Adjustable full-visual-angle cutting device for screen production and processing technology of adjustable full-visual-angle cutting device

Abstract

The invention relates to the field of screen processing, in particular to an adjustable full-view cutting device for screen production, which comprises cutting equipment, a supporting table, a fixed plate, a rotating rod, a motor I, a conveying belt, a cutting pad, a rotating frame, a bearing plate and the like. The cutting equipment is connected with a supporting table; the cutting equipment is connected with a fixed plate; the fixed plate is rotationally connected with a rotating rod; the fixed plate is fixedly connected with a motor I; a conveying belt is wound on the rotating rod; the supporting table is connected with a rotating frame; a bearing plate is inserted into the rotating frame; and a cutting pad is placed on the bearing plate. According to the touch screen cutting device, the cutting pad is manually and randomly placed on the bearing plate, then the vertical straightening assembly and the transverse straightening assembly automatically and flatly lay the cutting pad on the conveying belt, and therefore the problem that in the prior art, workers need to spend a long time to adjust protective cloth, and consequently the touch screen cutting efficiency is reduced is solved.

Description

Technical Field

[0001] The present invention relates to the field of screen processing, and in particular to an adjustable full-viewing angle cutting device for screen production and a processing technology thereof. Background Art

[0002] A mobile phone touch screen is a type of screen. In the production process of a mobile phone touch screen, cutting is a necessary step. In the cutting process of the touch screen, the integrated touch screen is first cut by a cutting device, so that a plurality of cutting grooves are cut on the integrated touch screen. Then, after the integrated touch screen is transferred by a staff, the integrated touch screen is separated according to the cutting grooves to form a mobile phone touch screen. When the touch screen is cut, a protective cloth is usually placed under the integrated touch screen, the purpose of which is to facilitate the staff to move and flip the integrated touch screen, etc., and the subsequent staff can transfer the cut integrated touch screen by pulling the protective cloth to avoid the integrated touch screen from cracking along the cutting groove during the transfer process. However, when the staff places the protective cloth, a large number of wrinkles are easily generated, so that the staff needs to repeatedly pull the protective cloth to eliminate the wrinkles on the protective cloth, so as to avoid the wrinkles on the protective cloth making the placement of the integrated touch screen unbalanced, which affects the cutting, resulting in the staff needing to spend a long time to adjust the protective cloth, affecting the cutting of the touch screen. When the staff transfers the integrated touch screen through the protective cloth, since the other side of the protective cloth is not fixed, the force on the protective cloth is unbalanced during the pulling process of the staff, which makes it easy for a large number of wrinkles to form on the protective cloth. The wrinkles will squeeze the cut integrated touch screen, causing the integrated touch screen to crack along the cutting groove, affecting the transfer. Summary of the invention

[0003] In order to overcome the disadvantage that wrinkles on the protective cloth cause imbalance in the placement of the integrated touch screen, which affects the cutting and requires the staff to spend a long time adjusting the protective cloth, thus affecting the cutting of the touch screen, the present invention provides an adjustable full-viewing angle cutting device for screen production and a processing technology thereof.

[0004] The technical solution is: an adjustable full-view cutting device for screen production, including a cutting device and a support table; a moving part formed by a slide rail and a slider is arranged in the cutting device, the cutting device is connected to the support table through the moving part, the cutting device drives the support table to move through the moving part, and the cutting device is also provided with a cutting part formed by a slide rail, a slider and a cutting blade, the integrated touch screen is cut by the cutting part, and a full-view camera is arranged on the cutting part of the cutting device; it also includes a fixed plate, a rotating rod, a motor I, a conveyor belt, a cutting pad, a rotating frame, a receiving plate vertical straightening component and a horizontal straightening component; the cutting device is connected to the fixed plate, and the fixed plate and the cutting blade are connected to the fixed plate. The movable parts in the cutting equipment are connected, and the movable parts are also used to drive the fixed plate to move; the fixed plate is rotatably connected to a plurality of rotating rods; the fixed plate is fixedly connected to a motor I, and the output shaft of the motor I is fixedly connected to the rotating rod at the rear; a conveyor belt is wound around all the rotating rods, and a plurality of magnet strips I are arranged on the conveyor belt; the support table is connected to a rotating frame; the rotating frame is plugged with a receiving plate, and the receiving plate is provided with a hanging groove II; the support table is provided with a hanging groove I, and the position of the hanging groove I corresponds to the hanging groove II; a cutting pad is placed on the receiving plate, and a magnet strip II is arranged at the front and rear ends of the cutting pad; the support table is connected to a vertical straightening component; the support table is connected to a horizontal straightening component.

[0005] As a further preferred solution, the vertical straightening assembly includes an electric slide rail, an electric slider, a push rod II and an electromagnet I; the support table is fixedly connected to a plurality of electric slide rails; each electric slide rail is slidably connected to an electric slider; each electric slider is fixedly connected to a push rod II; the telescopic ends of all push rods II are commonly fixedly connected to an electromagnet I.

[0006] As a further preferred embodiment, the transverse straightening assembly includes a push rod I, a fixed frame I, a pulling rod I and a motor I; the support platform is fixedly connected to a plurality of push rods I distributed in a rectangular manner; the telescopic ends of two adjacent front and rear push rods I are commonly fixedly connected to the fixed frame I; the fixed frame I is rotatably connected to the pulling rod I; the fixed frame I is fixedly connected to the motor I, and the output end of the motor I is fixedly connected to the pulling rod I.

[0007] As a further preferred solution, the rotating frame is provided with a limit bar.

[0008] As a further preferred solution, it also includes a motor II; the support platform is rotatably connected to the rotating frame; the support platform is fixedly connected to the motor II, and the output shaft of the motor II is fixedly connected to the rotating frame.

[0009] As a further preferred scheme, it also includes a push rod III, a fixed frame II, a pulling rod II and a motor II; the rotating frame is fixedly connected to a plurality of push rods III distributed in a rectangular manner; the telescopic ends of each two adjacent push rods III are commonly fixedly connected to the fixed frame II; the fixed frame II is rotatably connected to the pulling rod II; the fixed frame II is fixedly connected to the motor II, and the output shaft of the motor II is fixedly connected to the adjacent pulling rod II.

[0010] As a further preferred solution, both the pull rod I and the pull rod II are made of rubber material, and both the pull rod I and the pull rod II are rough in surface.

[0011] As a further preferred scheme, it also includes electromagnet II and electromagnet III, a rectangular metal sheet is arranged on the cutting pad, and the rectangular metal sheet is flexibly arranged, and the middle part of the rectangular metal sheet is hollowed out, and the hollowed-out position in the middle part of the rectangular metal sheet is larger than the overall width and length of the touch screen; the receiving plate is fixedly connected to the electromagnet II; the receiving plate is fixedly connected to the electromagnet III, and the size of the electromagnet III is consistent with the rectangular metal sheet.

[0012] As a further preferred solution, the electromagnet I is configured to be cylindrical.

[0013] A method for using and a processing technology of an adjustable full-view cutting device for screen production includes the following steps: Step 1: Tempering and then cleaning the touch screen substrate; Step 2: Printing the insulating ink onto the cleaned touch screen substrate and baking it; Step 3: Use a magnetron sputtering device to coat the touch screen substrate with a conductive film layer, then laser out a preset circuit diagram, and press a flexible circuit board on the conductive film layer of the touch screen substrate to form an integrated touch screen; Step 4: Cut the integrated touch screen. The staff will lay the cutting mat on the receiving plate and insert the receiving plate into the rotating frame. The staff will pull the cutting mat to the conveyor belt through the electromagnet I. Then, the cutting mat will be straightened through the conveyor belt and the electromagnet I. The cutting mat will be further straightened by the pulling rod I. The cutting mat will be laid flat on the conveyor belt and fixed. Step 5: The staff places the integrated touch screen on the cutting mat and starts the cutting device to cut the integrated touch screen.

[0014] The present invention has the following advantages: the present invention manually places the cutting mat on the receiving plate at random, and then the vertical straightening assembly and the horizontal straightening assembly automatically lay the cutting mat flat on the conveyor belt, thereby avoiding the problem in the prior art that the staff needs to spend a long time to adjust the protective cloth, resulting in reduced touch screen cutting efficiency; The present invention absorbs the rectangular metal sheets of the two cutting pads by the electromagnet III, so that the rectangular metal sheets of the two cutting pads are completely attached together, thereby wrapping the integrated touch screen between the two cutting pads, and turning over the integrated touch screen after cutting by rotating the receiving plate. The integrated touch screen is wrapped by the two cutting pads so that the force of the integrated touch screen is balanced, thereby avoiding the integrated touch screen from cracking during the subsequent turning process, and avoiding the problem in the prior art that the integrated touch screen is easy to crack when the staff turns it over, resulting in difficulty in subsequent cutting. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the structure disclosed by the adjustable full-viewing angle cutting device for screen production of the present invention; Figure 2 A schematic diagram of the combined structure of the support table, cutting pad, electric slide rail, electric slider, push rod II and electromagnet I disclosed in the adjustable full-view cutting device for screen production of the present invention; Figure 3 A schematic diagram of the structure of the combined plate of the cutting device, the support table, the fixed plate, the conveyor belt, the pulling rod I, the rotating frame and the receiving plate disclosed in the adjustable full-view cutting device for screen production of the present invention; Figure 4 A schematic diagram of the combined structure of the support platform, fixed plate, conveyor belt, push rod I, fixed frame I, pull rod I, motor I, rotating frame, receiving plate, motor II, electric slide rail, electric slider and push rod II disclosed in the adjustable full-view cutting device for screen production of the present invention; Figure 5 A cross-sectional view of a fixed plate and a rotating rod disclosed in the full-view cutting device for adjustable screen production of the present invention; Figure 6 A cross-sectional view of a receiving plate disclosed by the adjustable full-view cutting device for screen production of the present invention; Figure 7 The present invention is a schematic diagram of the combined structure of a receiving plate, a push rod III, a fixing frame II, a pulling rod II and a motor II disclosed in the full-view cutting device for adjustable screen production.

[0016] Among them: 1-cutting equipment, 2-support table, 3-fixed plate, 4-rotating rod, 5-motor I, 6-conveyor belt, 7-push rod I, 8-fixed frame I, 9-pull rod I, 10-motor I, 11-cutting pad, 101-rotating frame, 102-receiving plate, 103-motor II, 201-electric slide rail, 202-electric slider, 203-push rod II, 204-electromagnet I, 301-push rod III, 302-fixed frame II, 303-pull rod II, 304-motor II, 401-electromagnet II, 402-electromagnet III, 1001-full-view camera, 2001-drop groove I, 1101-magnet strip II, 1102-rectangular metal sheet, 6001-magnet strip I, 10101-limiting strip, 10201-drop groove II. DETAILED DESCRIPTION

[0017] The present invention is further described below in conjunction with specific embodiments. It should also be noted that, unless otherwise clearly specified and limited, terms such as: setting, installing, connecting, and connecting should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be indirectly connected through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0018] Example 1 An adjustable full-view cutting device for screen production, such as Figure 1-Figure 7 As shown, it includes a cutting device 1 and a support table 2; a moving part formed by a slide rail and a slider is arranged in the cutting device 1, and the cutting device 1 is connected to the support table 2 through the moving part, and the cutting device 1 drives the support table 2 to move through the moving part, and the cutting device 1 is also provided with a cutting part formed by a slide rail, a slider and a cutting blade, and the integrated touch screen is cut by the cutting part, and a full-view camera 1001 is arranged on the cutting part of the cutting device 1; It also includes a fixed plate 3, a rotating rod 4, a motor Ⅰ5, a conveyor belt 6, a cutting pad 11, a rotating frame 101, a receiving plate 102, a vertical straightening component and a horizontal straightening component; the cutting device 1 is connected to the fixed plate 3, and the fixed plate 3 is connected to the moving part in the cutting device 1, and the moving part is also used to drive the fixed plate 3 to move; the fixed plate 3 is rotatably connected to two rotating rods 4; the fixed plate 3 is fixedly connected to the motor Ⅰ5, and the output shaft of the motor Ⅰ5 is fixedly connected to the rear rotating rod 4; all the rotating rods 4 are commonly wound with a conveyor belt 6, and a plurality of magnet strips Ⅰ6001 are arranged on the conveyor belt 6; the support table 2 is connected to the rotating frame 101; The rotating frame 101 is plugged with a receiving plate 102, and the receiving plate 102 is provided with a hanging groove II 10201; the support table 2 is provided with a hanging groove I 2001, and the position of the hanging groove I 2001 corresponds to the hanging groove II 10201; a cutting pad 11 is placed on the receiving plate 102, and a magnet strip II 1101 is provided at the front and rear ends of the cutting pad 11, and the integrated touch screen is protected during the cutting process by the cutting pad 11; the support table 2 is connected to a vertical straightening component; the support table 2 is connected to a horizontal straightening component, and the cutting pad 11 is straightened by the vertical straightening component and the horizontal straightening component to avoid wrinkles on the cutting pad 11.

[0019] The vertical straightening assembly includes an electric slide rail 201, an electric slider 202, a push rod II 203 and an electromagnet I 204; the support platform 2 is bolted to two electric slide rails 201; each electric slide rail 201 is slidably connected to an electric slider 202; each electric slider 202 is fixedly connected to a push rod II 203; the telescopic ends of all push rods II 203 are fixedly connected to an electromagnet I 204.

[0020] The transverse straightening assembly includes a push rod Ⅰ7, a fixed frame Ⅰ8, a pulling rod Ⅰ9 and a motor Ⅰ10; the support platform 2 is fixedly connected to four push rods Ⅰ7 distributed in a rectangular shape; the telescopic ends of two adjacent push rods Ⅰ7 in front and behind are commonly fixedly connected to the fixed frame Ⅰ8; the fixed frame Ⅰ8 is rotatably connected to the pulling rod Ⅰ9; the fixed frame Ⅰ8 is fixedly connected to the motor Ⅰ10, and the output end of the motor Ⅰ10 is fixedly connected to the pulling rod Ⅰ9.

[0021] The rotating frame 101 is provided with a limit bar 10101 , and the receiving plate 102 is positioned by the limit bar 10101 .

[0022] The working steps of the above embodiment are: first, the staff places the receiving plate 102 on the workbench, and then lays the cutting mat 11 on the receiving plate 102, the width of the cutting mat 11 is greater than the distance between the two hanging grooves II 10201, and then the staff adjusts the left and right ends of the cutting mat 11 to hang in the two hanging grooves II 10201 respectively; then the staff drives the receiving plate 102 and the cutting mat 11 to move in front of the rotating frame 101, at this time, the left and right sides of the receiving plate 102 are aligned with the inner left and inner right sides of the rotating frame 101 respectively, and then the staff pushes the receiving plate 102 and the cutting mat 11 to move backward, and when the receiving plate 102 contacts the limiting strip 10101, the staff stops pushing the receiving plate 102, thereby installing the receiving plate 102 on the rotating frame 101, as shown in the figure Figure 3 At this time, the electromagnet Ⅰ204 will be above the rear end magnet strip Ⅱ1101 of the cutting pad 11, as shown Figure 2In the state shown, the electromagnet Ⅰ204 is then controlled to start, so that the electromagnet Ⅰ204 attracts the magnet strip Ⅱ1101, and then the push rod Ⅱ203 and the electromagnet Ⅰ204 are driven to move backward through the electric slider 202, thereby pulling the cutting mat 11 to move backward, so that the cutting mat 11 moves from the receiving plate 102 to the conveyor belt 6. Since the drop groove Ⅱ10201 is aligned with the drop groove Ⅰ2001, during the movement of the cutting mat 11, the left and right sides of the cutting mat 11 will fall from the drop groove Ⅱ10201 to the drop groove Ⅰ2001; when the magnet strip Ⅱ1101 at the rear end of the cutting mat 11 moves to the magnet strip Ⅰ6001 of the conveyor belt 6, the electric slider 202 stops moving, and the electromagnet Ⅰ20 4 is closed, so that the electromagnet Ⅰ204 will no longer have magnetic force. At this time, the magnet strip Ⅱ1101 at the rear end of the cutting mat 11 is attracted by the magnet strip Ⅰ6001. The magnetic force of the magnet strip Ⅰ6001 is smaller than that of the electromagnet Ⅰ204. Then, the electromagnet Ⅰ204 is driven forward to reset to its original position by the electric slider 202. At the same time, the rotating rod 4 and the conveyor belt 6 are driven to rotate by the motor Ⅰ5. Since the magnet strip Ⅰ6001 attracts the magnet strip Ⅱ1101 at the rear end of the cutting mat 11, the cutting mat 11 will continue to move backwards through the magnet strip Ⅰ6001 during the rotation of the conveyor belt 6. Subsequently, when the magnet strip Ⅱ1101 at the front end of the cutting mat 11 moves to the bottom of the electromagnet Ⅰ204, the electromagnet Ⅰ204 is started again, so that the electric slider 202 drives the electromagnet Ⅰ204 to move forward to reset to its original position. At the same time, the motor Ⅰ5 drives the rotating rod 4 and the conveyor belt 6 to rotate. The magnet Ⅰ204 has magnetic force again, thereby attracting the magnet strip Ⅱ1101 at the front end of the cutting mat 11. Since the magnetic force of the electromagnet Ⅰ204 is greater than the magnetic force of the magnet strip Ⅰ6001, after the electromagnet Ⅰ204 attracts the magnet strip Ⅱ1101 at the front end of the cutting mat 11, the front end of the cutting mat 11 will be unable to move, so that the subsequent rotation of the conveyor belt 6 will continue to pull the cutting mat 11 through the magnetic force of the magnet strip Ⅰ6001, thereby completely straightening the cutting mat 11, thereby avoiding the generation of horizontal wrinkles on the cutting mat 11. Then, after the conveyor belt 6 rotates for a period of time, the motor Ⅰ5 stops rotating; then the push rod Ⅰ7 is controlled to push the fixing frame Ⅰ8 and the pulling rod Ⅰ9 to move toward each other. When the pulling rod Ⅰ9 is in close contact with the cutting mat 11, the push rod Ⅰ 7 stops pushing, and then controls the motor Ⅰ10 to drive the pulling rod Ⅰ9 to rotate, so that the left and right sides of the cutting mat 11 are pulled to the left and right respectively by the two pulling rods Ⅰ9, and after pulling for a period of time, the motor Ⅰ10 stops rotating, but the pulling rod Ⅰ9 will keep in close contact with the cutting mat 11, and the cutting mat 11 is fixed by the pulling rod Ⅰ9, so that the cutting mat 11 is also straightened in the left and right directions, thereby avoiding the generation of vertical wrinkles on the cutting mat 11. In this way, the cutting mat 11 is placed randomly on the receiving plate 102 by manual operation, and then the cutting mat 11 is automatically laid flat on the conveyor belt 6, thereby avoiding the problem in the prior art that the staff needs to spend a long time adjusting the protective cloth, resulting in reduced touch screen cutting efficiency.

[0023] After the cutting mat 11 is laid flat on the conveyor belt 6, the staff places the integrated touch screen on the cutting mat 11, and then cuts the integrated touch screen through the cutting component of the cutting device 1, and controls the moving component in the cutting device 1 to drive the support table 2 and the fixed plate 3 and all the parts connected thereto to move forward and backward, thereby cooperating with the cutting component to cut the touch screen; in the process of cutting the touch screen, since the pulling rod Ⅰ9 pulls the left and right sides of the cutting mat 11, and the magnet bar Ⅰ6001 and the electromagnet Ⅰ204 also respectively attract the front and back sides of the cutting mat 11, the cutting mat 11 will not move during the cutting process, thereby avoiding wrinkles on the cutting mat 11 during the cutting process, which affects the cutting of the integrated touch screen.

[0024] After the integrated touch screen is cut, the electromagnet I204 is pushed forward by the push rod II 203, thereby pulling the cutting pad 11 and the integrated touch screen that has been cut forward, so that the front end of the cutting pad 11 is pushed back to the original position of the receiving plate 102, and at the same time, the motor I5 is controlled to reverse and drive the conveyor belt 6 to rotate clockwise when viewed from the left, and the rotation speed corresponds to the movement speed of the electromagnet I204, so that the rear end of the cutting pad 11 is fixed by the magnet strip I 6001, so as to avoid the cutting pad 11 being subjected to unbalanced force when the electromagnet I 204 pulls the cutting pad 11 forward, resulting in wrinkles on the cutting pad 11, thereby avoiding the wrinkles from squeezing the cut integrated touch screen, causing the integrated touch screen to crack along the cutting groove, resulting in the problem of inconvenience in subsequent transfer.

[0025] When the integrated touch screen moves to the middle position on the receiving plate 102, the integrated touch screen will also be transferred to the receiving plate 102, and then the staff can pull the receiving plate 102 out of the rotating frame 101, thereby driving the touch screen to move to the workbench to perform subsequent operations on the cut integrated touch screen, such as slicing, testing and packaging, etc.; it should be noted that during the integrated touch screen cutting process, the staff can lay another cutting pad 11 on another receiving plate 102 to prepare for the next round of integrated touch screen cutting. It should be noted that during the integrated touch screen cutting process, the full-view camera 1001 provides a full-view cutting perspective for the integrated touch screen cutting, so that the integrated touch screen can be cut at a full-view.

[0026] Example 2 On the basis of Example 1, Figure 2 , Figure 4 , Figure 6 and Figure 7 As shown, it also includes a motor II 103; the support platform 2 is rotatably connected to the rotating frame 101; the support platform 2 is fixedly connected to the motor II 103, and the output shaft of the motor II 103 is fixedly connected to the rotating frame 101.

[0027] It also includes a push rod III301, a fixed frame II302, a pulling rod II303 and a motor II304; the rotating frame 101 is fixedly connected to four push rods III301 distributed in a rectangular shape; the telescopic ends of each two adjacent push rods III301 are commonly fixedly connected to the fixed frame II302; the fixed frame II302 is rotatably connected to the pulling rod II303; the fixed frame II302 is fixedly connected to the motor II304, and the output shaft of the motor II304 is fixedly connected to the adjacent pulling rod II303.

[0028] Pull rod I9 and pull rod II303 are both made of rubber material, and the surface of pull rod I9 and pull rod II303 is rough, so that the friction between pull rod I9, pull rod II303 and cutting mat 11 is increased, making it easier for pull rod I9 and pull rod II303 to pull cutting mat 11.

[0029] It also includes an electromagnet II 401 and an electromagnet III 402. A rectangular metal sheet 1102 is arranged on the cutting pad 11, and the rectangular metal sheet 1102 is flexibly arranged, and the middle of the rectangular metal sheet 1102 is hollowed out, and the hollowed-out position in the middle of the rectangular metal sheet 1102 is larger than the overall width and length of the touch screen; the receiving plate 102 is fixedly connected with the electromagnet II 401; the receiving plate 102 is fixedly connected with the electromagnet III 402, and the size of the electromagnet III 402 is consistent with the rectangular metal sheet 1102, so that the rectangular metal sheet 1102 is sucked by the electromagnet III 402 to fix the cutting pad 11.

[0030] The electromagnet Ⅰ 204 is configured to be cylindrical, so that when the receiving plate 102 drives the cutting pad 11 to flip, the electromagnet Ⅰ 204 will not affect the two cutting pads 11 .

[0031] A method for using and a processing technology of an adjustable full-view cutting device for screen production includes the following steps: Step 1: Tempering and then cleaning the touch screen substrate; Step 2: Printing the insulating ink onto the cleaned touch screen substrate and baking it; Step 3: Use a magnetron sputtering device to coat the touch screen substrate with a conductive film layer, then laser out a preset circuit diagram, and press a flexible circuit board on the conductive film layer of the touch screen substrate to form an integrated touch screen; Step 4: Cutting the integrated touch screen, the staff lays the cutting mat 11 on the receiving plate 102, and inserts the receiving plate 102 into the rotating frame 101, pulls the cutting mat 11 to the conveyor belt 6 through the electromagnet Ⅰ204, then straightens the cutting mat 11 through the conveyor belt 6 and the electromagnet Ⅰ204, further straightens the cutting mat 11 through the pulling rod Ⅰ9, lays the cutting mat 11 flat on the conveyor belt 6, and fixes the cutting mat 11; Step 5: The staff places the integrated touch screen on the cutting mat 11 and starts the cutting device 1 to cut the integrated touch screen.

[0032] The working steps of the above embodiment are: since some integrated touch screens need to be cut on both the upper and lower sides, after the integrated touch screen is cut, the staff needs to turn the integrated touch screen over, and at this time the integrated touch screen has been cut halfway, which causes the integrated touch screen to be easily cracked when the staff turns it over, making it difficult to perform subsequent cutting. Therefore, before the conveyor belt 6 rotates and pulls the cutting mat 11 to move backward, the staff immediately docks the magnet strip II1101 at the rear end of another cutting mat 11 with the magnet strip II1101 at the front end of the original cutting mat 11, so that the magnet strip II1101 at the rear end of the other cutting mat 11 and the magnet strip II1101 at the front end of the original cutting mat 11 are attracted to each other, so that when the conveyor belt 6 rotates and pulls the cutting mat 11 to move backward, the magnet strip II1101 at the rear end of the other cutting mat 11 and the magnet strip II1101 at the front end of the original cutting mat 11 are attracted to each other. The new cutting mat 11 is pulled together step by step, and at the same time, when the magnet strip Ⅱ1101 at the front end of the original cutting mat 11 moves under the electromagnet Ⅰ204, the magnet strip Ⅱ1101 at the rear end of the newly placed cutting mat 11 will also be under the electromagnet Ⅰ204, and at the same time, the magnet strip Ⅱ1101 at the front end of the newly placed cutting mat 11 will move to the electromagnet Ⅱ401, and the electromagnet Ⅱ401 will start to attract the magnet strip Ⅱ1101 at the front end of the newly placed cutting mat 11, so as to fix the front end of the newly placed cutting mat 11, and the magnetic force between the electromagnet Ⅱ401 and the magnet strip Ⅱ1101 is greater than the magnetic force between the magnet strip Ⅰ6001 and the magnet strip Ⅱ1101, and the magnetic force between the two magnet strips Ⅱ1101 is also greater than the magnetic force between the magnet strip Ⅰ6001 and the magnet The magnetic force between the iron bars II1101; at the same time, the electromagnet I204 is controlled to stop starting, and the electromagnet II401 replaces the use of the electromagnet I204 in Example 1 to fix the front end of the cutting mat 11; therefore, when the conveyor belt 6 rotates subsequently, the newly placed cutting mat 11 will be pulled by the original cutting mat 11, so that the two cutting mats 11 will be pulled together and the two cutting mats 11 will be straightened together; then when the pulling rod I9 pulls the left and right sides of the original cutting mat 11, the push rod III301 is controlled to push the two pulling rods II303 to move to fit the left and right sides of the newly placed cutting mat 11, and then the motor II304 is controlled to drive the pulling rod II303 to rotate, so as to pull the left and right sides of the newly placed cutting mat 11, The newly placed cutting mat 11 is laid flat on the receiving plate 102 to avoid wrinkles on the newly placed cutting mat 11, and then the motor II 304 is controlled to stop rotating, but the pull rod II 303 is still in contact with the newly placed cutting mat 11, so that the newly placed cutting mat 11 is fixed by the pull rod II 303; then after the first (one side) cutting of the integrated touch screen is completed, the motor II 103 is controlled to drive the rotating frame 101 and the receiving plate 102 to rotate counterclockwise from a left perspective. It should be noted that during the rotation of the receiving plate 102, since the newly placed cutting mat 11 is in contact with the pull rod II 303 at this time, the newly placed cutting mat 11 is fixed, so the newly placed cutting mat 11 will not fall from the receiving plate 102;It should be further noted that when the staff places the integrated touch screen, the integrated touch screen is placed in the middle hollow position of the rectangular metal sheet 1102; then when the new cutting pad 11 is rotated to fit the integrated touch screen, the control electromagnet III 402 is started, so that the rectangular metal sheets 1102 of the two cutting pads 11 are sucked, so that the rectangular metal sheets 1102 of the two cutting pads 11 will be completely fitted together, thereby wrapping the integrated touch screen between the two cutting pads 11, preventing the integrated touch screen from falling when the subsequent receiving plate 102 drives the integrated touch screen to flip, and the integrated touch screen is wrapped by the two cutting pads 11 to balance the force, thereby preventing the integrated touch screen from cracking during the subsequent flipping process; at the same time, the electromagnet II 401 will also be attached to the magnet strip II at the rear end of the original cutting pad 11 1101 corresponds, so that the rear end of the original cutting pad 11 is also sucked by the electromagnet II 401 to prevent the rear end of the original cutting pad 11 from falling when flipping, causing the integrated touch screen to fail to flip; then the control motor II 103 drives the receiving plate 102 to rotate clockwise from the left perspective to reset. When the receiving plate 102 is reset, the control motor II 103 stops rotating. At this time, the original cutting pad 11 will rotate to the top of the newly placed cutting pad 11, and the integrated touch screen will also complete the flip. It should be noted that at this time, the electromagnet I 204 will also be wrapped by the two cutting pads 11 and be in the connecting position between the two cutting pads 11, thereby avoiding the problem in the prior art that the integrated touch screen is easy to crack when the staff flips it, making it difficult to perform subsequent cutting. ;

[0033] After the integrated touch screen is flipped, the control electromagnet II 401 and the electromagnet III 402 are both turned off, so that the electromagnet II 401 and the electromagnet III 402 no longer attract the rectangular metal sheet 1102 and the magnet strip II 1101, and then the electric slider 202 is controlled to drive the electromagnet I 204 to move backward, thereby pulling the upper cutting pad 11 to move backward. Since the left and right sides of the lower cutting pad 11 are fixed by the pulling rod II 303, the lower cutting pad 11 will not be pulled to move. At this time, the horizontal position of the integrated touch screen has not changed, only the vertical position has changed. Therefore, in the subsequent operation, it is only necessary to drive the integrated The touch screen moves forward, so that the integrated touch screen returns to its previous position; then, when the upper cutting pad 11 is spread out again on the conveyor belt 6, the electric slider 202 stops moving; at the same time, the moving parts in the cutting device 1 are controlled to drive the support table 2 to move backward, so that the integrated touch screen on the receiving plate 102 moves to the set position, and then the other side of the integrated touch screen is cut for the second time by the cutting parts on the cutting device 1, so that the integrated touch screen can be adjusted and cut; the present invention can adaptively adjust the processing flow according to the type of single-sided or double-sided cutting required for the integrated touch screen.

[0034] When the secondary cutting of the integrated touch screen is completed, the moving parts in the cutting device 1 are controlled to drive the support table 2 to move backward and forward to reset, and at the same time, the push rod III 301 is controlled to pull the pulling rod II 303 to reset, so that the pulling rod II 303 no longer fixes the cutting pad 11 on the receiving plate 102, and then the staff can directly pull the receiving plate 102 out of the rotating frame 101, and can transfer the integrated touch screen with the cutting completed through the receiving plate 102.

[0035] The technical principles of the embodiments of the present invention are described above in conjunction with specific embodiments. These descriptions are only for explaining the principles of the embodiments of the present invention and cannot be interpreted in any way as limiting the protection scope of the embodiments of the present invention. Based on the explanations herein, those skilled in the art can think of other specific implementation methods of the embodiments of the present invention without creative work, and these methods will fall within the protection scope of the embodiments of the present invention.

Claims

1. An adjustable full-view cutting device for screen production, comprising a cutting device (1) and a support table (2); a moving part formed by a slide rail and a slider is arranged in the cutting device (1), the cutting device (1) is connected to the support table (2) via the moving part, the cutting device (1) drives the support table (2) to move via the moving part, and the cutting device (1) is further provided with a cutting part formed by a slide rail, a slider and a cutting blade, the integrated touch screen is cut by the cutting part, and a full-view camera (1001) is arranged on the cutting part of the cutting device (1); the characteristics are: The invention also comprises a fixed plate (3), a rotating rod (4), a motor I (5), a conveyor belt (6), a cutting pad (11), a rotating frame (101), a receiving plate (102), a vertical straightening component and a horizontal straightening component; the cutting device (1) is connected to the fixed plate (3), and the fixed plate (3) is connected to a moving part in the cutting device (1), and the moving part is also used to drive the fixed plate (3) to move; the fixed plate (3) is rotatably connected to a plurality of rotating rods (4); the fixed plate (3) is fixedly connected to the motor I (5), and the output shaft of the motor I (5) is fixedly connected to the rotating rod (4) at the rear; all the rotating rods (4) are commonly wound with a conveyor belt (6), and the output shaft (6) of the motor I (5) is fixedly connected to the rotating rod (4) at the rear; A plurality of magnet strips I (6001) are arranged on the conveying belt (6); the support platform (2) is connected to a rotating frame (101); the rotating frame (101) is plugged with a receiving plate (102), and the receiving plate (102) is provided with a hanging groove II (10201); the support platform (2) is provided with a hanging groove I (2001), and the position of the hanging groove I (2001) corresponds to the hanging groove II (10201); a cutting mat (11) is placed on the receiving plate (102), and a magnet strip II (1101) is arranged at the front end and the rear end of the cutting mat (11); the support platform (2) is connected to a vertical straightening component; the support platform (2) is connected to a horizontal straightening component.

2. The adjustable full-view cutting device for screen production according to claim 1, characterized in that: The vertical straightening assembly comprises an electric slide rail (201), an electric slider (202), a push rod II (203) and an electromagnet I (204); the support platform (2) is fixedly connected to a plurality of electric slide rails (201); each electric slide rail (201) is slidably connected to an electric slider (202); each electric slider (202) is fixedly connected to a push rod II (203); and the telescopic ends of all the push rods II (203) are fixedly connected to an electromagnet I (204).

3. The adjustable full-view cutting device for screen production according to claim 2, characterized in that: The transverse straightening assembly comprises a push rod I (7), a fixing frame I (8), a pulling rod I (9) and a motor I (10); the support platform (2) is fixedly connected to a plurality of push rods I (7) distributed in a rectangular shape; the telescopic ends of two adjacent push rods I (7) are fixedly connected to the fixing frame I (8); the fixing frame I (8) is rotatably connected to the pulling rod I (9); the fixing frame I (8) is fixedly connected to the motor I (10), and the output end of the motor I (10) is fixedly connected to the pulling rod I (9).

4. The adjustable full-viewing angle cutting device for screen production according to claim 1, characterized in that: The rotating frame (101) is provided with a limit bar (10101).

5. The adjustable full-view cutting device for screen production according to claim 4, characterized in that: It also includes a motor II (103); the support platform (2) is rotatably connected to the rotating frame (101); the support platform (2) is fixedly connected to the motor II (103), and the output shaft of the motor II (103) is fixedly connected to the rotating frame (101).

6. The adjustable full-view cutting device for screen production according to claim 5, characterized in that: It also includes a push rod III (301), a fixed frame II (302), a pulling rod II (303) and a motor II (304); the rotating frame (101) is fixedly connected to a plurality of push rods III (301) distributed in a rectangular shape; the telescopic ends of each two adjacent push rods III (301) are fixedly connected to the fixed frame II (302); the fixed frame II (302) is rotatably connected to the pulling rod II (303); the fixed frame II (302) is fixedly connected to the motor II (304), and the output shaft of the motor II (304) is fixedly connected to the adjacent pulling rod II (303).

7. The adjustable full-view cutting device for screen production according to claim 6, characterized in that: The pull rod I (9) and the pull rod II (303) are both made of rubber material, and the pull rod I (9) and the pull rod II (303) are both rough in surface.

8. The adjustable full-view cutting device for screen production according to claim 1, characterized in that: It also includes an electromagnet II (401) and an electromagnet III (402); a rectangular metal sheet (1102) is arranged on the cutting pad (11); the rectangular metal sheet (1102) is flexibly arranged; the middle of the rectangular metal sheet (1102) is hollowed out; and the hollowed-out position in the middle of the rectangular metal sheet (1102) is greater than the overall width and length of the touch screen; the receiving plate (102) is fixedly connected to the electromagnet II (401); the receiving plate (102) is fixedly connected to the electromagnet III (402), and the size of the electromagnet III (402) is consistent with that of the rectangular metal sheet (1102).

9. The adjustable full-view cutting device for screen production according to claim 2, characterized in that: The electromagnet I (204) is configured to be cylindrical.

10. An adjustable full-viewing angle cutting device for screen production according to any one of claims 1 to 9, characterized in that: A method for using and a processing technology of an adjustable full-view cutting device for screen production includes the following steps: Step 1: Tempering and then cleaning the touch screen substrate; Step 2: Printing the insulating ink onto the cleaned touch screen substrate and baking it; Step 3: Use a magnetron sputtering device to coat the touch screen substrate with a conductive film layer, then laser out a preset circuit diagram, and press a flexible circuit board on the conductive film layer of the touch screen substrate to form an integrated touch screen; Step 4: Cutting the integrated touch screen, the staff lays the cutting mat (11) on the receiving plate (102), and inserts the receiving plate (102) into the rotating frame (101), pulls the cutting mat (11) to the conveyor belt (6) through the electromagnet I (204), and then straightens the cutting mat (11) through the conveyor belt (6) and the electromagnet I (204), and further straightens the cutting mat (11) through the pulling rod I (9), lays the cutting mat (11) flatly on the conveyor belt (6), and fixes the cutting mat (11); Step 5: The staff places the integrated touch screen on the cutting mat (11) and starts the cutting device (1) to cut the integrated touch screen.

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