CN210881262U - Film tearing device - Google Patents

Abstract

The utility model discloses a dyestripping device, its including adsorb adhesive tape tool board (262) that has the adhesive tape sheet stock, set up in first straight line slip table (251) of adhesive tape tool board (262) top, by first straight line slip table (251) driven second sharp slip table (253) and by second sharp slip table (253) driven centre gripping subassembly (254), but centre gripping subassembly (254) centre gripping from type membrane (17) on the adhesive tape sheet stock, first straight line slip table (251) and second sharp slip table (253) drive centre gripping subassembly (254) are removed and are torn from type membrane (17). The utility model discloses a dyestripping device is provided with the centre gripping and tears the first straight line slip table and the second straight line slip table of type membrane's centre gripping subassembly and can drive centre gripping subassembly horizontal migration and vertical removal from the type membrane from the adhesive tape automatically, and efficiency is higher, and can not pollute the adhesive tape, has improved the yields.

Description

Film tearing device

Technical Field

The utility model relates to a mechanical automation equipment field, in particular to dyestripping device.

Background

At present, adhesive patches such as adhesive strips, two-dimensional code patches and pull tabs are often required to be adhered to a steel sheet (or other hard sheet bodies) on electronic devices (such as LEDs). As shown in fig. 1 and 2, the product 1 includes a steel sheet 10, and adhesive tapes attached to the steel sheet 10, a two-dimensional code patch 15, and a pull tab 16, where the number of the adhesive tapes may be multiple, for example, there are four adhesive tapes in the product 1, which are a first adhesive tape 11, a second adhesive tape 12, a third adhesive tape 13, and a fourth adhesive tape 14. Wherein first adhesive tape 11 and second adhesive tape 12 attach in the upper surface of steel sheet 10, third adhesive tape 13 and fourth adhesive tape 14 attach in the lower surface of steel sheet 10, two-dimensional code paster 15 attaches in the position that first adhesive tape 11 is close to central authorities, steel sheet 10 is extended to the one end of first adhesive tape 11 and second adhesive tape 12, pull-on piece 16 attaches in the end portion that stretches out steel sheet 10 of first adhesive tape 11 and second adhesive tape 12, pull-on piece 16 can tear first adhesive tape 11 and second adhesive tape 12 from steel sheet 10 upper surface.

In the prior art, manual attachment is usually adopted, and initially, a worker needs to take off an adhesive tape from an adhesive tape sheet, the adhesive tape sheet 18 comprises a release film 17 and an adhesive tape attached to the release film 17, and the adhesive tape is attached to a rectangular release film 17 in a parallel and equally-spaced manner (fig. 3 shows the adhesive tape sheet of the first adhesive tape 11). The two-dimensional code patch 15 and the pull tab 16 are initially located on a two-dimensional code material roll and a pull tab roll respectively, and the two-dimensional code patch 15 and the pull tab 16 are also attached to release films of the respective material rolls. When working, the worker needs to tear the adhesive tape, the two-dimensional code patch 15, the pull piece 16 and the like from the release film and then attach the adhesive tape, the two-dimensional code patch 15, the pull piece 16 and the like to the steel sheet 10.

The adhesive tape is in a slender shape, so that the adhesive tape is easily damaged by adopting a manual adhesive tape tearing mode, dirt such as dust, grease and the like is easily adhered to a product during manual adhesive tape tearing, and the reject ratio is high; in addition, the labor intensity of manually tearing the adhesive tape is high, the efficiency is low, and the enterprise is not facilitated to save the production cost.

SUMMERY OF THE UTILITY MODEL

An object of the utility model is to the above-mentioned defect among the prior art, provide a dyestripping device, it can be automatic with the adhesive tape with from type membrane separation, production efficiency is high.

In order to realize the purpose of the utility model, the utility model adopts the following technical scheme: the utility model provides a dyestripping device, its including adsorb the adhesive tape tool board that has the adhesive tape sheet stock, set up in the first linear sliding table of adhesive tape tool board top, by first linear sliding table driven second sharp sliding table and by second sharp sliding table driven centre gripping subassembly, but centre gripping subassembly centre gripping from the type membrane on the adhesive tape sheet stock, first linear sliding table and second sharp sliding table drive the centre gripping subassembly removes and tears from the type membrane.

Furthermore, the utility model discloses still provide following subsidiary technical scheme:

the centre gripping subassembly including connect in fixed plate on the second straight line slip table, connect in first splint on the fixed plate, connect in first double-rod cylinder on the fixed plate and connect in second splint on the first double-rod cylinder, first double-rod cylinder drive second splint with first splint are tight.

The surface that first splint with the second splint contacts is provided with the knurling pattern.

The film tearing device further comprises a connecting plate connected between the first linear sliding table and the second linear sliding table and a film pressing assembly connected to the connecting plate.

The film pressing assembly comprises a second double-rod cylinder connected to the connecting plate and an extrusion piece connected with the second double-rod cylinder, and the second double-rod cylinder can drive the extrusion piece to move towards the adhesive tape jig plate.

The extrusion piece comprises an extension part, and the part of the extension part, which is contacted with the release film, is rounded.

The extruded part is arranged in front of the film tearing direction relative to the clamping assembly.

The film tearing device further comprises a first frame body arranged on the adhesive tape jig plate in a crossing mode, and the first linear sliding table is fixedly connected to the first frame body.

The first linear sliding table is horizontally arranged, and the second linear sliding table is vertically arranged.

The film tearing device further comprises a first electric sliding table, and the adhesive tape jig plate is connected with the first electric sliding table and driven by the first electric sliding table.

Compared with the prior art, the utility model has the advantages of:

1. the film tearing device is provided with the clamping component for clamping the release film and the first linear sliding table and the second linear sliding table which can drive the clamping component to horizontally move and vertically move, so that the release film can be automatically torn off from the adhesive tape, the efficiency is higher, the adhesive tape cannot be polluted, and the yield is improved;

2. the utility model discloses a dyestripping device still is provided with presses the membrane module, supports from the type membrane surface through the extruded article at the dyestripping in-process, can make tearing form the contained angle from the type membrane with not tearing from forming between the type membrane, is more convenient for tear with the type membrane.

Drawings

Fig. 1 is an exploded view of a product.

Fig. 2 is a schematic illustration of a product.

FIG. 3 is a schematic view of a construction of a strip of material.

Fig. 4 is the structural schematic diagram of the middle sticky patch mounting production line of the present invention.

Fig. 5 is a schematic structural view of the steel sheet feeding mechanism of the present invention.

Fig. 6 is a schematic structural view of the steel sheet feeding mechanism of the present invention.

Fig. 7 is a schematic structural view of the attaching station of the present invention.

Fig. 8 is a schematic view showing the positions of the frame and the sheet stock photographing assembly in the attaching station of the present invention.

Fig. 9 is a schematic structural view of the first transplanting module, the second transplanting module and the adhesive tape shaping mechanism of the present invention.

Fig. 10 is a schematic structural view of a second transplanting module according to the present invention.

Fig. 11 is a schematic structural view of the middle rubber strip jig plate of the present invention.

Fig. 12 is a schematic structural diagram of the sheet stock transplanting manipulator of the present invention.

Fig. 13 is a schematic diagram of the sheet material shooting assembly shooting the rubber strip sheet material.

Fig. 14 is a schematic structural diagram of a film tearing mechanism of the present invention.

Fig. 15 is a schematic structural view of the clamping assembly of the present invention.

Fig. 16 is a schematic view of the film tearing mechanism of the present invention during film tearing.

Fig. 17 is a schematic structural view of the middle adhesive tape shaping mechanism of the present invention.

Fig. 18 is a schematic position diagram of the middle rubber strip shaping mechanism, the first transplanting module and the second transplanting module of the present invention.

Fig. 19 is a schematic structural view of the middle pushing film fixture and the middle plate of the present invention.

Fig. 20 is a schematic view illustrating the connection between the middle push film jig and the rubber strip jig plate.

Fig. 21 is a schematic structural view of the steel sheet transplanting manipulator of the present invention.

Figure 22 is a schematic view of the structure of the suction head assembly of the present invention.

Fig. 23 is a schematic view of the steel sheet shooting assembly shooting the steel sheet in the utility model.

Fig. 24 is a schematic structural view of the steel sheet transplanting mechanism of the present invention.

Fig. 25 is a schematic structural view of a third attaching station in the present invention.

Fig. 26 is a schematic structural view of the turning device of the present invention.

Fig. 27 is a schematic structural view of the other viewing direction of the turnover device of the present invention.

Fig. 28 is a schematic structural view of the pasting station of the present invention.

Fig. 29 is a schematic structural diagram of the first detecting device of the present invention.

Fig. 30 is a schematic structural view of a second detecting device according to the present invention.

Fig. 31 is a schematic structural view of the material receiving station for detecting in the present invention.

Fig. 32 is a schematic view of the positions of the upper and lower detecting devices according to the present invention.

Fig. 33 is a schematic view of the positions of the middle steel sheet detection jig and the adapter plate of the present invention.

Fig. 34 is a schematic position diagram of the middle steel sheet detection jig and the fourth electric sliding table of the present invention.

Fig. 35 is a top view of the steel sheet detecting jig of the present invention.

Detailed Description

The following non-limiting detailed description of the present invention is provided in connection with the preferred embodiments and accompanying drawings.

Fig. 4 shows one kind and has used the utility model discloses dyestripping apparatus's viscidity paster pastes dress production line, its paster that includes steel sheet feeding mechanism 6, adhesive tape is attached to be stood, attached two-dimensional code paster 15 and pulling-on piece 16 is stood 7, is detected the detection of attached quality and is received material station 8.

The steel sheet feeding mechanism 6 is used for supplying stacked steel sheets, and as shown in fig. 5 and 6, includes a bottom plate 60, a mounting plate 61, a first slide rail 66 connected between the bottom plate 60 and the mounting plate 61, a first cylinder 65 mounted on the bottom plate 60, a bin 62 fixed on the mounting plate 61, a supporting plate 63 disposed in the bin 62, and a lifting device 64 for lifting the supporting plate 63. The piston shaft of the first cylinder 65 is connected to the mounting plate 61 so as to be able to drive the mounting plate 61 to slide along the first slide rail 66. It will be appreciated that other linear drives may be used for the air cylinder 65, such as electric cylinders, servo slides, etc.

The magazine 62 includes a base 620 slidably fitted to the mounting plate 61, a front plate 621 and a rear plate 622 fixed to the base 620 and disposed opposite to each other, a plurality of positioning posts 623 disposed between the front plate 621 and the rear plate 622, and a pallet 63 disposed between the front plate 621, the rear plate 622, and the plurality of positioning posts 623, wherein the positioning posts 623 are fixed to the base 620, and the pallet 623 is capable of sliding up and down along the positioning posts 623. The steel sheet 10 is stacked on the pallet 63, being positioned by the positioning column 623. The two stock bins 62 are provided, and the two stock bins 62 can be moved to the material taking position by the first air cylinder 65 (the position of the multi-axis robot for sucking the steel sheet is the material taking position), so that the advantage is that after the steel sheet 10 in the stock bin 62 at the material taking position is taken completely, the first air cylinder 65 drives the mounting plate 61 to move, the stock bin 62 filled with the steel sheet is moved to the current position of an empty stock bin (namely the material taking position), a worker can supplement the steel sheet 10 to the empty stock bin without stopping the machine, and the normal production is not influenced; in addition, the multi-axis robot of the attaching station can take materials at the same position, and the precision is higher.

The sliding fit of the bin 62 and the mounting plate 61 can adopt the following structure: two opposite guide plates 610 are arranged on the mounting plate 61, the guide plates 610 are L-shaped, and the two guide plates 610 are respectively arranged on two sides of the storage bin 62. The guide plate 610 is provided with a cover portion 610a extending toward the magazine 62 to form a slide groove for receiving the base plate 620, and the magazine 62 is slid along the guide plate 610. An elbow clamp 611 is further provided on the mounting plate 61, and the base plate 620 can be pressed by the elbow clamp 611 to hold the cartridge 62. When the staff supplies the steel sheet to the empty bin, the bin can be directly taken down for material supply, so that the operation is more convenient and safer; or, the staff can directly change the empty storage bin into the storage bin full of the steel sheet, and is quicker.

The jacking device 64 comprises a first linear stepping motor 640 mounted on the bottom plate 60, a lower plate 643 fixedly connected to a first nut 642 of the first linear stepping motor 640, and an optical axis 644 connected to the lower plate 643, wherein the optical axis 644 is slidably connected to the bottom plate 60 through a linear bearing 645 connected to the bottom plate 60, and the upper end of the optical axis 644 penetrates through the mounting plate 61 and abuts against the supporting plate 63. When the first linear stepping motor 640 rotates, the first nut 642 moves linearly (the linear stepping motor is a component commonly used in the prior art and can drive the nut to move linearly), so as to drive the lower plate 643 and the optical axis 644 to move up and down. Therefore, when the optical axis 644 rises, the supporting plate 63 is propped by the optical axis 644 to move upwards, and the purpose of jacking the steel sheet 10 on the supporting plate 63 is achieved; as the optical axis 644 descends, the support plate 63 descends under gravity. The first linear stepping motor 640 can lift up a distance of one steel sheet thickness every time one steel sheet 10 is removed, thereby facilitating the suction of the steel sheet.

It is understood that the linear stepper motor may also use other linear driving devices, such as an electric cylinder, a servo motor and a lead screw, or a rack and pinion drive.

In a preferred embodiment, the top of the front and rear plates 621 and 622 may be further provided with an opposite type photoelectric switch, the position of which is consistent with that of the topmost steel sheet 10, when the steel sheet 10 is present on the supporting plate 63, the opposite type photoelectric switch is blocked, and when the steel sheet 10 is removed, the opposite type photoelectric switch is not blocked, and the opposite type photoelectric switch can send an electric signal to actuate the first cylinder 65, and can remind a worker to replenish the steel sheet through a display, a buzzer and other devices.

The attaching stations are used for attaching a first adhesive tape 11, a second adhesive tape 12, a third adhesive tape 13 and a fourth adhesive tape 14, in the embodiment, the number of the attaching stations is four, the attaching stations are respectively a first attaching station 2 for attaching the first adhesive tape 11, a second attaching station 3 for attaching the second adhesive tape 12, a third attaching station 4 for attaching the third adhesive tape 13 and a fourth attaching station 5 for attaching the fourth adhesive tape 14, and the structures of the attaching stations are basically consistent.

As shown in FIG. 7, the attaching station comprises a steel sheet transplanting manipulator 20, a steel sheet shooting assembly 21 for detecting the position of the steel sheet 10, a frame 22 for stacking and placing adhesive tape sheets, a sheet transplanting manipulator 23, a sheet shooting assembly 24 for detecting the adhesive tape sheets, a film tearing device for tearing off release films 17 on the adhesive tape sheets, and an adhesive tape shaping mechanism 28. The film tearing device comprises a film tearing mechanism 25, a first transplanting module 26 and a second transplanting module 27.

As shown in fig. 8, the frame 22 is fixed to the platen 2a of the application station, and is provided with a cavity conforming to the shape of the adhesive tape pieces so as to stack the adhesive tape pieces neatly. The frame 22 may be provided with a static removing bar to remove static electricity from the adhesive tape pieces and prevent adhesion between the adhesive tape pieces.

As shown in fig. 9, the first transplanting module 26 includes a first electric sliding table 260, a bracket 261 connected to a table of the first electric sliding table 260, a second sliding rail 265 connected to the bracket 261, and a rubber strip jig plate 262 fixed to the bracket 261. The first electric sliding table 260 and the bracket 261 are fixed on the platen 2a, and both ends of the bracket 261 are respectively connected with the first electric sliding table 260 and the second sliding rail 265, which span above the second transplanting module 27. The first electric sliding table 260 can drive the rubber strip jig plate 262 to move along the Y axis.

The electric sliding table belongs to a common linear driving device in the prior art, and is provided with a movable workbench, and after a workpiece or other devices are arranged on the workbench, the electric sliding table can drive the workpiece or other devices to do linear movement.

With further reference to fig. 10, the second transplanting module 27 includes a second electric sliding table 270 fixed on the table plate 2a, an inner support 271 connected to the second electric sliding table 270, an outer support 272 disposed outside the inner support 271, a third slide rail 273 disposed between the inner support 271 and the outer support 272, a second cylinder 274 fixedly connected to the inner support 271, and a rubber strip jig plate 262 connected to the top of the outer support 272. The piston shaft of the second cylinder 274 is connected to the outer bracket 272, and can drive the outer bracket to slide in the vertical direction along the third slide rail 273. When the second cylinder 274 is extended, the glue strip fixture plates 262 on the first and second transplanting modules 26 and 27 are located at the same height position. Similarly, the second electric sliding table 270 can drive the rubber strip jig plate 262 to move along the Y axis.

The adhesive tape jig plates 262 of the first transplanting module 26 and the second transplanting module 27 have the same structure, specifically, referring to fig. 11, a plurality of convex portions 2620 protruding outwards are arranged on the adhesive tape jig plates 262, the convex portions 2620 correspond to adhesive tape positions on adhesive tape sheets one by one, the width of the convex portions 2620 is consistent with the width of the adhesive tape, and a plurality of adsorption holes 263 are arranged on the convex portions 2620. Still be connected with coupling 264 (the reference numeral is seen in fig. 10) on adhesive tape tool board 262, coupling 264 is linked together with absorption hole 263 through the pore that sets up in adhesive tape tool board 262 inside, and coupling 264 still links to each other with vacuum generator through the trachea simultaneously for absorption hole 263 can produce the negative pressure, adsorbs the adhesive tape sheet stock that is located adhesive tape tool board 262, and when using film tearing mechanism 25 to tear off the type membrane 17 on the adhesive tape sheet stock like this, the adhesive tape can be reliable with separate from type membrane 17.

As shown in fig. 12, the sheet material transfer robot 23 includes a first multi-axis robot 230 and a suction plate 231 connected to the end (i.e., the robot wrist) of the first multi-axis robot 230, and the suction plate 231 is used for sucking the adhesive tape sheet material. The suction principle can refer to the adhesive tape fixture plate 262, and a plurality of suction holes communicated with the vacuum generator can be arranged on the lower surface of the adhesive tape fixture plate, so that the adhesive tape sheet can be sucked by generating negative pressure. After the adhesive tape sheet is sucked, the first multi-axis robot 230 moves the adhesive tape sheet to the adhesive tape jig plate 262, and the adhesive tape sheet needs to be photographed and position-adjusted by the sheet photographing assembly 24 in the moving process.

The sheet material shooting assembly 24 comprises two first CCD cameras 240 arranged on the bedplate 2a at intervals, a matched first light source 241 is arranged above each first CCD camera 240, and the first CCD cameras 240 and the first light sources 241 face upwards. The first multi-axis robot 230 moves the adhesive tape sheet 18 right above the sheet photographing assembly 24 so that both ends of the adhesive tape sheet are located within the photographing ranges of the two first CCD cameras 240. Whether position, the angle that first CCD camera 240 detected the adhesive tape sheet material adsorbed are suitable, if there is the deviation, control system can calculate the angle and the distance isoparametric that need adjust to control first multiaxis robot 230 adjustment adhesive tape sheet body to suitable position, first multiaxis robot 230 is when removing the adhesive tape sheet body to adhesive tape tool board 262 after the adjustment, and the adhesive tape can adsorb on each convex part 2620 more accurately.

The sheet material photographing assembly 24 can determine whether the adhesive tape on the adhesive tape sheet material has defects such as missing or skew, and if such a situation is met, the adhesive tape sheet material itself is a defective product, and the first multi-axis robot 230 moves the adhesive tape sheet material into a waste frame (not shown) placed on the platen 2 a.

The film tearing mechanism 25 comprises a first frame body 250 stretching over the first transplanting module 26, a first linear sliding table 251 arranged on the first frame body 250 and arranged along the X axis, a connecting plate 252 connected to the workbench of the first linear sliding table 251, a second linear sliding table 253 connected to the connecting plate 252, a clamping assembly 254 connected to the workbench of the second linear sliding table 253, and a film pressing assembly 255 connected to the connecting plate 252. The first linear sliding table 251 is used for driving the pressing film assembly 255 and the second linear sliding table 253 to move along the X axis; the second linear slide table 253 is disposed along the Z axis, and can drive the clamp assembly 254 to move in the vertical direction.

The linear sliding table is similar to an electric sliding table in structure, belongs to a common linear driving device in the prior art, and is also provided with a movable workbench.

With further reference to fig. 15, the clamping assembly 254 includes a fixing plate 2540 connected to the second linear sliding table 253, a first dual-rod cylinder 2541 connected to the fixing plate 2540, a first clamp plate 2542 connected to a lower end of the fixing plate 2540, and a second clamp plate 2543 connected to a push plate of the first dual-rod cylinder 2541, wherein the first clamp plate 2542 and the second clamp plate 2543 are disposed oppositely, and when the first dual-rod cylinder 2541 is extended, the first clamp plate 2542 abuts against the second clamp plate 2543, so as to clamp the release film between the two clamp plates. In order to increase the reliability of the clamping, a knurling pattern may be provided on the surface of the first clamping plate 2542 and the second clamping plate 2543 contacting each other to increase the friction force.

Squeeze film assembly 255 includes a second dual rod cylinder 2550 connected to connection plate 252 and a squeeze 2551 connected to the push plate of second dual rod cylinder 2550. After the second double-rod cylinder 2550 is extended, the pressing member 2551 abuts on the upper surface of the adhesive tape sheet, and the pressing member 2551 is located in front of the film tearing direction (the arrow direction in fig. 16 represents the film tearing direction). In this embodiment, the extrusion member 2551 is provided with an extension portion 2552 for contacting with the release film 17, and a portion of the extension portion 2552 contacting with the release film 17 is rounded so as not to damage the release film 17.

As shown in fig. 16, in the film tearing step, the first transplanting module 26 or the first transplanting module 27 first moves the adhesive tape sheet 18 adsorbed on the adhesive tape jig plate 262 to a position below the clamping assembly 254, and the release film 17 on the adhesive tape sheet 18 is longer than the adhesive tape jig plate 262, so that the release film 17 is suspended to extend out of the adhesive tape jig plate 262; the clamping assembly 254 is moved to one side of the adhesive tape jig plate 262 and moved downwards to a height that the release film 17 is positioned in the two clamping plates of the clamping assembly 254, then the clamping assembly 254 is moved leftwards for a certain distance to position the release film 17 between the two clamping plates, and the first double-rod cylinder 2541 extends out to clamp the release film 17; afterwards, the second double-rod cylinder 2550 stretches out, make extruded piece 2551 press close to adhesive tape sheet stock 18 upper surface, then, second straight line slip table 253 drive centre gripping subassembly 254 goes upward, make the position that the type membrane of one end torn to contact with extruded piece 2551, form the contained angle between the type membrane of tearing and the type membrane of not tearing open, later first straight line slip table 251 drive centre gripping subassembly 254 and press mold subassembly 255 move to the adhesive tape tool board 262 other end simultaneously, second straight line slip table 253 rises at the in-process that removes, tear away the type membrane, second straight line slip table 253 rises simultaneously at the in-process that removes, with the angle that keeps the contained angle. Because extruded article 2551's existence, there is the contained angle of being convenient for to tear the membrane from type membrane and horizontal direction in tearing the membrane in-process, and the contained angle can not take place too big change at tearing the membrane in-process, is more convenient for reliably separate from type membrane and adhesive tape. If the pressing member 2551 is not provided, the holding member 254 is likely to lift the release film and the adhesive tape together, which may result in a defective film tearing.

As shown in fig. 17 and 18, the glue strip shaping mechanism 28 includes a second frame 280 spanning above the first transplanting module 26, two second linear stepping motors 281 respectively disposed on both side surfaces of the second frame 280, and a connecting frame 283 driven by the second linear stepping motors 281. The coupling housing 283 includes an intermediate plate 2830 positioned inside the second housing 280 and support plates 2831 positioned at both sides of the intermediate plate 2830, and the support plates 2831 are coupled to nuts 282 on the second linear stepping motor 281 such that the coupling housing 283 can move up and down. Of course, a guide means such as a slide rail may be provided between the coupling rack 283 and the second housing 280 to allow the coupling rack 283 to be precisely moved up and down. The glue strip shaping mechanism 28 further comprises a third slide rail 284 arranged at the bottom of the middle plate 2830 and a film pushing jig 285 connected below the third slide rail 284. Referring to fig. 19, two sides of the middle plate 2830 are respectively provided with a blocking plate 286, the top of the film pushing jig 285 is connected with a protruding block 2850 located between the two blocking plates 286, the blocking plates 286 and the protruding block 2850 are respectively provided with corresponding mounting holes 2851, and the mounting holes 2851 are internally provided with springs 287.

The lower surface of the film pushing jig 285 is provided with a plurality of protruding lugs 2852, and the lugs 2852 correspond to the grooves 2853 between the protrusions 2620. The film pushing jig 285 is used for accurately moving the adhesive tape to the convex part 2620, thereby preventing the adhesive tape from being inclined and the like. After the film tearing mechanism 25 tears the film, the adhesive tape is positioned on the convex portion 2620, then the first electric sliding table 260 moves the adhesive tape jig plate 262 thereon to a position under the film pushing jig 285, then the second linear stepping motor 281 drives the film pushing jig 285 to descend, so that the lug 2852 is inserted into the groove 2853, and when the lug 2852 is positioned in the groove 2953, the adhesive tape adhesive surface is not in contact with the film pushing jig 285, so as to prevent the adhesive tape from adhering to the film pushing jig 285; then the first electric sliding table 260 moves the rubber strip jig plate 262 to one direction, so that the lug 2852 is extruded with the side wall of the convex part 2620, and if the rubber strip protruding out of the side wall of the convex part 2620 exists, the rubber strip is pushed to be aligned with the side wall of the convex part 2620; after that, the second electric sliding table 260 moves the adhesive tape fixture plate 262 in the opposite direction, so that the protruding piece 2852 is pressed against the side wall of the other side of the protrusion 2620, and similarly, the adhesive tape protruding out of the side wall of the protrusion 2620 can be aligned with the side wall of the protrusion 2620. During compression, the spring 287 acts as a buffer and return to prevent damage to the protrusions 2620 and tabs 2852. The strip shown in FIG. 20 is the first strip 11 with the right side protruding from the right side wall of the protrusion 2620. only movement of the tab 2852 to the left will align the first strip 11 with the right side wall of the protrusion 2620. It will be appreciated that the vacuum generator for generating the negative pressure to the suction holes 263 does not need to be operated during the alignment so that the adhesive tape can smoothly move on the protrusions 2620, and the vacuum generator continues to operate after the alignment is completed. The tab 2852 may be coated with a release coating, such as a teflon coating, to prevent the adhesive strip from adhering to the tab 2852.

The step of aligning the glue strips on the second transplanting module 27 is substantially the same as that of the first transplanting module 26, except that the second cylinder 274 on the second transplanting module 27 needs to be extended first to make the height of the glue strip fixture plate 262 thereon sufficient, and then the glue strip shaping mechanism 28 can align the glue strips.

As shown in fig. 21, the steel sheet transplanting manipulator 20 is used for sucking the steel sheet 10 at the steel sheet feeding mechanism 6 and attaching the adhesive tape, and includes: a second multi-axis robot 200 fixed on the bedplate 2a, a connecting bracket 201 connected with the tail end of the second multi-axis robot 200, and two groups of sucker assemblies 202 connected with the connecting bracket 201. As shown in fig. 22, the suction head assembly 202 comprises a third cylinder 2020 connected to the connecting bracket 201, an adapter 2021 connected to the piston shaft of the third cylinder 2020, and a first steel sheet suction head 2022 connected to the bottom of the adapter 2021, and likewise, the first steel sheet suction head 2022 sucks the steel sheet 10 by negative pressure. The third air cylinders 2020 can drive the first steel sheet suction heads 2022 to extend or retract, and when the two third air cylinders 2020 are in different states, the first steel sheet suction heads 2022 on the two sets of suction head assemblies 202 can generate dislocation.

As shown in fig. 23, the steel sheet photographing assembly 21 includes a first vertical column 210 and a second vertical column 211 which are arranged at intervals, a second CCD camera 212 and a second light source 213 are arranged on the first vertical column 210 and the second vertical column 211, the second light source 213 is located below the second CCD camera 212, and the second CCD camera 212 and the second light source 213 are arranged downward.

The steel sheet photographing assembly 21 is used for judging whether the position of the steel sheet 10 is proper. As shown in fig. 23, in operation, firstly, the first transplanting module 26 or the second transplanting module 27 moves the rubber strip jig plate 262 bearing the rubber strip to a position under the steel sheet shooting assembly 21, then the steel sheet transplanting manipulator 20 moves the sucked steel sheet 10 to a position between the rubber strip jig plate 262 and the second CCD camera 212, at this time, two ends of the rubber strip and the steel sheet 10 are located in shooting ranges of the two second CCD cameras 212, the control system can control the second multi-axis robot 200 to adjust a position of the steel sheet 10 relative to the rubber strip according to a shooting result, after the steel sheet is adjusted to a proper position, the second multi-axis robot 200 moves the steel sheet 10 to vertically descend until the steel strip is extruded to the lower side, since the rubber strip surface of the rubber strip faces upward, the rubber strip will be attached to the steel sheet 10, then the rubber strip jig plate 262 stops generating negative pressure, and the second multi-axis robot 200 can move the steel.

Because the steel sheet transplanting manipulator 20 is provided with the two groups of suction head assemblies 202, two steel sheets 10 can be adsorbed, when one of the steel sheets 10 is driven to move downwards to attach the adhesive tape, the third cylinder 2020 of the other suction head assembly 202 retracts, so that the height of the steel sheet 10 on the suction head assembly is higher, and the adhesive tape is prevented from being accidentally taken away when the suction head assembly touches the adhesive tape. That is, the two steel sheets 10 are aligned and attached one by one, which can greatly improve the accuracy of the attachment.

In order to move the steel sheet with the adhesive tape adhered to the previous adhering station to the next adhering station, a steel sheet transplanting mechanism 29 is further arranged between every two adjacent adhering stations, and after the adhesive tape is adhered to the steel sheet 10, the second multi-axis robot 200 places the steel sheet 10 on the steel sheet transplanting mechanism 29 and moves the steel sheet transplanting mechanism 29 to the next work station.

The steel sheet transplanting mechanism 29 includes a base 290 connected to the platen 2a, a fourth slide rail 291 connected to the base 290, a first steel sheet jig 292 connected to the fourth slide rail 291, and a slide table cylinder 293 connected between the base 290 and the first steel sheet jig 292. The slide table cylinder 293 drives the first steel sheet jig 292 to move along the fourth slide rail 291, and the slide table cylinder 293 also extends to the next station, so that the first steel sheet jig 292 can be moved to the next station, for example, from the first attaching station 2 to the second attaching station 3. The first steel sheet jig 292 is used for bearing the steel sheet 10, is provided with a groove for accommodating the steel sheet 10, and is provided with a positioning column for positioning the steel sheet 10.

The steps of applying the adhesive tape at the application station are generally as follows:

the first step is as follows: the sheet material transplanting manipulator 23 sucks the rubber strip sheet materials from the inner part of the frame 22 and moves the rubber strip sheet materials to the position above the sheet material shooting assembly 21 for adjusting the rubber strip sheet materials; the second step is that: the first transplanting module 26 moves the rubber strip jig plate 262 to a specified position, the sheet stock transplanting manipulator 23 places the rubber strip sheet stock on the rubber strip jig plate 262, and the rubber strip jig plate 262 adsorbs the rubber strip sheet stock; the third step: the first transplanting module 26 moves the adhesive tape jig plate 262 to the position below the film tearing mechanism 25, the film tearing mechanism 25 acts to uncover the release film of the adhesive tape sheet, and the adhesive tape is still adsorbed on the adhesive tape jig plate 262; the fourth step: the first transplanting module 26 moves the rubber strip jig plate 262 to the position below the rubber strip shaping mechanism 28, and the rubber strip shaping mechanism 28 adjusts the position of the rubber strip on the rubber strip jig plate 262; fifthly, the first transplanting module 26 moves the rubber strip jig plate 262 to the position below the steel sheet shooting assembly 21; sixthly, the steel sheet transplanting manipulator 20 sucks the steel sheet 10 in the storage bin 62 (or the steel sheet transplanting mechanism 29 of the previous attaching station) and moves the steel sheet 10 to the lower part of the steel sheet shooting assembly 21 for alignment; seventhly, pressing the steel sheet to the adhesive tape by the steel sheet transplanting manipulator 20 to attach the adhesive tape to the steel sheet 10; and eighthly, the steel sheet transplanting manipulator 20 moves the steel sheet 10 into the first steel sheet jig 292 of the steel sheet transplanting mechanism 29, and the steel sheet transplanting mechanism 29 conveys the steel sheet 10 to the next work station.

The first transplanting module 26 and the second transplanting module 27 can alternately convey the rubber strips so as to improve the working efficiency and reduce the waiting time. In addition, the moving distance of the first transplanting module 26 and the second transplanting module 27 can be determined by controlling the number of turns of the motor or by arranging sensors such as a groove-shaped photoelectric switch and the like to determine the moving position, which is the prior art and is not described herein again.

After the first adhesive tape 11 is attached to the steel sheet 10 at the first attaching station 2, the steel sheet 10 is moved to the second attaching station 3 by the steel sheet transplanting mechanism 29, the second multi-axis robot 200 at the second attaching station 3 picks up the steel sheet 10 and then attaches the second adhesive tape 12 to the steel sheet 10, and finally the steel sheet is sent out to the third attaching station 4 by the steel sheet transplanting mechanism 29 to attach the third adhesive tape 13. Since the third adhesive tape 13 and the fourth adhesive tape 14 need to be attached to the other side of the steel sheet 10, the steel sheet 10 needs to be turned over first when the third adhesive tape 13 is attached, and then the third adhesive tape 13 needs to be attached. For upset steel sheet 10, the utility model discloses a viscidity paster pastes dress production line is still including setting up turning device 40 on the attached station 4 of third.

As shown in fig. 25 to 27, the turnover device 40 includes a first lifting unit 41, a second lifting unit 42, a rotating frame 43 driven by the first lifting unit 41 and the second lifting unit 42 to lift, a suction cup 44 connected to the rotating frame 43, and a revolving cylinder 45 driving the rotating frame 43 to rotate.

The first lifting assembly 41 includes a fixed frame 410 fixed on the table top of the third attaching station, a fifth slide rail 411 vertically installed on the fixed frame 410, a moving plate 412 connected to the fifth slide rail 411, and a pen-shaped air cylinder 413 fixed on the fixed frame 410. The piston shaft end of the pen cylinder 413 is connected to the moving plate 412, which drives the moving plate 412 to move in the vertical direction. The first lifting assembly 41 and the second lifting assembly 42 are consistent in structure and are symmetrically arranged on two sides of the steel sheet transplanting mechanism 29.

The rotating frame 43 is provided therein with a rotating shaft 430, an end of the rotating shaft 430 passes through a long slot 4100 formed on the fixed frame 410 and is rotatably connected with the moving plate 412, and specifically, the rotating shaft 430 is connected with the moving plate 412 through a bearing 414.

The revolving cylinder 45 is fixed on the fixed frame 410 through the mounting bracket 450, the revolving platform thereof is connected with the end of the rotating shaft 430 so as to drive the rotating shaft 430 to rotate, and the revolving cylinder 45 can drive the rotating shaft 430 to rotate 180 degrees so as to turn over the suction cup 44 fixed on the rotating frame 43.

The suction cup 44 is formed with a plurality of mounting grooves 440 corresponding to the steel sheet 10, and the mounting grooves 440 may be formed with suction holes to suck the steel sheet 10 by negative pressure.

The first lifting component 41 and the second lifting component 42 of the turnover device 40 are respectively arranged on two sides of the steel sheet transplanting mechanism 29, when the first steel sheet jig 292 on the steel sheet transplanting mechanism 29 is located under the sucker 44, the pen-shaped air cylinder 413 drives the sucker 44 to move downwards to be attached to the first steel sheet jig 292, so that the steel sheet 10 is adsorbed in the installation groove 440, the pen-shaped air cylinder 413 drives the sucker 44 to move upwards, the rotary air cylinder 45 drives the sucker 44 to rotate 180 degrees to enable the steel sheet 10 to move upwards, and therefore the second multi-axis robot 200 of the third attaching station 4 can suck the steel sheet 10 on the sucker 44 to attach the third adhesive tape 13.

After the third adhesive tape 13 is attached, the steel sheet 10 is moved to the fourth attaching station 5 to attach a fourth adhesive tape 14, and then moved to the sheet attaching station 7 to attach the two-dimensional code sheet 15 and the pull tab 16.

As shown in fig. 28, the die-attaching station 7 includes a third electric slide table 71 fixed on the table top 70, a second steel sheet jig 72 connected to the third electric slide table 71, a first label peeler 73 fixed on the table top 70, a second label peeler 74, a third multi-axis robot 75, a fourth multi-axis robot 76, a first detection device 77 provided on the side of the first label peeler 73, and a second detection device 78 provided on the side of the second label peeler 74.

The third electric sliding table 71 is used for moving the second steel sheet jig 72, two ends of the third electric sliding table 71 respectively extend to the fourth attaching station 4 and the detecting and receiving station 8, namely, the third electric sliding table 71 can move the third steel sheet jig 72 from the fourth attaching station 4 to the detecting and receiving station 8. The steel sheets 10 pasted with the fourth adhesive tapes 14 in the fourth pasting station 4 are placed on the second steel sheet jig 72 and conveyed to the pasting station 7.

The first and second label peeling machines 73 and 74 can directly use the existing label peeling machine, and the label peeling machine can automatically tear off the adhesive patch on the release paper and place the adhesive patch on a bearing platform. The first label peeling machine 73 is used for peeling off the two-dimensional code patches 15 on the two-dimensional code roll and placing the two-dimensional code patches on the first platform 730; the second label peeler 74 is then used to peel the pull tab 16 off the roll of pull tabs and place it on the second platform 740.

The end of the third multi-axis robot 75 is provided with a two-dimensional code suction head 750 which can suck the two-dimensional code patch 15 on the first platform 730. When attaching the two-dimensional code patch 15 to the first adhesive tape 11, the third multi-axis robot 75 needs to move the two-dimensional code patch 15 to the first detection device 77 to adjust the position. As shown in fig. 29, the first detecting device 77 includes a third upright 770, a third CCD camera 771 mounted on the third upright 770, and a third light source 772. The third CCD camera 771 and the third light source 772 are both disposed upward, and when the two-dimensional code patch 15 is moved into the shooting range of the third CCD camera, the two-dimensional code patch 15 can be shot and detected, and the position can be adjusted according to the shooting result. The third multi-axis robot 75 moves the two-dimensional code patch 15 to the steel sheet 10 and then presses down on the steel sheet 10, and the two-dimensional code patch 15 is adhered to the position of the first adhesive tape 11 close to the middle part because the adhesive surface of the two-dimensional code patch 15 faces downward.

Similarly, a pull-tab suction head 760 is provided at the end of the fourth multi-axis robot 76 to suck the pull tab 16 on the first platform 730. In attaching pull tab 16 to the ends of first and second strips 11, 12, fourth multi-axis robot 76 needs to move pull tab 16 to an adjusted position at second detection device 78. As shown in fig. 30, the second detecting device 78 includes a fourth upright 780, a fourth CCD camera 781 mounted on the fourth upright 780, and a fourth light source 782. Fourth CCD camera 781 and fourth light source 782 all set up, and when pull-on piece 16 was moved to the shooting within range of fourth CCD camera 781, pull-on piece 16 can be shot and detected to adjust the position according to the result of shooing. Fourth multi-axis robot 76 moves tab 16 over steel sheet 10 and presses it down onto steel sheet 10, and tab 16 will be adhered to the ends of first strip of glue 11 and second strip of glue 12 since tab 16 is glued down.

After the two-dimensional code patches 15 and the pull tabs 16 are attached to the steel sheet 10, the product 1 is assembled, and the product 1 is moved to the detection material receiving station 8 by the third electric sliding table 71.

The material receiving station 8 comprises a feeding module 80, a moving module 81, a material receiving manipulator 82, a lower detection device 83, an upper detection device 84, a good product bin 85 and a defective product bin 86 which are all fixed on the working table surface 8 a.

The feeding module 80 comprises a support frame 800, a third linear sliding table 801 fixed on the support frame 800, a fourth linear sliding table 805 connected with the third linear sliding table 801, a third double-rod cylinder 806 connected with the fourth linear sliding table 805, and a second steel sheet sucker 807 connected to the third double-rod cylinder 806. The third linear sliding table 801 is arranged along the X axis and can drive the fourth linear sliding table 805 to move along the X axis; the fourth linear sliding table 805 is arranged along the Y axis and can drive the third double-rod cylinder 806 to move along the Y axis direction; a third double rod cylinder 806 is arranged along the Z-axis for driving the second steel sheet suction head 807 in a vertical direction. After the steel sheet 10 moves from the third electric sliding table 71 to the detection receiving station 8, the feeding module 80 can suck the steel sheet 10 and move the steel sheet to the moving module 81.

The moving module 81 includes a fourth electric sliding table 810 arranged along the X direction and a steel sheet detection jig 820 connected to the fourth electric sliding table 810. The fourth electric sliding table 810 can drive the steel sheet detection jig 820 to move along the X axis, so that the steel sheet detection jig 820 can move to the lower detection device 83 and the upper detection device 84 respectively for detection.

Because steel sheet 10 both sides all paste and are equipped with the adhesive tape, consequently, steel sheet 10's both sides all need detect to judge whether adhesive tape, two-dimensional code paster 15 and pulling-on piece 16 position meet the requirements, go up detection device 84 and lower detection device 83 and be used for detecting the tow sides of steel sheet 10 respectively.

As shown in fig. 32, the lower inspection device 83 includes a first line scan CCD camera 830 and a mating light source fixed below the steel sheet inspection jig 820 by a connecting member 831; the first linear scanning CCD camera 830 shoots the production piece 1 on the steel sheet detection jig 820 upward. For convenience of shooting, as shown in fig. 33 to 35, the steel sheet detection jig 820 is connected to the fourth electric sliding table 810 through the adapter plate 820a, so that the steel sheet detection jig 820 is located outside the fourth electric sliding table 810, so as to prevent the fourth electric sliding table 810 from blocking the shooting of the first linear scanning CCD camera 830; meanwhile, besides the groove 8200 for accommodating and positioning the steel sheet 10, a plurality of through grooves 8201 are formed in the steel sheet detection jig 820, the through grooves 8201 are preferably perpendicular to the groove 8200, and light can irradiate onto the product 1 through the through grooves 8201. The control system can judge whether the adhesive tapes below the product 1 meet the requirements according to the shot parts.

The upper detection means 84 is spaced apart from the lower detection means 83 to prevent interference between the light sources. The upper detection device 84 comprises a second linear scanning CCD camera 840 and a matched light source which are fixed on the working table surface 8a through a connecting column 841; the second linear scanning CCD camera 840 shoots the product 1 on the steel sheet detection jig 820 downwards, and the control system can judge whether the positions of the adhesive tape, the two-dimensional code patch 15, the pull sheet 16 and the like above the steel sheet 10 meet the requirements according to the shot results.

The receiving robot 82 includes a fifth multi-axis robot 820 and a third steel sheet suction head connected to the tip of the fifth multi-axis robot 820. The fifth multi-axis robot 820 can drive the third steel sheet suction head to suck the product 1 on the steel sheet detection jig 820, and move the qualified product to the good product bin 85 and move the unqualified product to the defective product bin 86 according to the detection result of the control system. The structure of the third steel sheet suction head can refer to the structure of the first steel sheet suction head 2022, and the details are not repeated here.

The utility model discloses a viscidity paster pastes dress production line is still including control system, its and the electric component (like multiaxis robot, electronic slip table, CCD camera, cylinder etc.) signal connection in the equipment, can control each electric component action, and control system can adopt singlechip, PLC, industrial computer etc. to control. The functions of the production line control system can be realized through the prior art, and are not repeated here.

The utility model discloses a dyestripping mechanism possesses following advantage at least:

1. the film tearing device is provided with the clamping component for clamping the release film and the first linear sliding table and the second linear sliding table which can drive the clamping component to horizontally move and vertically move, so that the release film can be automatically torn off from the adhesive tape, the efficiency is higher, the adhesive tape cannot be polluted, and the yield is improved;

2. the film tearing device is also provided with a pressing film component, and the surface of the release film is propped against the surface of the release film through an extrusion piece in the film tearing process, so that an included angle is formed between the torn release film and the un-torn release film, and the release film is more convenient to tear;

3 the utility model discloses a dyestripping mechanism is applied to viscidity paster and pastes the dress production line after, can improve the production efficiency and the yields of production line greatly.

Claims (10)

1. A film tearing device is characterized in that: it including adsorb adhesive tape tool board (262) that has the adhesive tape sheet material, set up in first straight line slip table (251) of adhesive tape tool board (262) top, by first straight line slip table (251) driven second straight line slip table (253) and by second straight line slip table (253) driven centre gripping subassembly (254), but centre gripping subassembly (254) centre gripping from type membrane (17) on the adhesive tape sheet material, first straight line slip table (251) and second straight line slip table (253) drive centre gripping subassembly (254) remove and tear from type membrane (17).

2. The film tearing apparatus of claim 1, wherein: centre gripping subassembly (254) including connect in fixed plate (2540) on second straight line slip table (253), connect in first splint (2542) on fixed plate (2540), connect in first double-rod cylinder (2541) on fixed plate (2540) and connect in second splint (2543) on first double-rod cylinder (2541), first double-rod cylinder (2541) drive second splint (2543) with first splint (2542) press from both sides tightly.

3. The film tearing apparatus of claim 2, wherein: the surface of the first clamping plate (2542) contacted with the second clamping plate (2543) is provided with a knurling pattern.

4. The film tearing apparatus of claim 1, wherein: the film pressing machine further comprises a connecting plate (252) connected between the first linear sliding table (251) and the second linear sliding table (253) and a film pressing assembly (255) connected to the connecting plate (252).

5. The film tearing apparatus of claim 4, wherein: the film pressing assembly (255) comprises a second double-rod cylinder (2550) connected to the connecting plate (252) and an extrusion piece (2551) connected with the second double-rod cylinder (2550), wherein the second double-rod cylinder (2550) can drive the extrusion piece (2551) to move towards the adhesive tape jig plate (262).

6. The film tearing apparatus of claim 5, wherein: the extrusion member (2551) comprises an extension part (2552), and the part of the extension part (2552) contacted with the release film (17) is rounded.

7. The film tearing apparatus of claim 5, wherein: the extrusion piece (2551) is arranged in front of the film tearing direction relative to the clamping component (254).

8. The film tearing apparatus of claim 1, wherein: the rubber strip fixture plate is characterized by further comprising a first frame body (250) arranged on the rubber strip fixture plate (262) in a crossing mode, and the first linear sliding table (251) is fixedly connected to the first frame body (250).

9. The film tearing apparatus of claim 1, wherein: the first linear sliding table (251) is horizontally arranged, and the second linear sliding table (253) is vertically arranged.

10. The film tearing apparatus of claim 1, wherein: the rubber strip fixture plate is characterized by further comprising a first electric sliding table (260), wherein the rubber strip fixture plate (262) is connected with the first electric sliding table (260) and is driven by the first electric sliding table (260).

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