A charger mylar sheet bending device

Abstract

The present invention discloses a charger mylar sheet bending device and process. Through the charger mylar sheet bending process, production becomes more lean, product output efficiency is improved, and labor is reduced. This charger mylar sheet bending device integrates a series of processes for bending mylar sheets, realizes lean production, and increases product output. By arranging the heat sink loading bin in an inclined manner, the heat sink feeding can be made more accurate. By setting a positioning mechanism during the heat sink feeding process, the heat sink can be positioned correctly and fed properly. The mylar head bending mechanism uses a cylinder to simultaneously press the heat sink and the main body of the large mylar sheet while realizing the bending of the head of the large mylar sheet, which is simple, easy to operate, and cost-effective. By setting the combination of the annular large mylar sheet production line and the heat sink production line, the two processes can be effectively connected, production efficiency can be improved, and the floor space occupied by the equipment can be reduced.

Description

Technical Field

[0001] The present invention belongs to the field of production and processing equipment for mylar used in chargers, and specifically relates to a mylar sheet bending device and process for chargers. Background Art

[0002] A mylar sheet refers to dimethyl terephthalate and ethylene glycol being heated with the help of some specific catalysts, then undergoing esterification and vacuum elimination polycondensation, followed by biaxial stretching, and finally forming a film.

[0003] Mylar sheets are a very effective part of insulating materials. Mylar sheets are often used in mobile phone chargers to isolate different components. Currently, the bending of mylar sheets for chargers requires manual bending and a large number of workers.

[0004] The existing bending process for heat sink mylar sheets is complex and cumbersome, and the product output is low.

[0005] In the existing bending of heat sink mylar sheets, each process is completed manually, which is time-consuming and laborious, and the output is low. Some processes are completed by mechanical equipment, but the specifications of the produced products are different from the requirements of the next process, affecting product quality. Each process cannot be organically combined, and lean production cannot be achieved. The product output is low, the equipment structure within the process is complex, the cost is high, the heat sink loading bin is vertically arranged, and the feeding is inaccurate.

[0006] The existing heat sink production line and the mylar sheet bending production line are not organically combined, the product output efficiency is low, and the equipment occupies a large area. Summary of the Invention

[0007] The technical problem to be solved by the present invention is to invent a mylar sheet bending device for chargers, and provide a mylar sheet bending device for chargers, which can effectively solve the problems in the background art.

[0008] To achieve the above object, the present invention provides the following technical solutions: A charger mylar sheet bending device, comprising a first frame, a first tabletop, a circular assembly line, a first housing, a material box, a second frame, a second tabletop, and a second housing. The upper surface of the first frame is provided with a first tabletop, the upper surface of the first tabletop is provided with a circular assembly line, a large mylar sheet carrier is installed on the circular assembly line, a square hole is opened in the center of the large mylar sheet carrier, the upper surface of the first tabletop is provided with a first housing, a second frame is provided on the right side of the first frame, the upper surface of the second frame is provided with a second tabletop, the upper surface of the second tabletop is provided with a second housing, a material box is provided at the adjacent position of the first frame and the second frame, a hole is opened in the center of the upper surface of the second tabletop, a speed reducer is installed on the upper surface of the second tabletop through the hole in the second tabletop, a circular turntable is installed on the speed reducer, a mounting table is installed on the outer shell of the speed reducer through the circular turntable, eight pairs of heat sink carriers are installed on the circular turntable at equal intervals in a ring shape, a heat sink feeding mechanism, a mylar tape pasting mechanism, a mechanism for folding both sides of the mylar tape, a mechanism for tightening both sides of the mylar tape, a mechanism for folding the front end of the mylar tape, a small mylar pasting mechanism, a small mylar pressing mechanism, and a mechanism for folding the head of the large mylar are respectively arranged on the second tabletop around the circular turntable. A manipulator is respectively arranged on the second tabletop on the left side of the heat sink feeding mechanism and the mechanism for folding the front end of the mylar tape. A small mylar pressing mechanism is installed on the second tabletop on the right side at the junction of the first tabletop and the second tabletop, and a mechanism for folding the head of the large mylar is arranged on the left side. The small mylar pressing mechanism and the mechanism for folding the head of the large mylar straddle the upper part of one side of the circular assembly line. A heat sink folding and discharging mechanism is arranged on the first tabletop on the left side of 8b.

[0009] Further, the heat sink loading mechanism includes a first linear slide mounting plate. The heat sink loading mechanism is vertically installed on the hole side wall of the second table surface. On the other surface of the first linear slide mounting plate, a first linear slide is installed. On the first linear slide, a second linear slide connecting plate is installed. On the second linear slide connecting plate, a second linear slide mounting plate is installed in a direction at a 45° angle to the horizontal plane. In the same direction as the second linear slide mounting plate, a second linear slide is installed. On the second linear slide, two material supporting blocks are installed. On the second linear slide mounting plate, a material bin mounting plate one is vertically installed. On the upper surface of the material bin mounting plate one, a material bin mounting plate two is provided. On the upper surface of the material bin mounting plate two, a material bin composed of three equally spaced thin plates is vertically installed. On the side walls of the three material bins, two material bin sealing plates with two parallel slots are respectively installed. The material supporting blocks pass through the gaps between the three material bins and stop at the slots on the material bin sealing plates. On the material bin mounting plate one, two L-shaped material bin fasteners are installed. The material bin mounting plate two is slidably inserted into the gap between the material bin fasteners and the material bin mounting plate one. On the material bin mounting plate one and the material bin mounting plate two, two symmetric threaded holes are opened. The threaded holes are threadedly connected with two knob plungers. On the first linear slide mounting plate, a positioning mounting plate one is installed. On the side wall of the positioning mounting plate one, a positioning mounting plate two is vertically installed. At a corner of the positioning mounting plate two, a positioning cylinder is installed. On the positioning cylinder, a positioning connecting plate is installed. On the upper surface of the positioning connecting plate, two parallel L-shaped positioning blocks are vertically installed. On the positioning mounting plate two, a square hole is opened. The positioning blocks pass through the square hole on the positioning mounting plate two. On the upper surface of the positioning mounting plate two, four positioning blocks are installed. Two of the positioning blocks are combined into an L shape.

[0010] Further, the mylar tape pasting mechanism includes two sticker machines. The two sticker machines are oppositely installed on the second table surface. Between the two sticker machines, a flattening cylinder is installed. On the flattening cylinder, a flattening plate is installed. The other end of the flattening plate is located below the mylar tape ejected from the two sticker machines. On the second table surface, a second XY-axis module mounting frame is installed. On the second XY-axis module mounting frame, a second XY-axis module is installed. On the second XY-axis module, a second jaw cylinder mounting plate is installed. On the second jaw cylinder mounting plate, a second jaw cylinder is installed. On the second table surface, a second lifting cylinder mounting plate is installed. On the second lifting cylinder mounting plate, a second lifting cylinder is installed. At both ends of the upper surface of the second lifting cylinder, two second lifting cylinder heads are installed. On the mounting table, two pushing cylinder mounting plates one are installed. At the other end side walls of the two pushing cylinder mounting plates one, a pushing cylinder mounting plate two is installed. On the pushing cylinder mounting plate two, a pushing cylinder is installed. On the end face of the extending end of the pushing cylinder, a pushing piece is installed. On the pushing cylinder mounting plate two between the two pushing cylinder mounting plates one, a pressing cylinder is installed. On the end face of the extending end of the pressing cylinder, a U-shaped pressing piece is installed.

[0011] Further, the mechanisms on both sides of the folding Marla tape include a third mounting bracket, which is mounted on the second tabletop. A third downward pressing cylinder is mounted at the upper end of the third mounting bracket. A third jaw mounting plate is vertically mounted on the surface of the third downward pressing cylinder. A third jaw cylinder is mounted on the lower surface of the third jaw mounting plate. A third pushing member is provided below the third jaw cylinder. A third pushing cylinder is mounted on the third pushing member. The third pushing cylinder is mounted on the upper surface of the second tabletop through a third pushing cylinder mounting plate.

[0012] Further, the mechanisms for tightening both sides of the Marla tape include a fourth motor mounting plate, which is vertically mounted on the upper surface of the second tabletop. A fourth motor is mounted on the side of the fourth motor mounting plate. A fourth slide rail is mounted on the upper surface of the fourth motor mounting plate. A fourth jaw cylinder mounting plate is mounted on the fourth slide rail. A fourth gear is mounted on the side wall of the fourth jaw cylinder mounting plate. The gear on the fourth motor meshes with the fourth gear on the fourth jaw cylinder mounting plate. A fourth jaw cylinder is mounted on the surface of the fourth jaw cylinder mounting plate. A fourth pressing cylinder mounting plate is mounted on the mounting table. A fourth pressing cylinder is mounted on the fourth pressing cylinder mounting plate. A fourth pressing member is mounted on the extending end of the fourth pressing cylinder.

[0013] Further, the front-end mechanism of the folding Marla tape includes a fifth cylinder mounting plate, which is mounted on the upper surface of the second tabletop. A fifth cylinder is mounted on the side wall at the upper end of the fifth cylinder mounting plate. A fifth slide rail mounting plate is mounted on the fifth cylinder. A fifth slide rail is mounted on the fifth slide rail mounting plate. A fifth material pushing member is vertically mounted on the side wall surface of the fifth slide rail. A fifth pushing cylinder mounting plate is vertically mounted on the second tabletop. The fifth pushing cylinder mounting plate is located below the fifth slide rail mounting plate. A fifth pushing cylinder is mounted on the side wall of the fifth pushing cylinder mounting plate. A fifth pushing member mounting plate is mounted on the fifth pushing cylinder. Two fifth pushing members are vertically mounted at both ends of the upper surface of the fifth pushing member mounting plate. A fifth downward pressing cylinder mounting plate is mounted on the mounting table. A fifth downward pressing cylinder is mounted on the fifth downward pressing cylinder mounting plate. A fifth downward pressing member is mounted on the extending end of the fifth downward pressing cylinder. The two fifth pushing members are located below the fifth downward pressing member.

[0014] Further, the wheat tape attaching mechanism includes a wheat tape feeding feeder, which is installed on the upper surface of the second table. A sixth pushing cylinder is vertically installed on the upper surface of the second table. A seventh pushing cylinder is installed on the side wall of the sixth pushing cylinder. The extending end of the seventh pushing cylinder is installed with a sixth pushing member. Two sixth pressing cylinder mounting plates are installed on the mounting table. A sixth pressing cylinder connecting plate is installed on the side walls of the two sixth pressing cylinder mounting plates. A sixth pressing cylinder is installed on the surface of the sixth pressing cylinder connecting plate. An L-shaped sixth pressing member connecting plate is installed on the sixth pressing cylinder. A sixth pressing member is installed on the lower surface of the sixth pressing member connecting plate. A square hole is opened at the other end of the sixth pressing member. A sixth pushing cylinder is installed on the second table. A seventh pushing cylinder is installed on the side wall of the sixth pushing cylinder. The extending end of the seventh pushing cylinder is installed with a sixth pushing member. The sixth pushing member is located below the square hole of the sixth pressing member.

[0015] Further, the wheat tape pressing mechanism includes two identical eighth cylinder mounting frames, which are vertically installed on the upper surface of the second table. An eighth cylinder is installed on the side wall of the eighth cylinder mounting frame. An eighth cylinder is installed on the middle surface of the eighth cylinder. An eighth pressing member connecting plate is installed on the eighth cylinder. A U-shaped eighth pressing member is installed on the lower surface of the eighth pressing member connecting plate. An eighth feeding cylinder mounting plate is installed on the upper edge surface of the second table. An eighth feeding cylinder is installed on the side wall of the eighth feeding cylinder mounting plate. The extending end of the eighth feeding cylinder is installed with an eighth feeding member. The barley tape head folding mechanism includes a ninth mounting frame. There are two ninth mounting frames, which are installed on the upper surface of the second table. Ninth pressing cylinder mounting plates are installed at the upper ends of the two ninth mounting frames. A ninth pressing cylinder is installed at the middle of the lower surface between the two ninth mounting frames. The extending end of the ninth pressing cylinder is installed with a ninth pressing cylinder connecting member. The ninth pressing cylinder connecting member is slidably connected to the groove on the upper surface of the ninth mounting plate. Two ninth bending plates are vertically installed on the lower surface of the left end of the ninth mounting plate. The lower ends of the ninth bending plates are arc-shaped. Two ninth pressing plate connecting members are vertically rotatably connected to the lower surface of the right end of the ninth mounting plate. Each lower end of the ninth pressing plate connecting member is vertically rotatably connected to a ninth pressing plate.

[0016] Furthermore, the folding heat sink blanking mechanism includes a tenth push cylinder mounting bracket which is vertically installed on the upper surface of the second table. A tenth push cylinder is installed in the middle of the side wall of the tenth push cylinder mounting bracket. A tenth push piece is installed at the extending end of the tenth push cylinder. A tenth pressing cylinder is installed on the upper part of the side wall of the tenth push cylinder mounting bracket. A U-shaped piece is installed at the lower end of the tenth pressing cylinder. A ninth bracket is installed on the upper surface of the second table on the right side of the tenth push cylinder mounting bracket. A tenth X-axis module is installed on the side wall at the upper end of the ninth bracket. The tenth X-axis module is connected to a tenth suction nozzle through a tenth suction nozzle connecting piece.

[0017] A charger mylar sheet bending process includes the following steps:

[0018] S1: Manually tear off the transparent film of the large mylar sheet and place it into the large mylar sheet carrier.

[0019] S2: Use a manipulator to load the heat sink onto the heat sink carrier.

[0020] S3: Stick the mylar tape to the head of the heat sink.

[0021] S4: Bend the mylar tape on both sides and tightly fit it to the heat sink.

[0022] S5: Smooth and tighten the mylar tape on both sides to tightly fit the heat sink.

[0023] S6: Tightly fit the front-end mylar tape to the heat sink.

[0024] S7: Use a manipulator to stick the small mylar to the heat sink.

[0025] S8: The manipulator removes the heat sink with the mylar well-attached and attaches the heat sink with the mylar well-attached to the large mylar sheet carrier containing the large mylar sheet.

[0026] S9: Bend the head of the large mylar sheet.

[0027] S10: Bend the heat sink and unload it through the module equipped with a suction cup.

[0028] The technical effects and advantages of the present invention:

[0029] 1. Through the charger mylar sheet bending process, production becomes more lean, improving product output efficiency and reducing labor.

[0030] 2. The charger mylar sheet bending equipment integrates a series of processes for folding mylar sheets, realizing lean production and increasing product output.

[0031] 3. By arranging the heat sink loading bin in an inclined manner, the heat sink loading can be more accurate. By setting a positioning mechanism during the heat sink loading process, the heat sink can be positioned correctly for loading.

[0032] 4. The Zhemaila head mechanism uses a cylinder to achieve the simultaneous pressing of the heat sink and the main body of the large Mala sheet, and can also bend the head of the large Mala sheet, which is simple, easy to operate, and cost-effective.

[0033] 5. By setting up the combination of the annular large Mala sheet production line and the heat sink production line, the two processes can be effectively connected, improving production efficiency and reducing the floor space of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0034] Figure 1 Top view of the main structure of the present invention;

[0035] Figure 2 Stereogram of the outer shell of the main structure of the present invention;

[0036] Figure 3 Stereogram of the annular turntable of the present invention;

[0037] Figure 4 Stereogram of the heat sink loading bin of the present invention;

[0038] Figure 5 Stereogram of a partial structure of the heat sink loading bin of the present invention;

[0039] Figure 6 Stereogram of the heat sink positioning mechanism of the present invention;

[0040] Figure 7 Stereogram of the Mala glue pasting mechanism of the present invention;

[0041] Figure 8 Partial enlarged view of the Mala glue pasting mechanism of the present invention;

[0042] Figure 9 Partial enlarged view of the Mala glue pressing mechanism of the present invention;

[0043] Figure 10 Stereogram of the mechanism for folding both sides of the Mala tape of the present invention;

[0044] Figure 11 Stereogram of the mechanism for tightening both sides of the Mala tape of the present invention;

[0045] Figure 12 Stereogram of the mechanism for folding the front end of the Mala tape of the present invention;

[0046] Figure 13 Stereogram of the small Mala pasting mechanism of the present invention;

[0047] Figure 14 Stereogram of the mechanism for pressing the small Mala of the present invention;

[0048] Figure 15 Stereogram of the frame of the Zhemaila head mechanism of the present invention;

[0049] Figure 16 Front view of the folding head mechanism of the present invention

[0050] Figure 17 Stereogram of the folding head mechanism of the present invention

[0051] Figure 18 Diagram of the state after the operation of the folding head mechanism of the present invention

[0052] Figure 19 Front view of the heat sink blanking mechanism of the present invention

[0053] In the figure: 1a1, the first rack; 1b1, the first tabletop; 1c1, the annular assembly line; 1d1, the first housing; 1e, the material box; 1a2, the second rack; 1b2, the second tabletop; 1d2, the second housing; 1b3, the speed reducer; 1b4, the annular turntable; 1b5, the mounting table; 1, the heat sink feeding mechanism; 2, the mechanism for pasting mylar tape; 3, the mechanism for folding both sides of the mylar tape; 4, the mechanism for tightening both sides of the mylar tape; 5, the mechanism for folding the front end of the mylar tape; 6, the mechanism for pasting small mylar tape; 8a, the mechanism for pressing the small mylar tape; 8b, the mechanism for folding the head of the large mylar tape; 9, the mechanism for folding and discharging the heat sink; 111, the first linear slide mounting plate; 112, the first linear slide; 113, the second linear slide connecting plate; 114, the second linear slide mounting plate; 115, the second linear slide; 116, the material supporting block; 117a, the material bin; 117b, the material bin sealing plate; 118, the first material bin mounting plate; 119, the second material bin mounting plate; 120, the material bin fastener; 121, the knob plunger; 122, the mounting plate for the opposed photoelectric sensor; 123, the opposed photoelectric sensor; 124, the first positioning mounting plate; 125, the second positioning mounting plate; 126, the positioning cylinder; 127, the positioning connecting plate; 128, the positioning dial block; 129, the positioning block; 210, the mylar tape; 211, the sticker machine; 212, the supporting flat cylinder; 213, the supporting flat plate; 214a, the mounting frame for the second XY-axis module; 214b, the second XY-axis module; 214c, the mounting plate for the second jaw cylinder; 215, the second jaw cylinder; 216, the mounting plate for the second lifting cylinder; 217, the second lifting cylinder; 218, the head of the second lifting cylinder; 219, the first mounting plate for the pushing cylinder; 220, the second mounting plate for the pushing cylinder; 221, the pushing cylinder; 222, the pushing piece; 223, the pressing cylinder; 224, the pressing piece; 31, the third mounting frame; 32, the third pressing cylinder; 33, the mounting plate for the third jaw; 34, the third jaw cylinder; 35, the mounting plate for the third pushing cylinder; 36, the third pushing cylinder; 37, the third pushing piece; 41, the fourth motor mounting plate; 42a, the fourth motor; 42b, the fourth gear; 43, the fourth slide rail; 44, the mounting plate for the fourth jaw cylinder; 45, the fourth jaw cylinder; 46, the mounting plate for the fourth pressing cylinder; 47, the fourth pressing cylinder; 48, the fourth pressing piece; 511, the fifth cylinder mounting plate; 512, the fifth cylinder; 513, the mounting plate for the fifth slide rail; 514, the fifth slide rail; 515, the fifth feeding piece; 516, the mounting plate for the fifth pushing cylinder; 517, the fifth pushing cylinder; 518, the mounting plate for the fifth pushing piece; 519, the fifth pushing piece; 520, the mounting plate for the fifth pressing cylinder; 521, the fifth pressing cylinder; 522, the fifth pressing piece; 61, the small mylar tape feeding feeder; 62, the mounting plate for the sixth pressing cylinder; 63, the connecting plate for the sixth pressing cylinder; 64, the sixth pressing cylinder; 65, the connecting plate for the sixth pressing piece; 66, the sixth pressing piece; 67, the sixth pushing cylinder; 68, the seventh pushing cylinder; 69, the sixth pushing piece;71. Heat sink carrier; 72. Barley pull tab carrier; 8a1. Eighth cylinder mounting bracket; 8a2. Eighth cylinder mounting plate; 8a3. Eighth cylinder; 8a4. Eighth downward pressing part connecting plate; 8a5. Eighth downward pressing part; 8a6. Eighth ejector cylinder mounting plate; 8a7. Eighth ejector cylinder; 8a8. Eighth ejector part; 8b1. Ninth mounting bracket; 8b2. Ninth downward pressing cylinder mounting plate; 8b3. Ninth downward pressing cylinder; 8b4. Ninth downward pressing cylinder connecting part; 8b5. Ninth mounting plate; 8b6. Ninth bending plate; 8b7. Ninth pressing plate connecting part; 8b8. Ninth pressing plate; 91. Tenth pushing cylinder mounting bracket; 92. Tenth pushing cylinder; 93. Tenth pushing part; 94. Tenth pressing cylinder; 95. U-shaped part; 96. Tenth X-axis module; 97. Tenth nozzle connecting part; 98. Tenth nozzle; 99. Ninth bracket; Detailed implementation manner

[0054] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0055] Please refer to Figure 1-19, this embodiment provides a technical solution: a charger mylar sheet bending device, including a first frame 1a1, a first table 1b1, a circular assembly line 1c1, a first housing 1d1, a material box 1e, a second frame 1a2, a second table 1b2, and a second housing 1d2, characterized in that: the upper surface of the first frame 1a1 is provided with a first table 1b1, the upper surface of the first table 1b1 is provided with a circular assembly line 1c1, a large mylar sheet carrier 72 is installed on the circular assembly line 1c1, a square hole is opened in the center of the large mylar sheet carrier 72, the upper surface of the first table 1b1 is provided with a first housing 1d1, a second frame 1a2 is provided on the right side of the first frame 1a1, the upper surface of the second frame 1a2 is provided with a second table 1b2, the upper surface of the second table 1b2 is provided with a second housing 1d2, a material box 1e is provided at the adjacent position of the first frame 1a1 and the second frame 1a2, a hole is opened in the center of the upper surface of the second table 1b2, a speed reducer 1b3 is installed on the upper surface of the second table 1b2 through the hole of the second table 1b2, a circular turntable 1b4 is installed on the speed reducer 1b3, and a mounting table 1b5 is installed on the outer shell of the speed reducer 1b3 through the circular turntable 1b4. Eight pairs of heat sink carriers 71 are installed on the circular turntable 1b4 at equal intervals in a ring shape. A heat sink feeding mechanism 1, a mylar tape pasting mechanism 2, a mechanism for folding both sides of the mylar tape 3, a mechanism for tightening both sides of the mylar tape 4, a mechanism for folding the front end of the mylar tape 5, a small mylar pasting mechanism 6, a small mylar pressing mechanism 8a, and a mechanism for folding the head of the large mylar 8b are respectively arranged around the circular turntable 1b4 on the second table 1b2. A manipulator is respectively arranged on the second table 1b2 on the left side of the heat sink feeding mechanism 1 and the mechanism for folding the front end of the mylar tape 5. A small mylar pressing mechanism 8a is installed on the second table 1b2 on the right side at the junction of the first table 1b1 and the second table 1b2, and a mechanism for folding the head of the large mylar 8b is arranged on the left side. The small mylar pressing mechanism 8a and the mechanism for folding the head of the large mylar 8b straddle above one side of the circular assembly line 1c1. A heat sink blanking mechanism 9 is arranged on the first table 1b1 on the left side of 8b.

[0056] Further, the heat sink loading mechanism 1 includes a first linear slide mounting plate 111. The heat sink loading mechanism 1 is vertically mounted on the hole side wall of the second table surface 1b2. On the other surface of the first linear slide mounting plate 111, a first linear slide 112 is mounted. On the first linear slide 112, a second linear slide connecting plate 113 is mounted. On the second linear slide connecting plate 113, a second linear slide mounting plate 114 is mounted in a direction at a 45° angle to the horizontal plane. In the same direction as the second linear slide mounting plate 114, a second linear slide 115 is mounted. On the second linear slide 115, two material supporting blocks 116 are mounted. On the second linear slide mounting plate 114, a first material bin mounting plate 118 is vertically mounted. On the upper surface of the first material bin mounting plate 118, a second material bin mounting plate 119 is provided. On the upper surface of the second material bin mounting plate 119, a material bin 117a composed of three equally spaced thin plates is vertically mounted. On the side walls of the three material bins 117a, two material bin closing plates 117b with two parallel slots are respectively mounted. The material supporting blocks 116 pass through the gaps between the three material bins 117a and stop at the slots on the material bin closing plates 117b. On the first material bin mounting plate 118, two L-shaped material bin fasteners 120 are mounted. The second material bin mounting plate 119 is slidably inserted into the gap between the material bin fasteners 120 and the first material bin mounting plate 118. On the first material bin mounting plate 118 and the second material bin mounting plate 119, two symmetric threaded holes are provided, and two knob plungers 121 are threadedly connected to the threaded holes. On the first linear slide mounting plate 111, a first positioning mounting plate 124 is mounted. On the side wall of the first positioning mounting plate 124, a second positioning mounting plate 125 is vertically mounted. At one corner of the second positioning mounting plate 125, a positioning cylinder 126 is mounted. On the positioning cylinder 126, a positioning connecting plate 127 is mounted. On the upper surface of the positioning connecting plate 127, two mutually parallel L-shaped positioning blocks 128 are vertically mounted. A square hole is provided on the second positioning mounting plate 125. The positioning blocks 128 pass through the square hole on the second positioning mounting plate 125. On the upper surface of the second positioning mounting plate 125, four positioning blocks 129 are mounted, and two of the positioning blocks 129 are combined into an L shape.

[0057] Further, the Tamar tape mechanism 2 includes two sticker machines 211 which are oppositely installed on the second table 1b2. A leveling cylinder 212 is installed between the two sticker machines 211. A leveling plate 213 is installed on the leveling cylinder 212. The other end of the leveling plate 213 is located below the Tamar tape 210 rolled out by the two sticker machines 211. A second XY-axis module mounting bracket 214a is installed on the second table 1b2. A second XY-axis module 214b is installed on the second XY-axis module mounting bracket 214a. A second jaw cylinder mounting plate 214c is installed on the second XY-axis module 214b. A second jaw cylinder 215 is installed on the second jaw cylinder mounting plate 214c. A second lifting cylinder mounting plate 216 is installed on the second table 1b2. A second lifting cylinder 217 is installed on the second lifting cylinder mounting plate 216. Two second lifting cylinder heads 218 are installed at both ends of the upper surface of the second lifting cylinder 217. Two first push cylinder mounting plates 219 are installed on the mounting table 1b5. A second push cylinder mounting plate 220 is installed on the side walls of the other ends of the two first push cylinder mounting plates 219. A push cylinder 221 is installed on the second push cylinder mounting plate 220. A push piece 222 is installed on the end face of the extending end of the push cylinder 221. A pressing cylinder 223 is installed on the second push cylinder mounting plate 220 between the two first push cylinder mounting plates 219. A U-shaped pressing piece 224 is installed on the end face of the extending end of the pressing cylinder 223.

[0058] Further, the mechanism 3 for folding both sides of the Tamar tape includes a third mounting bracket 31 which is installed on the second table 1b2. A third pressing cylinder 32 is installed at the upper end of the third mounting bracket 31. A third jaw mounting plate 33 is vertically installed on the surface of the third pressing cylinder 32. A third jaw cylinder 34 is installed on the lower surface of the third jaw mounting plate 33. A third push piece 37 is provided below the third jaw cylinder 34. A third push cylinder 36 is installed on the third push piece 37. The third push cylinder 36 is installed on the upper surface of the second table 1b2 through a third push cylinder mounting plate 35.

[0059] Further, the mechanism 4 for tightening both sides of the Marla tape includes a fourth motor mounting plate 41 vertically mounted on the upper surface of the second table 1b2. A fourth motor 42a is mounted on the side of the fourth motor mounting plate 41. A fourth slide rail 43 is mounted on the upper surface of the fourth motor mounting plate 41. A fourth jaw cylinder mounting plate 44 is mounted on the fourth slide rail 43. A fourth gear 42b is mounted on the side wall of the fourth jaw cylinder mounting plate 44. The gear on the fourth motor 42a meshes with the fourth gear 42b on the fourth jaw cylinder mounting plate 44. A fourth jaw cylinder 45 is mounted on the surface of the fourth jaw cylinder mounting plate 44. A fourth pressing cylinder mounting plate 46 is mounted on the mounting table 1b5. A fourth pressing cylinder 47 is mounted on the fourth pressing cylinder mounting plate 46. A fourth pressing member 48 is mounted on the extending end of the fourth pressing cylinder 47.

[0060] Further, the mechanism 5 for folding the front end of the Marla tape includes a fifth cylinder mounting plate 511 mounted on the upper surface of the second table 1b2. A fifth cylinder 512 is mounted on the upper side wall of the fifth cylinder mounting plate 511. A fifth slide rail mounting plate 513 is mounted on the fifth cylinder 512. A fifth slide rail 514 is mounted on the fifth slide rail mounting plate 513. A fifth feeding member 515 is vertically mounted on the side wall surface of the fifth slide rail 514. A fifth pushing cylinder mounting plate 516 is vertically mounted on the second table 1b2. The fifth pushing cylinder mounting plate 516 is located below the fifth slide rail mounting plate 513. A fifth pushing cylinder 517 is mounted on the side wall of the fifth pushing cylinder mounting plate 516. A fifth pushing member mounting plate 518 is mounted on the fifth pushing cylinder 517. Two fifth pushing members 519 are vertically mounted at both ends of the upper surface of the fifth pushing member mounting plate 518. A fifth pressing-down cylinder mounting plate 520 is mounted on the mounting table 1b5. A fifth pressing-down cylinder 521 is mounted on the fifth pressing-down cylinder mounting plate 520. A fifth pressing-down member 522 is mounted on the extending end of the fifth pressing-down cylinder 521. The two fifth pushing members 519 are located below the fifth pressing-down member 522.

[0061] Further, the wheat sticker mechanism 6 includes a wheat sticker feeding feeder 61, the wheat sticker feeding feeder 61 is installed on the upper surface of the second table 1b2, a sixth pushing cylinder 67 is vertically installed on the upper surface of the second table 1b2, a seventh pushing cylinder 68 is installed on the side wall of the sixth pushing cylinder 67, a sixth pushing member 69 is installed at the extending end of the seventh pushing cylinder 68, two sixth downward pressing cylinder mounting plates 62 are installed on the mounting table 1b5, a sixth downward pressing cylinder connecting plate 63 is installed on the side walls of the two sixth downward pressing cylinder mounting plates 62, a sixth downward pressing cylinder 64 is installed on the surface of the sixth downward pressing cylinder connecting plate 63, an L-shaped sixth downward pressing member connecting plate 65 is installed on the sixth downward pressing cylinder 64, a sixth downward pressing member 66 is installed on the lower surface of the sixth downward pressing member connecting plate 65, a square hole is opened at the other end of the sixth downward pressing member 66, a sixth pushing cylinder 67 is installed on the second table 1b2, a seventh pushing cylinder 68 is installed on the side wall of the sixth pushing cylinder 67, a sixth pushing member 69 is installed at the extending end of the seventh pushing cylinder 68, and the sixth pushing member 69 is located below the square hole of the sixth downward pressing member 66.

[0062] Further, the pressed wheat sticker mechanism 8a includes two identical eighth cylinder mounting frames 8a1, the two eighth cylinder mounting frames 8a1 are vertically installed on the upper surface of the second table 1b2, an eighth cylinder 8a3 is installed on the side wall of the eighth cylinder mounting frame 8a1, an eighth cylinder 8a3 is installed on the middle surface of the eighth cylinder 8a3, an eighth downward pressing member connecting plate 8a4 is installed on the eighth cylinder 8a3, a U-shaped eighth downward pressing member 8a5 is installed on the lower surface of the eighth downward pressing member connecting plate 8a4, an eighth feeding cylinder mounting plate 8a6 is installed on the upper edge surface of the second table 1b2, an eighth feeding cylinder 8a7 is installed on the side wall of the eighth feeding cylinder mounting plate 8a6, an eighth feeding member 8a8 is installed at the extending end of the eighth feeding cylinder 8a7, the folded barley sticker head mechanism 8b includes a ninth mounting frame 8b1, there are two ninth mounting frames 8b1, the two ninth mounting frames 8b1 are installed on the upper surface of the second table 1b2, a ninth downward pressing cylinder mounting plate 8b2 is installed at the upper ends of the two ninth mounting frames 8b1, a ninth downward pressing cylinder 8b3 is installed at the middle of the lower surface of the ninth downward pressing cylinder mounting plate 8b2 between the two ninth mounting frames 8b1, a ninth downward pressing cylinder connecting member 8b4 is installed at the extending end of the ninth downward pressing cylinder 8b3, the ninth downward pressing cylinder connecting member 8b4 is slidably connected in the groove on the upper surface of the ninth mounting plate 8b5, two ninth bending plates 8b6 are vertically installed on the lower surface of the left end of the ninth mounting plate 8b5, the lower ends of the ninth bending plates 8b6 are arc-shaped, two ninth pressing plate connecting members 8b7 are vertically rotatably connected to the lower surface of the right end of the ninth mounting plate 8b5, and each ninth pressing plate connecting member 8b7 is vertically rotatably connected to a ninth pressing plate 8b8 at its lower end.

[0063] Further, the folding heat sink blanking mechanism 9 includes a tenth push cylinder mounting bracket 91 vertically mounted on the upper surface of the second table 1b2. A tenth push cylinder 92 is mounted in the middle of the side wall of the tenth push cylinder mounting bracket 91. A tenth push member 93 is mounted on the extending end of the tenth push cylinder 92. A tenth pressing cylinder 94 is mounted on the upper part of the side wall of the tenth push cylinder mounting bracket 91. A U-shaped member 95 is mounted at the lower end of the tenth pressing cylinder 94. A ninth bracket 99 is mounted on the upper surface of the second table 1b2 on the right side of the tenth push cylinder mounting bracket 91. A tenth X-axis module 96 is mounted on the side wall of the upper end of the ninth bracket 99. The tenth X-axis module 96 is connected to a tenth suction nozzle 98 through a tenth suction nozzle connecting member 97.

[0064] A charger mylar sheet bending process includes the following steps:

[0065] S1: Manually tear off the transparent film of the large mylar sheet and place it into the large mylar sheet carrier.

[0066] S2: Use a manipulator to load the heat sink onto the heat sink carrier.

[0067] S3: Stick the mylar tape to the head of the heat sink.

[0068] S4: Bend the mylar tape on both sides and tightly fit it to the heat sink.

[0069] S5: Smooth and tighten the mylar tape on both sides to tightly fit the heat sink.

[0070] S6: Tightly fit the front mylar tape to the heat sink.

[0071] S7: Use a manipulator to stick the small mylar to the heat sink.

[0072] S8: The manipulator takes away the heat sink with the mylar tape attached and attaches the heat sink with the mylar tape attached to the large mylar sheet carrier with the large mylar sheet.

[0073] S9: Bend the head of the large mylar sheet.

[0074] S10: Bend the heat sink and unload it through a module equipped with a suction cup.

[0075] Working principle of the present invention: Manually tear off the transparent film of the barley pull sheet and place it into the barley pull sheet carrier 72. The annular pipeline 1c1 drives the annular pipeline 1c1 equipped with the barley pull sheet carrier 72 to move. The manipulator sucks the heat sink into the quadrilateral formed by the positioning block 128 on the positioning mounting plate two 125 and the positioning block 129 fixed on the positioning mounting plate two 125. For each heat sink sucked, the height of the heat sinks in the inclined bin formed by the bin 117a and the bin sealing plate 117b becomes lower. After the opposed photoelectric sensor 123 senses the lack of materials, the second linear slide 115 drives the material supporting block 116 to rise, so that the second heat sink rises to the position height of the first heat sink. The positioning cylinder 126 extends and drives the positioning block 128 to move through the positioning connecting plate 127 to position the heat sink. After positioning, the manipulator sucks the positioned heat sink into the heat sink carrier 71. The heat sink loading mechanism 1 returns to the initial state. The bin composed of the bin 117a and the bin sealing plate 117b can be taken away for manual feeding by unscrewing the knob plunger 121 and pulling out the bin mounting plate two 119 from the bin fastener 120. The speed reducer 1b3 drives the heat sink carrier 71 to rotate to the position of the Marla tape pasting mechanism through the annular turntable 1b4. The sticker machine 211 conveys the Marla tape 210. The leveling cylinder 212 acts to drive the leveling plate 213 to lift half of the Marla tape 210. The second XY-axis module 214b drives the second jaw cylinder 215 to grab the other half of the Marla tape 210 to one end of the heat sink in the heat sink carrier 71 through the second jaw cylinder mounting plate 214c. The pressing cylinder 223 drives the pressing member 224 to press down and clamp the heat sink body. The second lifting cylinder mounting plate 216 drives the second lifting cylinder head 218 to lift the Marla tape 210. The pushing cylinder 221 acts to drive the pushing member 222 to press the Marla tape 210. The Marla tape 210 on the heat sink is pressed by the second lifting cylinder head 218 and the pushing member 222. The Marla tape pasting mechanism 2 returns to the initial state. The speed reducer 1b3 drives the heat sink carrier 71 to rotate to the position of the mechanism for folding both sides of the Marla tape through the annular turntable 1b4. The third pushing cylinder 36 acts to drive the third pushing member 37 to rise. The third pressing cylinder 32 acts to drive the third jaw cylinder 34 to press down through the third jaw mounting plate 33. The third pushing member 37 is inserted into the inverted U-shaped third jaw cylinder 34, so that both sides of the Marla tape 210 are bent downward. The mechanism for folding both sides of the Marla tape 3 returns to the initial state. The speed reducer 1b3 drives the heat sink carrier 71 to rotate to the position of the mechanism for tightening both sides of the Marla tape through the annular turntable 1b4. The fourth pressing cylinder 47 drives the fourth pressing member 48 to press the heat sink body. The fourth gear 42b on the fourth motor 42a drives the fourth jaw cylinder 45 on the fourth jaw cylinder mounting plate 44 to move towards the bent Marla tape 210 through the fourth slide rail 43. The fourth jaw cylinder 45 clamps the bent part of the Marla tape 210.The fourth gear 42b on the fourth motor 42a drives the fourth jaw cylinder 45 on the fourth jaw cylinder mounting plate 44 to retreat through the fourth slide rail 43 to smooth the folded Mylar tape 210. The mechanism 4 for smoothing and tightening both sides of the Mylar tape returns to the initial state. The reducer 1b3 drives the heat sink carrier 71 to rotate to the front-end folding Mylar tape mechanism station through the annular turntable 1b4. The fifth pressing cylinder 521 acts to drive the fifth pressing member 522 to press the heat sink body, and the protrusion in front of the fifth pressing member 522 causes the Mylar tape 210 to be pressed and inclined at a certain angle. The fifth pushing cylinder 517 acts to drive the fifth pushing member 519 to rise through the fifth pushing member mounting plate 518 and push against the junction of the heat sink and the Mylar tape 210. The fifth cylinder 512 acts to drive the fifth feeding member 515 to advance through the fifth slide rail mounting plate 513, so that the inclined Mylar tape 210 is bent and attached to the heat sink. The height of the fifth feeding member 515 can be adjusted through the fifth slide rail 514 to better attach to the Mylar tape 210. The front-end folding Mylar tape mechanism 5 returns to the initial state. The reducer 1b3 drives the heat sink carrier 71 to rotate to the wheat Mylar attaching mechanism station through the annular turntable 1b4. The sixth pressing cylinder 64 acts to drive the sixth pressing member connecting plate 65 to press the heat sink body. The square hole on the sixth pressing member 66 on the sixth pressing member connecting plate 65 is closely attached to the upper surface of the Mylar tape 210. The seventh pushing cylinder 68 acts to drive the sixth pushing member 69 to rise and closely attach to the lower surface of the Mylar tape 210. The wheat Mylar feeding feeder 61 supplies wheat Mylar sheets. The wheat Mylar sheet manipulator sucks the wheat Mylar sheet and passes through the square hole of the sixth pressing member 66 and attaches it to the Mylar tape 210. The wheat Mylar attaching mechanism 6 returns to the initial state. The wheat Mylar sheet manipulator sucks the heat sink onto the large Mylar sheet on the large Mylar sheet carrier 72. The reducer 1b3 drives the heat sink carrier 71 to rotate to the wheat Mylar pressing mechanism station through the annular turntable 1b4. The eighth ejecting cylinder mounting plate 8a6 acts to drive the eighth ejecting member 8a8 to lift the lower surface of the wheat Mylar sheet. The eighth cylinder 8a3 acts to drive the eighth pressing member 8a5 to press the heat sink and the large Mylar sheet through the eighth pressing member connecting plate 8a4. The annular pipeline 1c1 drives the large Mylar sheet carrier 72 to flow into the large Mylar head folding mechanism station. The ninth pressing cylinder 8b3 drives the ninth mounting plate 8b5 to move downward through the ninth pressing cylinder connecting member 8b4. The ninth mounting plate 8b5 drives the ninth pressing plate 8b8 to move downward through the ninth pressing plate connecting member 8b7 to press the heat sink and the large Mylar sheet. The ninth pressing cylinder 8b3 drives the ninth mounting plate 8b5 to move downward through the ninth pressing cylinder connecting member 8b4. The ninth pressing plate 8b8 has already pressed the heat sink and the large Mylar sheet and cannot move downward. The ninth mounting plate 8b5 will rotate around the upper end of the ninth pressing plate connecting member 8b7 under the downward pressure of the ninth pressing cylinder connecting member 8b4, thus tilting. The ninth mounting plate 8b5 drives the ninth bending plate 8b6 perpendicular to the lower surface of the ninth mounting plate 8b5 to tilt and bend the heat sink with the wheat Mylar sheet attached. The annular pipeline 1c1 drives the large Mylar sheet carrier 72 to flow into the heat sink folding and blanking mechanism station.The tenth pushing cylinder 92 operates to drive the tenth pushing member 93 to rise, and the tenth pressing cylinder 94 operates to drive the U-shaped member 95 to descend. The tenth pushing member 93 passes through the square hole on the barley pull tab carrier 72 to push the fitted heat sink and barley pull tab into the inverted U-shaped member of the U-shaped member 95 for bending. The tenth suction nozzle 98 sucks the bent heat sink and barley pull tab, and the tenth X-axis module 96 moves to drive the tenth suction nozzle 98 to move above the material box 1e through the tenth suction nozzle connecting member 97. The tenth suction nozzle 98 releases the formed heat sink and barley pull tab, causing them to fall into the material box 1e.,

[0076] The above are only embodiments of the present invention, and do not limit the patent scope of the present invention. Any equivalent structure or equivalent process transformation made by using the content of the specification and drawings of the present invention, or directly or indirectly applied in other related technical fields, shall be equally included in the patent protection scope of the present invention.,

Claims

1. A charger mylar sheet bending device, comprising a first frame (1a1), a first tabletop (1b1), a circular pipeline (1c1), a first housing (1d1), a material box (1e), a second frame (1a2), a second tabletop (1b2), and a second housing (1d2), characterized in that: The upper surface of the first frame (1a1) is equipped with a first tabletop (1b1). The upper surface of the first tabletop (1b1) is equipped with a ring-shaped assembly line (1c1). A barley pull-tab carrier (72) is installed on the ring-shaped assembly line (1c1). A square hole is opened in the center of the barley pull-tab carrier (72). The upper surface of the first tabletop (1b1) is equipped with a first housing (1d1). The second frame (1a2) is provided on the right side of the first frame (1a1). The upper surface of the second frame (1a2) is equipped with a second tabletop (1b2). The upper surface of the second tabletop (1b2) is equipped with a second housing (1d2). A material box (1e) is provided at the adjacent position of the first frame (1a1) and the second frame (1a2). A hole is opened in the center of the upper surface of the second tabletop (1b2). A speed reducer (1b3) is installed on the upper surface of the second tabletop (1b2) through the hole of the second tabletop (1b2). A ring-shaped turntable (1b4) is installed on the speed reducer (1b3). An installation table (1b5) is installed on the outer shell of the speed reducer (1b3) through the ring-shaped turntable (1b4). Eight pairs of heat sink carriers (71) are installed on the ring-shaped turntable (1b4) at equal intervals in a ring shape. A heat sink feeding mechanism (1), a tape sticking mechanism (2), a mechanism for folding both sides of the tape (3), a mechanism for tightening both sides of the tape (4), a mechanism for folding the front end of the tape (5), a mechanism for sticking a small wheat pull (6), a mechanism for pressing the small wheat pull (8a), and a mechanism for folding the head of the barley pull (8b) are respectively provided on the second tabletop (1b2) around the ring-shaped turntable (1b4). A manipulator is respectively provided on the second tabletop (1b2) on the left side of the heat sink feeding mechanism (1) and the mechanism for folding the front end of the tape (5). A mechanism for pressing the small wheat pull (8a) is installed on the second tabletop (1b2) on the right side at the junction of the first tabletop (1b1) and the second tabletop (1b2), and a mechanism for folding the head of the barley pull (8b) is provided on the left side. The mechanism for pressing the small wheat pull (8a) and the mechanism for folding the head of the barley pull (8b) straddle above one side of the ring-shaped assembly line (1c1). A mechanism for folding and discharging the heat sink (9) is provided on the first tabletop (1b1) on the left side of the mechanism for folding the head of the barley pull (8b); The Mara tape applying mechanism (2) comprises two tape dispensers (211), the two tape dispensers (211) being mounted on a second table (1b2) relative to each other, a leveling cylinder (212) being mounted between the two tape dispensers (211), a supporting plate (213) being mounted on the leveling cylinder (212), the other end of the supporting plate (213) being located below the Mara tape (210) turned out by the two tape dispensers (211), a second XY axis module mounting frame (214a) being mounted on the second table (1b2), a second XY axis module (214b) being mounted on the second XY axis module mounting frame (214a), a second clamping claw cylinder mounting plate (214c) being mounted on the second XY axis module (214b), a second clamping claw cylinder (215) being mounted on the second clamping claw cylinder mounting plate (214c), and the second table (1b2) A second jacking cylinder mounting plate (216) is mounted on the top, a second jacking cylinder (217) is mounted on the second jacking cylinder mounting plate (216), two second jacking cylinder heads (218) are mounted on both ends of the upper surface of the second jacking cylinder (217), two pushing cylinder mounting plates (219) are mounted on the mounting platform (1b5), a pushing cylinder mounting plate (220) is mounted on the other end side wall of the two pushing cylinder mounting plates (219), a pushing cylinder (221) is mounted on the pushing cylinder mounting plate (220), a pushing piece (222) is mounted on the extended end face of the pushing cylinder (221), a pressing cylinder (223) is mounted on the pushing cylinder mounting plate (220) between the two pushing cylinder mounting plates (219), a U-shaped pressing piece (224) is mounted on the extended end face of the pressing cylinder (223); The folding Mara tape two-side mechanism (3) comprises a third mounting frame (31), the third mounting frame (31) is mounted on the second table surface (1b2), a third pressing cylinder (32) is mounted on the upper end of the third mounting frame (31), a third clamping jaw mounting plate (33) is vertically mounted on the surface of the third pressing jaw cylinder (32), a third clamping jaw cylinder (34) is mounted on the lower surface of the third clamping jaw mounting plate (33), a third pushing member (37) is arranged under the third clamping jaw cylinder (34), a third pushing member (37) is mounted on the third pushing member (37), and the third pushing cylinder (36) is mounted on the upper surface of the second table surface (1b2) via a third pushing cylinder mounting plate (35); The mechanism (4) for tightening both sides of the Marla tape includes a fourth motor mounting plate (41), which is vertically mounted on the upper surface of the second tabletop (1b2). A fourth motor (42a) is mounted on the side of the fourth motor mounting plate (41). A fourth slide rail (43) is mounted on the upper surface of the fourth motor mounting plate (41). A fourth jaw cylinder mounting plate (44) is mounted on the fourth slide rail (43). A fourth gear (42b) is mounted on the side wall of the fourth jaw cylinder mounting plate (44). The gear on the fourth motor (42a) meshes with the fourth gear (42b) on the fourth jaw cylinder mounting plate (44). A fourth jaw cylinder (45) is mounted on the surface of the fourth jaw cylinder mounting plate (44). A fourth pressing cylinder mounting plate (46) is mounted on the mounting table (1b5). A fourth pressing cylinder (47) is mounted on the fourth pressing cylinder mounting plate (46). A fourth pressing member (48) is mounted on the extending end of the fourth pressing cylinder (47); The mechanism (5) for folding the front end of the Marla tape includes a fifth cylinder mounting plate (511), which is mounted on the upper surface of the second tabletop (1b2). A fifth cylinder (512) is mounted on the upper side wall of the fifth cylinder mounting plate (511). A fifth slide rail mounting plate (513) is mounted on the fifth cylinder (512). A fifth slide rail (514) is mounted on the fifth slide rail mounting plate (513). A fifth feeding member (515) is vertically mounted on the side wall surface of the fifth slide rail (514). A fifth pushing cylinder mounting plate (516) is vertically mounted on the second tabletop (1b2). The fifth pushing cylinder mounting plate (516) is located below the fifth slide rail mounting plate (513). A fifth pushing cylinder (517) is mounted on the side wall of the fifth pushing cylinder mounting plate (516). A fifth pushing member mounting plate (518) is mounted on the fifth pushing cylinder (517). Two fifth pushing members (519) are vertically mounted at both ends of the upper surface of the fifth pushing member mounting plate (518). A fifth pressing-down cylinder mounting plate (520) is mounted on the mounting table (1b5). A fifth pressing-down cylinder (521) is mounted on the fifth pressing-down cylinder mounting plate (520). A fifth pressing-down member (522) is mounted on the extending end of the fifth pressing-down cylinder (521). The two fifth pushing members (519) are located below the fifth pressing-down member (522); The folding heat sink blanking mechanism (9) includes a tenth push cylinder mounting frame (91), which is vertically installed on the upper surface of the second tabletop (1b2). A tenth push cylinder (92) is installed in the middle of the side wall of the tenth push cylinder mounting frame (91). A tenth push member (93) is installed at the extending end of the tenth push cylinder (92). A tenth pressing cylinder (94) is installed at the upper part of the side wall of the tenth push cylinder mounting frame (91). A U-shaped member (95) is installed at the lower end of the tenth pressing cylinder (94). A ninth bracket (99) is installed on the upper surface of the second tabletop (1b2) on the right side of the tenth push cylinder mounting frame (91). A tenth X-axis module (96) is installed on the side wall of the upper end of the ninth bracket (99). The tenth X-axis module (96) is connected to a tenth suction nozzle (98) through a tenth suction nozzle connecting member (97).

2. The bending device for a charger mylar sheet according to claim 1, characterized in that: The heat sink feeding mechanism (1) includes a first linear slide mounting plate (111). The heat sink feeding mechanism (1) is vertically mounted on the hole side wall of the second table surface (1b2). On the other surface of the first linear slide mounting plate (111), a first linear slide (112) is mounted. On the first linear slide (112), a second linear slide connecting plate (113) is mounted. On the second linear slide connecting plate (113), a second linear slide mounting plate (114) is mounted in a direction at a 45° angle to the horizontal plane. In the same direction as the second linear slide mounting plate (114), a second linear slide (115) is mounted. On the second linear slide (115), two material supporting blocks (116) are mounted. On the second linear slide mounting plate (114), a first material bin mounting plate (118) is vertically mounted. On the upper surface of the first material bin mounting plate (118), a second material bin mounting plate (119) is provided. On the upper surface of the second material bin mounting plate (119), a material bin (117a) composed of three equidistant thin plates is vertically mounted. On the side walls of the three material bins (117a), two material bin sealing plates (117b) with two parallel grooves are respectively mounted. The material supporting blocks (116) pass through the gaps between the three material bins (117a) and stop at the grooves on the material bin sealing plates (117b). On the first material bin mounting plate (118), two L-shaped material bin fasteners (120) are mounted. The second material bin mounting plate (119) is slidably inserted into the gap between the material bin fasteners (120) and the first material bin mounting plate (118). On the first material bin mounting plate (118) and the second material bin mounting plate (119), two symmetric threaded holes are opened, and two knob plungers (121) are threadedly connected to the threaded holes. On the first linear slide mounting plate (111), a first positioning mounting plate (124) is mounted. On the side wall of the first positioning mounting plate (124), a second positioning mounting plate (125) is vertically mounted. At a corner of the second positioning mounting plate (125), a positioning cylinder (126) is mounted. On the positioning cylinder (126), a positioning connecting plate (127) is mounted. On the upper surface of the positioning connecting plate (127), two parallel L-shaped positioning blocks (128) are vertically mounted. On the second positioning mounting plate (125), a square hole is opened. The positioning blocks (128) pass through the square hole on the second positioning mounting plate (125). On the upper surface of the second positioning mounting plate (125), four positioning blocks (129) are mounted, and two of the positioning blocks (129) are combined into an L shape.

3. The bending device for charger mylar sheet according to claim 1, characterized in that: The described wheat pulling mechanism (6) includes a wheat pulling feeding feeder (61). The wheat pulling feeding feeder (61) is installed on the upper surface of the second tabletop (1b2). A sixth pushing cylinder (67) is vertically installed on the upper surface of the second tabletop (1b2). A seventh pushing cylinder (68) is installed on the side wall of the sixth pushing cylinder (67). A sixth pushing member (69) is installed at the extending end of the seventh pushing cylinder (68). Two sixth downward pressing cylinder mounting plates (62) are installed on the mounting table (1b5). A sixth downward pressing cylinder connecting plate (63) is installed on the side walls of the two sixth downward pressing cylinder mounting plates (62). A sixth downward pressing cylinder (64) is installed on the surface of the sixth downward pressing cylinder connecting plate (63). An L-shaped sixth downward pressing member connecting plate (65) is installed on the sixth downward pressing cylinder (64). A sixth downward pressing member (66) is installed on the lower surface of the sixth downward pressing member connecting plate (65). A square hole is formed at the other end of the sixth downward pressing member (66). A sixth pushing cylinder (67) is installed on the second tabletop (1b2). The sixth pushing member (69) is located below the square hole of the sixth downward pressing member (66).

4. A charger mylar sheet bending device according to claim 1, characterized in that: The wheat pressing mechanism (8a) includes two identical eighth cylinder mounting brackets (8a1). The two eighth cylinder mounting brackets (8a1) are vertically mounted on the upper surface of the second tabletop (1b2). The side wall of the eighth cylinder mounting bracket (8a1) is mounted with an eighth cylinder (8a3). The middle surface of the eighth cylinder (8a3) is mounted with an eighth cylinder (8a3). An eighth downward pressing part connecting plate (8a4) is mounted on the eighth cylinder (8a3). A U-shaped eighth downward pressing part (8a5) is mounted on the lower surface of the eighth downward pressing part connecting plate (8a4). An eighth ejecting cylinder mounting plate (8a6) is mounted on the upper edge surface of the second tabletop (1b2). The side wall of the eighth ejecting cylinder mounting plate (8a6) is mounted with an eighth ejecting cylinder (8a7). An eighth ejecting part (8a8) is mounted on the extending end of the eighth ejecting cylinder (8a7). The barley folding head mechanism (8b) includes a ninth mounting bracket (8b1). There are two ninth mounting brackets (8b1). The two ninth mounting brackets (8b1) are mounted on the upper surface of the second tabletop (1b2). A ninth downward pressing cylinder mounting plate (8b2) is mounted on the upper ends of the two ninth mounting brackets (8b1). A ninth downward pressing cylinder (8b3) is mounted in the middle of the lower surface of the ninth downward pressing cylinder mounting plate (8b2) between the two ninth mounting brackets (8b1). A ninth downward pressing cylinder connecting part (8b4) is mounted on the extending end of the ninth downward pressing cylinder (8b3). The ninth downward pressing cylinder connecting part (8b4) is slidably connected in the groove on the upper surface of the ninth mounting plate (8b5). Two ninth bending plates (8b6) are vertically mounted on the lower surface of the left end of the ninth mounting plate (8b5). The lower ends of the ninth bending plates (8b6) are arc-shaped. Two ninth pressing plate connecting parts (8b7) are vertically rotatably connected to the lower surface of the right end of the ninth mounting plate (8b5). Each lower end of the ninth pressing plate connecting part (8b7) is vertically rotatably connected to a ninth pressing plate (8b8).

Images