A battery delivery system for mass spectrometer analysis

Abstract

The application relates to the technical field of battery detection, in particular to a battery conveying system for mass spectrometer analysis and detection, which comprises a base, one end of the base is provided with a conveying belt for conveying batteries, the other end of the base is provided with a feeding station, a jig for bearing the batteries is arranged in the feeding station, a clamping jaw for transferring the batteries and the jig is movably connected to the base, a plurality of suction cups for adsorbing the batteries are arranged at the center position of the clamping jaw, and a plurality of pairs of side jaws for clamping the jig are horizontally and slidably connected to the two sides of the clamping jaw. Through the arrangement of the suction cups and the side jaws, the clamping jaw can clamp and transfer the batteries and the jig respectively, one clamping jaw can realize the transportation of two different structural materials, the actual working condition is selected and adjusted, the optimal working procedure is ensured, and therefore the working efficiency is improved.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of battery detection, and in particular to a battery conveying system for mass spectrometer analysis and detection. BACKGROUND

[0002] A battery refers to a cup, a groove or other container or part of a composite container containing an electrolyte solution and a metal electrode to generate current, which can convert chemical energy into electrical energy. With the development of science and technology, batteries have been increasingly widely used in mobile phones, automobiles and other fields and are closely related to human daily life. However, in the charge-discharge reaction of the battery, there may be a side reaction and gas is generated. With the passage of time, the amount of gas gradually accumulates, which seriously damages the service life of the battery and may even cause safety problems.

[0003] The main sources of battery gas generation include oxygen release from electrode materials and decomposition of organic electrolyte and the like. These gases, as products of electrode reactions, can be used to inversely deduce the process of electrode reactions. Meanwhile, by identifying the gas-phase products through mass spectrometry and analyzing the process of catalytic reactions, the structural changes of electrode materials and the stability of electrolyte under potential cycling can be accurately identified.

[0004] A general detection device has only one vacuum mass spectrometry detection device. In the testing process, if the battery leaks, not only gas but also liquid may be leaked. To prevent the leaked solution from polluting the vacuum mass spectrometry detection device, the battery is usually placed in a jig, and the jig is tested together with the vacuum mass spectrometry detection device. In this way, even if the battery leaks, the jig can contain the leaked solution to avoid pollution of the vacuum mass spectrometry detection device.

[0005] However, in this way, if the jig is taken out as a whole every time, when the battery pack does not leak, all the qualified battery packs still need to be taken out from the jig for secondary operation, which is relatively complicated. If the jig and the battery are placed separately, the structures of the jig and the battery are different, and the clamping jaws required for transportation are also different. Therefore, two mechanical hands are required for independent transportation, which is complicated to control and reduces efficiency. SUMMARY

[0006] In order to improve the efficiency, the application provides a battery conveying system for mass spectrometer analysis and detection.

[0007] The battery conveying system for mass spectrometer analysis and detection provided by the application adopts the following technical scheme:

[0008] A battery conveying system for mass spectrometer analysis and detection, comprising a base, one end of the base is provided with a conveying belt for conveying batteries, the other end of the base is provided with a feeding station, the feeding station is provided with a jig for carrying batteries, the base is movably connected with a clamping jaw for transferring batteries and jigs, the center of the clamping jaw is provided with a plurality of suction cups for adsorbing batteries, and the two sides of the clamping jaw are horizontally slidably connected with a plurality of pairs of side jaws for clamping jigs.

[0009] By adopting the above technical scheme, the clamping jaw is lowered above the battery, the suction cup adsorbs and clamps the battery and transfers the battery above the jig, and the battery is placed on the jig. The side jaws are opened on both sides of the jig, the side jaws are closed to clamp both sides of the jig, and the clamping jaw synchronously transports the jig and the suction cup. After the test is completed, if the battery pack does not leak, the clamping jaw can take out the battery alone through the suction cup, and the jig remains in the vacuum mass spectrometer detection equipment for the next test. The clamping jaw directly adsorbs and grabs the next batch of batteries through the suction cup and puts them into the jig in the vacuum mass spectrometer detection equipment, so that the jig does not need to be transported again, saving time and effort. When the battery pack leaks and contaminates the jig, the clamping jaw can take out the jig and the battery together through the side jaw. Through the arrangement of the suction cup and the side jaw, the clamping jaw can clamp and transport the battery and the jig respectively, one clamping jaw can realize the transportation of two different structures of materials, and the actual working condition is selected and adjusted to ensure the optimal process steps, thereby improving the work efficiency.

[0010] As a preferred, the suction cup is connected with the clamping jaw in vertical sliding through a vertical cylinder, the side jaw is connected with the clamping jaw in horizontal sliding through a horizontal cylinder, a vertical rod vertically arranged is fixed on the suction cup, a clamping switch electrically connected with the horizontal cylinder is arranged on the lower surface of the clamping jaw, when the suction cup is at the uppermost position, the vertical rod is in contact with the clamping switch, and the clamping switch is opened; a horizontal rod is fixed on the side jaw, and an adsorption switch is arranged on the clamping jaw, when the pair of side jaws move to the farthest distance, the horizontal rod is in contact with the adsorption switch, and the adsorption switch is opened.

[0011] By adopting the above technical scheme, when the suction cup is at the uppermost position, it is in the standby initial state, and when the side jaw is at the open position, it is in the standby initial state. When the suction cup is in the standby initial state, the clamping switch is in the open state, and at this time, the horizontal cylinder can freely extend and retract, that is, the side jaw can be closed or opened. When the suction cup is lowered, it means that the clamping jaw needs to adsorb the battery, at this time, the side jaw does not need to perform the action. At this time, the vertical rod is separated from the clamping switch, the clamping switch is closed, the horizontal cylinder is disconnected, and the horizontal cylinder cannot be started, that is, the side jaw cannot be closed or opened. Similarly, when the side jaw is in the open standby state, the suction cup can freely move up and down to adsorb the battery, and when the side jaw is closed to clamp the jig, the suction cup is locked and cannot move. The suction cup and the side jaw are interlocked, when one side performs the grabbing and transporting operation, the other side is locked and cannot move, thereby avoiding mutual interference.

[0012] Preferably, a jig stacking station is arranged on the base, and the jig stacking station comprises a plurality of limiting rods arranged vertically and surrounding a stacking area, and the jigs are stacked in the stacking area.

[0013] By using the above technical scheme, the clamping jaw takes the jigs out of the stacking station and places them on the feeding station to wait for the addition of batteries, which is convenient to use.

[0014] Preferably, a sliding rail is arranged in the stacking area, and a limiting plate is vertically fixed on the stacking station at the end of the sliding rail.

[0015] By using the above technical scheme, the operator can first stack a plurality of jigs from the outside, and then slide them into the stacking station through the sliding rail for replenishment, which is convenient to use.

[0016] Preferably, a plurality of accommodating grooves for accommodating batteries are arranged on the jig, the number of the suction cups is consistent with the number of the accommodating grooves, and the distribution positions of the suction cups on the jig are consistent with the distribution positions of the accommodating grooves.

[0017] By using the above technical scheme, the jig can accommodate a plurality of batteries at a time, and the clamping jaw can also suck a plurality of batteries at a time and place them in the jig at a time, thereby improving the work efficiency.

[0018] Preferably, a discharging guide rail is arranged between the conveying belt and the feeding station, a discharging plate is slidably connected to the discharging guide rail, the sliding direction of the discharging plate is parallel to the conveying direction of the conveying belt, a plurality of discharging grooves are arranged on the discharging plate, the number of the discharging grooves is consistent with the number of the accommodating grooves, and the distribution positions of the discharging grooves on the discharging plate are consistent with the distribution positions of the accommodating grooves on the jig.

[0019] By using the above technical scheme, the batteries are prearranged by the discharging plate, the clamping jaw can take all the batteries on the discharging plate at a time and place them on the jig, thereby further improving the work efficiency.

[0020] Preferably, a plurality of discharging guide rails are arranged, and a discharging plate is arranged on each discharging guide rail.

[0021] By using the above technical scheme, the plurality of discharging guide rails can be used alternately, thereby improving the work efficiency.

[0022] Preferably, a preliminary inspection table is arranged between the conveying belt and the discharging guide rail, a transfer plate is rotatably connected to the preliminary inspection table, the center of the transfer plate is rotatably connected to the preliminary inspection table vertically, a preliminary inspection groove for accommodating batteries is arranged at each end of the transfer plate, one end of the transfer plate faces the conveying belt, and the other end faces the discharging guide rail, a detection probe is arranged above the transfer plate on the preliminary inspection table, and the detection probe faces the end of the transfer plate close to the discharging guide rail.

[0023] By adopting the technical scheme, the battery on the conveying belt is conveyed to the preliminary inspection groove at one end of the transfer plate, the transfer plate rotates by 180 degrees, the detection probe preliminarily detects the battery on the transfer plate, and in the detection process, the end of the transfer plate close to the conveying belt passes the battery on the conveying belt again for feeding. The one end of the transfer plate is detected and the other end is fed, the positions of the two are changed by the rotation of the transfer plate itself, and then a continuous operation is formed, and the efficiency is improved.

[0024] Preferably, the preliminary inspection table is provided with a sorting mechanical hand at the end close to the discharging guide rail, and a single-piece qualified table is fixed beside the residual material belt which is provided parallel to one side of the conveying belt.

[0025] By adopting the technical scheme, the sorting mechanical hand grasps and transfers the battery detected by the detection probe, and transfers the battery to the discharging plate if it is qualified, or transfers the battery to the residual material belt if it is unqualified.

[0026] Preferably, the conveying belt is slidably connected with an adjusting frame at one end close to the transfer plate, a plurality of adjusting suction cups are slidably connected horizontally on the adjusting frame, the sliding direction of the adjusting frame is parallel to the conveying direction of the conveying belt, the sliding direction of the adjusting suction cup is perpendicular to the conveying direction of the conveying belt, and a position probe is arranged on the base above the position close to the transfer plate, and the position probe is electrically connected with the adjusting suction cup.

[0027] By adopting the technical scheme, the position probe captures and identifies the position of the battery and transmits it to the adjusting suction cup, the adjusting suction cup adjusts its position according to the position of the battery so as to be located directly above the battery, the adjusting suction cup grasps the battery and transfers it to the transfer plate, and the conveying of the battery is realized.

[0028] In summary, the present application has the following beneficial technical effects:

[0029] By arranging the side plate and the suction cup, one gripper can realize the conveying of two different structures of materials, and the actual working condition is selected and adjusted to ensure the optimal process steps, thereby improving the working efficiency. BRIEF DESCRIPTION OF DRAWINGS

[0030] Figure 1 is a schematic diagram of the overall structure of the embodiment;

[0031] Figure 2 is a schematic diagram of the structure of the preliminary inspection table in the embodiment;

[0032] Figure 3 is Figure 1 is an enlarged schematic diagram of part A in FIG. 6.

[0033] MARKING OF THE DRAWINGS:

[0034] 1, base; 2, conveying belt; 21, adjusting frame; 22, adjusting suction cup; 23, position probe; 3, feeding station; 4, jig; 41, containing groove; 5, clamping jaw; 51, suction cup; 52, side jaw; 53, vertical air cylinder; 54, horizontal air cylinder; 55, vertical rod; 56, clamping switch; 57, horizontal rod; 58, suction switch; 6, jig stacking station; 61, limiting rod; 62, stacking area; 63, sliding rail; 64, limiting plate; 7, discharging guide rail; 71, discharging plate; 711, discharging groove; 8, preliminary inspection table; 81, transfer plate; 811, preliminary inspection groove; 82, detection probe; 83, sorting manipulator; 84, residual material belt; 85, single-piece qualified table. DETAILED DESCRIPTION

[0035] The application will be further described in detail below with reference to all the drawings.

[0036] EMBODIMENT

[0037] The application discloses a battery conveying system for mass spectrometer analysis and detection, which refers to Figures 1 to 3 , comprising a base 1, and sequentially arranged on the base 1 are a conveying belt 2, a preliminary inspection table 8, a discharging guide rail 7 and a feeding station 3. The base 1 is movably connected with a clamping jaw 5 at an end close to the feeding station 3, and the feeding station 3 is provided with a jig 4 for loading batteries.

[0038] Referring to Figures 1 to 3 , the conveying belt 2 conveys towards the preliminary inspection table 8, and the end of the conveying belt 2 close to the preliminary inspection table 8 is fixed with a position probe 23 located above the conveying belt 2 and an adjusting frame 21. The adjusting frame 21 is located between the position probe 23 and the preliminary inspection table 8. The adjusting frame 21 is slidably connected with the conveying belt 2 through a guide rail, and the sliding direction of the adjusting frame 21 is parallel to the conveying direction of the conveying belt 2. The adjusting frame 21 is slidably connected with two adjusting suction cups 22 through the guide rail, and the sliding direction of the two adjusting suction cups 22 is perpendicular to the conveying direction of the conveying belt 2. The adjusting suction cups 22 are electrically connected with the position probe 23.

[0039] Referring to Figures 1 to 3 , the battery is placed at one end of the conveying belt 2 and conveyed towards the adjusting frame 21. The position probe 23 photographs and identifies the position of the battery and transmits the position to the adjusting suction cup 22. The adjusting suction cup 22 and the adjusting frame 21 cooperate to adjust the position of the adjusting suction cup 22, so that the adjusting suction cup 22 is located directly above the battery to suck the battery and convey the battery to the preliminary inspection table 8.

[0040] Referring to Figures 1 to 3A transfer plate 81 is rotatably connected to the initial inspection table 8. The center of the transfer plate 81 is vertically rotatably connected to the initial inspection table 8. Two initial inspection slots 811 for accommodating batteries are respectively opened at both ends of the transfer plate 81. One end of the transfer plate 81 faces the conveyor belt 2, and the other end faces the discharge guide rail 7. A detection probe 82 is provided on the initial inspection table 8 above the transfer plate 81, and the detection probe 82 is directly opposite the end of the transfer plate 81 near the discharge guide rail 7. The suction cup 22 is adjusted to transport the batteries into the two initial inspection slots 811 of the transfer plate 81 near the conveyor belt 2. The transfer plate 81 rotates 180 degrees, aligning the unloaded end with the conveyor belt 2 to wait for the next pair of batteries. The loaded end of the transfer plate 81 rotates to be below the detection probe 82, and the detection probe 82 detects the batteries.

[0041] Reference Figures 1 to 3 A sorting robot 83 is installed at the end of the initial inspection station 8 near the discharge guide rail 7. A residual material belt 84 is installed parallel to one side of the conveyor belt 2, and a single-item qualified station 85 is fixed next to the residual material belt 84. The sorting robot 83 transfers the inspected batteries. If two batteries are both unqualified, they are transferred to the residual material belt 84 for output. If one battery is unqualified, it is output through the residual material belt 84, while the qualified battery is placed on the single-item qualified station 85 until the next single qualified battery appears, at which point it is transferred to the discharge guide rail 7. If both batteries are qualified, they are conveyed to the discharge guide rail 7.

[0042] Reference Figures 1 to 3 The discharge guide rails 7 are provided in two parallel sections. A discharge plate 71 is slidably connected to each other on the discharge guide rails 7, and the sliding direction of the discharge plate 71 is parallel to the conveying direction of the conveyor belt 2. Several discharge slots 711 for accommodating batteries are provided on the discharge guide rails 7. In this application, there are six discharge slots 711 in total, arranged in two rows of three.

[0043] Reference Figures 1 to 3 The discharge plate 71 conveys the batteries to one end near the loading station 3. The grippers 5 grasp the batteries on the discharge plate 71 and convey them to the loading station 3. The center of the grippers 5 is equipped with several suction cups 51 for adsorbing the batteries. The number of suction cups 51 is the same as the number of discharge troughs 711, and the distribution of the suction cups 51 is consistent with the distribution of the discharge troughs 711 on the discharge plate 71. Several pairs of side claws 52 for clamping the fixture 4 are horizontally slidably connected to both sides of the grippers 5.

[0044] Reference Figures 1 to 3The suction cup 51 is vertically slidably connected to the gripper 5 via a vertical cylinder 53, and the side gripper 52 is horizontally slidably connected to the gripper 5 via a horizontal cylinder 54. A vertically arranged vertical rod 55 is fixed on the suction cup 51, and a gripping switch 56 electrically connected to the horizontal cylinder 54 is provided on the lower surface of the gripper 5. When the suction cup 51 is at its highest position, the vertical rod 55 abuts against the gripping switch 56, and the gripping switch 56 is turned on. A horizontal rod 57 is fixed on the side gripper 52, and an adsorption switch 58 is provided on the gripper 5. When the pair of side grippers 52 move to their farthest distance in opposite directions, the horizontal rod 57 abuts against the adsorption switch 58, and the adsorption switch 58 is turned on.

[0045] Reference Figures 1 to 3 When suction cup 51 is at its highest position, it is in the initial standby state. When side claw 52 is in the open position, it is also in the initial standby state. When suction cup 51 is in the initial standby state, clamping switch 56 is in the open state, allowing the horizontal cylinder 54 to extend and retract freely, meaning side claw 52 can tighten or open. When suction cup 51 descends, it indicates that claw 5 is about to pick up the battery; at this time, side claw 52 does not need to perform any action. At this time, vertical rod 55 separates from clamping switch 56, clamping switch 56 closes, horizontal cylinder 54 is disconnected, and horizontal cylinder 54 cannot be activated, meaning side claw 52 cannot tighten or open. Similarly, when side claw 52 is in the open standby state, suction cup 51 can move freely up and down to pick up the battery. When side claw 52 retracts to clamp the fixture 4, suction cup 51 is locked and cannot move. Suction cup 51 and side claw 52 are interlocked; when one is performing a gripping and transport operation, the other is locked and cannot move, thus avoiding mutual interference.

[0046] Reference Figures 1 to 3 The fixture 4 has several receiving slots 41 for holding batteries. The number of receiving slots 41 is the same as the number of discharge slots 711, and the distribution position of the receiving slots 41 is the same as the distribution position of the discharge slots 711 on the discharge plate 71. The gripper 5 can grab all the batteries on the discharge plate 71 at once and place them all on the fixture 4 at one time, making loading convenient and quick.

[0047] Reference Figures 1 to 3 The base 1 is equipped with a jig stacking station 6, which includes several vertically arranged limiting rods 61 surrounding a stacking area 62, within which jigs 4 are stacked. A slide rail 63 is provided within the stacking area 62, and a limiting plate 64 is vertically fixed at the end of the slide rail 63 on the stacking station. A gripper 5 removes the jigs 4 from the stacking station and places them on the loading station 3 to await battery addition, making it convenient to use. Operators can stack several jigs 4 from the outside and then slide them into the stacking station via the slide rail 63 for replenishment, also convenient to use.

[0048] The implementation principle of a battery transport system for mass spectrometry analysis in this application embodiment is as follows: Batteries are synchronously placed on conveyor belt 2 by an external robotic arm or manually, and then placed on transfer plate 81 via adjusting suction cup 22. After preliminary testing by detection probe 82, unqualified batteries are discharged through residual material belt 84. Qualified batteries are transported to discharge plate 71 for arrangement by sorting robotic arm 83. Gripper 5 first picks up a fixture 4 from fixture stacking station 6 and places it into loading station 3. Gripper 5 then picks up all batteries from discharge plate 71 at once and transfers them all to fixture 4. Gripper 5 then transfers the loaded fixture 4 for mass spectrometry testing. If the batteries are qualified after mass spectrometry testing, gripper 5 picks up and removes all batteries. If the batteries are unqualified and leakage occurs, gripper 5 removes fixture 4 along with the batteries using side gripper 52.

[0049] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A battery delivery system for mass spectrometer analysis and detection, comprising a base (1), wherein one end of the base (1) is provided with a conveyor belt (2) for conveying batteries, characterized in that: The other end of the base (1) is provided with a loading station (3), and the loading station (3) is provided with a fixture (4) for carrying batteries. The base (1) is movably connected with a gripper (5) for transferring batteries and fixture (4). The center of the gripper (5) is provided with several suction cups (51) for adsorbing batteries. Several pairs of side claws (52) for clamping fixture (4) are horizontally slidably connected to both sides of the gripper (5). The suction cup (51) is vertically slidably connected to the gripper (5) via a vertical cylinder (53), and the side gripper (52) is horizontally slidably connected to the gripper (5) via a horizontal cylinder (54). A vertically arranged vertical rod (55) is fixed on the suction cup (51), and a clamping switch (56) electrically connected to the horizontal cylinder (54) is provided on the lower surface of the gripper (5). When the suction cup (51) is at its highest position, the vertical rod (55) abuts against the clamping switch (56), and the clamping switch (56) is turned on. A horizontal rod (57) is fixed on the side gripper (52), and an adsorption switch (58) is provided on the gripper (5). When the pair of side grippers (52) move to their farthest distance in opposite directions, the horizontal rod (57) abuts against the adsorption switch (58), and the adsorption switch (58) is turned on. The fixture (4) is provided with a plurality of receiving slots (41) for carrying batteries. The number of suction cups (51) is the same as the number of receiving slots (41), and the distribution position of the suction cups (51) is the same as the distribution position of the receiving slots (41) on the fixture (4). A discharge guide rail (7) is provided between the conveyor belt (2) and the loading station (3). A discharge plate (71) is slidably connected to the discharge guide rail (7). The sliding direction of the discharge plate (71) is parallel to the conveying direction of the conveyor belt (2). A plurality of discharge grooves (711) are provided on the discharge plate (71). The number of discharge grooves (711) is the same as the number of receiving grooves (41). The distribution position of the discharge grooves (711) on the discharge plate (71) is the same as the distribution position of the receiving grooves (41) on the fixture (4). A preliminary inspection platform (8) is provided between the conveyor belt (2) and the discharge guide rail (7). A transfer plate (81) is rotatably connected to the preliminary inspection platform (8). The center of the transfer plate (81) is vertically rotatably connected to the preliminary inspection platform (8). Preliminary inspection slots (811) for accommodating batteries are respectively opened at both ends of the transfer plate (81). One end of the transfer plate (81) faces the conveyor belt (2), and the other end faces the discharge guide rail (7). A detection probe (82) is provided on the preliminary inspection platform (8) above the transfer plate (81). The detection probe (82) is directly opposite the end of the transfer plate (81) near the discharge guide rail (7).

2. The battery delivery system for mass spectrometer analysis and detection according to claim 1, characterized in that: The base (1) is provided with a jig stacking station (6), which includes several vertically arranged limiting rods (61). The limiting rods (61) form a stacking area (62), and the jigs (4) are stacked in the stacking area (62).

3. The battery delivery system for mass spectrometer analysis and detection according to claim 2, characterized in that: The stacking area (62) is provided with a slide rail (63), and a limiting plate (64) located at the end of the slide rail (63) is vertically fixed on the stacking station.

4. The battery delivery system for mass spectrometer analysis and detection according to claim 1, characterized in that: The discharge guide rail (7) is provided in multiple ways, and each discharge guide rail (7) is provided with a discharge plate (71).

5. The battery delivery system for mass spectrometer analysis and detection according to claim 1, characterized in that: The initial inspection station (8) is equipped with a sorting robot (83) at the end near the discharge guide rail (7), and a residual material belt (84) is provided parallel to one side of the conveyor belt (2), with a single-piece qualified station (85) fixed next to the residual material belt (84).

6. The battery delivery system for mass spectrometer analysis and detection according to claim 1, characterized in that: An adjustment frame (21) is slidably connected to one end of the conveyor belt (2) near the transfer plate (81). Several adjustment suction cups (22) are slidably connected to the adjustment frame (21) horizontally. The sliding direction of the adjustment frame (21) is parallel to the conveying direction of the conveyor belt (2), and the sliding direction of the adjustment suction cups (22) is perpendicular to the conveying direction of the conveyor belt (2). A position probe (23) is provided on the base (1) above one end of the conveyor belt (2) near the transfer plate (81). The position probe (23) is electrically connected to the adjustment suction cups (22).

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