New energy storage stamping gasket stress dispersion structure

Abstract

The invention discloses a new energy storage stamping gasket stress dispersion structure, and relates to the technical field of new energy storage, the new energy storage stamping gasket stress dispersion structure comprises a gasket body, a dispersion mechanism and a stamping mechanism used for stamping gasket machining, the dispersion mechanism comprises a buffer pad and a first spacer, and a reinforcing rib block is connected to the interior of each arc-shaped groove in the bottom of the buffer pad in an adhesive mode; a reinforcing rib net is fixed to the top of the first partition piece, a second partition piece is fixed to the top of the reinforcing rib net, and rectangular holes, first round holes and second round holes are formed in the groove in the top of the buffer cushion, the top of the first partition piece and the top of the second partition piece. According to the stamping gasket, by arranging the dispersing mechanism, the stress dispersing capacity of the stamping gasket can be improved, that is, the situation that when the stamping gasket is subjected to external pressure, stress cannot be evenly distributed on the whole surface of the stamping gasket is avoided, and then it is guaranteed that the stamping gasket is not deformed or even broken when being stressed.

Description

Technical Field

[0001] The present invention relates to the technical field of new energy storage technology, in particular to a new energy storage stamping gasket stress dispersion structure. Background Art

[0002] New energy storage refers to the technology and process of storing electrical energy generated by new energy. In new energy storage systems, batteries are the most common energy storage devices. When reliable connections between battery modules are required to ensure effective transmission of electrical energy, staff generally use stamped gaskets at the connection points between battery modules or between batteries and connectors.

[0003] In the existing technology, the existing new energy storage stamped gaskets can ensure a reliable connection between two battery modules or between the battery and the connector during actual use, ensuring the effective transmission of electric energy, but their stress dispersion effect is poor. When the stamped gasket is subjected to external pressure, the stamped gasket with poor stress dispersion effect cannot distribute the stress evenly over the entire surface of the stamped gasket, which will cause the local area of ​​the stamped gasket to bear excessive stress, resulting in deformation or even rupture.

[0004] Therefore, we propose a new energy storage stamping gasket stress dispersion structure to solve the problems raised in the above background technology. Summary of the invention

[0005] The purpose of the present invention is to provide a new energy energy storage stamping gasket stress dispersion structure to solve the problem that the stress dispersion effect of the existing new energy energy storage stamping gasket is poor. When the stamping gasket is subjected to external pressure, the stamping gasket cannot distribute the stress evenly on the entire surface of the stamping gasket, which will cause the local area of ​​the stamping gasket to bear excessive stress, resulting in deformation or even rupture.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: A new energy storage stamping gasket stress dispersion structure, comprising a gasket body, a dispersion mechanism and a stamping mechanism for stamping gasket processing, wherein the stamping mechanism comprises a box body;

[0007] The dispersion mechanism comprises a buffer pad and a first spacer, each arc-shaped groove at the bottom of the buffer pad is bonded with a reinforcing rib block, a reinforcing rib net is fixed on the top of the first spacer, a second spacer is fixed on the top of the reinforcing rib net, and a rectangular hole, a first circular hole and a second circular hole are opened at the top groove of the buffer pad, the top of the first spacer and the top of the second spacer; by setting the dispersion mechanism, the stress dispersion ability of the stamped gasket can be improved, that is, when the stamped gasket is subjected to external pressure, the stress cannot be evenly distributed on the entire surface of the stamped gasket, thereby ensuring that the stamped gasket will not be deformed or even broken when subjected to force, When the pressure generated by the expansion of the battery is applied to the stamped gasket, the buffer pad is first used to absorb part of the stress and convert it into elastic potential energy, that is, it is preliminarily treated, and then the stress is diffused from the concentrated area to the surrounding area by using the cooperation of multiple reinforcing rib blocks, that is, it is further treated, and then the first spacer, the second spacer, the rectangular hole, the first circular hole, the second circular hole and the reinforcing rib mesh are used to cooperate to process it again, that is, by using multiple treatments, the stress can be evenly dispersed, thereby effectively preventing the stamped gasket from cracking or excessive deformation.

[0008] Preferably, the bottoms of the plurality of reinforcing rib blocks and the bottom of the buffer pad are in the same horizontal plane, the bottom of the first spacer and the top of the gasket body are fixed, and the bottoms of the plurality of reinforcing rib blocks are fixed to the top of the second spacer.

[0009] Preferably, one of the circular holes on the gasket body is connected to the interiors of the multiple first circular holes, another circular hole on the gasket body is connected to the interiors of the multiple second circular holes, and the square hole on the gasket body is connected to the interiors of the multiple rectangular holes.

[0010] Preferably, a controller is installed on one side of the box body, a bottom plate is fixed on the top of the box body, limiting rods are fixed inside the four through holes on the top of the bottom plate, a movable plate is slidably connected between the insides of the four limiting rods, and a top plate is fixed between the outer surfaces of the four limiting rods near the top position.

[0011] Preferably, an electric cylinder is installed on the top plate, the telescopic end of the electric cylinder is installed on the top of the movable plate, an upper mold is installed on the bottom of the movable plate, a rectangular block is fixed on the top of the bottom plate, and a lower mold is installed on the top of the rectangular block.

[0012] Preferably, the top of the rectangular block and the top of the bottom plate are both provided with feeding holes, the interiors of the two feeding holes are connected, and the entrance of one of the feeding holes is located at the waste material discharge port of the lower mold; by setting up a stamping mechanism, the required gasket body can be produced, and when the gasket body needs to be produced, the metal sheet used to make the gasket body can be quickly positioned on the lower mold by first utilizing the cooperation of the top groove of the lower mold, and then the metal sheet can be punched by utilizing the cooperation of the controller, electric cylinder, bottom plate, top plate, four limit rods, upper mold, lower mold and movable plate, and then the upper mold can be reset to its initial position by utilizing the cooperation of the controller, electric cylinder, bottom plate, top plate, four limit rods and movable plate, and then the stamped gasket can be taken out from the top groove of the lower mold.

[0013] Preferably, a sorting mechanism is provided on the stamping mechanism, and the sorting mechanism includes a conveyor and a mounting hole, the bottom of the conveyor and the bottom of the inner wall of the mounting hole are fixed to each other, two rectangular tubes and a guide block are provided on the top of the conveyor belt of the conveyor, and the bottom of the two rectangular tubes and the bottom of the guide block are both at a distance from the top of the conveyor belt of the conveyor.

[0014] Preferably, the two rectangular tubes and the guide blocks are movably sleeved between the insides of the two discharge holes, the tops of the two rectangular tubes and the tops of the guide blocks are bonded to the bottom of the lower mold, two symmetrical baffles are fixed to the top of the conveyor, the tops of the two baffles are in contact with the tops of the inner walls of the mounting holes, and three perforated plates are fixed to the top of the conveyor, and a mounting frame is fixed to the surface of each perforated plate.

[0015] Preferably, each of the mounting frames is mounted with a sensor, the detection head surface of each sensor is in contact with the top of the conveyor, the mounting hole is opened on the inner wall of the box, three stabilizing frames are mounted on the surface of the conveyor, and each of the perforated plates is mounted with an electric push rod, and the fixed end surface of each electric push rod is in contact with the top of each stabilizing frame respectively.

[0016] Preferably, a U-shaped block is installed at the telescopic end of each electric push rod, and the bottom of each U-shaped block contacts the top of the conveyor belt of the conveyor. A mounting block is installed on the other side of the box body, and a guide tube is fixed on the surface of each mounting block. A shunt block is fixed between the tops of the three guide tubes, and the bottom of the inlet of the shunt block and the top of the conveyor are on the same horizontal plane. By setting a sorting mechanism, the three wastes punched from the metal sheet can be sorted and transported to different places. When the metal sheet completes the punching operation, First, by using the cooperation of two rectangular tubes, two baffles and guide blocks, the three wastes can be accurately transported to the conveyor belt surface of the conveyor. Then, by using the cooperation of the conveyor and the controller, the three wastes can be moved synchronously. Then, by using the cooperation of the controller, the stabilizer, the perforated plate, the sensor, the mounting frame, the electric push rod, the U-shaped block and the three distance thresholds set in advance by the controller, the three wastes can be respectively transported to the three material holes of the diversion block. Then, by using the cooperation of the three guide pipes, the corresponding waste can be diverted away.

[0017] Compared with the prior art, the present invention has the following beneficial effects:

[0018] 1. The present invention can improve the stress dispersion ability of the stamped gasket by setting a dispersion mechanism, that is, the situation that the stress of the stamped gasket cannot be evenly distributed on the entire surface of the stamped gasket when the stamped gasket is subjected to external pressure will not occur, thereby ensuring that the stamped gasket will not be deformed or even broken when subjected to force. When the pressure generated by the expansion of the battery is applied to the stamped gasket, the buffer pad is first used to absorb a part of the stress and convert it into elastic potential energy, that is, it is preliminarily treated, and then the cooperation of multiple reinforcing rib blocks is used to diffuse the stress from the concentrated application area to the surrounding area, that is, it is further treated, and then the first spacer, the second spacer, the rectangular hole, the first circular hole, the second circular hole and the reinforcing rib net are used to cooperate to achieve the processing again, that is, the multiple treatment method can be used to evenly disperse the stress, thereby effectively preventing the stamped gasket from breaking or excessive deformation.

[0019] 2. The present invention can produce the required gasket body by setting up a stamping mechanism. When the gasket body needs to be produced, the metal sheet used to make the gasket body can be quickly positioned on the lower mold by first utilizing the cooperation of the top groove of the lower mold, and then the metal sheet can be punched by utilizing the cooperation of the controller, electric cylinder, bottom plate, top plate, four limit rods, upper mold, lower mold and movable plate. Then the upper mold can be reset to its initial position by utilizing the cooperation of the controller, electric cylinder, bottom plate, top plate, four limit rods and movable plate, and then the stamped gasket can be taken out from the top groove of the lower mold.

[0020] 3. The present invention, by setting up a sorting mechanism, can sort and transport the three waste materials punched from the metal sheet to different places. When the metal sheet completes the punching operation, the three waste materials can be accurately transported to the conveyor belt surface of the conveyor by first utilizing the cooperation of two rectangular tubes, two baffles and a guide block. Then, the three waste materials can be moved synchronously by utilizing the cooperation of the conveyor and the controller. Then, the three waste materials can be transported to the three material holes of the diversion block respectively by utilizing the cooperation of the controller, the stabilizing frame, the perforated plate, the sensor, the mounting frame, the electric push rod, the U-shaped block and the three distance thresholds pre-set by the controller. Then, the three waste materials can be diverted away by utilizing the cooperation of the three guide pipes. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a three-dimensional structural schematic diagram of a gasket body and a dispersion mechanism of a new energy storage stamping gasket stress dispersion structure of the present invention;

[0022] Figure 2 A new energy storage stamping gasket stress dispersion structure of the present invention Figure 1 The enlarged stereogram at A in the middle;

[0023] Figure 3 It is a schematic diagram of the three-dimensional structure of a gasket body, a first spacer, a reinforcing rib net, a rectangular hole, a first circular hole and a second circular hole of a new energy storage stamping gasket stress dispersion structure of the present invention;

[0024] Figure 4 It is a three-dimensional structural schematic diagram of a stamping mechanism and a sorting mechanism of a new energy storage stamping gasket stress dispersion structure of the present invention;

[0025] Figure 5 It is a partial cross-sectional structural schematic diagram of a stamping mechanism and a sorting mechanism of a new energy storage stamping gasket stress dispersion structure of the present invention;

[0026] Figure 6 It is a schematic diagram of the three-dimensional structure of a stamping mechanism and a sorting mechanism of a new energy storage stamping gasket stress dispersion structure according to the present invention, viewed from above;

[0027] Figure 7 It is a schematic diagram of a partial cross-sectional structure of a stamping mechanism and a sorting mechanism of a new energy storage stamping gasket stress dispersion structure according to the present invention, viewed from a front angle;

[0028] Figure 8 It is a sectional stereoscopic diagram of a guide block in a sorting mechanism of a new energy storage stamping gasket stress dispersion structure of the present invention;

[0029] Fig. 9 A three-dimensional diagram of a shunt block in a sorting mechanism of a new energy storage stamping gasket stress dispersion structure of the present invention;

[0030] Fig.10 It is a three-dimensional structural schematic diagram of a bottom plate, a rectangular block and a blanking hole in a stamping mechanism of a new energy storage stamping gasket stress dispersion structure of the present invention;

[0031] Fig.11 It is a schematic diagram of a partial cross-sectional structure of a stamping mechanism and a sorting mechanism of a new energy storage stamping gasket stress dispersion structure according to the present invention, viewed from a side angle;

[0032] Fig.12 It is a partial three-dimensional diagram of a sorting mechanism of a new energy storage stamping gasket stress dispersion structure of the present invention;

[0033] Fig.13 A new energy storage stamping gasket stress dispersion structure of the present invention Fig.12 Enlarged stereogram of point B in the middle.

[0034] In the figure: 1, gasket body; 2, dispersion mechanism; 201, buffer pad; 202, reinforcing rib block; 203, first spacer; 204, reinforcing rib net; 205, second spacer; 206, rectangular hole; 207, first circular hole; 208, second circular hole; 3, stamping mechanism; 301, box; 302, controller; 303, bottom plate; 304, limit rod; 305, moving plate; 306, electric cylinder; 307, upper mold; 3 08, rectangular block; 309, lower mold; 310, discharge hole; 311, top plate; 4, sorting mechanism; 401, conveyor; 402, guide block; 403, baffle; 404, rectangular tube; 405, perforated plate; 406, mounting frame; 407, sensor; 408, stabilizing frame; 409, electric push rod; 410, U-shaped block; 411, diverter block; 412, mounting block; 413, guide tube; 414, mounting hole. DETAILED DESCRIPTION

[0035] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0036] Example 1: Please refer to Figure 1-Figure 7 and Fig.11 As shown, the present invention provides a technical solution: a new energy storage stamping gasket stress dispersion structure, including a gasket body 1, a dispersion mechanism 2 and a stamping mechanism 3 for stamping gasket processing, the stamping mechanism 3 includes a box 301;

[0037] The dispersion mechanism 2 includes a buffer pad 201 and a first spacer 203. A reinforcing rib block 202 is bonded inside each arc groove at the bottom of the buffer pad 201. A reinforcing rib net 204 is fixed on the top of the first spacer 203. A second spacer 205 is fixed on the top of the reinforcing rib net 204. A rectangular hole 206, a first circular hole 207 and a second circular hole 208 are opened at the top groove of the buffer pad 201, the top of the first spacer 203 and the top of the second spacer 205. The plurality of reinforcing rib blocks 20 2 and the bottom of the buffer pad 201 are in the same horizontal plane, the bottom of the first spacer 203 and the top of the gasket body 1 are fixed, the bottoms of the multiple reinforcing rib blocks 202 are fixed to the top of the second spacer 205, one of the circular holes on the gasket body 1 is connected to the inside of the multiple first circular holes 207, another circular hole on the gasket body 1 is connected to the inside of the multiple second circular holes 208, and the square hole on the gasket body 1 is connected to the inside of the multiple rectangular holes 206.

[0038] In this embodiment, when a stamped gasket is needed, a new stamped gasket consisting of a gasket body 1 and a dispersion mechanism 2 is directly installed between two battery modules or between a battery and a connector using a tool. When the pressure generated by battery expansion is applied to the stamped gasket, the portion of the buffer pad 201 on the stamped gasket that first contacts the stress will deform according to its own elastic modulus and geometric shape. This deformation process will absorb a portion of the stress and convert it into elastic potential energy, that is, it is preliminarily processed. Subsequently, under the action of multiple reinforcing rib blocks 202, the stress can be diffused from the concentrated application area to the surrounding area, that is, it is further processed. Then, through the cooperation of the first spacer 203, the second spacer 205, the rectangular hole 206, the first circular hole 207, the second circular hole 208 and the reinforcing rib mesh 204, it can be processed again, that is, the stress can be evenly dispersed by multiple processing methods, thereby effectively avoiding damage to the stamped gasket due to excessive local stress, such as rupture and excessive deformation.

[0039] Embodiment 2: According to Figure 1-Figure 7 and Figure 9-13As shown, the stamping mechanism 3 includes a box body 301, a controller 302 is installed on one side of the box body 301, a bottom plate 303 is fixed on the top of the box body 301, and the four through holes on the top of the bottom plate 303 are fixed with limit rods 304. A moving plate 305 is slidably connected between the insides of the four limit rods 304, and a top plate 311 is fixed between the outer surfaces of the four limit rods 304 near the top position. An electric cylinder 306 is installed on the top plate 311, and the telescopic end of the electric cylinder 306 is installed with the top of the moving plate 305. An upper mold 307 is installed at the bottom of the plate 305, a rectangular block 308 is fixed on the top of the bottom plate 303, a lower mold 309 is installed on the top of the rectangular block 308, and discharge holes 310 are opened at the top of the rectangular block 308 and the top of the bottom plate 303. The interiors of the two discharge holes 310 are connected, and the entrance of one of the discharge holes 310 is located at the waste discharge port of the lower mold 309. A sensor 407 is installed on each mounting frame 406, and a diverter block 411 is fixed between the top ends of the three guide pipes 413.

[0040] In this embodiment, when it is necessary to make the gasket body 1, the metal sheet (the raw material used to make the gasket body 1) is first placed in the top groove of the lower mold 309, and then the controller 302 is connected to the external power supply through the prepared power cord, and then the controller 302 is turned on, and the distance threshold (the distance between the laser emitting ends of the three sensors 407 and the inner wall of the shunt block 411) is set. After completing the setting operation, the electric cylinder 306 is directly started. At this time, the started electric cylinder 306 will directly drive the moving plate 305 to move vertically downward with the cooperation of the bottom plate 303, the top plate 311 and the four limit rods 304. When the upper die 307 is moved, the movable plate 305 moving vertically downward will directly drive the upper die 307 connected thereto to move. When the bottom of the punch of the upper die 307 contacts the top of the metal sheet and continues to move downward, the metal sheet can be punched with the cooperation of the upper die 307 and the lower die 309. When the metal sheet completes the punching operation, the controller 302 will drive the upper die 307 with the cooperation of the electric cylinder 306, the bottom plate 303, the top plate 311, the four limit rods 304 and the movable plate 305 until it is reset to the initial position, and then the obtained gasket body 1 can be removed from the top groove of the lower die 309.

[0041] Embodiment 3: According to Figure 4-Figure 13As shown, the stamping mechanism 3 is provided with a sorting mechanism 4, the stamping mechanism 3 includes a box body 301, a bottom plate 303 is fixed on the top of the box body 301, a rectangular block 308 is fixed on the top of the bottom plate 303, a lower mold 309 is installed on the top of the rectangular block 308, and a feeding hole 310 is opened on the top of the rectangular block 308 and the top of the bottom plate 303. The sorting mechanism 4 includes a conveyor 401 and a mounting hole 414. The bottom of the conveyor 401 is fixed to the bottom of the inner wall of the mounting hole 414, and the top of the conveyor belt of the conveyor 401 Two rectangular tubes 404 and guide blocks 402 are provided, and the bottoms of the two rectangular tubes 404 and the bottoms of the guide blocks 402 are both at a distance from the top of the conveyor belt of the conveyor 401. The two rectangular tubes 404 and the guide blocks 402 are movably sleeved between the insides of the two feeding holes 310. The tops of the two rectangular tubes 404 and the tops of the guide blocks 402 are both bonded to the bottom of the lower mold 309. Two symmetrical baffles 403 are fixed to the top of the conveyor 401. The tops of the two baffles 403 are both aligned with the mounting holes 410. 4, three perforated plates 405 are fixed on the top of the conveyor 401, a mounting frame 406 is fixed on the surface of each perforated plate 405, a sensor 407 is installed on each mounting frame 406, and the detection head surface of each sensor 407 is in contact with the top of the conveyor 401, the mounting hole 414 is opened on the inner wall of the box body 301, three stabilizing frames 408 are installed on the surface of the conveyor 401, and an electric push rod 409 is installed on each perforated plate 405. The fixed end surface is in contact with the top of each stabilizing frame 408 respectively, and the telescopic end of each electric push rod 409 is installed with a U-shaped block 410. The bottom of each U-shaped block 410 is in contact with the top of the conveyor belt of the conveyor 401. A mounting block 412 is installed on the other side of the box body 301. A guide pipe 413 is fixed on the surface of each mounting block 412. A diverter block 411 is fixed between the top ends of the three guide pipes 413. The bottom of the inlet of the diverter block 411 and the top of the conveyor 401 are on the same horizontal plane.

[0042] In this embodiment, when the metal sheet completes the punching operation, the waste punched from the metal sheet will be transported to the inside of the two rectangular tubes 404 and the inside of the guide block 402 respectively, and then directly and accurately transported to the surface of the conveyor belt on the conveyor 401 through the cooperation of the two rectangular tubes 404, the guide block 402 and the two baffles 403. Then, the conveyor 401 is started by the controller 302, so that the conveyor belt drives the three wastes thereon to move at the same time. When the distance data monitored by the first sensor 407 (laser ranging sensor) is lower than the distance threshold set in advance by the controller 302, it means that the waste in the front has reached a pushable position. At this time, the controller 302 will directly start the corresponding electric push rod 40 9, the subsequently activated electric push rod 409 will directly push the frontmost waste material that has reached the pushable position into one of the material holes of the diverter block 411 through the corresponding perforated plate 405, the corresponding stabilizing frame 408 and the U-shaped block 410 connected thereto, and then discharge it from the corresponding guide pipe 413. When the movable U-shaped block 410 moves to the inside of the diverter block 411, the controller 302 will pause the electric push rod 409. At the same time, a waste material in the middle will pass under the telescopic end of the previously activated electric push rod 409 and continue to move. When the distance data detected by the second sensor 407 (laser ranging sensor) is lower than the distance threshold value set in advance by the controller 302, it means that the waste material in the middle has reached the pushable position. When the moving U-shaped block 410 moves to the inside of the diverter block 411, the controller 302 will also pause the electric push rod 409. Similarly, the last waste will also pass through the telescopic bottom of the second electric push rod 409 started previously and continue to move. When the distance data detected by the third sensor 407 (laser ranging sensor) is greater than that of the controller 302, the controller 302 will also pause the electric push rod 409. Similarly, the last waste will also pass through the telescopic bottom of the second electric push rod 409 started previously and continue to move. When the distance threshold value pre-set by the controller 302 is low, it means that the last waste material has reached the pushable position. At this time, the controller 302 will directly start the corresponding electric push rod 409, and then the started electric push rod 409 will directly push the last waste material that has reached the pushable position into another material hole of the diverter block 411 through the corresponding perforated plate 405, the corresponding stabilizing frame 408 and the U-shaped block 410 connected thereto, and then discharge it from the corresponding guide pipe 413. When the moving U-shaped block 410 moves to the inside of the diverter block 411, the controller 302 will pause the electric push rod 409, and then start the three electric push rods 409 at the same time until the three U-shaped blocks 410 are synchronously reset to the initial position.

[0043] The effect and working principle of the whole mechanism are as follows: when a stamped gasket is needed, a new stamped gasket consisting of a gasket body 1 and a dispersion mechanism 2 is directly installed between two battery modules or between a battery and a connector using a tool. When the pressure generated by battery expansion is applied to the stamped gasket, the portion of the buffer pad 201 on the stamped gasket that first contacts the stress will deform according to its elastic modulus and geometric shape. This deformation process will absorb a portion of the stress and convert it into elastic potential energy, i.e., perform preliminary treatment on it. Subsequently, under the action of multiple reinforcing rib blocks 202, the stress can be diffused from the concentrated application area to the surrounding area, i.e., it can be further processed. Then, through the first spacer 203 and the second spacer 20 5. The cooperation of the rectangular hole 206, the first circular hole 207, the second circular hole 208 and the reinforcing rib net 204 can be processed again, that is, the stress can be evenly dispersed by using a multiple processing method. When the gasket body 1 needs to be made, the metal sheet (the raw material for making the gasket body 1) is first placed in the top groove of the lower mold 309, and then the controller 302 is connected to the external power supply through the prepared power cord, and then the controller 302 is turned on, and the distance threshold (the distance between the laser emitting ends of the three sensors 407 and the inner wall of the shunt block 411) is set. After completing the setting operation, the electric cylinder 306 is directly started. At this time, the started electric cylinder 306 will be between the bottom plate 303 and the top plate 311. With the cooperation of the four limit rods 304, the movable plate 305 is directly driven to move vertically downward, and the movable plate 305 moving vertically downward will directly drive the upper mold 307 connected thereto to move. When the bottom of the punch of the upper mold 307 contacts the top of the metal sheet and continues to move downward, the metal sheet can be punched with the cooperation of the upper mold 307 and the lower mold 309. When the metal sheet completes the punching operation, the controller 302 will drive the upper mold 307 with the cooperation of the electric cylinder 306, the bottom plate 303, the top plate 311, the four limit rods 304 and the movable plate 305 until it is reset to the initial position, and then the obtained gasket body 1 can be removed from the top groove of the lower mold 309. When the metal sheet completes the punching operation, the waste materials punched from the metal sheet will be transported to the inside of the two rectangular tubes 404 and the inside of the guide block 402 respectively, and then directly and accurately transported to the surface of the conveyor belt on the conveyor 401 through the cooperation of the two rectangular tubes 404, the guide block 402 and the two baffles 403. Then, the conveyor 401 is started by the controller 302, so that the conveyor belt drives the three waste materials thereon to move at the same time. When the distance data detected by the first sensor 407 (laser ranging sensor) is lower than the distance threshold value set in advance by the controller 302, it means that the waste material in the front has reached the pushable position. At this time, the controller 302 will directly start the corresponding electric push rod 409.The subsequently activated electric push rod 409 will directly push the frontmost waste material that has reached the pushable position into one of the material holes of the diverter block 411 through the corresponding perforated plate 405, the corresponding stabilizing frame 408 and the U-shaped block 410 connected thereto, and then discharge it from the corresponding guide pipe 413. When the movable U-shaped block 410 moves into the diverter block 411, the controller 302 will pause the electric push rod 409. At the same time, a waste material in the middle will pass under the telescopic end of the previously activated electric push rod 409 and continue to move. When the second U-shaped block 410 moves to the inside of the diverter block 411, the controller 302 will pause the electric push rod 409. When the distance data monitored by the sensor 407 (laser distance sensor) is lower than the distance threshold value set in advance by the controller 302, it means that the waste material in the middle has reached the pushable position. At this time, the controller 302 will directly start the corresponding electric push rod 409, and then the started electric push rod 409 will directly push the waste material in the middle that has reached the pushable position into the middle material hole of the diversion block 411 through the corresponding perforated plate 405, the corresponding stabilizing frame 408 and the U-shaped block 410 connected thereto, and then discharge it from the corresponding guide pipe 413. When the movable U-shaped block 410 moves to the inside of the diverter block 411, the controller 302 will also pause the electric push rod 409. Similarly, the last waste will also pass under the telescopic bottom of the second previously activated electric push rod 409 and continue to move. When the distance data detected by the third sensor 407 (laser ranging sensor) is lower than the distance threshold value set in advance by the controller 302, it means that the last waste has reached the pushable position. At this time, the controller 302 will directly start the corresponding electric push rod 409, and the subsequently activated electric push rod 409 will Directly through the corresponding perforated plate 405, the corresponding stabilizing frame 408 and the U-shaped block 410 connected thereto, the last waste material that reaches the pushable position is pushed into another material hole of the diverter block 411, and then discharged from the corresponding guide pipe 413. When the moving U-shaped block 410 moves into the diverter block 411, the controller 302 will pause the electric push rod 409, and then start the three electric push rods 409 at the same time until the three U-shaped blocks 410 are synchronously reset to the initial position, and the sorting operation of three different waste materials can be completed.

[0044] There are two round holes and one square hole on the gasket body 1 , and the gasket body 1 is obtained by punching a metal sheet, and the size of the metal sheet is the same as the size of the groove at the top of the lower mold 309 .

[0045] The electric cylinder 306 is electrically connected to the controller 302 , and each sensor 407 , the motor on the conveyor 401 , and each electric push rod 409 are electrically connected to the controller 302 .

[0046] Among them, Fig.12As shown, from right to left, the three sensors 407 are respectively the first sensor 407, the second sensor 407 and the third sensor 407, from left to right, the frontmost rectangular tube 404 is one of the rectangular tubes 404, the middle rectangular tube 404 is another rectangular tube 404, and finally the guide block 402, the diverter block 411 has three material holes, which are divided into one of the material holes, the middle material hole and the other material hole.

[0047] The conveyor 401 is composed of a U-shaped plate, an auxiliary rod, a transmission roller, a motor and a conveyor belt, and is mainly used for conveying objects. Two symmetrical baffles 403 are fixed on the top of the conveyor 401, which mainly means that the two baffles 403 are symmetrically fixed on the top of the U-shaped plate; three perforated plates 405 are fixed on the top of the conveyor 401, which mainly means that the three perforated plates 405 are fixed on the top of the U-shaped plate; the detection head surface of each sensor 407 is in contact with the top of the conveyor 401, which mainly means that the detection head surface of each sensor 407 is in contact with the top of the U-shaped plate; three stabilizing frames 408 are installed on the surface of the conveyor 401, which mainly means that the three stabilizing frames 408 are fixed on the U-shaped plate; the bottom of the inlet of the diverter block 411 and the top of the conveyor 401 are on the same horizontal plane, which mainly means that the bottom of the inlet of the diverter block 411 and the top of the U-shaped plate are on the same horizontal plane.

[0048] Among them, the controller 302 (PLC controller), electric cylinder 306, upper mold 307, lower mold 309, conveyor 401, sensor 407 and electric push rod 409 are all existing technologies, and their models can be selected according to actual conditions, and no further explanation is given here.

[0049] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A new energy storage stamping gasket stress dispersion structure, characterized by: It comprises a gasket body (1), a dispersion mechanism (2) and a punching mechanism (3) for punching the gasket, wherein the punching mechanism (3) comprises a box body (301); The dispersion mechanism (2) comprises a buffer pad (201) and a first spacer (203); each arc-shaped groove at the bottom of the buffer pad (201) is bonded with a reinforcing rib block (202); a reinforcing rib net (204) is fixed to the top of the first spacer (203); a second spacer (205) is fixed to the top of the reinforcing rib net (204); a rectangular hole (206), a first circular hole (207) and a second circular hole (208) are provided at the top groove of the buffer pad (201), the top of the first spacer (203) and the top of the second spacer (205).

2. The new energy storage stamping gasket stress dispersion structure according to claim 1 is characterized in that: The bottoms of the plurality of reinforcing rib blocks (202) and the bottom of the buffer pad (201) are in the same horizontal plane, the bottom of the first spacer (203) and the top of the gasket body (1) are fixed, and the bottoms of the plurality of reinforcing rib blocks (202) are all fixed to the top of the second spacer (205).

3. The new energy storage stamping gasket stress dispersion structure according to claim 1 is characterized in that: One of the circular holes on the gasket body (1) is connected to the interior of the plurality of first circular holes (207), another circular hole on the gasket body (1) is connected to the interior of the plurality of second circular holes (208), and the square hole on the gasket body (1) is connected to the interior of the plurality of rectangular holes (206).

4. The new energy storage stamping gasket stress dispersion structure according to claim 1 is characterized in that: A controller (302) is installed on one side of the box body (301); a bottom plate (303) is fixed on the top of the box body (301); limiting rods (304) are fixed inside four through holes at the top of the bottom plate (303); a moving plate (305) is slidably connected between the insides of the four limiting rods (304); and a top plate (311) is fixed between the outer surfaces of the four limiting rods (304) near the top positions.

5. The new energy storage stamping gasket stress dispersion structure according to claim 4 is characterized in that: An electric cylinder (306) is installed on the top plate (311), and the telescopic end of the electric cylinder (306) is installed on the top of the movable plate (305). An upper mold (307) is installed on the bottom of the movable plate (305). A rectangular block (308) is fixed on the top of the bottom plate (303), and a lower mold (309) is installed on the top of the rectangular block (308).

6. The new energy storage stamping gasket stress dispersion structure according to claim 5 is characterized in that: A feed hole (310) is provided on the top of the rectangular block (308) and the top of the bottom plate (303), and the interiors of the two feed holes (310) are connected, wherein the entrance of one of the feed holes (310) is located at the waste material discharge port of the lower mold (309).

7. The new energy storage stamping gasket stress dispersion structure according to claim 6 is characterized in that: The punching mechanism (3) is provided with a sorting mechanism (4), the sorting mechanism (4) comprising a conveyor (401) and a mounting hole (414), the bottom of the conveyor (401) and the bottom of the inner wall of the mounting hole (414) being fixed to each other, two rectangular tubes (404) and a guide block (402) being provided at the top of the conveyor belt of the conveyor (401), and the bottoms of the two rectangular tubes (404) and the bottom of the guide block (402) are both spaced apart from the top of the conveyor belt of the conveyor (401).

8. The new energy storage stamping gasket stress dispersion structure according to claim 7 is characterized in that: The two rectangular tubes (404) and the guide block (402) are movably sleeved between the insides of the two discharge holes (310), the tops of the two rectangular tubes (404) and the tops of the guide blocks (402) are bonded to the bottom of the lower mold (309), two symmetrical baffles (403) are fixed to the top of the conveyor (401), the tops of the two baffles (403) are in contact with the top of the inner wall of the mounting hole (414), and three perforated plates (405) are fixed to the top of the conveyor (401), and a mounting frame (406) is fixed to the surface of each perforated plate (405).

9. The new energy storage stamping gasket stress dispersion structure according to claim 8 is characterized by: A sensor (407) is installed on each of the mounting frames (406), and the detection head surface of each of the sensors (407) is in contact with the top of the conveyor (401). The mounting hole (414) is opened on the inner wall of the box body (301). Three stabilizing frames (408) are installed on the surface of the conveyor (401). An electric push rod (409) is installed on each of the perforated plates (405), and the fixed end surface of each of the electric push rods (409) is in contact with the top of each stabilizing frame (408).

10. The new energy storage stamping gasket stress dispersion structure according to claim 9 is characterized in that: A U-shaped block (410) is installed at the telescopic end of each electric push rod (409), and the bottom of each U-shaped block (410) is in contact with the top of the conveyor belt of the conveyor (401). A mounting block (412) is installed on the other side of the box body (301), and a guide tube (413) is fixed on the surface of each mounting block (412). A diverter block (411) is fixed between the top ends of the three guide tubes (413), and the bottom of the inlet of the diverter block (411) and the top of the conveyor (401) are on the same horizontal plane.

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