CN216441127U - Soft-packaged electrical core material loading sorting facilities - Google Patents

Abstract

The utility model discloses soft-packaged battery cell feeding and sorting equipment which comprises an equipment body and a feeding trolley, wherein the equipment body is provided with a tray feeding module, a battery cell picking module, a battery cell testing module, a battery cell sorting module, a unqualified battery cell blanking module and a blanking assembly line; after the battery tray is transported to the tray feeding module by the feeding trolley, the battery core in the battery tray is transported to the battery core testing module to be tested by the battery core sorting module and the battery core picking module, and the battery core picking module and the battery core sorting module are used for transporting the battery core passing the test to a blanking assembly line and transporting the battery core not passing the test to an unqualified battery core blanking module. Above-mentioned soft-packaged electrical core material loading sorting facilities can realize the assembly line operation of electric core material loading, test and sorting to can greatly reduce operating personnel's intensity of labour, and can practice thrift resources such as manual work, place and turnover, and then can reduction in production cost.

Description

Soft-packaged electrical core material loading sorting facilities

Technical Field

The utility model relates to the technical field of battery cell production, in particular to soft-package battery cell feeding and sorting equipment.

Background

At present, the work of selecting separately of electric core material loading is the work that general battery producer all will go on, and electric core material loading is selected separately and is generally included electric core material loading, electric core test and electric core binding etc..

In the prior art, the manual work is generally adopted to carry out the electric core sorting work, no special sorting equipment is available in the market to solve the problem, and the grouped batteries are generally formed by connecting dozens of electric cores in series and in parallel, and each electric core needs 15 s/person on average, so that the electric core feeding and sorting work needs a large amount of manpower, places, turnover and other resources.

Therefore, how to avoid low working efficiency and high production cost caused by manual feeding and cell sorting is a technical problem to be solved by technical personnel in the field.

SUMMERY OF THE UTILITY MODEL

The utility model aims to provide feeding and sorting equipment for a soft-packaged battery cell, which can improve the efficiency of battery cell feeding and sorting, reduce the labor intensity of operators and reduce the production cost.

In order to achieve the purpose, the utility model provides soft-packaged battery cell feeding and sorting equipment which comprises an equipment body and a feeding trolley butted with the equipment body, wherein the equipment body is provided with a tray feeding module, a battery cell picking module, a battery cell testing module, a battery cell sorting module, an unqualified battery cell blanking module and a blanking assembly line; the cell tray that the material loading dolly will fill with electric core transports to behind the tray material loading module, through the electricity core select separately the module with the electricity core pick up the module with the electric core in the electricity core tray transport to on the electricity core test module for electricity core test module tests electric core, after the test is accomplished, the electricity core pick up the module with the electricity core select separately the module the two be used for transporting the electric core that passes through the test to on the unloading assembly line, transport the electric core that does not pass through the test to on the unqualified electricity core unloading module.

Optionally, the feeding trolley is provided with an outward convex positioning block, the equipment body is provided with an inward concave positioning block and two feeding trolley limiting plates, and after the feeding trolley enters a space formed by the two feeding trolley limiting plates, the inward concave positioning block is matched with the outward convex positioning block to realize that the feeding trolley is fixedly connected with the equipment body in a positioning manner;

the feeding trolley is further provided with a battery cell feeding belt, and the equipment body is further provided with an equipment feeding belt in butt joint with the battery cell feeding belt.

Optionally, the tray loading module includes a first tray carrying assembly for carrying the cell tray and a first driving assembly for driving the first tray carrying assembly to ascend and descend;

first drive assembly includes first servo motor and first ball screw subassembly, first tray carrier assembly includes first tray fixed plate and tray material loading belt assembly, tray material loading belt assembly locates on the first tray fixed plate, the first lead screw of first ball screw subassembly with first servo motor connects, the first ball screw seat of first ball screw subassembly with first tray fixed plate is connected.

Optionally, still include tray unloading module and tray and select separately the module, the tray is selected separately the module and is used for with electric core tray transportation on the tray material loading module extremely on the tray unloading module, tray unloading module is used for bearing electric core tray and supplies the unloading of electric core tray.

Optionally, the tray blanking module includes a second tray bearing assembly for bearing the cell tray and a second driving assembly for driving the second tray bearing assembly to ascend and descend;

the tray sorting module comprises a picking assembly and a third driving assembly, wherein the picking assembly is used for extracting the battery cell trays from the first tray bearing assembly and placing the battery cell trays to the second tray bearing assembly, and the third driving assembly drives the picking assembly to move.

Optionally, the tray unloading device further comprises a roller assembly arranged on one side, away from the tray loading module, of the tray unloading module, and a baffle is arranged at one end, away from the tray unloading module, of the roller assembly.

Optionally, the battery cell sorting module comprises a transverse mounting plate and a longitudinal driving assembly for driving the transverse mounting plate to move longitudinally;

the battery cell picking module comprises a picking fixing plate, and a feeding picking assembly and a blanking picking assembly which are arranged on the picking fixing plate, wherein the feeding picking assembly comprises a first sucker component, and the blanking picking assembly comprises a second sucker component;

the battery cell picking module is arranged on the transverse mounting plate;

the battery cell picking module is arranged on the transverse mounting plate and drives the battery cell picking module to move transversely to the transverse driving assembly of the unqualified battery cell blanking module.

Optionally, the battery cell testing module comprises a testing probe, a first telescopic driving assembly and a second telescopic driving assembly, wherein the first telescopic driving assembly is used for fixing the testing probe and driving the testing probe to vertically move, and the second telescopic driving assembly is connected with the first telescopic driving assembly and drives the first telescopic driving assembly to horizontally move.

Optionally, the feeding and picking assembly is provided with a code scanner for reading the cell identification code; the blanking pickup assembly is provided with an ink return stamp for marking the battery core.

Optionally, the unqualified battery core blanking module comprises an unqualified battery core placing platform and a third telescopic driving assembly, the unqualified battery core placing platform is connected to the equipment body in a sliding mode, when an unqualified battery core on the unqualified battery core placing platform is stacked to a preset height, the third telescopic driving assembly drives the unqualified battery core placing platform to stretch out of the equipment body.

Compared with the background art, the soft package battery cell feeding and sorting equipment provided by the embodiment of the utility model comprises an equipment body and a feeding trolley, wherein the feeding trolley is butted with the equipment body, and after the butting, feeding is realized on the equipment body through the feeding trolley; in addition, the equipment body is provided with a tray feeding module, an electric core picking module, an electric core testing module, an electric core sorting module, a disqualified electric core blanking module and a blanking assembly line, the electric core picking module is movably arranged on the electric core sorting module, and the electric core sorting module can drive the electric core picking module to move to a preset picking and placing position; after the whole pile of battery core trays filled with the battery cores are transported to the tray feeding module by the feeding trolley, the battery cores are tested by the battery core sorting module and the battery core picking module on the battery core testing module, after the test is completed, the battery core picking module and the battery core sorting module are used for transporting the battery cores passing the test to a blanking assembly line, and transporting the battery cores not passing the test to an unqualified battery core blanking module. Therefore, the soft-package battery cell feeding and sorting equipment can realize assembly line operation of battery cell feeding, testing and sorting, and compared with a mode of more manual participation, the soft-package battery cell feeding and sorting equipment provided by the embodiment of the utility model can greatly reduce the labor intensity of operators, and can save resources such as manpower, field and turnover, thereby reducing the production cost.

Drawings

In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly described below, it is obvious that the drawings in the following description are only embodiments of the present invention, and for those skilled in the art, other drawings can be obtained according to the provided drawings without creative efforts.

Fig. 1 is a schematic overall structure diagram of a soft-package battery cell feeding and sorting apparatus provided in an embodiment of the present invention;

fig. 2 is a front view of a soft-package battery cell feeding and sorting apparatus provided in an embodiment of the present invention;

fig. 3 is a top view of the soft-package battery cell feeding and sorting apparatus provided in the embodiment of the present invention;

fig. 4 is a left side view of the soft-package battery cell feeding and sorting apparatus provided in the embodiment of the present invention;

FIG. 5 is a front view of the loading trolley of FIG. 1;

FIG. 6 is a top view of the loading trolley of FIG. 1;

FIG. 7 is a side view of the loading trolley of FIG. 1;

FIG. 8 is an enlarged view of a portion of the section A-A in FIG. 6;

FIG. 9 is a schematic structural view of a connecting part of the apparatus body and the feeding trolley;

FIG. 10 is a front view of FIG. 9;

FIG. 11 is a top view of FIG. 9;

FIG. 12 is a schematic view of a positioning cylinder ejection state;

FIG. 13 is a schematic view of the contracting position of the positioning cylinder;

fig. 14 is a schematic diagram of an assembly structure of a cell and a cell tray;

fig. 15 is a top view of an assembly of cells and cell trays;

FIG. 16 is a schematic structural view of the tray loading module shown in FIG. 1;

FIG. 17 is a top view of the tray loading module of FIG. 16;

FIG. 18 is a schematic view of the cross-sectional structure B-B in FIG. 17;

FIG. 19 is a rear view of the tray loading module of FIG. 16;

FIG. 20 is a schematic structural view of the tray sorting module of FIG. 1;

FIG. 21 is a top view of the tray sorting module of FIG. 20;

FIG. 22 is a schematic view of the cross-sectional structure K-K in FIG. 4;

fig. 23 is a schematic structural diagram of the cell pickup module in fig. 1;

fig. 24 is a front view of the cell pick-up module shown in fig. 23;

fig. 25 is a top view of the cell pickup module of fig. 23;

fig. 26 is a schematic structural diagram of the cell testing module in fig. 1;

fig. 27 is a top view of the cell testing module of fig. 26;

FIG. 28 is a schematic view of the cross-sectional structure C-C of FIG. 27;

fig. 29 is an assembly structure diagram of the cell pickup module and the cell sorting module in fig. 1;

fig. 30 is a schematic structural diagram of the unqualified cell blanking module in fig. 1;

FIG. 31 is a schematic view of the cross-sectional structure F-F in FIG. 30.

Wherein:

100-feeding trolley, 101-external frame, 102-trolley pushing handle, 103-universal wheel, 104-driven wheel, 105-proximity switch trigger, 106-fixed cushion block, 107-convex positioning block, 108-rolling shaft, 109-battery cell feeding positioning plate, 110-battery cell feeding belt, 111-belt auxiliary supporting shaft, 112-first buffer, 113-positioning cylinder, 113.1-cylinder piston rod, 113.2-fixed pressing plate, 113.3-connecting rod, 113.4-fixed base, 114-proximity switch, 115-feeding trolley limiting plate, 116-concave positioning block, 117-driving wheel, 118-gear shaft, 119-driving belt, 120-feeding motor, 121-equipment feeding belt, 122-photoelectric switch sensor, 122-electric switch sensor, 123-whole-support battery cell, 123.1-battery cell, 123.2-battery cell tab positive electrode, 123.3-battery cell tab negative electrode, 123.4-battery cell identification code and 123.5-battery cell tray;

200-tray feeding module, 201-first servo motor, 202-servo motor mounting plate, 203-coupler, 204-screw rod fixing seat, 205-first upper limit switch, 206-first screw rod, 207-first slide rail, 208-tray feeding positioning plate, 209-first lower limit switch, 210-first tray fixing plate, 211-second servo motor, 212-inductive switch, 213-tray feeding limiting plate, 214-tray feeding belt, 215-first ball screw rod seat, 216-tray feeding roller, 217-feeding fixing plate and 218-first slide block;

300-a tray blanking module and 301-a roller assembly;

400-tray sorting module, 401-cylinder fixing support, 402-single-shaft cylinder, 403-double-shaft cylinder, 404-cylinder ejector rod mounting plate, 405-first guide rail, 406-sliding bearing seat, 407-spring, 408-sucker, 409-vacuum tube, 410-second buffer;

500-an electric core picking module, 501-a feeding servo motor, 502-a second upper limit switch, 503-a second guide rail, 504-a ball screw rod seat fixing plate, 505-a switch trigger, 506-a second lower limit switch, 507-a code scanner, 508-a first sucker component, 509-a thimble component, 510-a picking fixing plate, 511-a blanking driving component, 512-a stamp driving component, 513-an ink return stamp and 514-a second sucker component;

600-an electric core testing module, 601-a testing platform, 602-an electric core positioning block, 603-a testing probe, 604-an insulating plate, 605-a testing cushion block, 606-a first telescopic driving component, 607-a third buffer, 608-a third slide rail, 609-a second slide block, 610-a transition plate, 611-a second telescopic driving component and 612-a first photoelectric switch;

700-a battery cell sorting module, 701-a longitudinal servo motor, 702-a ball screw seat mounting plate, 703-a fourth buffer, 704-a transverse driving assembly, 705-a piston rod mounting plate, 706-a third guide rail, 707-a calibration switch, 708-a transverse mounting plate and 709-a second slide rail;

800-an unqualified battery cell blanking module, 801-a third telescopic driving assembly, 802-a third sliding block, 803-a cylinder piston rod fixing plate, 804-an unqualified battery cell placing platform, 805-a fourth sliding rail and 806-a second photoelectric switch;

900-blanking production line.

Detailed Description

The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

The core of the utility model is to provide the soft-packaged battery cell feeding and sorting equipment, which can improve the efficiency of battery cell feeding and sorting, reduce the labor intensity of operators and reduce the production cost.

In order that those skilled in the art will better understand the disclosure, the utility model will be described in further detail with reference to the accompanying drawings and specific embodiments.

The soft-package battery cell feeding and sorting equipment provided by the embodiment of the utility model comprises an equipment body and a feeding trolley 100, wherein the feeding trolley 100 is butted with the equipment body, and after the butting, feeding is realized on the equipment body through the feeding trolley 100; in addition, the equipment body is equipped with tray material loading module 200, electric core and picks up module 500, electric core test module 600, electric core and selects separately module 700, unqualified electric core unloading module 800 and unloading assembly line 900.

Wherein, on battery core picking module 500 movably located battery core sorting module 700, battery core sorting module 700 can drive battery core picking module 500 and move to predetermineeing and put the position. For example, when a cell needs to be picked up from the tray loading module 200 to the cell testing module 600, the cell sorting module 700 drives the cell picking module 500 to move to the upper side of the tray loading module 200, so that the cell picking module 500 can pick up the cell to be tested downwards; for another example, when needs are transported unqualified electric core to unqualified electric core unloading module 800 on, select separately module 700 through electric core and drive electric core and pick up module 500 and move to the top of unqualified electric core unloading module 800 to power supply core picks up module 500 and places unqualified electric core downwards.

The working principle of the soft-package battery cell feeding and sorting equipment provided by the embodiment of the utility model is as follows: after the loading trolley 100 transports the whole stack of cell trays filled with the cells to the tray loading module 200, the cells 123.1 in the cell trays 123.5 are transported to the cell testing module 600 through the cell sorting module 700 and the cell picking module 500 so as to be tested by the cell testing module 600 on the cells 123.1; after the test is completed, the battery cell picking module 500 and the battery cell sorting module 700 are used for transporting the battery cells 123.1 passing the test to the blanking assembly line 900 and transporting the battery cells 123.1 not passing the test to the unqualified battery cell blanking module 800.

Therefore, the soft package battery cell feeding and sorting equipment can realize the assembly line operation of battery cell 123.1 feeding, testing and sorting, and compared with a mode of more manual participation, the soft package battery cell feeding and sorting equipment provided by the embodiment of the utility model can greatly reduce the labor intensity of operators, and can save resources such as manpower, field and turnover, thereby reducing the production cost.

In order to facilitate the positioning of the feeding trolley 100, the feeding trolley 100 is provided with a convex positioning block 107, correspondingly, the equipment body is provided with a concave positioning block 116 and two feeding trolley limiting plates 115, and after the feeding trolley 100 enters a space formed by the two feeding trolley limiting plates 115, the concave positioning block 116 is matched with the convex positioning block 107 to realize the positioning and the fixing of the feeding trolley 100 and the equipment body.

The feeding trolley 100 is further provided with a cell feeding belt 110, the equipment body is further provided with an equipment feeding belt 121 butted with the cell feeding belt 110, and a whole stack of cell trays filled with cells are conveyed to the equipment feeding belt 121 through the cell feeding belt 110 and then reach preset positioning positions on the tray feeding module.

The principle of the loading trolley 100 is explained in detail below.

The feeding trolley limiting plate 115 is fixed on the ground, and is roughly positioned with the outer frame 101 of the feeding trolley 100 through the pulleys on the feeding trolley limiting plate, and the convex positioning block 107 on the trolley is matched with the concave positioning block 116 of the equipment body for fine positioning. At this time, the proximity switch 114 and the proximity switch trigger 105 mutually sense, and when a signal is given to the positioning cylinder 113, the positioning cylinder 113 presses the fixed cushion block 106 after acting, so that the feeding trolley 100 is installed on the equipment body.

In order to facilitate pushing the feeding trolley 100, a trolley pushing handle 102 is further arranged on one side of the outer frame 101 far away from the equipment body. Meanwhile, the bottom of the feeding trolley 100 is provided with a universal wheel 103 for the trolley to travel.

After the feeding trolley 100 is connected with the equipment body into a whole, the driving wheel 117 of the equipment body is meshed with the driven wheel 104 of the trolley. A feeding motor 120 on the equipment body transmits the rotation torque to the driven wheel 104 through a transmission belt 119, a gear shaft 118 and a driving wheel 117; driven wheel 104 passes through the locating pin and is connected with roller bearing 108, and the cladding of electric core material loading belt 110 is on roller bearing 108 and belt auxiliary support shaft 111, and roller bearing 108 and belt auxiliary support shaft 111 all install on outer frame 101, and when driven wheel 104 is rotatory, electric core material loading belt 110 follows from the motion of driven wheel 104, and the material loading that advances can be realized to whole support electric core 123 on electric core material loading belt 110.

In order to control the feeding of the trolley, a photoelectric switch sensor 122 is further arranged, and the photoelectric switch sensor 122 is installed on the equipment body; when the whole supporting battery cell 123 advances to the sensing position of the photoelectric switch sensor 122, the movement is stopped, and at the moment, a feeding preparation state is started; when the photoelectric switch sensor 122 cannot sense the entire supporting battery cell 123, the feeding motor 120 is signaled, and the feeding motor 120 rotates to push a subsequent battery cell forward for feeding; when the photoelectric switch sensor 122 does not sense the whole supporting battery cell 123 for a long time, the photoelectric switch sensor 122 gives a signal to the positioning cylinder 113, so that the positioning cylinder 113 contracts, the fixing cushion block 106 is loosened, the feeding trolley 100 is separated from the equipment body, and the trolley is convenient to replace.

It should be noted that the link mechanism composed of the cylinder piston rod 113.1, the fixed platen 113.2, the link rod 113.3, and the fixed base 113.4 is used to realize the pressing and releasing of the fixed cushion block 106. Specifically, when the cylinder piston rod 113.1 is ejected, the fixed pressing plate 113.2 is in a vertical state, and the fixed cushion block 106 is pressed tightly; when the cylinder piston rod 113.1 contracts, the fixed pressure plate 113.2 is in a tangential state, and the fixed cushion block 106 is released.

After the feeding trolley 100 is connected with the equipment body into a whole, the battery cell feeding belt 110 is in butt joint with the equipment feeding belt 121, and the battery cell is conveyed to a proper position by driving the operation of the feeding motor 120 and other mechanisms on the equipment feeding belt 121.

In order to reduce the vibration of the trolley and the equipment body, a first buffer 112 is further arranged, and when a person pushes the feeding trolley 100 to be fixedly butted with the equipment body, the first buffer 112 is used for reducing the inertia of the feeding trolley 100 and reducing the vibration of the equipment body and the feeding trolley 100; meanwhile, during manual discharging, the cell loading positioning plate 109 positions the cell so as to be transported to a proper position on the equipment loading belt 121.

It should be noted that the cell 123.1 herein is mainly composed of a cell tab positive electrode 123.2, a cell tab negative electrode 123.3, and a cell identification code 123.4, the cell 123.1 is placed in the cell tray 123.5, and dozens of cells 123.1 and cell trays 123.5 are stacked to form the whole cell 123.

The feeding trolley 100 transports the whole support battery cell 123 to the tray feeding module 200, and the tray feeding module 200 is used for positioning and bearing the whole support battery cell 123.

In order to facilitate the material loading function of the tray material loading module 200, the tray material loading module 200 includes a first tray bearing assembly and a first driving assembly, wherein the first tray bearing assembly is configured to bear the cell tray 123.5 (the cell tray 123.5 comes from the material loading trolley 100), and the first driving assembly is configured to drive the first tray bearing assembly to ascend and descend.

The principle of the tray loading module 200 will be described in detail below.

Specifically, the first driving assembly includes a first servo motor 201 and a first ball screw assembly, the first tray bearing assembly includes a first tray fixing plate 210 and a tray feeding belt assembly, the tray feeding belt assembly is disposed on the first tray fixing plate 210, a first screw 206 of the first ball screw assembly is connected to the first servo motor 201, and a first ball screw seat 215 of the first ball screw assembly is connected to the first tray fixing plate 210.

Thus, under the driving action of the first servo motor 201, the first screw 206 of the first ball screw assembly drives the first ball screw seat 215 of the first ball screw assembly to move linearly, and the first tray fixing plate 210 and the tray feeding belt assembly can move up and down along with the first ball screw seat 215.

The first servo motor 201 is installed on the servo motor installation plate 202, a main shaft of the first servo motor 201 is connected with a first lead screw 206 through a coupler 203, and the first lead screw 206 is fixed through a lead screw fixing seat 204, so that the first lead screw 206 can rotate along with the first servo motor 201.

Meanwhile, in order to facilitate the movement of the first tray carrying assembly, the tray loading module 200 further includes a loading fixing plate 217, the loading fixing plate 217 is provided with a first sliding rail 207, and the first tray fixing plate 210 is slidably connected to the first sliding rail 207 through a first sliding block 218.

The first ball screw seat 215 is matched with the first screw 206 through internal balls, and the first ball screw seat 215 rotates and moves axially along with the first screw 206; the first tray fixing plate 210 is fixedly connected with a first sliding block 218, and the first sliding block 218 can move linearly along the first sliding rail 207; the two motions cooperate with each other to convert the rotational motion of the first servo motor 201 into an up-and-down linear motion of the first tray fixing plate 210, so that the first tray fixing plate 210 slides relative to the feeding fixing plate 217.

In addition, in order to limit the vertical linear motion of the first tray fixing plate 210, a first upper limit switch 205 and a first lower limit switch 209 located below the first upper limit switch 205 are disposed on the feeding fixing plate 217. Accordingly, the first upper limit switch 205 and the first lower limit switch 209 may each be a photoelectric switch.

The servo motor mounting plate 202, the screw rod fixing seat 204, the first upper limit switch 205, the first slide rail 207 and the first lower limit switch 209 are fixedly connected to the equipment body through a feeding fixing plate 217.

In addition, in order to facilitate transportation of the cell tray 123.5 to a target position, the tray feeding belt assembly includes a second servo motor 211, a tray feeding belt 214 and a tray feeding roller 216, tray feeding positioning plates 208 are respectively disposed on the front side and the rear side of the tray feeding belt assembly, a tray feeding limiting plate 213 is disposed on the left side, the two tray feeding positioning plates 208 are used for limiting the two sides of the tray, and the second servo motor 211, the tray feeding roller 216 and the tray feeding belt 214 are fixed on the first tray fixing plate 210. The second servo motor 211 drives the tray loading belt 214 to transport the cell tray 123.5 containing the cell 123.1 to a target position through the limiting of the tray loading limiting plate 213 by the tray loading roller 216.

In order to facilitate control servo motor, tray material loading module 200 still includes inductive switch 212, inductive switch 212 can be photoelectric switch, inductive switch 212 links to each other with the control system on the equipment, inductive switch 212 is used for responding to whether have electric core tray 123.5 on the tray material loading belt assembly, when inductive switch 212 does not have electric core tray 123.5 on sensing the tray material loading belt assembly, control system controls first servo motor 201 drive tray material loading belt assembly down to preset the position, and control tray material loading belt assembly operation, in order to realize continuing the material loading.

That is, the control system can control the start and stop of the first servo motor 201 and the second servo motor 211 according to the signal of the inductive switch 212, so as to ensure the stability of the system operation.

It should be noted that, above-mentioned control system can be the PLC in the electric core material loading sorting facilities, PLC's control function and inductive switch 212's detection function are the content that technical personnel are familiar with in the field, it is not the protection of this application key, the protection of this application key is through the operation of controlling first servo motor 201 and second servo motor 211, thereby be convenient for control the lifting height of tray material loading belt assembly and the opening and stopping of tray material loading belt assembly, be favorable to satisfying the material loading of different specification electric cores and the sorting function of electric core tray 123.5.

In summary, the tray loading module 200 is mainly used for positioning and loading the cell tray 123.5. When the cell tray 123.5 is taken away by the picking assembly on the tray sorting module 400, the program can be set, and when one layer of the cell tray 123.5 is taken away, the first servo motor 201 drives the first tray fixing plate 210 to ascend by the height of one layer of the cell tray 123.5, so that the top layer of the cell tray 123.5 on the tray feeding module 200 is always maintained at a fixed position, and the cell tray 123.5 are conveniently grabbed. When the inductive switch 212 senses that there is no cell tray 123.5 on the belt, the first servo motor 201 drives the first tray fixing plate 210 to the first lower limit switch 209, and the second servo motor 211 drives the tray feeding belt 214 to continue feeding.

In order to facilitate sorting and recycling of the cell tray 123.5 with the cell 123.1 taken away, the device further comprises a tray sorting mechanism, which is mainly responsible for sorting and recycling the tray after the cell 123.1 on the cell tray 123.5 is taken away. Tray sorting mechanism includes tray unloading module 300 and tray sorting module 400, and wherein, tray sorting module 400 is used for transporting electric core tray 123.5 on the tray material loading module 200 to tray unloading module 300 on, and tray unloading module 300 is used for bearing electric core tray 123.5 and supplying core tray 123.5 unloading.

Specifically, the tray blanking module 300 includes a second tray carrying assembly and a second driving assembly, the second tray carrying assembly is used for carrying the cell tray 123.5 (from the tray feeding module 200, and at this time, the cell tray 123.5 is an empty tray), and the second driving assembly is used for driving the second tray carrying assembly to ascend and descend; the tray sorting module 400 includes a pick-up assembly for picking up the core tray 123.5 on the first tray carrying assembly and placing it on the second tray carrying assembly, and a third driving assembly for driving the pick-up assembly to move.

So, select separately module 400 at the tray and take away one deck electric core tray 123.5 back from tray material loading module 200, the ascending one deck electric core tray height of first tray carrier assembly of first drive assembly drive, select separately module 400 at the tray and place one deck electric core tray to tray unloading module 300 after, second drive assembly drive second tray carrier assembly descends one deck electric core tray height, can realize like this that electric core tray 123.5 after selecting separately still is the pile-up state.

Compared with the situation that the trays are placed in a mess and difficult to recover when the trays are conveyed by a belt conveyor in the prior art, the tray sorting mechanism provided by the embodiment of the utility model is characterized in that the tray feeding module 200, the tray discharging module 300 and the tray sorting module 400 are mutually matched, when one layer of cell tray 123.5 is taken away by the tray sorting module 400, the tray feeding module 200 drives the first tray bearing component to raise the height of one layer of cell tray by a first driving component, when one layer of cell tray 123.5 is placed on the tray discharging module 300 by the tray sorting module 400, the tray discharging module 300 drives the second tray bearing component to lower by one layer of cell tray height by a second driving component, so that the cell trays 123.5 after being sorted are still in a stacking state, and the topmost tray can be always kept to be contacted with the picking component of the tray sorting module 400, thereby being convenient for recovering the cell tray 123.5, the sorting efficiency can be greatly improved, and the labor cost is reduced.

It should be noted that, the main function of tray unloading module 300 is to bear and unload transportation electric core tray, and the constitution mechanism of tray unloading module 300 is the same basically with the constitution mechanism of tray material loading module 200, and the only difference of tray unloading module 300 and tray material loading module 200 lies in: because of the functional requirement, need not the location, consequently, reduce the setting of inductive switch and limiting plate.

Specifically, above-mentioned second drive assembly includes third servo motor and second ball screw subassembly, and second tray carrier assembly includes second tray fixed plate and tray unloading belt subassembly, and on second tray fixed plate was located to tray unloading belt subassembly, the second lead screw and the third servo motor of second ball screw subassembly were connected, and the second ball screw seat and the second tray fixed plate of second ball screw subassembly are connected.

Therefore, under the driving action of the third servo motor, the second screw of the second ball screw assembly drives the second ball screw seat of the second ball screw assembly to move linearly, and the second tray fixing plate and the tray discharging belt assembly can move up and down along with the second ball screw seat.

In order to facilitate the transportation of the cell supporting plate to a target position, the tray discharging belt component comprises a fourth servo motor, a tray discharging belt and a tray discharging roller, tray discharging positioning plates are respectively arranged on the front side and the rear side of the tray discharging belt component, the two positioning plates are used for limiting the two sides of the tray, and the fourth servo motor, the tray discharging roller and the tray discharging belt are fixed on a second tray fixing plate.

During operation, keep the top layer position of tray unloading module 300 fixed, every increase one deck electric core tray 123.5, the height that the third servo motor drive second tray fixed plate of tray unloading module 300 descends one deck electric core tray, when second tray fixed plate descends the lower limit, the fourth servo motor drive tray unloading belt operation of tray unloading module 300 transports electric core tray 123.5 to drum assembly 301 on.

In order to facilitate recycling of the battery cell tray, the battery cell tray further comprises a roller assembly 301, the roller assembly 301 is arranged on one side, away from the tray loading module 200, of the tray unloading module 300, the roller assembly 301 comprises a plurality of rollers used for conveying the battery cell tray 123.5, and a baffle is arranged at one end, away from the tray unloading module 300, of the roller assembly 301.

The roller assembly 301 may be provided outside the apparatus body to which the roller and the barrier are fixed. Tray unloading belt will pile up on unitized electric core tray 123.5 transports the cylinder through inertia, through the baffle restriction, prevents that electric core tray 123.5 from dropping on the ground, makes things convenient for follow-up manual work to take away.

In module 400 is selected separately to the tray, the third drive assembly includes unipolar cylinder 402 and biax cylinder 403, unipolar cylinder 402 fixed mounting on cylinder fixed bolster 401, biax cylinder 403 passes through cylinder ejector pin mounting panel 404 and links to each other with unipolar cylinder 402, and unipolar cylinder 402 controls biax cylinder 403 and follows the horizontal direction motion, picks up the subassembly rigid coupling on biax cylinder 403's piston rod, and the piston rod control of biax cylinder 403 picks up the subassembly and follows vertical motion.

In addition, the tray sorting module further comprises a first guide rail 405, the single-shaft cylinder 402 controls the double-shaft cylinder 403 to move linearly along the first guide rail 405, and the two ends of the first guide rail 405 are respectively provided with a second buffer 410 for limiting the double-shaft cylinder 403 and buffering the thrust received by the double-shaft cylinder 403.

On one hand, the two second buffers 410 are arranged to realize a limiting effect on the double-shaft cylinder 403, so that the linear motion range of the double-shaft cylinder 403 is limited between the two second buffers 410; on the other hand, the two second dampers 410 can damp the thrust of the single-axis cylinder 402, so that the inertial force of the double-axis cylinder 403 can be reduced, and the occurrence of excessive impact and component damage can be prevented.

Of course, the above-mentioned picking assembly is specifically a suction cup assembly according to actual needs.

The suction cup 408 is installed on the vacuum tube 409, the outside of the vacuum tube 409 is sleeved with the spring 407 and is installed in the sliding bearing seat 406, so that the suction cup 408 can move up and down under the action of the spring 407, and the moving distance is buffered. The other side of the vacuum tube 409 is provided with an air tube, a vacuum generator, an electromagnetic valve and other elements. The slide bearing block 406 is mounted on the biaxial cylinder 403 through a transition plate.

The slide bearing seat 406, the spring 407, the sucker 408, the vacuum tube 409, the air tube, the vacuum generator, the electromagnetic valve and the like form a sucker assembly, and negative pressure is generated according to requirements to grab the battery cell tray.

It should be particularly noted that the position where the suction cup 408 grabs the cell tray 123.5 needs to be arranged at the outer edge of the periphery of the cell tray 123.5, rather than being arranged in the groove of the cell 123.1. If the placement position of the sucker 408 is set in the groove of the cell 123.1, since the cell tray 123.5 is generally made of PP or PE, blow molding is performed, the material is soft, the wall thickness is thin, and the sucker can be in close contact with the lower-layer cell 123.1, and when the sucker 408 sucks the cell tray 123.5 and lifts up, a cavity is formed between the cell tray 123.5 and the cell 123.1, negative pressure is generated, the lower-layer cell 123.1 is sucked by mistake, and potential safety hazards exist; and set up at electric core tray 123.5 outside border all around, sucking disc 408 absorbs electric core tray 123.5 and can lift the space all around earlier when lifting, lets the air get into between electric core tray 123.5 and electric core 123.1, makes electric core tray 123.5 and electric core 123.1 separate, can not cause the mistake and inhale.

The tray sorting mechanism mainly comprises the following steps:

step 1, a piston rod of a single-shaft cylinder 402 contracts, and a double-shaft cylinder 403 is positioned at the right limit position and above a tray feeding module 200;

step 2, extending out a piston rod of the double-shaft cylinder 403, buffering by a sucker 408 through a spring 407 to contact with a cell tray 123.5, simultaneously opening an electromagnetic valve, and generating negative pressure in the sucker 408;

step 3, retracting a piston rod of the double-shaft cylinder 403 to grab the battery cell tray 123.5;

step 4, extending a piston rod of the single-shaft cylinder 402, and positioning the double-shaft cylinder 403 at a left limit position;

step 5, after the piston rod of the double-shaft cylinder 403 extends out, the electromagnetic valve is closed, no air pressure exists in the suction disc 408, and the battery cell tray 123.5 is placed on the tray blanking module 300;

step 6, after the piston rod of the double-shaft cylinder 403 contracts, the piston rod of the single-shaft cylinder 402 contracts, the double-shaft cylinder 403 is located at the right limit position, and the process returns to step 1.

Step 7, the tray sorting module 400 runs for one cycle, the tray feeding module 200 rises to a layer of cell tray 123.5 height, the tray blanking module 300 descends to a layer of cell tray 123.5 height, and when the second tray fixing plate descends to the lower limit, the fourth servo motor drives the tray blanking belt to operate to transfer the cell tray 123.5 to the roller assembly 301.

In order to realize the cell sorting function, the equipment further comprises a cell sorting mechanism, the cell sorting mechanism comprises a cell sorting module 700 and a cell picking module 500, the cell sorting module 700 comprises a transverse mounting plate 708 and a longitudinal driving assembly, and the longitudinal driving assembly is used for driving the transverse mounting plate 708 to move longitudinally; the battery cell picking module 500 comprises a picking fixing plate 510, a feeding picking assembly and a discharging picking assembly, the feeding picking assembly and the discharging picking assembly are assembled and fixed through the picking fixing plate 510, the feeding picking assembly comprises a first sucker component 508, the discharging picking assembly comprises a second sucker component 514, and the battery cell picking module 500 is installed on a transverse installation plate 708.

Further, the cell sorting mechanism further includes a transverse driving assembly 704, the transverse driving assembly 704 is disposed on the transverse mounting plate 708, and the transverse driving assembly 704 is configured to drive the cell picking module 500 to move along the transverse direction.

During actual work, the cell 123.1 located in the loading area (area a) and the cell 123.1 located in the testing area (area B) are picked up by the loading pickup assembly and the unloading pickup assembly of the cell pickup module 500 respectively, after the first chuck assembly 508 of the loading pickup assembly and the second chuck assembly 514 of the unloading pickup assembly run to the highest point simultaneously, the transverse mounting plate 708 is driven to run backwards by the longitudinal driving assembly so as to drive the first chuck assembly 508 to move to the upper side of the testing area (area B), and the second chuck assembly 514 to move to the upper side of the assembly line unloading area (area C), and the assembly line unloading area is used for testing the qualified blanking of the cell 123.1; if the electric core 123.1 is unqualified in test, the unqualified electric core is picked up by the feeding picking assembly, and after the electric core is moved to the upper part of the test area (area B), the electric core picking module 500 is driven to move transversely by the transverse driving assembly 704, so that the unqualified electric core is transported to the unqualified product area (area D).

Compared with the mode that a single set of sucker component is matched with a servo motor or an air cylinder to transport the battery cell to a testing component from a feeding component and then to a production line from the testing component in the prior art, the battery cell sorting mechanism provided by the embodiment of the utility model realizes synchronous material taking and discharging through the matched motion of the battery cell sorting module 700 and the battery cell picking module 500, simplifies the picking motion of the original picking component from A → B → C → A to A → B → A, namely, synchronously executes the picking motion of the feeding picking component and the picking motion of the blanking picking component, so that the stroke can be shortened, the operation period can be saved, the battery cell sorting efficiency can be improved, and the production cost can be reduced; meanwhile, unqualified cells can be transported to an unqualified product area (area D), so that single plane motion is converted into space motion.

In order to facilitate the cell picking module 500 to move along the transverse direction, the transverse mounting plate 708 is provided with a second sliding rail 709 arranged along the transverse direction, and the picking fixing plate 510 is slidably connected to the second sliding rail 709 through a slider. As such, under the driving action of the transverse driving assembly 704, the cell picking module 500 can slide along the transverse direction, so as to transport the unqualified cell to the unqualified product area (D area).

Meanwhile, two fourth buffers 703 are provided on the transverse mounting plate 708 in an opposing manner. On one hand, the arrangement of the two fourth buffers 703 can realize a limiting effect on the cell picking module 500, so as to limit the linear motion range of the cell picking module 500 between the two fourth buffers 703; on the other hand, the two fourth buffers 703 may buffer the thrust of the transverse driving assembly 704, so that the inertia force of the cell pick-up module 500 may be reduced, and damage to components due to excessive impact may be prevented.

Of course, according to actual needs, two sets of longitudinal driving assemblies are provided, and any set of longitudinal driving assembly includes a longitudinal servo motor 701 and a fourth ball screw assembly, a screw of the fourth ball screw assembly is connected with the longitudinal servo motor 701, and a ball screw seat of the fourth ball screw assembly is connected with the transverse mounting plate 708 through a ball screw seat mounting plate 702. Such an arrangement is advantageous to ensure stability and accuracy of the longitudinal movement of the transverse mounting plate 708.

Specifically, the longitudinal servo motor 701 drives the ball screw base mounting plate 702 to move linearly through the third guide rail 706, and at this time, the transverse mounting plate 708 moves in the longitudinal direction; a calibration switch 707 is installed on the ball screw seat mounting plate 702 to calibrate the operation zero point of the longitudinal servo motor 701, and the calibration switch 707 may be a photoelectric switch. The transverse mounting plate 708 is fixedly connected to the ball screw seat mounting plates 702 on both sides, and the longitudinal servo motors 701 on both sides synchronously operate to form a movable gantry.

In addition, the transverse driving assembly 704 includes a transverse single-shaft cylinder and a piston rod mounting plate 705 fixed to a piston rod of the transverse single-shaft cylinder, and the piston rod mounting plate 705 is connected to the pick-up fixing plate 510.

The fourth bumper 703, the transverse single-shaft cylinder, and the second slide rail 709 are all mounted on the transverse mounting plate 708.

In this way, the transverse single-shaft cylinder pushes the piston rod mounting plate 705 and the pick-up fixing plate 510 to move left and right; the fourth buffer 703 limits the range of the pickup fixing plate 510 moving left and right and buffers the thrust of the air cylinder, reducing the vibration of the apparatus; the second slide rail 709 moves in cooperation with a slider mounted on the pick-up fixing plate 510, and plays a role in supporting and guiding.

In order to optimize the above embodiment, the feeding pick-up assembly comprises a first suction cup assembly 508, the discharging pick-up assembly comprises a second suction cup assembly 514, the first suction cup assembly 508 and the second suction cup assembly 514 respectively comprise a suction cup, a vacuum tube and a first sliding bearing seat, the suction cup is fixedly connected to one end of the vacuum tube, the other end of the vacuum tube is installed on the first sliding bearing seat, and a first spring is sleeved on the vacuum tube, so that the suction cup can move axially along the first sliding bearing seat under the action of the first spring.

On the basis, the feeding pickup assembly further comprises a fixed connection plate and a feeding driving assembly for driving the fixed connection plate to move, wherein the fixed connection plate is provided with a thimble assembly 509, and the thimble assembly 509 is used for propping against the cell tray 123.5 when the first suction disc assembly 508 sucks the cell 123.1.

Specifically, the thimble assembly 509 includes a thimble shaft and a second sliding bearing seat, the thimble shaft is mounted on the second sliding bearing seat, the end of the thimble shaft is provided with an annular protrusion, and the thimble shaft is provided with a second spring located between the annular protrusion and the second sliding bearing seat, so that the thimble shaft can move axially along the second sliding bearing seat under the action of the second spring.

In addition, the material loading drive assembly includes material loading servo motor 501 and third ball screw subassembly, and the lead screw of third ball screw subassembly is connected with material loading servo motor 501, and the ball screw seat of third ball screw subassembly is equipped with ball screw seat fixed plate 504, and the rigid coupling board is installed on ball screw seat fixed plate 504.

In order to limit the displacement of the ball screw seat fixing plate 504, the ball screw seat fixing plate further comprises a second upper limit switch 502 and a second lower limit switch 506, and a switch trigger 505 is arranged on the ball screw seat fixing plate 504.

The feeding servo motor 501 drives the ball screw seat fixing plate 504 to move linearly up and down through the second guide rail 503, and the switch trigger 505 is installed on the ball screw seat fixing plate 504, so that the ball screw seat fixing plate 504 moves linearly up and down within the range defined by the second upper limit switch 502 and the second lower limit switch 506.

In order to identify the battery cell 123.1, a code scanner 507 for reading the battery cell identification code 123.4 is further disposed on the fixing plate.

Of course, in order to realize the up-and-down movement of the second suction cup assembly 514, the blanking picking assembly further comprises a blanking driving assembly 511, the blanking driving assembly 511 is located at the bottom of the picking fixing plate 510, the blanking driving assembly 511 is used for driving the second suction cup assembly 514 to move vertically, and the blanking driving assembly 511 can be a double-shaft cylinder; for the convenience of counting, the second suction cup assembly 514 is provided with an ink-returning stamp 513 for marking the battery cell 123.1, the ink-returning stamp 513 is driven by independent power, the second suction cup assembly 514 is provided with a stamp driving assembly 512, the stamp driving assembly 512 can also be a cylinder assembly, and the cylinder assembly is used for driving the ink-returning stamp 513 to move vertically.

Thus, the first chuck assembly 508, the ejector pin assembly 509, and the code scanner 507 are mounted on the ball screw base fixing plate 504 via the fixing plate. The second sucker assembly 514 and the air cylinder assembly are mounted on the blanking driving assembly 511 through a transition plate, and the feeding pick-up assembly and the blanking pick-up assembly form a gantry type double-sucker electric core grabbing assembly through a pick-up fixing plate 510.

The following specifically describes the working steps of the cell sorting mechanism.

1. The loading servo motor 501 drives the ball screw seat fixing plate 504 to move to the lower limit point, the first ejector pin components 508 arranged at two sides of the ejector pin component 509 simultaneously grab two battery cells 123.1 placed on the battery cell tray 123.5, meanwhile, the ejector pin component 509 abuts against the battery cell tray 123.5, the battery cell tray 123.5 is prevented from moving simultaneously with the battery cells 123.1 due to reasons such as warping and deformation, at the moment, the two code scanners 507 read the battery cell identification codes 123.4 of the battery cells 123.1 to be input into a computer, the battery cell identification codes 123.4 are recorded, and the tracing is convenient.

2. A piston rod of the double-shaft cylinder (blanking driving component 511) extends out, and the second sucker components 514 on two sides simultaneously grab the two battery cores 123.1 placed on the testing area (area B); the qualified battery cells 123.1 can be counted by a photoelectric counter (arranged on a battery cell testing assembly) according to process requirements, and the battery cells 123.1 are marked on integral multiples of the whole package of the battery cells (n) to be used as battery cell feeding breakpoints, so that staff can conveniently carry out subsequent production; meanwhile, the piston rods of the two cylinder assemblies are controlled to extend out respectively, and the ink returning stamp 513 is pushed to mark the battery cell 123.1.

3. The feeding servo motor 501 and the discharging driving assembly 511 are controlled by programs, so that the first sucker assembly 508 and the second sucker assembly 514 are simultaneously in a working cycle of low-position grabbing of a cell, high-position transportation of the cell, and low-position placing of the cell, and the first sucker assembly 508 and the second sucker assembly 514 work synchronously.

4. After the first suction cup assembly 508 and the second suction cup assembly 514 run to the highest point at the same time, the longitudinal servo motor 701 drives the transverse mounting plate 708 to run backwards to drive the first suction cup assembly 508 to move to the position above a testing area (area B) and the second suction cup assembly 514 to move to the position above a production line blanking area (area C).

5. Downward movement of first chuck assembly 508 places cell 123.1 on the test zone (zone B); the second chuck assembly 514 moves downwards to place the cell 123.1 on the blanking area (area C) of the production line; through the introduction of the assembly line signal, if the assembly line stops moving, the equipment stops moving synchronously, and the situation that the equipment places the battery cell to cause collision at the same position when the assembly line stops moving is avoided.

6. After the first and second suction cup assemblies 508, 514 move upward to the highest point, the longitudinal servo motor 701 drives the transverse mounting plate 708 to move forward. The first sucker component 508 is positioned above the feeding area (area A), and the second sucker component 514 is positioned above the testing area (area B), and the circular operation is performed.

7. If the electric core test is unqualified, the feeding servo motor 501 drives the first sucker component 508 to grab the unqualified electric core downwards and lift the unqualified electric core above the electric core test area (area B), the transverse driving component 704 stretches out to transport the unqualified electric core above the unqualified product area (area D), the first sucker component 508 moves downwards to place the electric core on the unqualified product area (area D), and after the first sucker component 508 moves upwards and returns to the upper part of the electric core test area (area B), the electric core feeding and sorting work is completed.

In order to improve the working efficiency, the first sucker component 508 and the second sucker component 514 both adopt a double-side sucker design, and the two-channel design can complete the feeding, testing and sorting work of two battery cells at a time, so that the time can be further saved.

In order to realize the test function of the battery cell 123.1, the device is further provided with a battery cell test module 600, the battery cell test module 600 comprises a test probe 603, a first telescopic driving assembly 606 and a second telescopic driving assembly 611, wherein the test probe 603 is used for being in contact with and abutting against a battery cell tab so as to complete the test work of the open-circuit voltage, the internal resistance and the like of the battery cell 123.1; the first telescopic driving assembly 606 is used for fixing the test probe 603 and can drive the test probe 603 to move along the vertical direction, the second telescopic driving assembly 611 is connected with the first telescopic driving assembly 606, and the second telescopic driving assembly 611 is used for driving the first telescopic driving assembly 606 to move along the horizontal direction.

That is to say, in the testing process, the test probe 603 moves in the horizontal and vertical directions by adopting a dual-drive structure, so that the contact and separation of the test probe 603 and the battery cell tab can be realized.

It should be noted that the cell testing mechanism further includes a tester connected to the test probe 603. Specifically, during testing, the test probe 603 is in close contact with the cell tab positive electrode 123.2 and the cell tab negative electrode 123.3, and meanwhile, the test probe 603 is externally connected with a voltage and internal resistance tester through a lead to work, so that the voltage and the internal resistance of the cell are tested.

Compared with the traditional operation of enabling the probe to move up and down by adopting a single-cylinder structure, the battery cell testing module 600 provided by the embodiment of the utility model can realize that the testing probe 603 accurately contacts the battery cell lug during testing by adopting two telescopic driving components, so that the misjudgment probability in the testing process can be reduced; in addition, after the test probe 603 is separated from the battery cell tab, the test probe cannot be left above the battery cell tab, so that collision cannot be caused, and the follow-up battery cell can be conveniently taken away and placed, so that the working efficiency can be improved.

Specifically, the first telescopic driving assembly 606 is a double-shaft cylinder, and the test probe 603 is fixedly connected to a piston rod of the double-shaft cylinder through an insulating plate 604; the second telescopic driving assembly 611 is specifically a single-shaft cylinder, and the double-shaft cylinder is fixedly connected with a piston rod of the single-shaft cylinder through a transition plate 610.

In this way, the test probe 603 can move up and down in accordance with the expansion and contraction of the piston rod of the biaxial cylinder, and at the same time, the biaxial cylinder can move in the horizontal direction in accordance with the piston rod of the uniaxial cylinder during the expansion and contraction movement of the piston rod of the uniaxial cylinder.

In order to facilitate the realization of the guiding effect on the biaxial cylinder, the electric core testing mechanism further comprises a general platform, a third slide rail 608 is arranged on the general platform, and a second slide block 609 connected with the third slide rail 608 in a sliding manner is fixedly connected to a transition plate 610.

That is to say, the transition plate 610 is fixedly connected with the second sliding block 609, the third sliding rail 608 is fixedly connected with the general platform, and on the basis that the second sliding block 609 is slidably connected with the third sliding rail 608, the double-shaft cylinder can move linearly along with the extension and contraction of the piston rod of the single-shaft cylinder.

Of course, according to actual needs, the third slide rail 608 and the second slide block 609 are provided with two sets, and the two sets of slide rail mechanisms are respectively located on two sides of the single-shaft cylinder, so that the stability of linear motion of the double-shaft cylinder can be improved.

In addition, two third buffers 607 arranged oppositely are arranged on the general platform, and the two third buffers 607 are respectively positioned at two sides of the transition plate 610.

On one hand, the two third buffers 607 can realize the limiting function for the transition plate 610 and the double-shaft cylinder, so as to limit the linear motion range of the double-shaft cylinder between the two third buffers 607; on the other hand, the two third dampers 607 may be provided as dampers having a damping function, and the two third dampers 607 may damp the thrust of the single-shaft cylinder, so that the inertial force of the transition plate 610 may be reduced, and the damage of the components caused by the excessive impact may be prevented.

In order to place the battery cell tab, a test cushion block 605 is arranged above the general platform, and the test cushion block 605 is used for supporting the battery cell tab of the battery cell to be tested. This test cushion 605 can realize altitude mixture control through lifting unit to the accurate contact of test probe 603 and electric core utmost point ear when further improving the test.

In order to optimize the above embodiment, the first telescopic driving assembly 606 (dual-axis cylinder), the test probes 603 and the test pads 605 are respectively provided in two sets, one set of test probes 603 includes two test probes 603, and the one set of test probes 603 is respectively in close contact with the positive electrode and the negative electrode of the battery cell tab.

Therefore, the cell testing mechanism provided by the embodiment of the utility model adopts a dual-channel design, can complete the testing work of two cells at one time, saves the testing time and improves the working efficiency.

In order to realize accurate positioning of the electric core to be tested, the electric core testing mechanism further comprises a testing platform 601, and a positioning assembly used for positioning the electric core to be tested is arranged on the testing platform 601. Specifically, the positioning assembly includes three cell positioning blocks 602, an inner side wall of any one of the cell positioning blocks 602 has an inclined plane (slope), and the three cell positioning blocks 602 are configured to position the electrical core to be tested along three side portions of the electrical core to be tested, respectively. That is to say, the three cell positioning blocks 602 are enclosed on three sides of a single cell to be tested, so as to realize the positioning function for the cell to be tested.

More specifically, a cell positioning block 602 with an inclined plane (slope) is fixed on the test platform 601, and when a cell to be tested is placed by a chuck assembly on the device, the cell to be tested slides onto the test platform 601 under the action of the inclined plane (slope) by the gravity of the cell to be tested. Thus, the battery core tab can enter a preset position, and the positive pole and the negative pole of the battery core tab are respectively positioned above the two mutually insulated test cushion blocks 605 and below the test probe 603.

When putting into test platform 601 the electric core that awaits measuring, through the electric core locating piece 602 of taking the slope, carry out the accurate location of secondary to the electric core that awaits measuring, avoid causing electric core utmost point ear and the unable normal contact of test probe 603 because of the inaccurate location, cause the test misjudgement.

It should be noted that the test platform 601, the test pad 605, the third buffer 607, and the second telescopic driving component 611 are all fixedly connected to a main platform, and the main platform is fixedly connected to the apparatus body.

During testing, the piston rod of the single-shaft cylinder contracts to drive the test probes 603 on the double-shaft cylinder to be positioned right above the two battery cell tabs, the piston rod of the double-shaft cylinder contracts to drive the two mutually insulated test probes 603 to be in close contact with the positive electrode and the negative electrode of the battery cell tabs, and the test probes 603 work through a voltage and internal resistance tester externally connected with a wire to test the voltage and the internal resistance of the battery cell.

After the test is finished, a piston rod of the double-shaft cylinder extends out first to drive the test probe 603 to move upwards to be separated from a lug of the battery core; stretch out behind the piston rod of unipolar cylinder, drive biax cylinder and insulation board 604 and move to the outside, keep away from test cushion 605, make things convenient for the electric core to be taken away and place by the sucking disc subassembly on the equipment. The above cycle is performed.

In addition, a first photoelectric switch 612 may be further disposed below the test platform 601, the first photoelectric switch 612 is connected to the counter, and the first photoelectric switch 612 senses whether the electric core 123.1 is above the test platform to count the current electric core 123.1, so as to control the movement of the stamp driving assembly 512 and push the ink-returning stamp 513 to mark the electric core 123.1.

In unqualified electric core unloading module 800, unqualified electric core unloading module 800 includes unqualified electric core place platform 804 and the flexible drive assembly 801 of third, and unqualified electric core place platform 804 sliding connection is in the equipment body, and when the unqualified electric core on unqualified electric core place platform 804 piled up to presetting the height, the flexible drive assembly 801 of third drives unqualified electric core place platform 804 and stretches out to the equipment body outside.

Specifically, the third telescopic driving assembly 801 is specifically a cylinder, a third slider 802 is arranged at the bottom of the unqualified battery cell placement platform 804, and the third slider 802 is connected with the equipment body through a fourth sliding rail 805; unqualified electric core place the platform 804 and third slider 802, cylinder piston rod fixed plate 803 link firmly. Still be equipped with second photoelectric switch 806 on unqualified electric core place the platform 804, through the response of second photoelectric switch 806, unqualified electric core 123.1 piles up to when setting up the height, and unqualified electric core place the platform 804 stretches out to the equipment body outside along with the cylinder piston rod, makes things convenient for the staff to handle unqualified electric core 123.1.

The operation steps of the soft-package battery cell feeding and sorting equipment are specifically described below.

On the tray material loading module 200 was transported with electric core 123.1 to material loading dolly 100, the piston rod of the unipolar cylinder 402 of tray sorting module 400 stretched out, and the biax cylinder 403 of tray sorting module 400 was in tray unloading module 300 top.

The transverse mounting plate 708 on the cell sorting module 700 drives the first chuck assembly 508 on the cell picking module 500 to move to the top of the tray loading module 200, and the second chuck assembly 514 moves to the top of the cell testing module 600.

The feeding servo motor 501 drives the first sucker component 508 to grab the battery cell to be tested downwards, meanwhile, the code scanner 507 reads the battery cell identification code 123.4 to record, and the first sucker component 508 moves upwards to the highest point; the blanking driving component 511 drives the second sucker component 514 to downwards grab a tested battery cell, meanwhile, the stamp driving component 512 drives the ink-returning stamp 513 to mark the battery cell needing to be marked, and the second sucker component 514 upwards runs to the highest point.

The transverse mounting plate 708 on the cell sorting module 700 drives the first chuck assembly 508 to move to the upper side of the cell testing module 600, and the second chuck assembly 514 moves to the upper side of the blanking assembly line 900.

The first chuck assembly 508 moves downwards to place the battery cell on the test platform 601; the second sucker component 514 moves downwards to place the battery core on the blanking assembly line 900, and a signal is introduced through the blanking assembly line 900, if the blanking assembly line 900 stops moving, the equipment stops moving synchronously, and therefore the phenomenon that the battery core is placed on the same position to cause crash due to the fact that the equipment stops moving is avoided.

And the testing component starts the cell testing work.

If the electric core test is unqualified, material loading servo motor 501 drives first sucking disc subassembly 508 and snatchs unqualified electric core downwards and transports the top of electric core test module 600, horizontal drive subassembly 704 action on the electric core sorting module 700 transports unqualified electric core to the top of unqualified electric core unloading module 800, first sucking disc subassembly 508 moves down and places unqualified electric core to unqualified electric core place the platform 804 on, first sucking disc subassembly 508 shifts up and returns to electric core test module 600 top, accomplish electric core material loading, sorting work.

The piston rod of the single-shaft cylinder 402 of the tray sorting module 400 is contracted, and the double-shaft cylinder 403 of the tray sorting module 400 is positioned above the tray feeding module 200; the piston rod of the double-shaft cylinder 403 extends out, and after the sucker 408 grabs the cell tray 123.5 downwards, the piston rod of the double-shaft cylinder 403 contracts; the unipolar cylinder 402 piston rod stretches out, transports tray unloading module 300 top with electric core tray 123.5, and the piston rod of biaxial cylinder 403 stretches out once more, places electric core tray 123.5 on tray unloading module 300, and the work of selecting separately of electric core tray is accomplished in the shrink of biaxial cylinder 403 piston rod.

The cell sorting motion and the cell tray sorting motion act respectively, but the two motions do not interfere with each other.

It is noted that, in this specification, relational terms such as first and second, and the like are used solely to distinguish one entity from another entity without necessarily requiring or implying any actual such relationship or order between such entities.

The feeding and sorting equipment for the soft-package battery cell provided by the utility model is described in detail above. The principles and embodiments of the present invention are explained herein using specific examples, which are provided only to help understand the concepts of the present invention and the core concepts thereof. It should be noted that, for those skilled in the art, it is possible to make various improvements and modifications to the present invention without departing from the principle of the present invention, and those improvements and modifications also fall within the scope of the claims of the present invention.

Claims (10)

1. The soft package battery cell feeding and sorting equipment is characterized by comprising an equipment body and a feeding trolley (100) butted with the equipment body, wherein the equipment body is provided with a tray feeding module (200), a battery cell picking module (500), a battery cell testing module (600), a battery cell sorting module (700), a disqualified battery cell blanking module (800) and a blanking assembly line (900), the battery cell picking module (500) is movably arranged on the battery cell sorting module (700), and the battery cell sorting module (700) can drive the battery cell picking module (500) to run to a preset picking and placing position; the battery cell testing method is characterized in that a battery cell tray (123.5) filled with battery cells (123.1) is transported to the tray loading module (200) by the loading trolley (100), then the battery cells (123.1) in the battery cell tray (123.5) are transported to the battery cell testing module (600) through the battery cell sorting module (700) and the battery cell picking module (500), the battery cells (123.1) are tested by the battery cell testing module (600), and after the test is completed, the battery cell picking module (500) and the battery cell sorting module (700) are used for transporting the battery cells (123.1) passing the test to the blanking assembly line (900) and transporting the battery cells (123.1) not passing the test to the unqualified battery cell blanking module (800).

2. The soft-package battery core feeding and sorting equipment according to claim 1, wherein the feeding trolley (100) is provided with a convex positioning block (107), the equipment body is provided with a concave positioning block (116) and two feeding trolley limiting plates (115), and after the feeding trolley (100) enters a space formed by the two feeding trolley limiting plates (115), the concave positioning block (116) is matched with the convex positioning block (107) to realize the positioning and the fixing of the feeding trolley (100) and the equipment body;

the feeding trolley (100) is further provided with a battery cell feeding belt (110), and the equipment body is further provided with an equipment feeding belt (121) in butt joint with the battery cell feeding belt (110).

3. The soft-package cell feeding and sorting equipment according to claim 1, wherein the tray feeding module (200) comprises a first tray carrying assembly for carrying the cell tray (123.5) and a first driving assembly for driving the first tray carrying assembly to ascend and descend;

the first driving assembly comprises a first servo motor (201) and a first ball screw assembly, the first tray bearing assembly comprises a first tray fixing plate (210) and a tray feeding belt assembly, the tray feeding belt assembly is arranged on the first tray fixing plate (210), a first screw rod (206) of the first ball screw assembly is connected with the first servo motor (201), and a first ball screw rod seat (215) of the first ball screw assembly is connected with the first tray fixing plate (210).

4. The soft-package battery cell feeding and sorting equipment according to claim 3, further comprising a tray blanking module (300) and a tray sorting module (400), wherein the tray sorting module (400) is used for transporting the battery cell trays (123.5) on the tray feeding module (200) to the tray blanking module (300), and the tray blanking module (300) is used for carrying the battery cell trays (123.5) and blanking the battery cell trays (123.5).

5. The soft-package cell feeding and sorting equipment according to claim 4, wherein the tray blanking module (300) comprises a second tray carrying assembly for carrying the cell tray (123.5) and a second driving assembly for driving the second tray carrying assembly to ascend and descend;

the tray sorting module (400) comprises a picking assembly and a third driving assembly, wherein the picking assembly is used for picking core trays (123.5) on the first tray bearing assembly and placing the core trays to the second tray bearing assembly, and the third driving assembly drives the picking assembly to move.

6. The soft-package battery core feeding and sorting equipment according to claim 4, further comprising a roller assembly (301) disposed on one side of the tray blanking module (300) away from the tray feeding module (200), wherein a baffle is disposed at one end of the roller assembly (301) away from the tray blanking module (300).

7. The soft-package battery cell loading and sorting equipment according to any one of claims 1 to 6, wherein the battery cell sorting module (700) comprises a transverse mounting plate (708) and a longitudinal driving assembly for driving the transverse mounting plate (708) to move along the longitudinal direction;

the cell picking module (500) comprises a picking fixing plate (510), and a feeding picking assembly and a blanking picking assembly which are arranged on the picking fixing plate (510), wherein the feeding picking assembly comprises a first sucker component (508), and the blanking picking assembly comprises a second sucker component (514);

the cell pick-up module (500) is mounted on the transverse mounting plate (708);

the battery cell picking device is characterized by further comprising a transverse driving assembly (704) which is arranged on the transverse mounting plate (708) and drives the battery cell picking module (500) to move to the unqualified battery cell blanking module (800) along the transverse direction.

8. The soft-package battery cell feeding and sorting equipment of any one of claims 1 to 6, wherein the battery cell testing module (600) comprises a testing probe (603), a first telescopic driving assembly (606) which fixes the testing probe (603) and drives the testing probe (603) to move vertically, and a second telescopic driving assembly (611) which is connected with the first telescopic driving assembly (606) and drives the first telescopic driving assembly (606) to move horizontally.

9. The soft-pack cell loading and sorting apparatus of claim 7, wherein the loading pick-up assembly is provided with a code scanner (507) for reading a cell identification code (123.4); the blanking picking assembly is provided with an ink returning stamp (513) used for marking the battery cell (123.1).

10. The soft-package battery cell feeding and sorting equipment of claim 7, wherein the unqualified battery cell blanking module (800) comprises an unqualified battery cell placement platform (804) and a third telescopic driving assembly (801), the unqualified battery cell placement platform (804) is slidably connected to the equipment body, and when an unqualified battery cell on the unqualified battery cell placement platform (804) is stacked to a preset height, the third telescopic driving assembly (801) drives the unqualified battery cell placement platform (804) to extend out of the equipment body.

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