AI intelligent sorting equipment for new energy battery cap production line

Abstract

The invention discloses new energy battery cap production line AI intelligent sorting equipment, and relates to the technical field of battery manufacturing equipment.The new energy battery cap production line AI intelligent sorting equipment comprises an equipment box, a detection mechanism and a power supply box, the equipment box is divided into an upper chamber and a lower chamber through a partition plate transversely arranged in the middle, and a sorting mechanism and a sorting mechanism are sequentially arranged on a subsequent station of the detection mechanism; the detection mechanisms are distributed along the periphery of the circumference of the annular conveying disc, and a calibration mechanism is arranged at a preorder station of the detection mechanisms; through the design of the annular path, the battery caps can be smoothly transferred from one station to the next station, when the detection mechanism judges that the battery caps are unqualified, the sorting mechanism responds immediately, the unqualified battery caps are blown off from the assembly line to the removing sliding way, the intelligent sorting mode not only improves the sorting speed, but also reduces manual intervention, and the production efficiency is improved. And the labor intensity is reduced. Meanwhile, the sorting mechanism stably conveys the qualified battery caps to the next procedure through guiding of a sorting plate, and continuity and high efficiency of a production line are guaranteed.

Description

Technical Field

[0001] The present invention relates to the technical field of battery manufacturing equipment, and in particular to AI intelligent sorting equipment for a new energy battery cap production line. Background Art

[0002] With the improvement of environmental awareness and the rapid growth of the electric vehicle market worldwide, the demand for new energy batteries has increased dramatically. In order to meet the market demand for high-quality and high-consistency new energy batteries, battery manufacturers continue to increase their investment in production process automation and intelligence.

[0003] However, in the production and assembly of battery caps, the traditional manual or semi-automatic sorting methods have been difficult to adapt to the needs of efficient production, unable to effectively guarantee product quality, and also increased labor costs. Therefore, the present invention proposes an AI intelligent sorting device for a new energy battery cap production line. Summary of the invention

[0004] The purpose of the present invention is to provide AI intelligent sorting equipment for a new energy battery cap production line to solve the problem raised in the above background technology that in the production and assembly of battery caps, traditional manual or semi-automatic sorting methods have been difficult to adapt to the needs of efficient production and cannot effectively guarantee product quality, while also increasing labor costs.

[0005] In order to achieve the above object, the present invention provides the following technical solutions: AI intelligent sorting equipment for a new energy battery cap production line, comprising an equipment box, a detection mechanism and a power supply box, wherein the equipment box is divided into an upper chamber and a lower chamber by a partition disposed horizontally in the middle, a first conveying mechanism is disposed at the center of the partition, and the first conveying mechanism comprises an annular conveying disk disposed above the partition, the detection mechanism is disposed in the upper chamber, and the power supply box is located in the lower chamber; Among them, the subsequent station of the detection mechanism is provided with a sorting mechanism and a sorting mechanism in sequence, and they are distributed along the circumference of the annular conveyor disk; the preceding station of the detection mechanism is provided with a calibration mechanism; the side of the annular conveyor disk and the previous station of the calibration mechanism is provided with a second conveying mechanism for conveying battery caps; the subsequent station of the sorting mechanism is provided with a third conveying mechanism for conveying battery caps to the next link.

[0006] Optionally, the first conveying mechanism also includes a motor fixedly mounted on the bottom of the partition, the output end of the motor passes through the top of the partition and is fixedly connected to a turntable, and the upper surface of the turntable is fixedly connected to the annular conveying disk via a ring-shaped connecting rod.

[0007] Optionally, the detection mechanism includes a top detection component, a bottom detection component and a peripheral detection component, and the top detection component, the bottom detection component and the peripheral detection component are distributed in sequence along the outer side of the circumference of the annular conveyor disk.

[0008] Optionally, the top detection component includes a first profile column, a slide, a sliding part, a locking part, a first camera assembly and a first camera light source cover, a slide is provided on the top of the first profile column, the slide is slidably connected to the side of the annular conveyor disk with a sliding part, the end face of the sliding part is fixedly connected to the first camera assembly, and the sliding part fixes the first camera assembly to the slide through a locking part provided on the side, and another sliding part fixedly connected to the first camera light source cover is provided at the lower part of the slide, and the top detection component is provided in multiple groups, and the multiple groups of top detection components are respectively provided with first camera assemblies and first camera light source covers of different heights.

[0009] Optionally, the bottom detection components are provided in multiple groups, and the structures of the multiple groups of bottom detection components are the same as those of the top detection components, and the bottom detection components are located below the annular conveyor plate.

[0010] Optionally, the peripheral detection component includes an adjusting member, a first connecting plate, a first support plate, a camera mount, a second camera assembly, a second support plate and a second camera light source cover, the adjusting member is slidably connected to the first connecting plate on the side close to the production line, the upper and lower parts of the first connecting plate are movably connected to the first support plate, the upper and lower ends of the first support plates are fixedly mounted with the second camera assembly through the camera mount, and the bottom of the first support plate is also connected to the second camera light source cover through a second support plate.

[0011] Optionally, the sorting mechanism includes a rejection slide, a connecting block, a fixed block, a blowing piece and a blowing source, the top of the rejection slide is provided with a connecting block, the front side of the connecting block is fixedly connected to a fixed block, the side of the fixed block is fixedly installed with a blowing piece, and the top of the connecting block is installed with a blowing source that matches the blowing piece.

[0012] Optionally, the sorting mechanism includes a pad arranged on the side plate of the third conveying mechanism, and the upper end surface of the pad is connected to the sorting plate.

[0013] Optionally, the calibration mechanism includes a second profile column, a second connecting plate, a fixed plate and a calibration block arranged on the upper surface of the partition, the top of the second profile column is connected to the side facing the production line, the bottom of the second connecting plate is correspondingly provided with a fixed plate, and calibration blocks are provided opposite to the bottom of the fixed plates on both sides, and the opening between the calibration blocks on both sides is adapted to the diameter of the battery cap.

[0014] Optionally, a signal triggering mechanism is also provided in the upper chamber, and the signal triggering mechanism includes a third profile column, a third support plate, a circular plate, a signal device and a receiver arranged on the upper surface of the partition, the upper part of the third profile column is connected to a third support plate extending toward the axis of the annular conveyor disk, the bottom of the third support plate is connected to a circular plate, and a plurality of signal devices are installed at the bottom of the circular plate, and the workstations of the detection mechanism and the sorting mechanism are provided with receivers matched with the signal devices, and the signal device communicates with the receiver by emitting rays.

[0015] The beneficial effects of the present invention are: 1. The design of the circular path in the present invention enables the battery cap to be smoothly transferred from one station to the next. When the detection mechanism determines that the battery cap is unqualified, the sorting mechanism responds immediately and blows the unqualified battery cap off the assembly line to the rejection slide. This intelligent sorting method not only improves the sorting speed, but also reduces manual intervention and labor intensity. At the same time, the sorting mechanism stably transmits the qualified battery cap to the next program through the guidance of the sorting plate, ensuring the continuity and efficiency of the production line.

[0016] 2. The detection mechanism of the present invention includes a top detection component, a bottom detection component and a peripheral detection component, which are sequentially distributed along the outer circumference of the annular conveyor plate, realizing all-round and multi-angle detection of the battery cap. The top and bottom detection components meet the detection requirements of battery caps of different heights through height-adjustable camera components and light source covers, ensuring the accuracy and comprehensiveness of the detection.

[0017] 3. The calibration mechanism fine-tunes the position of the battery cap through the arc-shaped design of the calibration block, ensuring its accurate positioning and calibration before entering the subsequent process. The signal trigger mechanism monitors the position and movement speed of the battery cap in real time through the precise coordination of the signal transmitter and the receiver, providing reliable data support for subsequent detection and sorting. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a structural schematic diagram of the AI ​​intelligent sorting equipment of the new energy battery cap production line of the present invention; Figure 2 This is a structural schematic diagram of the AI ​​intelligent sorting equipment for the new energy battery cap production line of the present invention from another perspective; Figure 3 It is a partial schematic diagram of the lower chamber in the present invention; Figure 4 for Figure 1 The enlarged view of point A in the middle; Figure 5 for Figure 2 The enlarged view of point B in the middle; Figure 6 for Figure 2Enlarged view of point C in the middle; Figure 7 for Figure 2 The enlarged view of point D in the middle; Figure 8 for Figure 2 Enlarged view of point E in the middle; Fig. 9 It is a structural schematic diagram of the signal triggering mechanism in the present invention; Fig.10 It is a structural schematic diagram of the equipment box in the present invention.

[0019] The numbers in the figure are: 1. Equipment box; 101. Partition; 2. First conveying mechanism; 201. Ring conveying plate; 202. Motor; 203. Turntable; 204. Connecting rod; 3. Second transmission mechanism; 4. Detection mechanism; 401. Top detection assembly; 4011. First profile column; 4012. Slide; 4013. Sliding member; 4014. Locking member; 4015. First camera assembly; 4016. First camera light source housing; 402, bottom detection component; 403, peripheral detection assembly; 4031, adjustment member; 4032, first connecting plate; 4033, first supporting plate; 4034, camera seat; 4035, second camera assembly; 4036, second supporting plate; 4037, second camera light source cover; 5. Sorting mechanism; 501. Rejection slide; 502. Connecting block; 503. Fixing block; 504. Air blowing part; 505. Air blowing source; 6. Sorting mechanism; 601. Pad; 602. Sorting plate; 7. Signal trigger mechanism; 701. Third profile column; 702. Third support plate; 703. Round plate; 704. Signal device; 705. Receiver; 8. Power supply box; 9. The third transmission mechanism; 10. Calibration mechanism; 1001. Second profile column; 1002. Second connecting plate; 1003. Fixing plate; 1004. Calibration block. DETAILED DESCRIPTION

[0020] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0021] The device of the present invention will be described below in conjunction with preferred embodiments thereof.

[0022] See also Figure 1-10As shown, the AI ​​intelligent sorting equipment of the new energy battery cap production line includes an equipment box 1, a detection mechanism 4 and a power supply box 8. The equipment box 1 is divided into an upper chamber and a lower chamber by a partition 101 arranged horizontally in the middle. The center of the partition 101 is provided with a first conveying mechanism 2, and the first conveying mechanism 2 includes an annular conveying disk 201 arranged above the partition 101. The detection mechanism 4 is arranged in the upper chamber, and the power supply box 8 is located in the lower chamber; Among them, the subsequent stations of the detection mechanism 4 are successively provided with a sorting mechanism 5 and a sorting mechanism 6, and are distributed along the circumference of the annular conveyor disk 201; the preceding station of the detection mechanism 4 is provided with a calibration mechanism 10, and the second conveying mechanism 3 for conveying battery caps is provided at the side of the annular conveyor disk 201 and at the previous station of the calibration mechanism 10; the subsequent station of the sorting mechanism 6 is provided with a third conveying mechanism 9 for conveying the battery caps to the next link.

[0023] In another embodiment provided by the present invention, Figure 3 As shown, the first conveying mechanism 2 also includes a motor 202 fixedly mounted on the bottom of the partition 101, and the output end of the motor 202 passes through the top of the partition 101 and is fixedly connected to a turntable 203, and the upper surface of the turntable 203 is fixedly connected to the annular conveying disk 201 through a ring-shaped connecting rod 204.

[0024] Specifically, when the motor 202 receives the start signal, it will start to rotate, and the rotational power of the motor 202 is transmitted to the turntable 203 through the output end. The turntable 203 starts to rotate under the drive of the motor 202. Since the turntable 203 and the annular conveyor disk 201 are fixedly connected by the ring-shaped connecting rod 204, the rotation of the turntable 203 will drive the annular conveyor disk 201 to rotate together. By cooperating with the second conveying mechanism 3, when the battery caps conveyed on the second conveying mechanism 3 move to the annular conveyor disk 201, the rotation of the annular conveyor disk 201 enables the battery caps placed thereon to move along the annular path. After the battery caps enter the annular conveyor disk 201 from the input end, they will be conveyed to the next station as the conveyor disk rotates, and then the third conveying mechanism 9 will be cooperated to convey the qualified battery caps to the next program.

[0025] The second conveying mechanism 3 and the third conveying mechanism 9 have the same structural components and are composed of a synchronous belt, a synchronous wheel and an external driving source, and the annular conveying disc 201 is made of glass.

[0026] In another embodiment provided by the present invention, Figure 1 , 2 As shown in FIGS. 4 and 5 , the detection mechanism 4 includes a top detection component 401 , a bottom detection component 402 and a peripheral detection component 403 , and the top detection component 401 , the bottom detection component 402 and the peripheral detection component 403 are sequentially distributed along the outer circumference of the annular conveyor disk 201 .

[0027] Furthermore, the top detection assembly 401 includes a first profile column 4011, a slide 4012, a sliding member 4013, a locking member 4014, a first camera assembly 4015 and a first camera light source housing 4016. The top of the first profile column 4011 is provided with a slide 4012, and the slide 4012 is slidably connected to the side of the annular conveyor plate 201 with the sliding member 4013, and the end surface of the sliding member 4013 is fixedly connected with the first camera assembly 4015, and the sliding member 4013 fixes the first camera assembly 4015 on the slide 4013 through the locking member 4014 provided on the side. 2, another sliding member 4013 fixedly connected to the first camera light source cover 4016 is provided at the lower part of the slide 4012, and the top detection component 401 is provided with multiple groups, and the multiple groups of top detection components 401 are respectively provided with first camera components 4015 and first camera light source covers 4016 of different heights. In order to meet the detection requirements of battery caps of different heights, the top detection component 401 is provided with multiple groups, and the first camera component 4015 and the first camera light source cover 4016 of each group are of different heights. By selecting an appropriate combination of components, accurate detection of battery caps of different heights can be achieved.

[0028] Furthermore, multiple groups of bottom detection components 402 are provided, and the structures of the multiple groups of bottom detection components 402 are the same as those of the top detection components 401 , and the bottom detection components 402 are located below the annular conveyor plate 201 .

[0029] Furthermore, the peripheral detection component 403 includes an adjusting member 4031, a first connecting plate 4032, a first supporting plate 4033, a camera seat 4034, a second camera assembly 4035, a second supporting plate 4036 and a second camera light source cover 4037. The adjusting member 4031 is slidably connected to the first connecting plate 4032 on the side close to the production line. The upper and lower parts of the first connecting plate 4032 are movably connected to the first supporting plate 4033. The ends of the upper and lower first supporting plates 4033 are fixedly mounted with the second camera assembly 4035 through the camera seat 4034. The bottom of the first supporting plate 4033 is also connected to the second camera light source cover 4037 through the second supporting plate 4036. The top detection component 401 and the bottom detection component 402 are respectively located above and below the annular conveyor disk 201, and can simultaneously detect the top and bottom of the battery cap. Through the adjustment of the slide 4012, the sliding member 4013 and the locking member 4014, it can adapt to the detection requirements of battery caps at different heights.

[0030] Furthermore, the adjusting member 4031 is composed of a slide 4012 , a sliding member 4013 and a locking member 4014 .

[0031] Specifically, during operation, the height of the plurality of camera assemblies is adjusted by sliding the slide member 4013, the first camera assembly 4015 is adjusted to an appropriate position by sliding the slide member 4013 on the slide table 4012 and fixing the locking member 4014, when the battery cap is transferred to the detection area of ​​the top detection assembly 401, the first camera assembly 4015 starts to work, the first camera light source cover 4016 provides lighting to ensure the clarity and contrast of the image on the top of the battery cap, the first camera assembly 4015 captures the image on the top of the battery cap and transmits the data to the control system, and the battery cap is detected by the first camera assembly 4015. The cap is conveyed to the inspection area of ​​the bottom inspection component 402 through the continuing annular conveyor disk 201. The first camera component 4015 of the bottom inspection component 402 takes an image of the bottom of the battery cap and detects defects such as welding points, oil stains, appearance of connecting pieces and the presence or absence of inner rubber rings. After the inspection is completed, the battery cap is finally conveyed to the inspection area of ​​the peripheral inspection component 403. The second camera component 4035 arranged laterally takes a peripheral image of the battery cap, and the second camera light source cover 4037 provides a lighting environment. The control system analyzes the peripheral image to detect whether the side or edge of the battery cap has defects or damage.

[0032] In another embodiment provided by the present invention, Figure 2 , 7 As shown in 8, the sorting mechanism 5 includes a reject slide 501, a connecting block 502, a fixed block 503, a blowing piece 504 and a blowing source 505. The top of the reject slide 501 is provided with a connecting block 502, the front side of the connecting block 502 is fixedly connected to the fixed block 503, the side of the fixed block 503 is fixedly installed with the blowing piece 504, and the top of the connecting block 502 is installed with a blowing source 505 that matches the blowing piece 504.

[0033] Furthermore, the sorting mechanism 6 includes a pad 601 arranged on the side plate of the third conveying mechanism 9, and the upper end surface of the pad 601 is connected to a sorting plate 602 for guiding the movement direction of the battery cap.

[0034] Specifically, when the detection mechanism 4 determines that the battery cap is unqualified, it will send a rejection signal to the sorting mechanism 5. After receiving the rejection signal, the blowing source 505 is started to provide high-pressure gas to the blowing member 504. The blowing member 504 blows the high-pressure gas to the unqualified battery cap, and uses the impact force of the gas to blow the battery cap off the assembly line to the rejection slide 501. The blown-off battery cap slides along the rejection slide 501 and is finally collected in a designated container. After completing the rejection action, the blowing source 505 stops working, and the sorting mechanism 5 returns to its initial state, waiting for the next rejection signal to arrive. Then the qualified battery cap enters the sorting mechanism 6. When the battery cap contacts the sorting plate 602, due to the inclination angle and surface material of the sorting plate 602, the battery cap will be subjected to a component force in a predetermined direction. This component force will guide the battery cap along the sorting plate 602 into the third conveying mechanism 9. With the movement of the third conveying mechanism 9, more qualified battery caps are conveyed to the next program. These components are distributed in sequence along the outer side of the circumference of the annular conveyor disk 201, realizing all-round and multi-angle detection of the battery cap. The top and bottom detection components meet the detection requirements of battery caps of different heights through height-adjustable camera components and light source covers, ensuring the accuracy and comprehensiveness of the detection.

[0035] In another embodiment provided by the present invention, Figure 2 and 6 As shown, the calibration mechanism 10 includes a second profile column 1001, a second connecting plate 1002, a fixing plate 1003 and a calibration block 1004 arranged on the upper surface of the partition 101, the second profile column 1001 is connected to the second connecting plate 1002 on the side facing the production line, the bottom of the second connecting plate 1002 is correspondingly provided with a fixing plate 1003, and calibration blocks 1004 are oppositely provided at the bottom of the fixing plates 1003 on both sides, and the opening between the calibration blocks 1004 on both sides is adapted to the diameter of the battery cap.

[0036] Specifically, in the production line, when the battery cap is conveyed to the position of the calibration mechanism 10, its diameter matches the opening between the calibration blocks 1004. The arc-shaped design of the calibration blocks 1004 allows the position of the battery cap to be fine-tuned. The calibration blocks 1004 not only play a positioning role, but also prevent the battery cap from shifting or tilting during the conveyance process. The calibration blocks 1004 help ensure that each battery cap is accurately positioned and calibrated before entering the subsequent process.

[0037] In another embodiment provided by the present invention, Figure 1 and 9As shown, a signal trigger mechanism 7 is also provided in the upper chamber, and the signal trigger mechanism 7 includes a third profile column 701, a third support plate 702, a circular plate 703, a signal device 704 and a receiver 705 arranged on the upper surface of the partition 101. The upper part of the third profile column 701 is connected to the third support plate 702 extending toward the axis of the annular conveyor disk 201, the bottom of the third support plate 702 is connected to the circular plate 703, and a plurality of signal devices 704 are installed at the bottom of the circular plate 703. The workstations of the detection mechanism 4 and the sorting mechanism 5 are provided with receivers 705 matched with the signal devices 704, and the signal devices 704 communicate with the receivers 705 by emitting rays.

[0038] Specifically, when the battery cap gradually approaches the signal trigger mechanism 7 driven by the annular conveyor 201, the signal device 704 will emit continuous rays, which are usually in the form of light and propagate along a predetermined path. Under normal circumstances, these rays will completely irradiate the receiver 705 and maintain a stable light signal intensity. However, when the battery cap enters the light path and blocks part of the light, the light signal received by the receiver 705 will change. Specifically, due to the blocking of the battery cap, part of the light is cut off, resulting in the intensity of the light signal received by the receiver 705 being weakened or completely disappearing. This change in light signal is instantaneous and is closely related to the position and movement speed of the battery cap. The receiver 705 in the signal trigger mechanism 7 has a highly sensitive light signal detection capability. It can monitor the intensity of the received light signal in real time, and when a significant change in the light signal is detected, the corresponding signal processing circuit is immediately triggered. The circuit will analyze and process the received light signal, thereby accurately judging the existence, position, and relative distance of the battery cap from the signal trigger mechanism 7.

[0039] When in use, the battery cap is stably conveyed on the second conveying mechanism 3. When the battery cap reaches the end of the second conveying mechanism 3, it will be accurately conveyed to the input end of the annular conveying disk 201. The annular conveying disk 201 is driven by a motor 202 and rotated by a turntable 203 and a connecting rod 204. As the annular conveying disk 201 rotates, the battery cap moves along a predetermined annular path. During the movement of the battery cap, when passing through the calibration mechanism 10, the opening between the calibration blocks 1004 is adapted to the diameter of the battery cap. Through the arc design of the calibration block 1004, the position of the battery cap can be fine-tuned to ensure that it enters the subsequent Before the process, they are precisely positioned and calibrated. When the battery cap gradually approaches the signal trigger mechanism 7, the signal device 704 will emit continuous rays, which will completely irradiate the receiver 705 under normal circumstances. When the battery cap blocks part of the light, the light signal received by the receiver 705 will change, thereby triggering the corresponding signal processing circuit to accurately determine the existence, position and relative distance of the battery cap to the signal trigger mechanism 7, thereby ensuring the position of the battery cap. When the battery cap is transmitted to the detection area of ​​the top detection component 401, the first camera component 4015 starts working to capture the image of the top of the battery cap. At the same time, the first camera light source cover 4016 provides lighting to ensure the clarity and contrast of the image. As the annular conveyor plate 201 continues to rotate, the battery cap reaches the detection area of ​​the bottom detection component 402. The first camera component 4015 at the bottom also captures the image of the bottom of the battery cap and detects defects such as welding points, oil stains, the appearance of the connecting piece and the presence or absence of the inner rubber ring. Finally, the battery cap is conveyed to the detection area of ​​the peripheral detection component 403, and the second camera component 4035 arranged laterally captures the peripheral image of the battery cap. The second camera light source cover 4037 provides a lighting environment. The control system analyzes the peripheral image to detect whether the side or edge of the battery cap has defects or damage. If the detection mechanism 4 determines that the battery cap has If the cap is unqualified, a rejection signal will be sent to the sorting mechanism 5, and the blowing source 505 will be started to provide high-pressure gas to the blowing part 504 to blow the unqualified battery caps from the assembly line to the rejection slide 501, and the qualified battery caps will continue to move and enter the sorting mechanism 6. When the battery cap contacts the sorting plate 602, due to the inclination angle and surface material of the sorting plate 602, the battery cap will be subjected to a component force in a predetermined direction, guiding it along the sorting plate 602 into the third conveying mechanism 9. With the movement of the third conveying mechanism 9, the qualified battery caps are stably conveyed to the next program for subsequent processing or packaging. This intelligent sorting method not only improves the sorting speed, but also reduces manual intervention and reduces labor intensity.

[0040] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions only describe the principles of the present invention. The present invention may be subject to various changes and improvements without departing from the spirit and scope of the present invention. These changes and improvements fall within the scope of the present invention. The scope of protection claimed by the present invention is defined by the attached claims and their equivalents.

Claims

1. AI intelligent sorting equipment for new energy battery cap production line, characterized by: The invention comprises an equipment box (1), a detection mechanism (4) and a power supply box (8); the equipment box (1) is divided into an upper chamber and a lower chamber by a partition (101) arranged horizontally in the middle; a first conveying mechanism (2) is arranged in the center of the partition (101), and the first conveying mechanism (2) comprises an annular conveying disk (201) arranged above the partition (101); the detection mechanism (4) is arranged in the upper chamber, and the power supply box (8) is located in the lower chamber; The subsequent stations of the detection mechanism (4) are provided with a sorting mechanism (5) and a sorting mechanism (6) in sequence, and are distributed along the circumference of the annular conveyor disc (201); the preceding station of the detection mechanism (4) is provided with a calibration mechanism (10); a second conveying mechanism (3) for conveying battery caps is provided on the side of the annular conveyor disc (201) and at the station above the calibration mechanism (10); and a third conveying mechanism (9) for conveying battery caps to the next link is provided at the subsequent station of the sorting mechanism (6).

2. The AI ​​intelligent sorting equipment for the new energy battery cap production line according to claim 1 is characterized by: The first conveying mechanism (2) further comprises a motor (202) fixedly mounted on the bottom of the partition (101); an output end of the motor (202) extends through the top of the partition (101) and is fixedly connected to a turntable (203); an upper surface of the turntable (203) is fixedly connected to the annular conveying disk (201) via an annular connecting rod (204).

3. The AI ​​intelligent sorting equipment for the new energy battery cap production line according to claim 1 is characterized by: The detection mechanism (4) comprises a top detection component (401), a bottom detection component (402) and a peripheral detection component (403), wherein the top detection component (401), the bottom detection component (402) and the peripheral detection component (403) are sequentially distributed along the outer side of the circumference of the annular conveyor disc (201).

4. The AI ​​intelligent sorting equipment for the new energy battery cap production line according to claim 3 is characterized by: The top detection component (401) comprises a first profile column (4011), a slide (4012), a sliding member (4013), a locking member (4014), a first camera component (4015) and a first camera light source cover (4016); the top of the first profile column (4011) is provided with a slide (4012); the slide (4012) is slidably connected to a side of the slide (4012) facing the annular conveyor disk (201); the end surface of the slide (4013) is fixedly connected to the first camera component (4015); The top detection assembly (401) is provided with a plurality of groups, and the plurality of groups of the top detection assembly (401) are respectively provided with first camera assemblies (4015) and first camera light source covers (4016) of different heights.

5. The AI ​​intelligent sorting equipment for the new energy battery cap production line according to claim 3 is characterized by: The bottom detection components (402) are provided in multiple groups, and the multiple groups of the bottom detection components (402) have the same structure as the top detection components (401), and the bottom detection components (402) are located below the annular conveyor plate (201).

6. The AI ​​intelligent sorting equipment for the new energy battery cap production line according to claim 3 is characterized by: The peripheral detection component (403) comprises an adjusting member (4031), a first connecting plate (4032), a first supporting plate (4033), a camera seat (4034), a second camera assembly (4035), a second supporting plate (4036) and a second camera light source cover (4037); the adjusting member (4031) is slidably connected to the first connecting plate (4032) on the side close to the production line; the upper and lower parts of the first connecting plate (4032) are movably connected to the first supporting plate (4033); the ends of the upper and lower parts of the first supporting plate (4033) are fixedly mounted with the second camera assembly (4035) via the camera seat (4034); and the bottom of the first supporting plate (4033) is also connected to the second camera light source cover (4037) via the second supporting plate (4036).

7. The AI ​​intelligent sorting equipment for the new energy battery cap production line according to claim 1 is characterized by: The sorting mechanism (5) comprises a rejection slide (501), a connecting block (502), a fixed block (503), a blowing piece (504) and a blowing source (505); the top of the rejection slide (501) is provided with a connecting block (502); the front side of the connecting block (502) is fixedly connected to the fixed block (503); the side of the fixed block (503) is fixedly installed with the blowing piece (504); and the top of the connecting block (502) is installed with a blowing source (505) that matches the blowing piece (504).

8. The AI ​​intelligent sorting equipment for the new energy battery cap production line according to claim 1 is characterized by: The sorting mechanism (6) comprises a pad (601) arranged on a side plate of the third conveying mechanism (9), and the upper end surface of the pad (601) is connected to a sorting plate (602).

9. The AI ​​intelligent sorting equipment for the new energy battery cap production line according to claim 1 is characterized by: The calibration mechanism (10) comprises a second profile column (1001), a second connecting plate (1002), a fixing plate (1003) and a calibration block (1004) arranged on the upper surface of the partition (101); the second profile column (1001) is connected to the second connecting plate (1002) on the top side facing the production line; the fixing plate (1003) is correspondingly arranged at the bottom of the second connecting plate (1002); calibration blocks (1004) are arranged opposite to the bottom of the fixing plates (1003) on both sides; and an opening between the calibration blocks (1004) on both sides is adapted to the diameter of the battery cap.

10. The AI ​​intelligent sorting equipment for the new energy battery cap production line according to claim 1 is characterized by: A signal trigger mechanism (7) is also provided in the upper chamber. The signal trigger mechanism (7) comprises a third profile column (701) arranged on the upper surface of the partition (101), a third support plate (702), a circular plate (703), a signal device (704) and a receiver (705). The upper part of the third profile column (701) is connected to a third support plate (702) extending toward the axis of the annular conveyor disk (201). The bottom of the third support plate (702) is connected to a circular plate (703). A plurality of signal devices (704) are installed at the bottom of the circular plate (703). The workstations of the detection mechanism (4) and the sorting mechanism (5) are both provided with receivers (705) that cooperate with the signal devices (704). The signal devices (704) communicate with the receivers (705) by emitting rays.

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