Battery checking and assembling equipment capable of automatically measuring short circuit

Abstract

The utility model discloses battery checking and assembling equipment capable of automatically measuring short circuit, which comprises an equipment main body, a transmission device used for transmitting a battery is arranged on the equipment main body, and a calibrating device used for packaging and detecting the condition of the battery is arranged on one side of the transmission device. The other side of the transmission device is provided with a classified collection device acting according to the detection condition of the calibrating device, and the calibrating device comprises a packaging mechanism for packaging and positioning the batteries transmitted by the transmission device and a measuring mechanism for detecting the batteries processed and positioned by the packaging mechanism. According to the utility model, the measuring mechanism is arranged behind the packaging mechanism, after the battery is packaged and positioned at the packaging mechanism, the measuring mechanism detects the condition of the battery and feeds back the detected condition to the classified collection device, so that the packaging quality of the battery after packaging is ensured to be measured in time; therefore, the packaging quality is timely and guaranteed, and the working time for manually measuring the short circuit of the battery in the subsequent process is saved.

Description

[Technical Field]

[0001] This utility model relates to the field of battery production technology, and in particular to an automatic short-circuit testing and assembly device for batteries. [Background Technology]

[0002] In the battery manufacturing process, the packaging stage is crucial, as it not only affects the battery's safety performance but also directly impacts its lifespan and efficiency. Traditional packaging methods rely on manual operation, including multiple steps such as arranging, welding, and sealing battery cells. Manual judgment is used to determine if the battery is functional before proceeding with packaging.

[0003] However, with the continuous growth in battery demand, manual packaging methods are no longer sufficient to meet the requirements of large-scale, high-efficiency production. This not only increases production costs but also makes it difficult to guarantee the consistency and precision of the packaging. Therefore, automated and intelligent packaging technology has become a key issue that urgently needs to be addressed in the battery manufacturing industry. [Utility Model Content]

[0004] To solve the above-mentioned technical problems, this utility model proposes an automatic short-circuit testing battery inspection device.

[0005] This utility model is achieved by the following technical solution:

[0006] An automatic short-circuit testing battery assembly and testing device includes a main body, on which a transmission device for transporting batteries is provided. On one side of the transmission device, a testing device for packaging and testing the condition of the batteries is provided, and on the other side of the transmission device, a sorting and collecting device that operates according to the testing results of the testing device is provided. The testing device includes a packaging mechanism for packaging and positioning the batteries transported by the transmission device, and a measuring mechanism for testing the batteries after they have been processed and positioned by the packaging mechanism.

[0007] As described above, an automatic short-circuit testing battery assembly and testing device includes a testing mechanism comprising a support column mounted on the main body of the device and a detection element disposed on one side of the support column corresponding to the battery. The testing mechanism also includes a second sensor for detecting the battery's position and a driving element for driving the detection element to operate and detect the battery status when a signal from the second sensor is received.

[0008] As described above, an automatic short-circuit testing battery assembly device includes a transmission mechanism for receiving batteries and transmitting them to the testing device, and a drive mechanism for driving the transmission mechanism. The transmission mechanism is provided with a plurality of receiving slots for placing batteries.

[0009] As described above, an automatic short-circuit testing battery assembly device has a mating component on one side of the receiving slot that cooperates with the detection component to form a passage. The mating component is in contact with one electrode of the battery. The detection component can move under the drive of the driving component until it contacts the other electrode of the battery, forming a passage with the mating component powered by the battery to determine whether the battery is in a normal or short-circuit state.

[0010] As described above, an automatic short-circuit testing battery assembly device includes a packaging mechanism comprising a first sensor for detecting the battery's position and a pair of positioning cylinders for cooperating in positioning the battery upon receiving a signal from the first sensor.

[0011] In the battery testing and assembly equipment for automatic short circuit detection as described above, the second sensor is disposed on the support column, and the driving component is a cylinder with the detection component mounted on one side.

[0012] As described above, in an automatic short-circuit testing battery assembly device, the transmission mechanism is disc-shaped, and the packaging mechanism and the testing mechanism are arranged adjacent to each other.

[0013] As described above, an automatic short-circuit testing battery assembly and sorting device includes a clamping mechanism that is synchronized with the action signal of the transmission mechanism for clamping the battery and detaching it from the transmission mechanism. One side of the clamping mechanism is provided with a first collection mechanism for receiving and storing normal batteries and a second collection mechanism for receiving and storing abnormal batteries such as those with short circuits. The other side of the clamping mechanism is provided with a first drive cylinder corresponding to the first collection mechanism for cooperating with the clamping mechanism to transfer the battery to the first collection mechanism, and a second drive cylinder corresponding to the second collection mechanism for cooperating with the clamping mechanism to transfer the battery to the second collection mechanism. The first drive cylinder and the second drive cylinder are respectively electrically connected to the detection element.

[0014] In the battery inspection and assembly equipment described above for automatic short circuit detection, the clamping mechanism is a cylinder that can move with the transmission mechanism and drive the battery to disengage from the transmission mechanism.

[0015] In the battery testing and assembly equipment for automatic short circuit detection as described above, the sorting and collection device is located on a side that facilitates collection and storage, and the action signals of the first drive cylinder and the second drive cylinder are set according to the relative positions of the sorting and collection device and the measuring mechanism.

[0016] Compared with the prior art, the automatic short-circuit testing battery assembly equipment proposed in this utility model has the following beneficial effects:

[0017] An automatic short-circuit testing battery assembly and testing device includes a main body, on which a transmission device for transporting batteries is provided. On one side of the transmission device, a testing device for packaging and testing the condition of the batteries is provided, and on the other side of the transmission device, a sorting and collecting device that operates according to the testing results of the testing device is provided. The testing device includes a packaging mechanism for packaging and positioning the batteries transported by the transmission device, and a measuring mechanism for testing the batteries after they have been processed and positioned by the packaging mechanism.

[0018] This invention provides a measuring mechanism after the packaging mechanism. After the battery is packaged and positioned at the packaging mechanism, the measuring mechanism detects the battery condition and feeds back the detection results to the sorting and collection device. This ensures that the packaging quality is measured in a timely manner after the battery is packaged, so that the packaging quality is guaranteed in a timely manner and saves the time required for subsequent manual measurement of battery short circuits. [Attached Image Description]

[0019] To more clearly illustrate the technical solutions in the embodiments of this utility model, the accompanying drawings used in the description of the embodiments will be briefly introduced below.

[0020] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0021] Figure 2 for Figure 1 A magnified view of region A;

[0022] Figure 3 for Figure 1 Enlarged schematic diagram of region B;

[0023] Figure 4 for Figure 1 Another perspective illustration;

[0024] Figure 5 for Figure 1 Another perspective illustration.

[0025] The corresponding reference numerals in the attached figures are as follows:

[0026] 1. Equipment body; 11. Transmission device; 111. Transmission mechanism; 1111. Receiving groove; 1112. Fitting parts; 12. Calibration device; 121. Packaging mechanism; 1211. First sensor; 1212. Positioning cylinder; 122. Measuring mechanism; 1221. Support column; 1222. Detection piece; 1223. Second sensor; 1224. Driving component; 13. Classification and collection device; 131. Clamping mechanism; 132. First collection mechanism; 133. Second collection mechanism; 134. First driving cylinder; 135. Second driving cylinder.

Detailed Implementation Methods

[0027] To make the technical problems solved, technical solutions, and beneficial effects of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.

[0028] Specific embodiments, combined with Figures 1 to 5 As shown, the technical solution of this utility model is further explained. An automatic short-circuit testing battery assembly and testing device includes a main body 1. The main body 1 is provided with a transmission device 11 for transmitting batteries. On one side of the transmission device 11, there is a testing device 12 for packaging and testing the condition of the batteries. On the other side of the transmission device 11, there is a sorting and collecting device 13 that operates according to the testing condition of the testing device 12. The testing device 12 includes a packaging mechanism 121 for packaging and positioning the batteries transmitted by the transmission device 11, and a measuring mechanism 122 for testing the batteries after they have been processed and positioned by the packaging mechanism 121.

[0029] During this process, the battery is processed and then transferred to the transmission device 11. When the battery passes through the testing device 12, the packaging mechanism 121 first packages and positions the battery to facilitate testing when it is transferred to the testing mechanism 122. After the testing mechanism 122 completes the testing, its test result signal is transmitted to the sorting and collection device 13, so that the sorting and collection device 13 can classify and collect the battery according to the test result signal. The battery may have already undergone the previous process for testing, packaging, and sorting, or it may be specifically designed to test the usage status of a particular type of battery. Optionally, a packaging device can be installed at the sorting and collection device 13 to package the sorted batteries, further improving the efficiency of the battery production process.

[0030] In this embodiment, the transmission device 11 includes a transmission mechanism 111 for receiving batteries and transmitting them to the calibration device 12, and a drive mechanism for driving the transmission mechanism 111. The transmission mechanism 111 is provided with a plurality of receiving slots 1111 for placing batteries.

[0031] Furthermore, the shape of the transmission mechanism 111 can be strip-shaped, square, or other shapes that facilitate transmission, detection, and collection. As a preferred embodiment of this solution and not a limitation, the transmission mechanism 111 is a disc-shaped structural component.

[0032] In this embodiment, the packaging mechanism 121 includes a first sensor 1211 for detecting the battery's position and a pair of positioning cylinders 1212 for cooperating in positioning the battery after receiving a signal from the first sensor 1211. After packaging is completed, the pair of positioning cylinders 1212 adjust and position the battery to facilitate the testing work after the battery is transferred to the measuring mechanism 122.

[0033] Furthermore, the measuring mechanism 122 includes a support column 1221 disposed on the main body 1 of the device and a detection element 1222 disposed on one side of the support column 1221 corresponding to the battery. The measuring mechanism 122 also includes a second sensor 1223 for detecting the battery's position and a driving element 1224 for driving the detection element 1222 to act to detect the battery's condition when a signal from the second sensor 1223 is received.

[0034] Furthermore, the second sensor 1223 is disposed on the support column 1221, and the driving component 1224 is a cylinder with the detection component 1222 mounted on one side.

[0035] Furthermore, the detection element 1222 can be, as a preferred embodiment of this solution rather than a limitation, a mating element 1112 that cooperates with the detection element 1222 to form a passage on one side of the receiving groove 1111. The mating element 1112 is in contact with one electrode of the battery. When the detection element 1222 moves to contact the other electrode of the battery, it forms a passage with the battery as the power source with the mating element 1112, which is used to determine whether the battery is in a normal or short-circuit state.

[0036] Furthermore, the positions of the packaging mechanism 121 and the measuring mechanism 122 are set according to actual needs, ensuring that the battery is packaged and positioned by the packaging mechanism 121 and then transferred to the measuring mechanism 122. As a preferred embodiment of this solution, rather than a limitation, the packaging mechanism 121 and the measuring mechanism 122 are arranged adjacent to each other, so that the battery can be directly tested by the measuring mechanism 122 after positioning.

[0037] In this embodiment, the sorting and collecting device 13 includes a clamping mechanism 131 that is synchronized with the action signal of the transmission mechanism 111 for clamping the battery and detaching it from the transmission mechanism 111. One side of the clamping mechanism 131 is provided with a first collecting mechanism 132 for receiving and storing normal batteries and a second collecting mechanism 133 for receiving and storing abnormal batteries such as those with short circuits. The other side of the clamping mechanism 131 is provided with a first driving cylinder 134 corresponding to the first collecting mechanism 132 for cooperating with the clamping mechanism 131 to transfer the battery to the first collecting mechanism 132, and a second driving cylinder 135 corresponding to the second collecting mechanism 133 for cooperating with the clamping mechanism 131 to transfer the battery to the second collecting mechanism 133. The first driving cylinder 134 and the second driving cylinder 135 are respectively electrically connected to the detection element 1222.

[0038] In this process, when the detection element 1222 detects that the battery is in a normal state, it transmits a signal to the first drive cylinder 134. When the battery is picked up by the clamping mechanism 131, the first drive cylinder 134 actuates and, in cooperation with the clamping mechanism 131, pushes the battery to the first collection mechanism 132. When the detection element 1222 detects that the battery is in an abnormal state, it transmits a signal to the second drive cylinder 135. When the battery is picked up by the clamping mechanism 131, the second drive cylinder 135 actuates and, in cooperation with the clamping mechanism 131, pushes the battery to the second collection mechanism 133. Thus, the battery completes a series of automated processes, including transportation, packaging and positioning, status detection, and temporary storage, improving the automation level and production efficiency of battery production.

[0039] Furthermore, as a preferred embodiment of this solution and not a limitation, the clamping mechanism 131 is a cylinder that can move with the transmission mechanism 111 and drive the battery to disengage from the transmission mechanism 111.

[0040] Furthermore, the sorting and collecting device 13 is positioned on a side that facilitates collection and storage. The action signals of the first driving cylinder 134 and the second driving cylinder 135 are set according to the relative positions of the sorting and collecting device 13 and the measuring mechanism 122, so as to cooperate with the clamping mechanism 131 to sort and store normal and abnormal batteries.

[0041] The working principle of this embodiment is as follows:

[0042] This utility model proposes an automatic short-circuit testing device and a battery testing equipment with the same. By setting a testing mechanism 122 between the battery packaging and collection, and using the packaging mechanism 121 to position the battery, a classification and collection device 13 classifies and collects normal or abnormal batteries, thereby improving the efficiency and automation level of battery production. Its specific working principle is as follows:

[0043] After processing, the battery is transferred to the transmission device 11. When the battery passes through the testing device 12, the packaging mechanism 121 first packages and positions the battery to facilitate testing when the battery is transferred to the testing mechanism 122. After the testing mechanism 122 completes the testing of the battery, its test result signal is transmitted to the classification and collection device 13 so that the classification and collection device 13 can classify and collect the battery according to the test result signal.

[0044] In this process, when the detection element 1222 detects that the battery is in normal condition, it transmits a signal to the first drive cylinder 134. After the battery is transferred to the clamping mechanism 131 for clamping, the first drive cylinder 134 actuates and cooperates with the clamping mechanism 131 to push the battery to the first collection mechanism 132. When the detection element 1222 detects that the battery is in abnormal condition, it transmits a signal to the second drive cylinder 135. After the battery is transferred to the clamping mechanism 131 for clamping, the second drive cylinder 135 actuates and cooperates with the clamping mechanism 131 to push the battery to the second collection mechanism 133. Thus, the battery not only completes a series of automated processes such as transportation, packaging positioning, status detection, and temporary storage, but also ensures the battery packaging quality and saves the time required for subsequent manual measurement of battery short circuits.

Claims

1. A battery inspection and assembly apparatus that automatically detects short circuits, characterized by, The device body (1) is provided with a transmission device (11) for transmitting batteries, one side of the transmission device (11) is provided with a detection device (12) for packaging and detecting the condition of the battery, the other side of the transmission device (11) is provided with a classification collection device (13) which acts according to the detection condition of the detection device (12), the detection device (12) comprises a packaging mechanism (121) for packaging and positioning the battery transmitted by the transmission device (11) and a measuring mechanism (122) for detecting the battery processed and positioned by the packaging mechanism (121).

2. The battery testing and assembling apparatus of claim 1, wherein the short circuit detector comprises a short circuit detector circuit. The measuring mechanism (122) comprises a support (1221) arranged on the device body (1) and a detection piece (1222) arranged on one side of the support (1221) corresponding to the battery, the measuring mechanism (122) further comprises a second sensor (1223) for detecting the battery positioning condition and a driving piece (1224) for driving the detection piece (1222) to act to detect the battery condition when receiving the signal of the second sensor (1223).

3. The battery testing and packing apparatus of claim 2, wherein the short circuit detector comprises a short circuit detector circuit. The transmission device (11) comprises a transmission mechanism (111) for receiving the battery and transmitting it to the detection device (12) and a driving mechanism for driving the transmission mechanism (111), the transmission mechanism (111) is provided with a plurality of accommodation grooves (1111) for placing the battery.

4. The battery testing and packing apparatus of claim 3, wherein the short circuit detector comprises a short circuit detector circuit. One side of the accommodation groove (1111) is provided with a matching piece (1112) which forms a path with the detection piece (1222), the matching piece (1112) contacts one electrode of the battery, and the detection piece (1222) can be driven by the driving piece (1224) to contact the other electrode of the battery to form a path for judging whether the battery is in normal or short circuit state with the matching piece (1112) as power supply.

5. The battery testing and assembling apparatus of claim 2, wherein the short circuit detector comprises: a short circuit detecting circuit for detecting a short circuit of the battery; and a short circuit detecting switch for detecting the short circuit of the battery by the short circuit detecting circuit. The packaging mechanism (121) comprises a first sensor (1211) for detecting the battery positioning condition and a pair of positioning cylinders (1212) for positioning the battery after receiving the signal of the first sensor (1211).

6. The battery testing and packing apparatus of claim 2, wherein the short circuit detector comprises a short circuit detector circuit. The second sensor (1223) is arranged on the support (1221), and the driving piece (1224) is a cylinder which is provided with the detection piece (1222) on one side.

7. The battery testing and packing apparatus of claim 3, wherein the short circuit detector comprises a short circuit detector circuit. The transmission mechanism (111) is disc-shaped, and the packaging mechanism (121) and the measuring mechanism (122) are arranged adjacent to each other.

8. The battery testing and packing apparatus of claim 3, wherein the short circuit detector comprises a short circuit detector circuit. The classification collecting device (13) comprises a clamping mechanism (131) for clamping the battery away from the transmission mechanism (111) in accordance with the action signal of the transmission mechanism (111), one side of the clamping mechanism (131) is provided with a first collecting mechanism (132) for receiving and storing normal batteries and a second collecting mechanism (133) for receiving and storing abnormal batteries, the other side of the clamping mechanism (131) is provided with a first driving cylinder (134) corresponding to the first collecting mechanism (132) for cooperating with the clamping mechanism (131) to transmit the battery to the first collecting mechanism (132), and a second driving cylinder (135) corresponding to the second collecting mechanism (133) for cooperating with the clamping mechanism (131) to transmit the battery to the second collecting mechanism (133), the first driving cylinder (134) and the second driving cylinder (135) are respectively connected with the detection piece (1222) in an electrical signal manner.

9. The battery testing and packing apparatus of claim 8, wherein the short circuit detector comprises a short circuit detector circuit. The clamping mechanism (131) is a cylinder capable of acting with the transmission mechanism (111) and driving the battery away from the transmission mechanism (111).

10. The battery testing and packing apparatus of claim 8, wherein the short circuit detector comprises a short circuit detector circuit. The classification collecting device (13) is located at a side facilitating collection and storage, and the action signals of the first driving cylinder (134) and the second driving cylinder (135) are set in correspondence with the relative positions of the classification collecting device (13) and the measuring mechanism (122).

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