixed, and the position of the second storage column 222 can be adjusted within the length range of the strip-shaped hole 211. By adjusting the position of the second storage column 222, the user can flexibly adjust the size of the storage space according to the actual material size requirements, so as to better adapt to the size of the upper and lower base plates.

[0040] In one embodiment, the stacking mechanism 30 comprises a stacking frame 31, a jacking unit 32, a first stacking unit 33 and a second stacking unit 34 arranged on the stacking frame 31, the stacking frame 31 is provided with a first stacking slide rail 311 and a second stacking slide rail 312, the first stacking slide rail 311 and the second stacking slide rail 312 are arranged in a staggered manner, the first stacking unit 33 is slidingly arranged on the first stacking slide rail 311, the second stacking unit 34 is slidingly arranged on the second stacking slide rail 312, and the second stacking unit 34 is further connected with the jacking unit 32.

[0041] The specific stacking process is as follows:

[0042] Initial state: the first stacking unit 33 and the second stacking unit 34 are respectively located on the respective slide rails, waiting to receive the material.

[0043] The first stacking unit 33 starts stacking: after receiving the lower base plate, the first stacking unit 33 moves to the plate shearing mechanism 10 to start the stacking operation. At this time, the second stacking unit 34 moves to the feeding mechanism 20 to receive the lower base plate.

[0044] The second stacking unit 34 prepares to stack: after receiving the lower base plate, the second stacking unit 34 moves to the lower side of the first stacking unit 33 to wait for stacking.

[0045] The second stacking unit 34 starts stacking: after the first stacking unit 33 completes stacking, it moves to the feeding mechanism 20 to receive the upper base plate, and at the same time, the second stacking unit 34 is driven by the jacking unit 32 to move upwards and receive the copper foil. At this time, the first stacking unit 33 waits for stacking beside the second stacking unit 34 after receiving the lower base plate.

[0046] Alternating stacking: after the second stacking unit 34 completes stacking, it is driven by the jacking unit 32 to move downwards and moves to the feeding mechanism 20 to receive the upper base plate, and at the same time, the first stacking unit 33 moves and receives the copper foil.

[0047] Alternately, the first plate stacking unit 33 and the second plate stacking unit 34 are used alternately to stack the plates, so that the plates can be continuously fed to the cutting device, thereby improving the production efficiency.

[0048] In one embodiment, the encapsulation mechanism 40 comprises a plurality of encapsulation units 41 and a rotating table 42 between the plurality of encapsulation units 41, the encapsulation unit 41 comprises an encapsulation machine 411, an encapsulation screw 412, a first encapsulation slide rail 413, a mounting plate 414, a second encapsulation slide rail 415, the encapsulation machine 411 is connected with the encapsulation screw 412, and slides along the first encapsulation slide rail 413 under the driving of the encapsulation screw 412, the encapsulation screw 412 and the first encapsulation slide rail 413 are both mounted on the mounting plate 414, and the mounting plate 414 is in sliding connection with the second encapsulation slide rail 415; the adjacent encapsulation machines 411 slide along the first encapsulation slide rail 413 under the driving of the encapsulation screw 412, so as to adjust the distance between the adjacent two encapsulation machines 411, and the opposite encapsulation machines 411 slide along the second encapsulation slide rail 415 to adjust the relative distance. The rotating table 42 comprises a rotating frame 421 and a suction cup 422, the rotating frame 421 is cross-shaped, the suction cup 422 is disc-shaped, and the suction cup 422 is located at the middle part of the rotating frame 421. The disc-shaped suction cup 422 has strong adsorption force, and can stably place the stacked copper foil, the upper backing plate and the lower backing plate on the rotating table 42.

[0049] In one embodiment, the plate collecting mechanism 50 comprises a lifting frame 51, a lifting slide rail 52, a lifting column 53, a lifting motor 54 and a lifting table 55, the lifting slide rail 52 is installed on both sides of the lifting frame 51 to provide a guiding and sliding path for the lifting table 55, so as to ensure the stable movement of the lifting table 55 in the vertical direction. The lifting column 53 is installed at the middle part of the lifting slide rail 52, the output end of the lifting motor 54 is connected with the lifting column 53, the lifting table 55 is connected with the lifting slide rail 52 through a sliding block, and the lifting table 55 is also connected with the lifting column 53.

[0050] Specific working principle is as follows: when the plate needs to be collected, the lifting motor 54 is started, the lifting column 53 is driven to rise or fall through a transmission device, and then the lifting table 55 is moved in the vertical direction along the lifting slide rail 52. The height of the lifting table 55 can be accurately adjusted according to actual needs, so as to adapt to different height working environments or plate stacking positions. On the lifting table 55, the plate collecting frame 56 is installed through a positioning device, so as to ensure that the plate collecting frame 56 remains stable during the plate collecting process, and avoids falling or damage.

[0051] In one embodiment, the copper foil is transferred between the plate stacking mechanism 30 and the encapsulation mechanism 40 through a first translation module 60, and the copper foil is transferred between the encapsulation mechanism 40 and the plate collecting mechanism 50 through a second translation module 70.

[0052] Specifically, the first and second translation modules 60 and 70 are structurally identical, the first translation module 60 comprises a lifting unit 61 and a clamping unit 62, the lifting unit 61 is slidingly arranged on a translation rail 63, and the lifting unit 61 and the clamping unit 62 are connected to drive the clamping unit 62 to move up and down along the vertical direction.

[0053] The clamping unit 62 is mounted on a clamping table 64, the clamping table 64 is connected with the lifting unit 61, the clamping unit 62 comprises a clamping cylinder 621 and a clamping block 622, one end of the clamping block 622 is connected with the output end of the clamping cylinder 621, the clamping block 622 is irregularly "S" shaped, and the middle part of the clamping block 622 is rotationally connected with the clamping table 64. The clamping cylinder 621 performs extension and retraction movement to drive the clamping block 622 to perform clamping or loosening action. Under the action of the clamping cylinder 621, the clamping block 622 can more flexibly adapt to the profile of the copper foil in a rotating manner, ensure uniform distribution of clamping force, and avoid damage to the copper foil.

[0054] In the first translation module 60: when the laminating mechanism 30 completes the lamination of the copper foil, the lifting unit 61 of the first translation module 60 will be lowered to the appropriate position, the clamping cylinder 621 in the clamping unit 62 is started to drive the clamping block 622 to clamp the copper foil. Subsequently, the lifting unit 61 drives the laminated copper foil to rise, and the clamping unit 62 moves to the encapsulating mechanism 40 along the translation rail 63, and the height is adjusted again by the lifting unit 61 to accurately place the copper foil on the rotating table 42 of the encapsulating mechanism 40.

[0055] In the second translation module 70: after the encapsulating mechanism 40 completes the encapsulation treatment of the copper foil, the second translation module 70 works in the same way to transfer the copper foil from the encapsulating mechanism 40 to the collecting mechanism 50. In this process, the clamping unit 62 again plays a clamping role to ensure the stability and safety of the copper foil during the transfer process.

[0056] In an embodiment, the pad plate is transferred between the feeding mechanism 20 and the laminating mechanism 30 through the suction plate module 80, the suction plate module 80 is slidingly arranged on a suction plate rail 84, the suction plate module 80 comprises a suction plate frame 81, a suction plate height adjusting belt 82 and a suction plate height adjusting motor 83, the suction plate frame 81 is connected with the suction plate height adjusting belt 82, the suction plate height adjusting belt 82 is connected with the suction plate height adjusting motor 83, so that the suction plate height adjusting motor 83 adjusts the height of the suction plate frame 81 through the suction plate height adjusting belt 82.

[0057] It should be noted that a plurality of suction cups are arranged on the suction plate frame 81, the suction cups are used to suck the upper and lower pad plates, and the suction cups firmly suck the pad plates through the negative pressure effect, so that the pad plates will not slip or dislocate during the transfer process.

[0058] It should be understood that, for those skilled in the art, improvements or changes can be made according to the above description, and all these improvements and changes shall belong to the protection scope of the appended claims of the utility model.

[0059] The utility model patent is exemplarily described above in combination with the drawings, and obviously the implementation of the utility model patent is not limited by the above-mentioned mode. As long as various improvements are made by adopting the method concept and technical scheme of the utility model patent, or the concept and technical scheme of the utility model patent is directly applied to other occasions without improvement, it is within the protection scope of the utility model.

Claims

1. A full-automatic cutting and binding integrated machine, characterized in that, The application relates to a copper foil production device, which comprises a plate shearing mechanism, a feeding mechanism, a plate stacking mechanism, a rubber coating mechanism and a plate collecting mechanism. The plate shearing mechanism and the feeding mechanism are arranged in front and back, the plate stacking mechanism is parallel to the plate shearing mechanism and the feeding mechanism, and the plate stacking mechanism moves between the plate shearing mechanism and the feeding mechanism. The plate shearing mechanism comprises a copper foil roll, a cutting unit and a conveying belt. The cutting unit is used for cutting the copper foil, and the conveying belt is arranged obliquely downward and used for conveying the cut copper foil to the plate stacking mechanism.

2. The automatic cutting and binding integrated machine according to claim 1, characterized in that, The plate shearing mechanism comprises a support frame, an extension unit and a flattening roller.

3. The automatic cutting and binding integrated machine according to claim 2, characterized in that, The feeding mechanism comprises a storage table and a plurality of storage columns arranged on the storage table.

4. The automatic cutting and binding integrated machine according to claim 1 or 3, characterized in that, The plate stacking mechanism comprises a plate stacking frame, a lifting unit, a first plate stacking unit and a second plate stacking unit.

5. The automatic cutting and binding integrated machine according to claim 4, characterized in that, The rubber coating mechanism comprises a plurality of rubber coating units and a rotating table arranged between the rubber coating units.

6. The automatic cutting and binding integrated machine according to claim 1 or 5, characterized in that, The plate collecting mechanism comprises a lifting frame, a lifting slide rail, a lifting column, a lifting motor and a lifting table. The plate stacking mechanism and the rubber coating mechanism are connected through a first translation module, and the rubber coating mechanism and the plate collecting mechanism are connected through a second translation module.

7. The automatic cutting and binding integrated machine according to claim 6, characterized in that, The first translation module and the second translation module are structurally identical, the first translation module comprises a lifting unit and a clamping unit, the lifting unit is slidingly arranged on a translation slide rail, and the lifting unit is connected with the clamping unit and used to drive the clamping unit to move up and down along a vertical direction.

8. The automatic cutting and binding integrated machine according to claim 1, characterized in that, The upper feeding mechanism and the plate stacking mechanism are connected through a plate suction module, the plate suction module is slidingly arranged on a plate suction rail, the plate suction module comprises a plate suction frame, a plate suction height adjusting belt and a plate suction height adjusting motor, the plate suction frame is connected with the plate suction height adjusting belt, the plate suction height adjusting belt is connected with the plate suction height adjusting motor, and the plate suction height adjusting motor adjusts the height of the plate suction frame through the plate suction height adjusting belt.

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