Wireless Charger Shell Film Laminating Equipment

By designing a fully automated wireless charger housing filming equipment, the robot and suction cup components are used to realize the conveying and filming of workpieces, the problem of low efficiency of manual film coating is solved, the production efficiency and film coating effect are improved, and labor costs are reduced.

CN112318864BActive Publication Date: 2025-07-08DONGGUAN SHENGXIANG PRECISION METAL
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Patent Information

Application Number
CN202011016123.6
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2020-09-24
Publication Date
2025-07-08
Estimated Expiration
2040-09-24

AI Technical Summary

Technical Problem

During the filming process of existing wireless charger shells, there are problems such as low efficiency, inaccurate positioning and high cost of manual filming, resulting in slow production efficiency and increased labor intensity.

Method used

A wireless charger housing film sticking equipment is designed, including a feeding device, a first film sticking device, a material transfer device, a second film sticking device and a feeding device to realize automatic film sticking throughout the process, and conveying workpieces and film sticking operations through robotics and suction cup components, and accurately positioning and film sticking is achieved in combination with a rotary positioning fixture and drive module.

Benefits of technology

It realizes the full automatic film patching of the wireless charger shell, with accurate positioning, high efficiency and good film patching effect, reducing personnel investment and labor costs and shortening production time.

✦ Generated by Eureka AI based on patent content.

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Abstract

The present invention discloses a film pasting device for the shell of a wireless charger, which includes a machine platform and a feeding device, a first film pasting device, a material transferring device, a second film pasting device and a discharging device arranged on the machine platform; the feeding device is configured to convey the workpiece to be film pasted to the first film pasting device; the first film pasting device is configured to paste a film on the side surface of the workpiece to be film pasted; the material transferring device is arranged between the first film pasting device and the second film pasting device and is configured to convey the workpiece after being film pasted by the first film pasting device to the second film pasting device; the second film pasting device is configured to paste films on the front and back surfaces of the workpiece conveyed by the material transferring device and output the workpiece; the discharging device is arranged at the discharging end of the second film pasting device and is configured to output the workpiece after the film pasting is completed. The film pasting device of the present invention can perform full-automatic film pasting on the shell of the wireless charger, with accurate positioning, high efficiency, good film pasting effect and small error, which can reduce the input of personnel and lower the labor cost.
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Description

Technical Field

[0001] The present invention relates to the field of film laminating equipment, and particularly to a film laminating equipment for the shell of a wireless charger. Background Art

[0002] With the continuous improvement of the requirements of electrical equipment for power supply quality, safety, reliability, convenience, instantaneity, special occasions, special geographical environments, etc., the contact power transmission method is increasingly unable to meet the actual needs.

[0003] A wireless charger is a device that charges using the principle of electromagnetic induction. Its principle is similar to that of a transformer. By arranging a coil at each of the transmitting and receiving ends, the transmitting-end coil emits an electromagnetic signal to the outside under the action of electricity, and the receiving-end coil receives the electromagnetic signal and converts the electromagnetic signal into an electric current, thereby achieving the purpose of wireless charging. Wireless charging technology is a special power supply method. It does not require a power cord, relies on the propagation of electromagnetic waves, and then converts the electromagnetic wave energy into electrical energy to finally achieve wireless charging.

[0004] However, during the manufacturing process of wireless charger products, defects such as scratches and scrapes will appear on the product surface, and these surface defects will affect the product quality inspection standards. The current solution is to add a protective film on the product surface to achieve the effect of protection against scratching. In the prior art, the film laminating for the shell of a wireless charger is generally carried out by manual film laminating. Manual film laminating not only increases the working intensity of the staff, has low work efficiency, but also may cause the film to be incorrectly positioned due to human factors, and the film needs to be peeled off and reattached, resulting in a slower production efficiency and a further increase in the labor intensity of the staff. Manual film laminating takes a lot of time and has a series of problems such as inaccurate film laminating, slow speed, long time consumption, high cost, and low efficiency. Summary of the Invention

[0005] The purpose of the present invention is to provide a film laminating equipment for the shell of a wireless charger with high automation and high efficiency, which can at least solve one of the above problems.

[0006] According to one aspect of the present invention, there is provided a film laminating equipment for the shell of a wireless charger, including a machine table and a feeding device, a first film laminating device, a material transferring device, a second film laminating device, and a discharging device arranged on the machine table;

[0007] The feeding device is configured to convey the workpiece to be film laminated to the first film laminating device;

[0008] The first film laminating device is configured to laminate the side surface of the workpiece to be film laminated;

[0009] The material transferring device is arranged between the first film laminating device and the second film laminating device and is configured to convey the workpiece laminated by the first film laminating device to the second film laminating device;

[0010] The second film pasting device is configured to paste films on both the front and back sides of the workpiece conveyed by the material transfer device and then output it;

[0011] The blanking device is arranged at the discharge end of the second film pasting device and is configured to output the workpiece after film pasting.

[0012] Thus, the working principle of the wireless charger housing film pasting equipment of the present invention is as follows: The feeding device automatically conveys the workpiece to be film pasted to the first film pasting device. The first film pasting device pastes a film on the side surface of the workpiece to be film pasted. The material transfer device automatically conveys the workpiece after being pasted with a film by the first film pasting device to the second film pasting device. The second film pasting device pastes films on both the front and back sides of the workpiece conveyed by the material transfer device. The blanking device automatically outputs the workpiece after film pasting. The film pasting equipment of the present invention can perform full-automatic film pasting on the wireless charger housing, with accurate positioning, high efficiency, good film pasting effect, small error, capable of reducing the input of personnel and lowering the labor cost.

[0013] In some embodiments, the first film pasting device includes a first rotary positioning fixture, a first driving module, a side film pasting mechanism, and a second driving module. The first rotary positioning fixture is installed on the first driving module, the side film pasting mechanism is installed on the second driving module, the first driving module and the second driving module are installed on the machine table. The first driving module is used to drive the first rotary positioning fixture to feed along the X-axis direction, and the second driving module is used to drive the side film pasting mechanism to feed along the Y-axis direction. The first rotary positioning fixture is used to place the workpiece to be film pasted and cooperate with the side film pasting mechanism to jointly complete side film pasting. Thus, the working principle of the first film pasting device is as follows: The feeding device automatically conveys the workpiece to be film pasted to the first rotary positioning fixture. The first rotary positioning fixture rotates and positions. The second driving module drives the side film pasting mechanism to feed along the Y-axis direction. While the first rotary positioning fixture rotates the workpiece to be film pasted, the first driving module drives the first rotary positioning fixture to feed along the X-axis direction, and cooperates with the side film pasting mechanism to jointly complete the side film pasting work.

[0014] In some embodiments, the side film pasting mechanism includes a mounting plate and a side film unwinding assembly and a side film pressing assembly installed on the mounting plate. The mounting plate is slidably installed on the second driving module. The side film unwinding assembly is used to unwind the rolled side film, and the side film pressing assembly cooperates with the first rotary positioning fixture to press the side film tightly on the side surface of the workpiece to be film pasted.

[0015] In some embodiments, the material transfer device includes a first manipulator and a first suction cup assembly. The first manipulator is installed on the machine table, and the first suction cup assembly is installed on the first manipulator. The first suction cup assembly cooperates with the workpiece after being pasted with a film by the first film pasting device. Thus, the material transfer device can realize the automatic transportation of the workpiece after being pasted with a film by the first film pasting device and achieve flow operation.

[0016] In some embodiments, the wireless charger housing film applying device further includes a second rotary positioning jig, which is installed on the machine table and located on one side of the material transfer device. The second rotary positioning jig is used to place the workpiece after being film-applied by the first film applying device and can rotate it. Thus, the material transfer device places the workpiece after being film-applied by the first film applying device into the second rotary positioning jig, and the second rotary positioning jig rotates a certain angle for repositioning and deviation correction.

[0017] In some embodiments, the second film applying device includes a back film applying mechanism, a front film applying mechanism and a workpiece transportation mechanism. The material transfer device is configured to convey the workpiece after being film-applied by the first film applying device to the back film applying mechanism. The back film applying mechanism is configured to apply a film to the back of the workpiece conveyed by the material transfer device. The workpiece transportation mechanism is configured to convey the workpiece after being film-applied by the back film applying mechanism to the front film applying mechanism. The front film applying mechanism is configured to apply a film to the front of the workpiece conveyed by the workpiece transportation mechanism.

[0018] In some embodiments, the second film applying device further includes a bubble pressing mechanism, which is installed on the machine table and located between the back film applying mechanism and the front film applying mechanism. The bubble pressing mechanism is configured to press the workpiece after being film-applied by the back film applying mechanism. The workpiece transportation mechanism can convey the workpiece after being film-applied by the back film applying mechanism to the bubble pressing mechanism and can convey the workpiece after being pressed by the bubble pressing mechanism to the front film applying mechanism. Thus, the bubble pressing mechanism can press the workpiece after being film-applied by the back film applying mechanism again to remove the bubbles in the back film and improve the adhesion.

[0019] In some embodiments, the bubble pressing mechanism includes a bubble pressing assembly and a second vacuum positioning platform. The bubble pressing assembly is slidably installed on the machine table and located above the second vacuum positioning platform. The second vacuum positioning platform is used to place the workpiece conveyed by the workpiece transportation mechanism. The bubble pressing assembly cooperates with the second vacuum positioning platform to press the workpiece on the second vacuum positioning platform.

[0020] In some embodiments, the back film pasting mechanism includes a first vacuum positioning platform, a third driving module, a back film feeding component, and a back film sucking and pressing component. The first vacuum positioning platform is used to place the workpiece conveyed by the material transfer device. The back film sucking and pressing component is installed on the third driving module. The back film feeding component is used to convey the back film. The back film sucking and pressing component cooperates with the first vacuum positioning platform to suck the back film and press it tightly against the back of the workpiece to be pasted with film. Thus, the working principle of the back film pasting mechanism is as follows: When the workpiece conveyed by the material transfer device is placed on the first vacuum positioning platform, the third driving module drives the back film sucking and pressing component to suck the back film conveyed by the back film feeding component, first move it to directly above the first vacuum positioning platform, and then press it down tightly against the back of the workpiece to be pasted with film.

[0021] In some embodiments, the front film pasting mechanism includes a front film feeding component and a front film sucking and flipping component. The front film feeding component is used to convey the front film. The front film sucking and flipping component cooperates with the front film conveyed by the front film feeding component to suck the front film and flip it and convey it to below the workpiece conveyed by the workpiece transportation mechanism. The workpiece transportation mechanism cooperates with the front film sucking and flipping component to jointly press the front film tightly against the bottom surface of the workpiece. Thus, the working principle of the front film pasting mechanism is as follows: The front film sucking and flipping component runs to above the front film conveyed by the front film feeding component and sucks the front film, and then flips it so that the bonding surface of the front film faces upward. After flipping, the workpiece transportation mechanism conveys the workpiece over. At this time, the workpiece is exactly directly above the front film. The workpiece transportation mechanism drives the workpiece to move downward and jointly cooperate with the front film sucking and flipping component below to press the front film tightly against the bottom surface of the workpiece to complete the film pasting work.

[0022] In some embodiments, the wireless charger housing film pasting device further includes a first tray device and a second tray device. The first tray device is used to place the first tray, and the first tray is used to carry the workpiece to be pasted with film. The second tray device is used to place the second tray, and the second tray is used to carry the workpiece after film pasting. The loading device is configured to convey the workpiece to be pasted with film in the first tray to the first film pasting device. The unloading device is configured to place the workpiece after film pasting on the second tray. Thus, the first tray places the wireless charger housing workpieces to be pasted with film that have been arranged on the tray. Multiple first trays are placed on the first tray device manually or mechanically. The loading device sucks and transports each first tray to the first film pasting device one by one. The second tray is used to place the wireless charger housing workpieces after film pasting. The unloading device sucks the workpieces after film pasting one by one and transports and places them in the second tray.

[0023] In some embodiments, the loading device includes a second manipulator and a second suction cup component. The second manipulator is installed on the machine table, and the second suction cup component is installed on the second manipulator. The second suction cup component cooperates with the workpiece to be pasted with film.

[0024] In some embodiments, the blanking device includes a third manipulator and a third suction cup assembly. The third manipulator is installed on the machine table, the third suction cup assembly is installed on the third manipulator, and the third suction cup assembly cooperates with the workpiece after the film is applied.

[0025] In some embodiments, there are two first film application devices, which are symmetrically arranged on the machine table along the X-axis direction and are located between the loading device and the second film application device.

[0026] Advantages of the present invention:

[0027] 1. The wireless charger shell film application device of the present invention can realize automatic film application operation, shorten the time of the whole process, and improve the overall production efficiency;

[0028] 2. It can perform full-automatic film application on the wireless charger shell, with accurate positioning, high efficiency, good film application effect, and small error;

[0029] 3. There are 2 stations for side film application, which can be carried out continuously, reducing the overall production cycle time;

[0030] 4. High degree of automation, less personnel input, and low labor cost. Brief Description of the Drawings

[0031] Figure 1 It is a schematic three-dimensional structure diagram of the wireless charger shell film application device according to an embodiment of the present invention;

[0032] Figure 2 For Figure 1 The structure diagram of the loading part of the wireless charger shell film application device shown;

[0033] Figure 3 For Figure 1 The schematic three-dimensional structure diagram of the first film application device of the wireless charger shell film application device shown;

[0034] Figure 4 For Figure 1 The schematic three-dimensional structure diagram of the second film application device of the wireless charger shell film application device shown;

[0035] Figure 5 For Figure 1 The structure diagram of the blanking part of the wireless charger shell film application device shown.

[0036] Figures 1 to 5Reference numerals in the drawings: 1 - machine platform; 2 - loading device; 3 - first film laminating device; 4 - material transfer device; 5 - second film laminating device; 6 - unloading device; 7 - first tray device; 8 - second tray device; 9 - first tray; 10 - second tray; 11 - second rotary positioning fixture; 20 - workpiece to be film laminated; 21 - second manipulator; 22 - second suction cup assembly; 30 - workpiece after film lamination; 31 - first rotary positioning fixture; 32 - first driving module; 33 - side film laminating mechanism; 34 - second driving module; 35 - positioning mechanism; 40 - side film; 41 - first manipulator; 42 - first suction cup assembly; 50 - back film; 51 - back film laminating mechanism; 52 - front film laminating mechanism; 53 - workpiece transportation mechanism; 54 - bubble pressing mechanism; 60 - front film; 61 - third manipulator; 62 - third suction cup assembly; 331 - mounting plate; 332 - side film unwinding assembly; 333 - side film pressing assembly; 511 - first vacuum positioning platform; 512 - third driving module; 513 - back film feeding assembly; 514 - back film sucking and pressing assembly; 521 - front film feeding assembly; 522 - front film sucking and flipping assembly; 541 - bubble pressing assembly; 542 - second vacuum positioning platform; 522a - placing platform. Detailed implementation manners

[0037] The present invention will be further described in detail below with reference to the accompanying drawings.

[0038] Figures 1 to 5 Schematically shows a wireless charger housing film laminating device according to an embodiment of the present invention.

[0039] As Figures 1 to 5 shown, the wireless charger housing film laminating device includes a machine platform 1 and a loading device 2, a first film laminating device 3, a material transfer device 4, a second film laminating device 5, and an unloading device 6 provided on the machine platform 1.

[0040] The loading device 2 is configured to convey the workpiece 20 to be film laminated to the first film laminating device 3;

[0041] The first film laminating device 3 is configured to laminate the side surface of the workpiece 20 to be film laminated;

[0042] The material transfer device 4 is provided between the first film laminating device 3 and the second film laminating device 5 and is configured to convey the workpiece after being laminated by the first film laminating device 3 to the second film laminating device 5;

[0043] The second film laminating device 5 is configured to laminate the front and back surfaces of the workpiece conveyed by the material transfer device 4 and output;

[0044] The unloading device 6 is provided at the discharge end of the second film laminating device 5 and is configured to output the workpiece 30 after film lamination.

[0045] The working principle of the wireless charger housing film - sticking device of the present invention is as follows: The feeding device 2 automatically transports the workpiece 20 to be film - stuck to the first film - sticking device 3. The first film - sticking device 3 sticks a film to the side of the workpiece 20 to be film - stuck. The material - transferring device 4 automatically transports the workpiece after being film - stuck by the first film - sticking device 3 to the second film - sticking device 5. The second film - sticking device 5 sticks films to both the front and back sides of the workpiece transported by the material - transferring device 4. The discharging device 6 automatically outputs the workpiece 30 after the film - sticking is completed. The film - sticking device of the present invention can perform full - process automatic film - sticking on the wireless charger housing, with accurate positioning, high efficiency, good film - sticking effect, small error, which can reduce the input of personnel and lower the labor cost.

[0046] As Figure 1 shown, the wireless charger housing film - sticking device further includes a first tray device 7 and a second tray device 8. The first tray device 7 is used to place the first tray 9, and the first tray 9 is used to carry the workpiece 20 to be film - stuck. The second tray device 8 is used to place the second tray 10, and the second tray 10 is used to carry the workpiece 30 after the film - sticking is completed. The feeding device 2 is configured to transport the workpiece 20 to be film - stuck in the first tray 9 to the first film - sticking device 3, and the discharging device 6 is configured to place the workpiece 30 after the film - sticking is completed into the second tray 10. Thus, the first tray 9 holds the workpiece of the wireless charger housing to be film - stuck that has been arranged on the tray. Multiple first trays 9 are placed on the first tray device 7 manually or mechanically. The feeding device 2 successively sucks and transports the first trays 9 to the first film - sticking device 3. The second tray 10 is used to place the workpiece of the wireless charger housing after the film - sticking is completed. The discharging device 6 successively sucks the workpiece after the film - sticking is completed and transports and places it into the second tray 10.

[0047] As Figure 2 shown, the feeding device 2 of this embodiment includes a second manipulator 21 and a second suction cup assembly 22. The second manipulator 21 is installed on the machine table 1, the second suction cup assembly 22 is installed on the second manipulator 21, and the second suction cup assembly 22 cooperates with the workpiece 20 to be film - stuck. Thus, the second manipulator 21 drives the second suction cup assembly 22 to move, and can realize the automatic feeding operation.

[0048] As Figure 3As shown in the figure, the first film laminating device 3 of this embodiment includes a first rotary positioning jig 31, a first driving module 32, a side film laminating mechanism 33, and a second driving module 34. The first rotary positioning jig 31 is installed on the first driving module 32, and the side film laminating mechanism 33 is installed on the second driving module 34. The first driving module 32 and the second driving module 34 are installed on the machine table 1. The first driving module 32 is used to drive the first rotary positioning jig 31 to feed in the X-axis direction, and the second driving module 34 is used to drive the side film laminating mechanism 33 to feed in the Y-axis direction. The first rotary positioning jig 31 is used to place the workpiece 20 to be film laminated and cooperate with the side film laminating mechanism 33 to jointly complete the side film lamination. The first driving module 32 and the second driving module 34 of this embodiment can be linear motors. Thus, the working principle of the first film laminating device 3 is as follows: The feeding device 2 automatically transports the workpiece 20 to be film laminated to the first rotary positioning jig 31. The first rotary positioning jig 31 rotates and positions. The second driving module 34 drives the side film laminating mechanism 33 to feed in the Y-axis direction. While the first rotary positioning jig 31 rotates the workpiece 20 to be film laminated, the first driving module 32 drives the first rotary positioning jig 31 to feed in the X-axis direction, and cooperates with the side film laminating mechanism 33 to jointly complete the side film lamination work.

[0049] The side film laminating mechanism 33 includes a mounting plate 331, a side film unwinding assembly 332 and a side film pressing assembly 333 mounted on the mounting plate 331. The mounting plate 331 is slidably mounted on the second driving module 34. The side film unwinding assembly 332 is used to unwind the rolled side film 40. The side film pressing assembly 333 cooperates with the first rotary positioning jig 31 to press and adhere the side film 40 tightly to the side of the workpiece 20 to be film laminated. The side film unwinding assembly 332 of this embodiment can be composed of an unwinding roller, a winding roller, and a plurality of guide rollers, etc. The side film pressing assembly can be composed of a pressing plate and a telescopic cylinder, etc.

[0050] As Figure 4 shown in the figure, the material transfer device 4 includes a first manipulator 41 and a first suction cup assembly 42. The first manipulator 41 is installed on the machine table 1, and the first suction cup assembly 42 is installed on the first manipulator 41. The first suction cup assembly 42 cooperates with the workpiece after being film laminated by the first film laminating device 3. Thus, the material transfer device 4 can realize the automatic transportation of the workpiece after being film laminated by the first film laminating device 3 and realize the flow operation.

[0051] The wireless charger housing film pasting device further includes a second rotary positioning fixture 11. The second rotary positioning fixture 11 is installed on the machine table 1 and is located on one side of the material transfer device 4. The second rotary positioning fixture 11 is used to place the workpiece after being pasted with film by the first film pasting device 3 and can rotate it. The second rotary positioning fixture 11 in this embodiment has the same structure as the first rotary positioning fixture 31, and both can be composed of a rotary motor and positioning columns that cooperate with the workpiece. Thus, the material transfer device 4 places the workpiece after being pasted with film by the first film pasting device 3 into the second rotary positioning fixture 11, and the second rotary positioning fixture 11 rotates a certain angle to reposition and correct the deviation.

[0052] As Figure 4 shown, the second film pasting device 5 in this embodiment includes a back film pasting mechanism 51, a front film pasting mechanism 52, and a workpiece transportation mechanism 53. The material transfer device 4 is configured to convey the workpiece after being pasted with film by the first film pasting device 3 to the back film pasting mechanism 51; the back film pasting mechanism 51 is configured to paste the back of the workpiece conveyed by the material transfer device 4; the workpiece transportation mechanism 53 is configured to convey the workpiece 30 after being pasted with film by the back film pasting mechanism 51 to the front film pasting mechanism 52; the front film pasting mechanism 52 is configured to paste the front of the workpiece conveyed by the workpiece transportation mechanism 53.

[0053] The second film pasting device 5 further includes a bubble pressing mechanism 54. The bubble pressing mechanism 54 is installed on the machine table 1 and is located between the back film pasting mechanism 51 and the front film pasting mechanism 52. The bubble pressing mechanism 54 is configured to press the workpiece 30 after being pasted with film by the back film pasting mechanism 51. The workpiece transportation mechanism 53 can convey the workpiece 30 after being pasted with film by the back film pasting mechanism 51 to the bubble pressing mechanism 54 and can convey the workpiece after being pressed by the bubble pressing mechanism 54 to the front film pasting mechanism 52. Thus, the bubble pressing mechanism 54 can press the workpiece 30 after being pasted with film by the back film pasting mechanism 51 again to remove the bubbles in the back film 50 and improve the adhesion.

[0054] The bubble pressing mechanism 54 in this embodiment includes a bubble pressing assembly 541 and a second vacuum positioning platform 542. The bubble pressing assembly 541 is slidably installed on the machine table 1 and is located above the second vacuum positioning platform 542. The second vacuum positioning platform 542 is used to place the workpiece conveyed by the workpiece transportation mechanism 53. The bubble pressing assembly 541 cooperates with the second vacuum positioning platform 542 to press the workpiece on the second vacuum positioning platform 542.

[0055] The back film laminating mechanism 51 includes a first vacuum positioning platform 511, a third driving module 512, a back film feeding assembly 513, and a back film sucking and pressing assembly 514. The first vacuum positioning platform 511 is used to place the workpiece conveyed by the material transfer device 4. The back film sucking and pressing assembly 514 is installed on the third driving module 512. The third driving module 512 in this embodiment can be a linear motor that drives the back film sucking and pressing assembly 514 to feed in the Y-axis direction. The back film feeding assembly 513 is used to convey the back film 50. The back film sucking and pressing assembly 514 cooperates with the first vacuum positioning platform 511 to suck the back film 50 and press it tightly against the back of the workpiece 20 to be film laminated. The back film feeding assembly 513 in this embodiment can be composed of structures such as a unwind roller and a puller. The back film sucking and pressing assembly 514 can be composed of a suction cup and a telescopic cylinder that drives the suction cup to move up and down, etc. Thus, the working principle of the back film laminating mechanism 51 is: when the workpiece conveyed by the material transfer device 4 is placed on the first vacuum positioning platform 511, the third driving module 512 drives the back film sucking and pressing assembly 514 to suck the back film 50 conveyed by the back film feeding assembly 513, first move it to directly above the first vacuum positioning platform 511, and then press it down tightly against the back of the workpiece 20 to be film laminated.

[0056] The front film laminating mechanism 52 includes a front film feeding assembly 521 and a front film sucking and flipping assembly 522. The front film feeding assembly 521 is used to convey the front film 60. The front film sucking and flipping assembly 522 cooperates with the front film 60 conveyed by the front film feeding assembly 521 to suck the front film 60 and flip it and convey it to below the workpiece conveyed by the workpiece transport mechanism 53. The workpiece transport mechanism 53 cooperates with the front film sucking and flipping assembly 522 to jointly press the front film 60 tightly against the bottom surface of the workpiece. The front film feeding assembly 521 in this embodiment can be composed of structures such as a unwind roller and a puller; the front film sucking and flipping assembly 522 can be composed of a placing platform 522a for placing the front, a rotating motor that drives the placing platform 522a to rotate, a telescopic cylinder that drives the placing platform 522a to move up and down, and a telescopic cylinder that drives the placing platform 522a to feed in the Y-axis direction, etc.

[0057] The workpiece transportation mechanism 53 of this embodiment is a three-axis transportation mechanism, which specifically may include at least one suction cup, a telescopic cylinder for driving the suction cup to lift, a telescopic cylinder for driving the suction cup to move along the X-axis, and a telescopic cylinder for driving the suction cup to move along the Y-axis, etc. The first vacuum positioning platform 511, the second vacuum positioning platform 542, and the placement platform 522a for sucking and flipping the front film 60 of this embodiment are located on the same horizontal line and this horizontal line is parallel to the X-axis direction. Thus, the workpiece transportation mechanism 53 of this embodiment includes three suction cups, that is, the workpiece transportation mechanism 53 of this embodiment is a three-station transfer mechanism, and three operations of back film pasting, bubble pressing, and front film pasting can be carried out simultaneously in one operation, greatly improving the production efficiency.

[0058] Thus, the working principle of the front film pasting mechanism 52 is as follows: The front film sucking and flipping assembly 522 runs above the front film 60 conveyed by the front film feeding assembly 521 and sucks the front film 60, and then flips it so that the bonding surface of the front film 60 faces upward. After flipping, the workpiece transportation mechanism 53 conveys the workpiece over. At this time, the workpiece is exactly above the front film 60. The workpiece transportation mechanism 53 drives the workpiece to move downward, and cooperates with the front film sucking and flipping assembly 522 below to press and bond the front film 60 onto the bottom surface of the workpiece, completing the film pasting work.

[0059] As Figure 5 shown, the blanking device 6 of this embodiment includes a third manipulator 61 and a third suction cup assembly 62. The third manipulator 61 is installed on the machine table 1, the third suction cup assembly 62 is installed on the third manipulator 61, and the third suction cup assembly 62 cooperates with the workpiece 30 after film pasting. Thus, the third manipulator 61 drives the third suction cup assembly 62 to move, enabling automatic blanking operation.

[0060] The first manipulator 41, the second manipulator 21, and the third manipulator of this embodiment can be commercially available SCARA robots. SCARA (fully spelled as: Selective Compliance Assembly Robot Arm, Chinese translation: Selective Compliance Assembly Robot Arm) is a special type of industrial robot with a cylindrical coordinate type.

[0061] As Figure 1 shown, there are two first film pasting devices 3 in this embodiment. The two first film pasting devices 3 are symmetrically arranged on the machine table 1 along the X-axis direction and are located between the loading device 2 and the second film pasting device 5. Thus, there are 2 stations for side film pasting, and the film pasting work can be carried out continuously, reducing the overall cycle production time.

[0062] The wireless charger housing film pasting equipment of the present invention has the following advantages:

[0063] 1. The wireless charger housing film pasting device of the present invention can achieve automated film pasting operations, shorten the time of the entire process, and improve the overall production efficiency;

[0064] 2. It can perform full-process automated film pasting on the wireless charger housing, with accurate positioning, high efficiency, good film pasting effect, and small error;

[0065] 3. There are 2 stations for side film pasting, which can be carried out continuously, reducing the overall production cycle time;

[0066] 4. High degree of automation, less personnel input, and low labor cost.

[0067] The above are only some embodiments of the present invention. For those of ordinary skill in the art, without departing from the inventive concept of the present invention, several deformations and improvements can still be made, and these all belong to the protection scope of the present invention.

Claims

1. Wireless charger housing film application device, characterized in that It includes a machine platform (1) and a loading device (2), a first film pasting device (3), a material transfer device (4), a second film pasting device (5) and an unloading device (6) arranged on the machine platform (1); The loading device (2) is configured to convey the workpiece to be film-pasted (20) to the first film pasting device (3); The first film pasting device (3) is configured to paste a film on the side surface of the workpiece to be film-pasted (20); The material transfer device (4) is arranged between the first film pasting device (3) and the second film pasting device (5), and is configured to convey the workpiece after being film-pasted by the first film pasting device (3) to the second film pasting device (5); The second film pasting device (5) is configured to paste films on both the front and back surfaces of the workpiece conveyed by the material transfer device (4) and output it; The unloading device (6) is arranged at the discharge end of the second film pasting device (5), and is configured to output the workpiece (30) after the film pasting is completed; The first film pasting device (3) includes a first rotary positioning fixture (31), a first driving module (32), a side film pasting mechanism (33) and a second driving module (34). The first rotary positioning fixture (31) is installed on the first driving module (32), the side film pasting mechanism (33) is installed on the second driving module (34), the first driving module (32) and the second driving module (34) are installed on the machine platform (1). The first driving module (32) is used to drive the first rotary positioning fixture (31) to feed along the X-axis direction, and the second driving module (34) is used to drive the side film pasting mechanism (33) to feed along the Y-axis direction. The first rotary positioning fixture (31) is used to place the workpiece to be film-pasted (20) and cooperate with the side film pasting mechanism (33) to jointly complete the side film pasting; The side film pasting mechanism (33) includes a mounting plate (331) and a side film unwinding assembly (332) and a side film pressing assembly (333) installed on the mounting plate (331). The mounting plate (331) is slidably installed on the second driving module (34). The side film unwinding assembly (332) is used to unwind the rolled side film (40), and the side film pressing assembly (333) cooperates with the first rotary positioning fixture (31) to press and adhere the side film (40) tightly to the side surface of the workpiece to be film-pasted (20); The second film pasting device (5) includes a back film pasting mechanism (51), a front film pasting mechanism (52) and a workpiece transportation mechanism (53). The material transfer device (4) is configured to convey the workpiece after being film-pasted by the first film pasting device (3) to the back film pasting mechanism (51). The back film pasting mechanism (51) is configured to paste a film on the back surface of the workpiece conveyed by the material transfer device (4). The workpiece transportation mechanism (53) is configured to convey the workpiece (30) after being film-pasted by the back film pasting mechanism (51) to the front film pasting mechanism (52). The front film pasting mechanism (52) is configured to paste a film on the front surface of the workpiece conveyed by the workpiece transportation mechanism (53); The back film pasting mechanism (51) includes a first vacuum positioning platform (511), a third driving module (512), a back film feeding component (513), and a back film sucking and pressing component (514). The first vacuum positioning platform (511) is used to place the workpiece conveyed by the material transfer device (4). The back film sucking and pressing component (514) is installed on the third driving module (512). The back film feeding component (513) is used to convey the back film (50). The back film sucking and pressing component (514) cooperates with the first vacuum positioning platform (511) to suck the back film (50) and press it tightly against the back of the workpiece (20) to be pasted with film. The front film pasting mechanism (52) includes a front film feeding component (521) and a front film sucking and flipping component (522). The front film feeding component (521) is used to convey the front film (60). The front film sucking and flipping component (522) cooperates with the front film (60) conveyed by the front film feeding component (521) to suck the front film (60) and flip and convey it to the lower part of the workpiece conveyed by the workpiece conveying mechanism (53). The workpiece conveying mechanism (53) cooperates with the front film sucking and flipping component (522) to jointly paste the front film (60) tightly on the bottom surface of the workpiece.

2. The wireless charger housing film pasting device according to claim 1, characterized in that, The material transfer device (4) includes a first manipulator (41) and a first suction cup component (42). The first manipulator (41) is installed on the machine table (1). The first suction cup component (42) is installed on the first manipulator (41). The first suction cup component (42) cooperates with the workpiece after being pasted with film by the first film pasting device (3).

3. The wireless charger housing film pasting device according to claim 1, wherein, It further includes a second rotary positioning fixture (11). The second rotary positioning fixture (11) is installed on the machine table (1) and is located on one side of the material transfer device (4). The second rotary positioning fixture (11) is used to place the workpiece after being pasted with film by the first film pasting device (3) and can rotate it.

4. The wireless charger housing film pasting device according to claim 1, characterized in that, The second film pasting device (5) further includes a bubble pressing mechanism (54). The bubble pressing mechanism (54) is installed on the machine table (1) and is located between the back film pasting mechanism (51) and the front film pasting mechanism (52). The bubble pressing mechanism (54) is configured to press the workpiece (30) after being pasted with film by the back film pasting mechanism (51). The workpiece conveying mechanism (53) can convey the workpiece (30) after being pasted with film by the back film pasting mechanism (51) to the bubble pressing mechanism (54) and can convey the workpiece after being pressed by the bubble pressing mechanism (54) to the front film pasting mechanism (52).

5. The wireless charger housing film sticking device according to claim 4, wherein, The bubble pressing mechanism (54) includes a bubble pressing component (541) and a second vacuum positioning platform (542). The bubble pressing component (541) is slidably mounted on the machine table (1) and is located above the second vacuum positioning platform (542). The second vacuum positioning platform (542) is used to place the workpiece conveyed by the workpiece transportation mechanism (53). The bubble pressing component (541) cooperates with the second vacuum positioning platform (542) to press the workpiece on the second vacuum positioning platform (542).

Citation Information

Patent Citations

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