Battery core dispensing circulation device
By designing the battery cell dispensing cycle device, the continuous gel solidification connection of the battery cell is realized by using the circulating flow of the tooling in the load bearing part of the tooling, solving the problem of low efficiency of existing equipment and improving production efficiency.
Patent Information
- Application Number
- CN202010913356.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2020-09-03
- Publication Date
- 2025-03-21
- Estimated Expiration
- 2040-09-03
AI Technical Summary
Existing battery cell dispensing equipment cannot achieve cyclic continuous production and is relatively inefficient.
A battery cell dispensing cycle device is designed, including a battery cell clamping tooling, a tool load bearing part, a dispensing part, a tool removal part and a tool propulsion part. Through the circulating flow of the tooling in the tooling load bearing part, the continuous gel solidification connection of the battery cell is realized.
The continuous production of battery cell dispensing is achieved, production efficiency is improved, and efficiency is further improved through automated loading and unloading operations.
Smart Images

Figure CN111940237B_ABST
Abstract
Description
Technical Field
[0001] The invention relates to lithium battery production equipment, in particular to a battery core glue dispensing circulation device. Background Art
[0002] In the production process of lithium batteries, multiple cylindrical battery cells need to be assembled into a battery cell unit, and glue needs to be dripped between two adjacent battery cells to fix and connect the multiple battery cells.
[0003] In the prior art, a dispensing device is usually used to perform dispensing on one group of battery cells, and then to perform dispensing on another group of battery cells, which cannot form a cyclic continuous production and has low efficiency. Summary of the invention
[0004] Aiming at the problem that the existing battery core glue dispensing equipment cannot produce in a cyclic and continuous manner and has low efficiency, the present invention provides a battery core glue dispensing circulation device which can produce in a cyclic and continuous manner and has high efficiency.
[0005] The technical scheme of the battery cell dispensing circulation device in the present invention is as follows: a battery cell dispensing circulation device, comprising a battery cell clamping tool, a tool bearing part, a dispensing part, a tool removing part and a tool pushing part; wherein: the battery cell clamping tool is configured to load a predetermined number of battery cells; the tool bearing part comprises a dispensing buffer area and a discharging buffer area, the dispensing buffer area is used to store a plurality of vertically stacked battery cell clamping tools loaded with battery cells to be dispensed, and the discharging buffer area is used to store a plurality of vertically stacked battery cell clamping tools loaded with battery cells to be dispensed A battery cell clamping tool; a glue dispensing section is installed in the glue dispensing buffer area of the tool bearing section, and is used to dispense glue at the junction of each adjacent battery cell in a group of battery cells to be glued, so as to fix the group of battery cells together; a tool removal section is installed in the glue dispensing buffer area, and is configured to move the bottom battery cell clamping tool loaded with glued battery cells from the glue dispensing buffer area to the discharge buffer area; a tool pushing section is installed in the discharge buffer area, and is configured to move the top unloaded battery cell clamping tool from the discharge buffer area to the glue dispensing buffer area.
[0006] By providing a tooling removal portion and a tooling advancement portion, the tooling can circulate in the tooling bearing portion, the colloid of the battery cells condenses during the circulation process, and each two adjacent battery cells are fixedly connected, so that the battery cell dispensing circulation device can be produced continuously and the production efficiency is improved.
[0007] Furthermore, the battery cell clamping tooling includes a tooling frame, the tooling frame includes a first side and a second side relative to each other and a third side and a fourth side relative to each other, the first side is provided with a battery cell feed inlet for the battery cell to enter, the second side is provided with a battery cell discharge outlet for the battery cell to exit, a battery cell clamping mechanism is installed in the third side, the battery cell clamping mechanism is configured to clamp a group of battery cells between the third side and the fourth side, and a dispensing port for the dispensing head of the dispensing part to enter and exit is provided on the top of the tooling frame.
[0008] The battery cells are carried and positioned by the battery cell clamping tooling, which facilitates the loading and unloading operations and glue dispensing of the battery cells. The glue between the battery cells is solidified by the circulation of the tooling.
[0009] Furthermore, the battery cell clamping mechanism includes at least one flat pressure plate, a groove pressure plate, a pin shaft, a spring and a connecting block. The pin shaft is movably mounted on the third side of the tooling frame. The connecting block is located outside the third side of the tooling frame and is connected to the outer end of the pin shaft. The inner end of the pin shaft is connected to the flat pressure plate. The groove pressure plate is located between the flat pressure plate and the battery cell and is connected to the flat pressure plate. The groove of the groove pressure plate matches the shape of the battery cell. The spring is sleeved on the pin shaft. One end of the spring abuts against the inside of the third side of the tooling frame, and the other end of the spring abuts against the flat pressure plate. The spring is configured to make the flat pressure plate and the groove pressure plate abut against the battery cell.
[0010] The battery cell clamping mechanism adopts a pressure plate and a spring, which has a simple structure and low cost; the groove pressure plate is provided with a groove matching the shape of the battery cell, which is convenient for positioning the battery cell.
[0011] Furthermore, a clamping and unlocking mechanism is installed on the tooling bearing part, and the clamping and unlocking mechanism is installed in the dispensing buffer area and the material discharging buffer area. The clamping and unlocking mechanism drives the connecting block of the battery cell clamping mechanism to move in the direction away from the third side of the tooling frame, so that the spring contracts and releases the battery cell.
[0012] The battery cell clamping mechanism is unlocked by the clamping unlocking mechanism, which facilitates the loading and unloading of the battery cell.
[0013] Furthermore, the dispensing unit includes a dispensing head and a dispensing head moving mechanism, the dispensing head is mounted on the dispensing head moving mechanism, and the dispensing head moving mechanism drives the dispensing head to move along the arrangement direction of a group of battery cells to be dispensed.
[0014] The dispensing unit is provided with a dispensing head moving mechanism, which can drive the dispensing head to complete the dispensing process of a group of battery cells at one time, further improving the efficiency.
[0015] Furthermore, the tooling removal part includes a first tooling holding mechanism, a first tooling lifting mechanism and a first tooling transverse movement mechanism; the first tooling holding mechanism is installed in the glue dispensing buffer area, and is used to fix a battery cell clamping tooling above the battery cell clamping tooling to be removed in the glue dispensing buffer area; the first tooling lifting mechanism is installed below the glue dispensing buffer area, and is used to hold the battery cell clamping tooling to be removed and make the battery cell clamping tooling to be removed descend to the first tooling transverse movement mechanism; the first tooling transverse movement mechanism is installed below the glue dispensing buffer area, and is used to drive the battery cell clamping tooling to be removed from the glue dispensing buffer area to the discharge buffer area.
[0016] The tooling removal unit is combined with the first tooling holding mechanism, the first tooling lifting mechanism and the first tooling transverse movement mechanism to enable the tooling to be moved smoothly and reliably from the dispensing buffer area to the material discharging buffer area.
[0017] Furthermore, the tooling advancement unit includes a second tooling lifting mechanism, a second tooling holding mechanism and a second tooling transverse movement mechanism; the second tooling lifting mechanism is installed below the discharge buffer area, and is used to hold the battery cell clamping tooling moved from the glue dispensing buffer area and to raise the battery cell clamping tooling moved from the glue dispensing buffer area to the second tooling holding mechanism; the second tooling holding mechanism is installed in the discharge buffer area, and is used to fix the battery cell clamping tooling lifted from the second tooling lifting mechanism in the discharge buffer area; the second tooling transverse movement mechanism is installed above the discharge buffer area, and is used to drive the battery cell clamping tooling at the top of the discharge buffer area to move from the discharge buffer area to the glue dispensing buffer area.
[0018] The tooling propulsion unit is combined with the second tooling lifting mechanism, the second tooling holding mechanism and the second tooling transverse movement mechanism to enable the tooling to be moved smoothly and reliably from the discharge buffer area to the glue dispensing buffer area.
[0019] Furthermore, the battery cell glue dispensing circulation device also includes a battery cell loading part, which is installed on one side of the glue dispensing buffer area and is used to push a group of battery cells to be glued into the battery cell clamping tooling located in the glue dispensing buffer area.
[0020] The battery cell dispensing circulation device is equipped with a battery cell feeding part, which can automatically complete the battery cell feeding action and improve the feeding efficiency.
[0021] Furthermore, the battery cell glue dispensing circulation device also includes a loading baffle, which is installed on the other side of the glue dispensing buffer area relative to the battery cell loading part, and is used to limit a group of battery cells to be glued pushed into the battery cell loading part.
[0022] By setting a loading baffle, the loaded battery cells can be blocked to prevent losses caused by the battery cells falling.
[0023] Furthermore, the battery cell dispensing circulation device also includes a battery cell unloading part, which is installed on one side of the discharge buffer area and is used to push a group of battery cells after dispensing from the battery cell clamping tooling located in the discharge buffer area.
[0024] The battery cell dispensing circulation device is equipped with a battery cell unloading part, which can automatically complete the battery cell unloading action and improve the unloading efficiency.
[0025] Furthermore, the battery cell glue dispensing circulation device also includes a material unloading transition plate, which is installed on the other side of the discharge buffer area relative to the battery cell unloading part, and is used to receive a group of glue-dispensed battery cells pushed out by the battery cell unloading part.
[0026] By setting up a material unloading transition plate, the unloaded battery cells can be temporarily stored, making it easier to transport the battery cells to the next workstation. BRIEF DESCRIPTION OF THE DRAWINGS
[0027] Figure 1The figure is a schematic diagram of the three-dimensional structure of an embodiment of the present invention.
[0028] Figure 2 for Figure 1 A front view of an embodiment of the present invention is shown.
[0029] Figure 3 for Figure 2 Left view of .
[0030] Figure 4 for Figure 2 Rear view of.
[0031] Figure 5 for Figure 1 The three-dimensional structure diagram of the embodiment of the present invention without the battery cell loading part and the battery cell unloading part is shown.
[0032] Figure 6 for Figure 5 main view.
[0033] Figure 7 for Figure 1 A schematic diagram of the three-dimensional structure of the battery cell clamping tool in an embodiment of the present invention is shown.
[0034] Figure 8 for Figure 7 main view.
[0035] Fig. 9 for Figure 1 A partial enlarged view of an embodiment of the present invention is shown, in which a tooling limiting mechanism is shown.
[0036] Fig.10 for Fig. 9 main view.
[0037] Fig.11 for Fig. 9 The three-dimensional structural schematic diagram of the tooling limiting mechanism is shown in .
[0038] Fig.12 for Fig. 9 A three-dimensional structural schematic diagram of the tooling limiting mechanism from another perspective is shown in FIG.
[0039] Figures 1 to 12The invention comprises a battery cell dispensing circulation device 1, a battery cell feeding part 10, a feeding baffle 11, a feeding push plate 12, a feeding pushing mechanism 13, a battery cell clamping tool 20, a tool frame 21, a first side 211, a second side 212, a third side 213, a fourth side 214, a battery cell feeding port 215, a battery cell discharging port 216, a dispensing port 217, a pin hole 218, a battery cell clamping mechanism 22, a connecting block 221, a pin shaft 222, a spring 223, a flat pressing plate 224, a groove pressing plate 225, a tool bearing part 30, a dispensing buffer area 31, a discharging buffer area 32, a clamping unlocking device 210, a battery cell dispensing device 211, a battery cell discharging port 216, a dispensing port 217, a pin hole 218, a battery cell dispensing device 22, a connecting block 221, a pin shaft 222, a spring 223, a flat pressing plate 224, a groove pressing plate 225, a tool bearing part 30, a dispensing buffer area 31, a discharging buffer area 32, and a clamping unlocking device 211. Mechanism 33, unlocking translation assembly 332, unlocking lifting assembly 331, tooling limiting mechanism 34, limiting plate 341, limiting cylinder 342, dispensing unit 40, dispensing head 41, dispensing head moving mechanism 42, tooling removal unit 50, first tooling holding mechanism 51, first tooling lifting mechanism 52, first tooling transverse mechanism 53, tooling pushing unit 60, second tooling holding mechanism 61, second tooling lifting mechanism 62, second tooling transverse mechanism 63, battery cell unloading unit 70, unloading transition plate 71, unloading push plate 72, unloading pushing mechanism 73, battery cell 100. DETAILED DESCRIPTION
[0040] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the present invention is further described in detail below with reference to the accompanying drawings and specific embodiments.
[0041] like Figure 1 to Figure 6 As shown, the present invention is a battery core glue dispensing circulation device 1, which is used in lithium battery production equipment to perform glue dispensing processing on a group of battery cells 100.
[0042] Figure 1 to Figure 6 The figure shows an optional embodiment of the battery core dispensing circulation device 1. Figure 1 is a stereogram of the device. Figure 2 is the main view of the device, Figure 3 is a left side view of the device. Figure 4 is a rear view of the device. Figure 5 It is a three-dimensional diagram of the device after removing the battery cell loading part 10 and the battery cell unloading part 70. Figure 6 It is a front view of the device without the battery cell loading part 10 and the battery cell unloading part 70 .
[0043] like Figure 1 to Figure 6 As shown, the battery core dispensing circulation device 1 at least includes a battery core clamping tool 20, a tool bearing part 30, a dispensing part 40, a tool removal part 50 and a tool pushing part 60. Optionally, the battery core dispensing circulation device 1 may also include a battery core loading part 10 and a battery core unloading part 70.
[0044] The battery cell clamping tool 20 is configured to load a predetermined number of a group of battery cells 100 ; there are a plurality of battery cell clamping tools 20 .
[0045] The tooling carrying part 30 is used to carry a plurality of battery cell clamping tools 20. The tooling carrying part 30 includes a dispensing buffer area 31 and a discharge buffer area 32. The dispensing buffer area 31 is used to store a plurality of vertically stacked battery cell clamping tools 20 loaded with battery cells 100 to be dispensed with glue, and the discharge buffer area 32 is used to store a plurality of vertically stacked battery cell clamping tools 20 loaded with battery cells 100 after dispensing with glue.
[0046] The glue dispensing unit 40 is installed in the glue dispensing buffer area 31 of the tooling carrying unit 30 , and is used to dispense glue at the junction of each adjacent battery cell 100 in a group of battery cells 100 to be glued, so as to fix and connect the group of battery cells 100 .
[0047] The tooling removal part 50 is installed in the glue dispensing buffer area 31 , and is configured to move the bottommost battery cell holding tooling 20 loaded with the glued battery cell 100 from the glue dispensing buffer area 31 to the discharge buffer area 32 .
[0048] The tooling pushing unit 60 is installed in the discharge buffer area 32 , and is configured to move the top unloaded battery cell clamping tool 20 from the discharge buffer area 32 to the glue dispensing buffer area 31 .
[0049] By providing the tool removing portion 50 and the tool pushing portion 60 , the tool is allowed to circulate in the tool bearing portion 30 , so that the battery core glue dispensing circulation device 1 can be produced continuously, thereby improving production efficiency.
[0050] Figure 7 , Figure 8 FIG. 2 shows an optional embodiment of a battery cell clamping tool 20. Figure 7 is a three-dimensional diagram of the component. Figure 8 This is the front view of the component.
[0051] like Figure 7 , Figure 8 As shown, the battery cell clamping tool 20 includes a tool frame 21 as a main body. The tool frame 21 is a hexahedral structure, including a first side 211 and a second side 212 opposite to each other, a third side 213 and a fourth side 214 opposite to each other, and also includes an upper side and a lower side opposite to each other. A battery cell feed port 215 for the battery cell 100 to enter is provided on the first side 211 of the tool frame 21, a battery cell discharge port 216 for the battery cell 100 to exit is provided on the second side 212, a battery cell clamping mechanism 22 is installed in the third side 213, and the battery cell clamping mechanism 22 is configured to clamp a group of battery cells 100 between the third side 213 and the fourth side 214, and a dispensing port 217 for the dispensing head 41 of the dispensing unit 40 to enter and exit is provided on the upper side of the tool frame 21.
[0052] The battery cell 100 is carried and positioned by the battery cell holding tool 20 , so as to facilitate the circulation of the battery cell 100 .
[0053] Optionally, the battery cell clamping mechanism 22 includes at least one flat pressing plate 224, a groove pressing plate 225, a pin 222, a spring 223 and a connecting block 221, the pin 222 is movably mounted on the third side 213 of the tooling frame 21, the connecting block 221 is located outside the third side 213 of the tooling frame 21 and connected to the outer end of the pin 222, the inner end of the pin 222 is connected to the flat pressing plate 224, and the groove pressing plate 225 is located on the flat pressing plate 22 4 and the battery cell 100 and connected to the flat pressing plate 224, the groove of the groove pressing plate 225 faces the battery cell and matches the shape of the battery cell 100, the spring 223 is sleeved on the pin shaft 222, one end of the spring 223 abuts against the inside of the third side 213 of the tooling frame 21, and the other end of the spring 223 abuts against the flat pressing plate 224, and the spring 223 is configured to make the flat pressing plate 224 and the groove pressing plate 225 abut against the battery cell 100. Optionally, the groove pressing plate 225 may not be provided, and only one side of the flat pressing plate 224 is used to press the battery cell 100.
[0054] The battery cell clamping mechanism 22 uses a pressure plate and a spring 223 , which has a simple structure and low cost; the groove pressure plate 225 is provided with a groove matching the shape of the battery cell 100 , which facilitates positioning of the battery cell 100 .
[0055] Optionally, there are multiple flat pressing plates 224, three in this embodiment. The multiple flat pressing plates 224 are fixedly connected by magnets or other detachable structures, and the number of flat pressing plates 224 can be set according to the number of battery cells 100 to be glued.
[0056] Optionally, a magnet may be installed on the inner side of the bottom of the tooling frame 21 in contact with the battery cell 100 to assist in fixing the battery cell 100 .
[0057] Optionally, pin holes 218 are further provided on the first side 211 and the second side 212 of the tool frame 21 near the third side 213 and the fourth side 214. The pin holes 218 cooperate with the positioning pins on the first tool holding mechanism 51 or the second tool holding mechanism 61 described in detail below, thereby maintaining the position of the tool.
[0058] See also Figure 1 to Figure 6 Optionally, a clamping and unlocking mechanism 33 is also installed on the tooling bearing portion 30, and the clamping and unlocking mechanism 33 is installed in the dispensing buffer area 31 and the discharging buffer area 32. The clamping and unlocking mechanism 33 drives the connecting block 221 of the battery cell clamping mechanism 22 to move in a direction away from the third side 213 of the tooling frame 21, so that the spring 223 contracts, thereby moving the flat pressing plate 224 of the battery cell clamping mechanism 22 away from the groove pressing plate 225, so that the battery cell 100 can be moved.
[0059] The battery cell clamping mechanism 22 is unlocked by the clamping unlocking mechanism 33 , so that the battery cell 100 can be easily loaded and unloaded.
[0060] Optionally, a clamping and unlocking mechanism 33 is installed on the top of the dispensing buffer area 31 and the discharge buffer area 32 of the tooling bearing part 30. In this embodiment, the clamping and unlocking mechanism 33 of the dispensing buffer area 31 is installed on a side away from the discharge buffer area 32, and the clamping and unlocking mechanism 33 of the discharge buffer area 32 is installed on a side adjacent to the dispensing buffer area 31.
[0061] The clamping unlocking mechanism 33 includes an unlocking translation assembly 332 and an unlocking lifting assembly 331, and the unlocking lifting assembly 331 is mounted on the unlocking translation assembly 332. Optionally, the unlocking translation assembly 332 and the unlocking lifting assembly 331 use cylinders. A baffle is mounted on the movable part of the unlocking lifting assembly 331.
[0062] When the clamping unlocking mechanism 33 of the dispensing buffer area 31 is working, the movable part of the unlocking translation assembly 332 extends out, and the unlocking lifting assembly 331 and the baffle are moved to the third side 213 of the tooling frame 21. Then the unlocking lifting assembly 331 extends the baffle, and the baffle descends to abut against the connecting block 221 on the third side 213 of the tooling frame 21. Then the unlocking translation assembly 332 retracts, driving the connecting block 221 to move away from the fourth side 214 of the tooling frame 21. The connecting block 221 drives the flat pressing plate 224 and the groove pressing plate 225 to move away from the fourth side 214 of the tooling frame 21 through the pin shaft 222, making room for the loading of the battery cell 100. When the battery cell 100 is loaded into the tooling frame 21, the movable part of the unlocking translation assembly 332 is extended again, driving the connecting block 221 to move toward the direction of the fourth side 214 of the tooling frame 21. The connecting block 221 drives the flat pressure plate 224 and the groove pressure plate 225 to move toward the direction of the fourth side 214 of the tooling frame 21 through the pin shaft 222, pressing the battery cell 100 to prepare for glue dispensing.
[0063] When the clamping unlocking mechanism 33 of the discharge buffer area 32 is working, the movable part of the unlocking translation assembly 332 extends out, and the unlocking lifting assembly 331 and the baffle are moved to the third side 213 of the tooling frame 21. Then, the unlocking lifting assembly 331 extends the baffle, and the baffle descends to abut against the connecting block 221 on the third side 213 of the tooling frame 21. Then, the unlocking translation assembly 332 retracts, driving the connecting block 221 to move away from the fourth side 214 of the tooling frame 21. The connecting block 221 drives the flat pressing plate 224 and the groove pressing plate 225 to move away from the fourth side 214 of the tooling frame 21 through the pin shaft 222, making room for the unloading of the battery cell 100. When the battery cells 100 in the tooling frame 21 are unloaded, the movable part of the unlocking translation assembly 332 is extended again, driving the connecting block 221 to move toward the direction approaching the fourth side 214 of the tooling frame 21. The connecting block 221 drives the flat pressure plate 224 and the groove pressure plate 225 to move toward the direction approaching the fourth side 214 of the tooling frame 21 through the pin shaft 222, thereby resetting the battery cell clamping mechanism 22.
[0064] like Figure 1 to Figure 6 As shown, optionally, the dispensing unit 40 includes a dispensing head 41 and a dispensing head moving mechanism 42, the dispensing head 41 is mounted on the dispensing head moving mechanism 42, and the dispensing head moving mechanism 42 drives the dispensing head 41 to move along the arrangement direction of a group of battery cells 100 to be dispensed. The dispensing head moving mechanism 42 can adopt any structure in the prior art, and in this embodiment, a motor drives a lead screw structure.
[0065] The dispensing unit 40 is provided with a dispensing head moving mechanism 42 , which can drive the dispensing head 41 to perform dispensing processing on the junctions between the battery cells 100 , and can complete the dispensing processing of a group of battery cells 100 at one time, further improving the efficiency.
[0066] See also Figure 1 to Figure 6 Optionally, the tooling removal unit 50 includes a first tooling holding mechanism 51, a first tooling lifting mechanism 52 and a first tooling transverse movement mechanism 53. The first tooling holding mechanism 51 is installed in the glue dispensing buffer area 31, and is used to fix a battery cell clamping tooling 20 above the battery cell clamping tooling 20 to be removed in the glue dispensing buffer area 31; the first tooling lifting mechanism 52 is installed below the glue dispensing buffer area 31, and is used to hold the battery cell clamping tooling 20 to be removed and make the battery cell clamping tooling 20 to be removed descend to the first tooling transverse movement mechanism 53; the first tooling transverse movement mechanism 53 is installed below the glue dispensing buffer area 31, and is used to drive the battery cell clamping tooling 20 to be removed to move from the glue dispensing buffer area 31 to the discharge buffer area 32.
[0067] The tooling removal unit 50 is combined with the first tooling holding mechanism 51 , the first tooling lifting mechanism 52 and the first tooling transverse movement mechanism 53 to enable the battery cell clamping tooling 20 to be moved smoothly and reliably from the dispensing buffer area 31 to the material discharging buffer area 32 .
[0068] Optionally, the first tool holding mechanism 51 adopts a fixed cylinder, the first tool lifting mechanism 52 adopts a lifting cylinder, and the first tool transverse movement mechanism 53 adopts a transverse movement cylinder.
[0069] There are four fixed cylinders in the dispensing buffer area 31, and two fixed cylinders are respectively installed on the front and back of the dispensing buffer area 31. The positions of the fixed cylinders on the front and back of the dispensing buffer area 31 correspond to each other, and are installed at the position of the dispensing buffer area 31 corresponding to the second battery cell clamping tool 20 from the bottom to the top. The driving ends of the four fixed cylinders are respectively provided with pointed positioning pins, which can be inserted into the four pin holes 218 at both ends of the tool frame 21, and at the same time fix the second battery cell clamping tool 20 from the bottom to the top of the dispensing buffer area 31.
[0070] The four fixed cylinders fix the second-to-last battery cell clamping jig 20, and there is a gap and no contact between the second-to-last battery cell clamping jig 20 and the first-to-last battery cell clamping jig 20. A stopper is installed on the transverse cylinder, which abuts against the first-to-last battery cell clamping jig 20 and moves it to the discharge buffer area 32, and then the transverse cylinder returns to its original position. The lifting cylinder then extends out to support the second-to-last battery cell clamping jig 20, and then the four fixed cylinders retract at the same time. The lifting cylinder descends, lowering all the battery cell clamping jigs 20 above by one position. During the descent, the four fixed cylinders will fix the new "second-to-last battery cell clamping jig 20" according to the photoelectric detection results.
[0071] Optionally, the tooling advancement unit 60 includes a second tooling lifting mechanism 62, a second tooling holding mechanism 61 and a second tooling transverse movement mechanism 63; the second tooling lifting mechanism 62 is installed below the discharge buffer area 32, and is used to support the battery cell clamping tooling 20 moved in from the glue dispensing buffer area 31 and to raise the battery cell clamping tooling 20 moved in from the glue dispensing buffer area 31 to the second tooling holding mechanism 61; the second tooling holding mechanism 61 is installed in the discharge buffer area 32, and is used to fix the battery cell clamping tooling 20 lifted from the second tooling lifting mechanism 62 in the discharge buffer area 32; the second tooling transverse movement mechanism 63 is installed above the discharge buffer area 32, and is used to drive the battery cell clamping tooling 20 at the top of the discharge buffer area 32 to move from the discharge buffer area 32 to the glue dispensing buffer area 31.
[0072] The tooling pushing part 60 is combined with the second tooling lifting mechanism 62 , the second tooling holding mechanism 61 and the second tooling transverse movement mechanism 63 to enable the tooling to be moved smoothly and reliably from the discharge buffer area 32 to the glue dispensing buffer area 31 .
[0073] Optionally, the second tool holding mechanism 61 uses a fixed cylinder like the first tool holding mechanism 51 , the second tool lifting mechanism 62 uses a lifting cylinder like the first tool lifting mechanism 52 , and the second tool transverse movement mechanism 63 uses a rodless cylinder.
[0074] There are four fixed cylinders in the discharge buffer area 32, two of which are installed on the front and back of the discharge buffer area 32, respectively. The positions of the fixed cylinders on the front and back of the discharge buffer area 32 correspond to each other, and are installed above the space in the discharge buffer area 32 for accommodating the battery cell clamping tool 20 moved from the dispensing buffer area 31. The driving ends of the four fixed cylinders are respectively provided with pointed positioning pins, which can be inserted into the four pin holes 218 at both ends of the tool frame 21, and the battery cell clamping tool 20 is fixed at the same time.
[0075] When the battery cell clamping tool 20 moves from the dispensing buffer area 31 to the discharging buffer area 32, and the battery cell clamping tool 20 that has been unloaded at the top of the discharging buffer area 32 is pushed to the dispensing buffer area 31 by the rodless cylinder, the fixed cylinder is released and the lifting cylinder is lifted upward. The four fixed cylinders fix the battery cell clamping tool 20 that is in direct contact with the lifting cylinder according to the photoelectric detection results. Then the lifting cylinder retracts.
[0076] like Figure 1 to Figure 6 As shown, optionally, the battery cell glue dispensing circulation device 1 also includes a battery cell loading part 10, which is installed on one side of the glue dispensing buffer area 31, and is used to push a group of battery cells 100 to be glued into the battery cell clamping tooling 20 located in the glue dispensing buffer area 31.
[0077] The battery cell dispensing circulation device 1 is equipped with a battery cell loading part 10 , which can automatically complete the loading action of the battery cell 100 and improve the loading efficiency.
[0078] An optional embodiment of the battery cell feeding part 10 includes a feeding push plate 12 and a feeding propulsion mechanism 13. The feeding push plate 12 is mounted on a movable part of the feeding propulsion mechanism 13, and the feeding propulsion mechanism 13 drives the feeding push plate 12 to move. Optionally, the feeding propulsion mechanism 13 is a combination of a cylinder and a guide rail.
[0079] Optionally, the battery cell glue dispensing circulation device 1 further includes a loading baffle 11, which is installed on the other side of the glue dispensing buffer area 31 relative to the battery cell loading part 10, and is used to limit a group of battery cells 100 to be glued pushed into the battery cell loading part 10.
[0080] By providing the loading baffle 11 , the loaded battery cells 100 can be blocked to prevent the loss caused by the battery cells 100 falling.
[0081] Optionally, the battery cell dispensing circulation device 1 further includes a battery cell unloading portion 70 , which is installed on one side of the discharge buffer area 32 and is used to push a group of glue-dispensed battery cells 100 out of the battery cell clamping tooling 20 located in the discharge buffer area 32 .
[0082] The battery cell dispensing circulation device 1 is equipped with a battery cell unloading portion 70 , which can automatically complete the unloading action of the battery cell 100 , thereby improving the unloading efficiency.
[0083] An optional embodiment of the cell unloading part 70 includes an unloading push plate 72 and an unloading push mechanism 73. The unloading push plate 72 is installed under the movable part of the unloading push mechanism 73, and the unloading push mechanism 73 drives the unloading push plate 72 to move. Optionally, the unloading push mechanism 73 is a combination of a cylinder and a guide rail.
[0084] Optionally, the battery cell dispensing circulation device 1 further includes a material unloading transition plate 71 , which is installed on the other side of the discharge buffer area 32 relative to the battery cell unloading part 70 , and is used to receive a group of glue-dispensed battery cells 100 pushed out by the battery cell unloading part 70 .
[0085] By providing the unloading transition plate 71 , the unloaded battery cells 100 can be temporarily stored, so that the battery cells 100 can be easily transported to the next workstation.
[0086] like Figures 9 to 12 As shown, optionally, the tool bearing part 30 further includes a tool limiting mechanism 34. The tool limiting mechanism 34 is installed between the dispensing buffer area 31 and the discharge buffer area 32 of the tool bearing part 30, and fixes the two battery cell clamping tools 20 at the top of the dispensing buffer area 31 and the discharge buffer area 32.
[0087] An optional embodiment of the tooling limit mechanism 34 includes a limit plate 341 and a limit cylinder 342. The limit cylinder 342 is mounted on the vertical tooling bearing portion 30, and the movable part of the limit cylinder 342 is located at the top. There are two limit plates 341, which are mounted in parallel on the movable part of the limit cylinder 342, and the limit cylinder 342 drives the limit plates 341 to move up and down.
[0088] like Fig. 9 , Fig.10 As shown, when the limiting cylinder 342 contracts, the limiting plate 341 is in a low position. At this time, the battery cell clamping tool 20 of the discharge buffer area 32 on the right can be moved to the glue dispensing buffer area 31 on the left; when the limiting cylinder 342 extends, the two battery cell clamping tools 20 at the top of the glue dispensing buffer area 31 and the discharge buffer area 32 can be positioned.
[0089] By setting a tooling limit mechanism 34, the battery cell clamping tooling 20 can be positioned to prevent the battery cell clamping tooling 20 at the top of the glue dispensing buffer area 31 from moving during glue dispensing, causing glue dispensing position deviation, and preventing the battery cell clamping tooling 20 at the top of the discharge buffer area 32 from being unable to be unlocked during material unloading.
[0090] The present invention has been described in sufficient detail with certain particularity. It should be understood by those skilled in the art that the description in the embodiments is merely exemplary, and all changes made without departing from the true spirit and scope of the present invention should fall within the scope of protection of the present invention. The scope of protection claimed by the present invention is defined by the claims, rather than by the above description in the embodiments.
Claims
1. A battery core dispensing circulation device, characterized in that: The battery core dispensing circulation device comprises a battery core clamping tool, a tool bearing part, a dispensing part, a tool removing part and a tool pushing part; wherein: The battery cell holding fixture is configured to load a predetermined number of battery cells; The tool bearing part includes a dispensing buffer area and a discharge buffer area, the dispensing buffer area is used to store a plurality of vertically stacked battery cell clamping tools loaded with battery cells to be dispensed, and the discharge buffer area is used to store a plurality of vertically stacked battery cell clamping tools loaded with battery cells after dispensing; The glue dispensing unit is installed in the glue dispensing buffer area of the tooling bearing unit, and is used to dispense glue at the junction of each adjacent battery cell in a group of battery cells to be glued, so as to fix and connect the group of battery cells; The tool removal unit is installed in the glue dispensing buffer area and is configured to move the battery cell clamping tool loaded with the bottom battery cell after glue dispensing from the glue dispensing buffer area to the discharge buffer area; The tooling propulsion unit is installed in the discharge buffer area, and is configured to move the top unloaded battery cell clamping tool from the discharge buffer area to the glue dispensing buffer area.
2. The battery core dispensing circulation device according to claim 1, characterized in that: The battery cell clamping tool includes a tool frame, and the tool frame includes a first side and a second side relative to each other and a third side and a fourth side relative to each other. The first side is provided with a battery cell feed inlet for the power cell to enter, and the second side is provided with a battery cell discharge outlet for the power cell to exit. A battery cell clamping mechanism is installed in the third side, and the battery cell clamping mechanism is configured to clamp a group of the battery cells between the third side and the fourth side. A dispensing port for the dispensing head of the dispensing part to enter and exit is provided on the top of the tool frame.
3. The battery core dispensing circulation device according to claim 2, characterized in that: The battery cell clamping mechanism includes at least one flat pressure plate, a groove pressure plate, a pin shaft, a spring and a connecting block, the pin shaft is movably installed on the third side of the tooling frame, the connecting block is located outside the third side of the tooling frame and connected to the outer end of the pin shaft, the inner end of the pin shaft is connected to the flat pressure plate, the groove pressure plate is located between the flat pressure plate and the battery cell and connected to the flat pressure plate, the groove of the groove pressure plate matches the shape of the battery cell, the spring is sleeved on the pin shaft, one end of the spring abuts against the inside of the third side of the tooling frame, and the other end of the spring abuts against the flat pressure plate, and the spring is configured to make the flat pressure plate and the groove pressure plate abut against the battery cell.
4. The battery core dispensing circulation device according to claim 3, characterized in that: A clamping and unlocking mechanism is also installed on the tooling bearing part, and the clamping and unlocking mechanism is installed in the dispensing buffer area and the discharge buffer area. The clamping and unlocking mechanism drives the connecting block of the battery cell clamping mechanism to move in a direction away from the third side of the tooling frame to contract the spring.
5. The battery core dispensing circulation device according to claim 1, characterized in that: The dispensing unit comprises a dispensing head and a dispensing head moving mechanism, the dispensing head is mounted on the dispensing head moving mechanism, and the dispensing head moving mechanism drives the dispensing head to move along the arrangement direction of a group of battery cells to be dispensed.
6. The battery core dispensing circulation device according to claim 1, characterized in that: The tooling removal part includes a first tooling holding mechanism, a first tooling lifting mechanism and a first tooling transverse movement mechanism; the first tooling holding mechanism is installed in the glue dispensing buffer area, and is used to fix one of the battery cell clamping toolings above the battery cell clamping tooling to be removed to the glue dispensing buffer area; the first tooling lifting mechanism is installed below the glue dispensing buffer area, and is used to hold the battery cell clamping tooling to be removed and make the battery cell clamping tooling to be removed descend to the first tooling transverse movement mechanism; The first tooling transverse movement mechanism is installed below the glue dispensing buffer area, and is used to drive the battery cell clamping tooling to be removed to move from the glue dispensing buffer area to the discharge buffer area.
7. The battery core dispensing circulation device according to claim 1, characterized in that: The tooling advancement unit includes a second tooling lifting mechanism, a second tooling holding mechanism, and a second tooling transverse movement mechanism; the second tooling lifting mechanism is installed below the discharge buffer area, and is used to hold the battery cell clamping tooling moved from the dispensing buffer area and to make the battery cell clamping tooling moved from the dispensing buffer area rise to the second tooling holding mechanism; The second tooling holding mechanism is installed in the discharge buffer area, and is used to fix the battery cell clamping tooling lifted from the second tooling lifting mechanism to the discharge buffer area; the second tooling transverse movement mechanism is installed above the discharge buffer area, and is used to drive the battery cell clamping tooling at the top of the discharge buffer area to move from the discharge buffer area to the glue dispensing buffer area.
8. The battery core dispensing circulation device according to claim 1, characterized in that: The battery cell glue dispensing circulation device also includes a battery cell loading part, which is installed on one side of the glue dispensing buffer area and is used to push a group of battery cells to be glued into the battery cell clamping tooling located in the glue dispensing buffer area.
9. The battery core dispensing circulation device according to claim 8, characterized in that: The battery cell glue dispensing circulation device also includes a loading baffle, which is installed on the other side of the glue dispensing buffer area relative to the battery cell loading part, and is used to limit a group of battery cells to be glued pushed into the battery cell loading part.
10. The battery core dispensing circulation device according to claim 1, characterized in that: The battery cell glue dispensing circulation device also includes a battery cell unloading part, which is installed on one side of the discharge buffer area and is used to push a group of glue-dispensed battery cells out of the battery cell clamping tooling located in the discharge buffer area.
11. The battery core dispensing circulation device according to claim 10, characterized in that: The battery cell dispensing circulation device also includes a material unloading transition plate, which is installed on the other side of the discharge buffer area relative to the battery cell unloading part, and is used to receive a group of glue-dispensed battery cells pushed out by the battery cell unloading part.
Citation Information
Patent Citations
Battery cell dispensing circulation device
CN212664057U