Mylar pasting equipment

Abstract

The utility model discloses mylar pasting equipment which comprises a base shell, an equipment support, a conveying belt, a clamping transmission shaft, a rolling device, a mylar motor, a clamping shell, a finished product motor and a sensor. The utility model relates to the technical field of mylar pasting, through clamping the transmission shaft and the rolling device and matching the finished product motor and the mylar motor, the operation of automatically pasting mylar is achieved, and the air adjusting pressing structure realizes the pressing force of the impressing module and the conveying belt through the adjustment of air. Finished product belts and mylar belts with different thicknesses can be perfectly attached, and the yield is increased.

Description

Technical Field

[0001] The utility model relates to the technical field of adhesive mylar, in particular to adhesive mylar equipment. Background Art

[0002] There are two types of Mylar: metal and non-metal. Commonly used metal Mylar sheets are copper foil Mylar and aluminum foil Mylar, which are mainly used for conductivity; non-metal Mylar is mostly used for insulation, and common materials are polyester resin (Polyethy l eneterephtha l ate, referred to as PET) and polycarbonate (Polycarbonate, referred to as PC), which are used for surface protection of membrane switches or electronic and electrical products, or local insulation; there are many colors, commonly used are transparent, white, and black, and other colors can be printed according to specified requirements. The current traditional product of Mylar pasting requires operators to manually paste Mylar during the production process, which has low production efficiency and is difficult to meet the needs of mass production in workshops. For example, in the utility model CN210708094U, the workpiece to be pasted is conveyed to the bottom of the pressing mechanism by the conveying mechanism, the feeding mechanism conveys the material belt, and the Mylar sheet is peeled off the material belt by the stripping end, so that the Mylar sheet is separated from the material belt, and the Mylar sheet separated from the material belt is pressed on the surface of the workpiece to be pasted by the pressing mechanism. Subsequently, the conveying mechanism and the feeding mechanism are started synchronously, so that when the workpiece to be pasted is conveyed, the Mylar sheet is gradually pasted on the surface of the workpiece to be pasted along the conveying direction, and the pressing mechanism continues to press the Mylar sheet until the pasting of the Mylar sheet is completed. Through the setting of the conveying mechanism, the feeding mechanism and the pressing mechanism, the Mylar sheet is pasted by machine instead of the current manual pasting. The manual pasting of the Mylar sheet is not only cumbersome in alignment during pasting, but also time-consuming and difficult to operate in peeling off the Mylar sheet. However, the technical solution proposed by the utility model uses a machine to orderly and quickly complete the Mylar sheet peeling and Mylar sheet pasting steps, thereby effectively reducing the labor and time investment in pasting the Mylar sheet, which is conducive to improving the work efficiency of pasting the Mylar sheet to meet the current mass production needs of the workshop. "The above equipment does not solve the problem of the pressing force of the pressing device of the pressing equipment, and it is not very convenient to disassemble. For the above problems, there may be technical means to solve them in the prior art, but this case wants to provide an alternative or replacement technical solution. Utility Model Content

[0003] To achieve the above purpose, the utility model is implemented through the following technical solutions: a Mylar device, comprising: a base shell, a device bracket, a conveyor belt, a plurality of clamping transmission shafts, a plurality of winding holders, a Mylar motor, a pair of clamping shells, a finished product motor and a pair of sensors; the device bracket is installed on the base shell, the conveyor belt is connected to the device bracket, a plurality of the clamping transmission shafts are respectively installed on the base shell and the device bracket, a plurality of the winding holders are respectively installed on the base shell and the device bracket, the Mylar motor is installed on the device bracket, and the Mylar motor is connected to the winding holder, the finished product motor is installed in the base shell, and the finished product motor is connected to the winding holder, a pair of the sensors are respectively installed on the device bracket, a pair of the clamping shells are respectively installed on the device bracket, a magnetic groove quick-release structure is installed on the clamping shell, and a gas-adjusting pressure structure is installed on the device bracket;

[0004] The air regulating and pressing structure includes: an adjusting air pump, an adjusting pressure rod, an adjusting differential block, an adjusting bracket, an adjusting spring, a limiting column, a conducting column, an imprinting module, a module limiting shaft, a module slide and a module ball; the adjusting air pump is installed on the equipment bracket, and the adjusting air pump is connected to the adjusting pressure rod, the adjusting differential block is connected to the adjusting pressure rod, the adjusting bracket is installed on the equipment bracket, the adjusting spring is installed on the adjusting bracket, the conducting column is inserted into the adjusting bracket, and the conducting column is connected to the module ball, the module limiting shaft is installed on the imprinting module, and the module limiting shaft is connected to the adjusting bracket, the imprinting module is connected to the conveyor belt, the module slide is installed on the imprinting module, and the module slide is connected to the module ball, the limiting column is installed on the conducting column, and the limiting column is connected to the adjusting differential block.

[0005] It should be noted that, in the above, when the equipment is ready to be turned on, the Mylar roll to be pasted is first installed on the highest winder on the equipment bracket, stretched to each clamping transmission shaft for limit fixing, during which it passes through a pair of clamping shells and an imprinting module, and finally is wound to the rightmost winder through the clamping transmission shaft, and the leftmost winder is installed with the target finished product tape, during which it passes through two clamping transmission shafts and a conveyor belt, and finally is connected to the winder in the base shell, so that the installation operation is completed. During operation, the Mylar motor drives the connected winder to roll, and at the same time, the finished product motor drives the connected winder to roll. The relative speed of the Mylar motor and the finished product motor can be adjusted and set through the calculation system according to the spacing of the product and the spacing of the Mylar. At the same time, the air-adjusting pressure structure operates to adjust the strength of the imprinting module, so that finished product tapes of different thicknesses can be perfectly fitted. A pair of sensors can monitor the Mylar fitting situation, and the clamping shell serves to further fix the Mylar tape;

[0006] When the pressing force needs to be adjusted, the air pump is adjusted to work and fill or extract appropriate air into or from the adjusting pressure rod, thereby driving the adjustment differential block to move. The conductive column inserted in the adjustment bracket drives the connected module ball to slide in the module slide groove on the stamping module through the back and forth limiting movement of the limiting column installed thereon and the adjusting differential block, thereby adjusting the stamping module to move along the module limiting axis. The adjusting spring ensures that an upward or downward force is applied to the conductive column, causing the conductive column to return to its initial position when not in operation. This structure solves the problem of being unable to adjust the pressing force.

[0007] Preferably, the magnetic groove quick-release structure comprises: a clamping shaft, a fixed shaft, a fixed shaft slide groove and a plurality of clamping magnets;

[0008] The clamping shaft fixing shaft is installed on the clamping transmission shaft, and the clamping shaft fixing shaft is connected to the fixing shaft sliding groove, and a plurality of the clamping magnets are respectively installed on the clamping housing;

[0009] It should be noted that, in the above, when the laminar belt needs to be installed, the clamping shell is opened, and the clamping shell is adsorbed to each other by a number of clamping magnets with appropriate magnetic force, so it can be easily opened and closed. After opening the clamping shell, the clamping shaft and the fixed shaft can slide along the fixed shaft groove. After the laminar belt is installed, the clamping shaft and the fixed shaft can slide and reset along the fixed shaft groove. After that, after closing the clamping shell, the equipment can be started after debugging is completed.

[0010] Preferably, a dustproof opening and closing door is provided on the base shell;

[0011] Preferably, a shock absorbing device is provided on the base shell;

[0012] Preferably, a wear-resistant layer is provided on the stamping module;

[0013] Preferably, an emergency stop device is provided on the equipment bracket.

[0014] Beneficial Effects

[0015] The utility model provides a Mylar tape device. It has the following beneficial effects. Compared with the prior art, the Mylar tape device can achieve the automatic operation of Mylar tape by clamping the transmission shaft and the winder, coordinating the finished product motor and the Mylar motor, and the air-adjusting pressing structure can achieve the pressing force of the stamping module and the conveyor belt by adjusting the gas, so that the finished product belts with different thicknesses can be perfectly fitted with the Mylar belts, thereby increasing the yield rate. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a structural schematic diagram of a Mylar device described in the utility model.

[0017] Figure 2 It is a structural schematic diagram of a Mylar device described in the utility model.

[0018] Figure 3 It is a structural schematic diagram of a Mylar device described in the utility model.

[0019] In the figure: 1. Base shell; 2. Equipment bracket; 3. Conveyor belt; 4. Clamping drive shaft; 5. Winder; 6. Mylar motor; 7. Clamping shell; 8. Finished motor; 9. Sensor; 10. Adjusting air pump; 11. Adjusting pressure rod; 12. Adjusting differential block; 13. Adjusting bracket; 14. Adjusting spring; 15. Limiting column; 16. Conducting column; 17. Imprinting module; 18. Module limiting shaft; 19. Module slide; 20. Module ball; 21. Clamping shaft fixed shaft; 22. Fixed shaft slide; 23. Clamping magnet. DETAILED DESCRIPTION

[0020] Based on the embodiments of the present utility model, all other embodiments obtained by ordinary technicians in the field without making any creative work shall fall within the scope of protection of the present utility model.

[0021] Through the personnel in this field, all the electrical components in this case are connected to their corresponding power supplies through wires, and appropriate controllers and encoders should be selected according to actual conditions to meet the control requirements. The specific connection and control sequence should refer to the following working principle, and the electrical connection between the electrical components is completed in the order of working in sequence. The detailed connection means are well-known technologies in this field. The following mainly introduces the working principles and processes, and no longer explains the electrical control.

[0022] Example

[0023] The present invention will be described in detail below in conjunction with the accompanying drawings. Figure 1-3As shown, a Mylar device comprises: a base shell 1, a device support 2, a conveyor belt 3, a plurality of clamping transmission shafts 4, a plurality of winding holders 5, a Mylar motor 6, a pair of clamping shells 7, a finished product motor 8 and a pair of sensors 9; the device support 2 is installed on the base shell 1, the conveyor belt 3 is connected to the device support 2, a plurality of the clamping transmission shafts 4 are respectively installed on the base shell 1 and the device support 2, a plurality of the winding holders 5 are respectively installed on the base shell 1 and the device support 2, the Mylar motor 6 is installed on the device support 2, and the Mylar motor 6 is connected to the winding holder 8. The finished product motor 8 is connected to the winding holder 5, the finished product motor 8 is installed in the base shell 1, and the finished product motor 8 is connected to the winding holder 5, a pair of the sensors 9 are respectively installed on the device bracket 2, a pair of the clamping shells 7 are respectively installed on the device bracket 2, the clamping shells 7 are installed with a magnetic groove quick release structure, and the device bracket 2 is installed with a gas adjustment pressure structure; the gas adjustment pressure structure includes: an adjustment air pump 10, an adjustment pressure rod 11, an adjustment differential block 12, an adjustment bracket 13, an adjustment spring 14, a limit column 15, a conduction column 16, an imprinting module 17, a module limit shaft 18, a module slide 19 and and module ball 20; the regulating air pump 10 is installed on the equipment bracket 2, and the regulating air pump 10 is connected to the regulating pressure rod 11, the regulating differential block 12 is connected to the regulating pressure rod 11, the adjusting bracket 13 is installed on the equipment bracket 2, the adjusting spring 14 is installed on the adjusting bracket 13, the conducting column 16 is inserted in the adjusting bracket (13), and the conducting column 16 is connected to the module ball 20, the module limiting shaft 18 is installed on the stamping module 17, and the module limiting shaft 18 is connected to the adjusting bracket (13), the stamping module 1 7 is connected to the conveyor belt 3, the module slide groove 19 is installed on the stamping module 17, and the module slide groove 19 is connected to the module ball 20, the limit column 15 is installed on the conductive column 16, and the limit column 15 is connected to the adjustment differential block 12; the magnetic groove quick-release structure includes: a clamping shaft fixed shaft 21, a fixed shaft slide groove 22 and a plurality of clamping magnets 23; the clamping shaft fixed shaft 21 is installed on the clamping transmission shaft 4, and the clamping shaft fixed shaft 21 is connected to the fixed shaft slide groove 22, and a plurality of clamping magnets 23 are respectively installed on the clamping shell 7.

[0024] According to the attached Figure 1-3It is concluded that when the equipment is ready to be turned on, first install the Mylar roll to be pasted on the highest winder 5 on the equipment bracket 2, stretch it to each clamping transmission shaft 4 for limit fixing, during which it passes through a pair of clamping shells 7 and an imprinting module 17, and finally is wound to the rightmost winder 5 through the clamping transmission shaft 4, and the leftmost winder 5 is installed on the target finished product tape, during which it passes through two clamping transmission shafts 4 and a conveyor belt 3, and finally is connected to the winder 5 in the base shell 1, so that the installation operation is completed. During operation, the Mylar motor 6 drives the connected winder 5 to roll, and at the same time, the finished product motor 8 drives the connected winder 5 to roll. The relative speed of the Mylar motor 6 and the finished product motor 8 can be adjusted and set through the computing system according to the spacing of the product and the spacing of the Mylar. At the same time, the air-adjusting pressure structure operates to adjust the strength of the imprinting module 17, so that the finished product tapes of different thicknesses can be perfectly fitted. A pair of sensors 9 can monitor the Mylar fitting situation, and the clamping shell 7 serves to further fix the Mylar tape; when the pressing force needs to be adjusted, adjust the air pump 1 0 works, fills or extracts appropriate air into or out of the adjusting pressure rod 11, thereby driving the adjusting differential block 12 to move, and the conducting column 16 inserted in the adjusting bracket 13 drives the connected module ball 20 to slide in the module slide groove 19 on the stamping module 17 through the back and forth limiting movement of the limiting column 15 installed thereon and the adjusting differential block 12, thereby adjusting the stamping module 17 to move along the module limiting axis 18, and the adjusting spring 14 ensures that an upward or downward force is applied to the conducting column 16, so that the conducting column 16 returns to the original position when not in operation. to the initial position, this structure solves the problem of not being able to adjust the pressing force; when the laminating tape needs to be installed, open the clamping shell 7, and the clamping shell 7 is adsorbed to each other through a plurality of clamping magnets 23 with appropriate magnetic force, so it can be easily opened and closed. After opening the clamping shell 7, the clamping shaft fixed shaft 21 can slide along the fixed shaft slide groove 22. After the laminating tape is installed, the clamping shaft fixed shaft 21 can slide and reset along the fixed shaft slide groove 22. Then, after closing the clamping shell 7, the equipment can be started after debugging is completed.

[0025] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A Mylar device, comprising: A base shell (1), an equipment bracket (2), a conveyor belt (3), a plurality of clamping transmission shafts (4), a plurality of reels (5), a Mylar motor (6), a pair of clamping shells (7), a finished product motor (8) and a pair of sensors (9); characterized in that the equipment bracket (2) is mounted on the base shell (1), the conveyor belt (3) is connected to the equipment bracket (2), a plurality of the clamping transmission shafts (4) are respectively mounted on the base shell (1) and the equipment bracket (2), a plurality of the reels (5) are respectively mounted on the base shell (1) and the The Mylar motor (6) is mounted on the equipment support (2), and the Mylar motor (6) is connected to the winding device (5); the finished product motor (8) is mounted in the base housing (1), and the finished product motor (8) is connected to the winding device (5); a pair of sensors (9) are respectively mounted on the equipment support (2); a pair of clamping housings (7) are respectively mounted on the equipment support (2); a magnetic groove quick-release structure is mounted on the clamping housing (7); and a gas-adjusting pressure structure is mounted on the equipment support (2); The air regulating and pressing structure comprises: an regulating air pump (10), an regulating pressure rod (11), an regulating differential block (12), an adjusting bracket (13), an adjusting spring (14), a limiting column (15), a conducting column (16), an imprinting module (17), a module limiting shaft (18), a module slide groove (19) and a module ball (20); the regulating air pump (10) is installed on the equipment bracket (2), and the regulating air pump (10) is connected to the regulating pressure rod (11), the regulating differential block (12) is connected to the regulating pressure rod (11), the adjusting bracket (13) is installed on the equipment bracket (2), and the regulating spring (14) is installed on the adjusting bracket The transmission column (16) is inserted into the adjustment bracket (13), and the transmission column (16) is connected to the module ball (20); the module limit shaft (18) is installed on the stamping module (17), and the module limit shaft (18) is connected to the adjustment bracket (13); the stamping module (17) is connected to the conveyor belt (3); the module slide groove (19) is installed on the stamping module (17), and the module slide groove (19) is connected to the module ball (20); the limit column (15) is installed on the transmission column (16), and the limit column (15) is connected to the adjustment differential block (12).

2. A Mylar device according to claim 1, characterized in that: The magnetic groove quick-release structure comprises: a clamping shaft fixed shaft (21), a fixed shaft sliding groove (22) and a plurality of clamping magnets (23); The clamping shaft fixing shaft (21) is mounted on the clamping transmission shaft (4), and the clamping shaft fixing shaft (21) is connected to the fixing shaft sliding groove (22), and a plurality of clamping magnets (23) are respectively mounted on the clamping housing (7).

3. A Mylar device according to claim 2, characterized in that: The base shell (1) is provided with a dustproof opening and closing door.

4. A Mylar device according to claim 3, characterized in that: A shock absorbing device is provided on the base shell (1).

5. A Mylar device according to claim 4, characterized in that: The embossing module (17) is provided with a wear-resistant layer.

6. A mylar device according to claim 5, characterized in that: An emergency stop device is provided on the equipment support (2).

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