Forming, conveying and testing device for new energy battery fixing steel belt

Abstract

The utility model relates to the technical field of new energy battery fixing steel belt production, in particular to a forming, conveying and testing device for a new energy battery fixing steel belt, which comprises a working table, a forming table, a placing assembly, a bending assembly, a welding assembly, a conveying assembly and a testing assembly, the containing assembly is arranged on the forming table and used for containing a steel belt. The bending assembly comprises a bending supporting table, a bending moving module, a bending transmission module, a bending driving module and a bending clamping module, the bending supporting table is arranged on the face, away from the workbench, of the forming table, the bending moving module is arranged on the bending supporting table, and the bending transmission module is provided with two transmission seats which are in mirror image transmission; the bending driving module is arranged on the bending clamping module. Automatic forming, welding and conveying testing of the steel belt frame are achieved, and the automation degree is high.

Description

Technical Field

[0001] The utility model relates to the technical field of new energy battery fixing steel belt production, in particular to a forming conveying and testing device for new energy battery fixing steel belts. Background Art

[0002] The fixing steel belt of new energy vehicle batteries is a device used to fix the battery pack of new energy vehicles. In new energy vehicles, the battery pack is usually composed of multiple battery cells. To ensure the safety and stability of the battery pack during vehicle operation, a fixing steel belt is required to firmly fix the battery pack at a specific position in the vehicle. It is usually made of high-strength and corrosion-resistant steel, and an insulating material needs to be set outside the steel belt to ensure the firmness, long-term reliability, and safety of the fixation. The structural design of the fixing steel belt should consider the size and shape of the battery pack, as well as the structural characteristics of the vehicle, to ensure that the entire battery pack can be completely wrapped and fixed.

[0003] During the production process of the fixing steel belt, it needs to be bent and formed, and then tested. After testing, it is then coated with glue and packaged. In the existing production process of the fixing steel belt, all are operated manually. Manual operation has low efficiency and high batch production costs. Therefore, new improvements need to be made to the existing production of the fixing steel belt. Summary of the Utility Model

[0004] To solve the above problems, the utility model realizes the automatic forming, welding, conveying and testing of the steel belt frame. It is a forming conveying and testing device for new energy battery fixing steel belts with high automation and labor and material saving.

[0005] The technical solution adopted by the utility model is: a forming conveying and testing device for new energy battery fixing steel belts, including a workbench, a forming table, a placing component, a bending component, a welding component, a conveying component, and a testing component. The forming table is arranged on one side of the workbench and forms a right angle with the workbench. The placing component is arranged on the forming table and is used for placing the steel belt.

[0006] For further improvement of the above solution, the bending component includes a bending support table, a bending moving module, a bending transmission module, a bending driving module, and a bending clamping module. The bending support table is arranged on the side opposite to the forming table and the workbench. The bending moving module is arranged on the bending support table. The bending transmission module is arranged on the bending moving module. The bending transmission module is provided with two groups of mutually mirror-image transmission seats. The bending driving module is arranged on the bending clamping module. The bending clamping module is provided with a bending clamping shaft to clamp and bend the steel belt.

[0007] A further improvement to the above solution is that the welding assembly is arranged at the top of the forming table and is used for welding the two ends of the bent steel strip, and the conveying assembly is used to convey the welded steel strip towards the testing assembly; the testing assembly is used for conducting electrical conductivity tests on the steel strip.

[0008] A further improvement to the above solution is that the forming table is provided with a first bending through groove and a second bending through groove. There are two of each of the first bending through groove and the second bending through groove, and they are symmetrically distributed about the center of the forming table.

[0009] A further improvement to the above solution is that the bending movement module is used to drive the bending transmission module to drive the bending clamping module to pass through the first bending through groove and the second bending through groove.

[0010] A further improvement to the above solution is that a steel strip end face positioning assembly is arranged on one side of the forming table where the first bending through groove is located. The end face positioning assembly includes a positioning mounting block and a positioning rod. The positioning mounting block is arranged on the forming table, and the positioning rod is arranged on the positioning mounting block. One end of the positioning rod is bent towards the placing assembly for positioning the end of the steel strip.

[0011] A further improvement to the above solution is that the placing assembly includes a placing track and an adsorption element. The placing track is arranged on the forming table. There are placing steps on the placing track, and adsorption holes are arranged on the placing steps. The adsorption element is arranged on the side of the placing track opposite to the placing steps and is connected to the adsorption holes to provide suction to the adsorption holes to adsorb the steel strip on the placing steps.

[0012] A further improvement to the above solution is that there are multiple placing tracks, and the first bending through groove and the second bending through groove are used to separate the multiple placing tracks.

[0013] A further improvement to the above solution is that there are at least two groups of bending movement modules, and at least two groups of bending movement modules are synchronously driven. Both the bending movement modules and the bending movement modules are linear drive modules; an L-shaped plate is arranged on the drive seat. The bending drive module includes a bending motor and a speed reducer connected to the bending motor. The bending clamping module is arranged at the drive end of the speed reducer, and the bending motor is arranged on the L-shaped plate.

[0014] A further improvement to the above solution is that the welding assembly includes a pushing module, a supporting module, a pressing module, and a welding module. The pushing module is arranged on the forming table. The supporting module is connected to the drive end of the pushing module. The pressing module is arranged above the supporting module. The welding module is arranged at the drive end of the pressing module and is opposite to the supporting module; the supporting module is provided with a welding table, and the welding table is provided with a welding positioning groove.

[0015] A further improvement to the above scheme is that the pushing module is a pushing cylinder, the supporting module is provided with a lifting cylinder, the welding table is arranged at the driving end of the lifting cylinder, the pressing module is a pressing cylinder, and the welding module is provided with multiple welding heads, and the welding heads are facing the welding positioning grooves.

[0016] A further improvement to the above scheme is that the conveying assembly includes a circulating transmission chain, a conveying drive module and a conveying hook. There are multiple conveying hooks, and multiple conveying hooks are arranged on the circulating transmission chain. The conveying drive module is used to drive the circulating transmission chain to transmit, and the pushing module is used to drive the supporting module to transmit the welded steel belt toward the conveying hook so as to hang the steel belt on the conveying hook.

[0017] A further improvement to the above scheme is that the test assembly includes a test water tank, the circulating transmission chain is provided with a sinking position, and the sinking position is arranged above the test water tank so as to sink the steel belt into the test water tank during the transmission process; the conveying hook is made of conductive material to cooperate with the test water tank to test whether the insulating layer on the outside of the steel belt is punctured underwater.

[0018] A further improvement to the above scheme is that it also includes a drying component, which is arranged on the rear side of the testing component, and the circulating transmission chain is used to drive the steel strip through the drying component. The drying component includes a drying bracket and a drying nozzle arranged on the drying bracket, and the drying nozzle is used to blow air to dry the steel strip during the transmission process.

[0019] The beneficial effects of the utility model are:

[0020] Compared with the existing preparation of battery fixing steel strips, the utility model automates the preparation of steel strips. The steel strip itself is covered with an insulating layer on the outside, and the two ends are peeled and exposed. During the preparation process, the steel strip is placed on the placement component, and then bent once by the bending component. The first bending is to bend both ends of the steel strip at the same time. After bending, a semi-frame-shaped steel strip is formed. Then the bending component moves inward and the steel strip is bent twice. The secondary bending bends the steel strip and butts the two ends to form a complete frame structure. The exposed structure at both ends is welded and connected by the welding component. The frame structure is fixed and finally transported to the test component by the conveying component. After the test is completed, the material is unloaded. The automated forming, welding, conveying and testing of the steel strip frame are realized. The degree of automation is high, saving manpower and material resources.

[0021] The utility model integrates functional modules such as forming, placing, bending, welding, conveying, and testing, realizes the full-process automated production of steel strips, and improves production efficiency and stability. Through the cooperation of the forming table, placing component, and bending component, the steel strip can be accurately positioned, bent, and fixed, ensuring the accuracy and consistency of the steel strip shape. The welding component can weld the two ends of the bent steel strip to ensure reliable welding quality and improve the structural stability and safety of the steel strip. The bending drive module is provided with two groups of drive seats that drive mirror images of each other, making the drive during the bending process more stable, reducing energy waste and mechanical losses. The bending clamping module clamps and bends the steel strip through the bending clamping shaft, with precise and stable clamping, ensuring the safety and accuracy of the steel strip during the bending process. The conveying component conveys the welded steel strip towards the testing component, realizing an intelligent conveying process, saving human resources, and improving production efficiency. The testing component is used to conduct electrical conductivity tests on the steel strip to ensure that the steel strip meets electrical requirements and improve the quality reliability and stability of the product. Through the collaborative effect of multiple functional modules, the utility model realizes the automated control and monitoring of the entire process of steel strip production, improving production efficiency, quality stability, and the safety of the production environment. Description of the Drawings

[0022] Figure 1 is a three-dimensional structural schematic diagram of the forming, conveying, and testing device for the new energy battery fixed steel strip of the present utility model;

[0023] Figure 2 is Figure 1 a three-dimensional structural schematic diagram of another perspective of the forming, conveying, and testing device for the new energy battery fixed steel strip in

[0024] Figure 3 is Figure 1 a three-dimensional structural schematic diagram of a part of the forming, conveying, and testing device for the new energy battery fixed steel strip in

[0025] Figure 4 is Figure 3 an enlarged schematic diagram of part A in

[0026] Figure 5 is Figure 1 a three-dimensional structural schematic diagram of a part of the forming, conveying, and testing device for the new energy battery fixed steel strip in

[0027] Figure 6 is Figure 1 a three-dimensional structural schematic diagram of the conveying component of the forming, conveying, and testing device for the new energy battery fixed steel strip in

[0028] Figure 7 is a process schematic diagram of the steel strip bending and forming of the present utility model.

[0029] Description of reference numerals: Workbench 1, forming table 2, first bending through groove 21, second bending through groove 22, end face positioning assembly 23, positioning and mounting block 231, positioning rod 232, placing assembly 3, placing track 31, placing step 311, adsorption hole 312, adsorption element 32, bending assembly 4, bending support table 41, bending moving module 42, bending transmission module 43, transmission seat 431, L-shaped plate 432, bending driving module 44, bending motor 441, speed reducer 442, bending clamping module 45, bending clamping shaft 451, welding assembly 5, pushing module 51, supporting module 52, welding table 521, welding positioning groove 522, pressing module 53, welding module 54, welding head 541, conveying assembly 6, circulating transmission chain 61, sinking position 611, conveying driving module 62, conveying hook 63, testing assembly 7, testing water tank 71, drying assembly 8, drying bracket 81, drying nozzle 82. Detailed implementation manners

[0030] For the convenience of understanding the present utility model, the present utility model will be described more comprehensively below with reference to the relevant drawings. The preferred embodiments of the present utility model are shown in the drawings. However, the present utility model can be implemented in many different forms and is not limited to the embodiments described herein. On the contrary, the purpose of providing these embodiments is to make the understanding of the disclosure content of the present utility model more thorough and comprehensive.

[0031] It should be noted that when an element is referred to as being "fixed to" another element, it can be directly on the other element or there may also be an intermediate element. When an element is considered to be "connected" to another element, it can be directly connected to the other element or there may be an intermediate element at the same time.

[0032] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those skilled in the technical field to which the present utility model belongs. The terms used in the specification of the present utility model herein are only for the purpose of describing specific embodiments and are not intended to limit the present utility model. As Figures 1 to 7As shown, in one embodiment of the utility model, a forming, conveying and testing device for fixing steel strips for new energy batteries is involved, including a workbench 1, a forming table 2, a placement component 3, a bending component 4, a welding component 5, a conveying component 6 and a testing component 7. The forming table 2 is arranged on one side of the workbench 1 and forms a right angle with the workbench 1. The placement component 3 is arranged on the forming table 2 and is used to place the steel strip. The bending assembly 4 includes a bending support table 41, a bending moving module 42, a bending transmission module 43, a bending drive module 44 and a bending clamping module 45. The bending support table 41 is arranged on the side of the forming table 2 that is away from the workbench 1. The bending moving module 42 is arranged on the bending support table 41. The bending transmission module 43 is arranged on the bending moving module 42. The bending transmission module 43 is provided with two sets of transmission seats 431 that are mirror-imaged to each other. The bending drive module 44 is arranged on the bending clamping module 45. The bending clamping module 45 is provided with a bending clamping shaft 451 to clamp and bend the steel strip. The welding assembly 5 is arranged at the top of the forming table 2 and is used to weld the two ends of the bent steel strip. The conveying assembly 6 is used to convey the welded steel strip toward the testing assembly 7. The testing assembly 7 is used for conducting the steel strip. In this embodiment, the steel strip is prepared automatically. The steel strip itself is covered with an insulating layer on the outside, and the two ends are peeled and exposed. During the preparation process, the steel strip is placed on the placement component 3, and then bent once by the bending component 4. The first bending is to bend both ends of the steel strip at the same time, and a semi-frame-shaped steel strip is formed after bending. Then the bending component 4 moves inward and performs a second bending on the steel strip. The second bending bends the steel strip and butts the two ends to form a complete frame structure, and the structure with the peeled and exposed ends is welded and connected by the welding component 5. The frame structure is fixed and finally transported to the test component 7 by the conveying component 6. After the test is completed, the material is unloaded. The automatic forming, welding, conveying and testing of the steel strip frame are realized. The degree of automation is high, saving manpower and material resources.

[0033] This embodiment integrates functional modules such as forming, placing, bending, welding, conveying, and testing, achieving the full-process automation production of steel strips, and improving production efficiency and stability. Through the cooperation of the forming table 2, the placing component 3, and the bending component 4, the steel strip can be accurately positioned, bent, and fixed, ensuring the accuracy and consistency of the shape of the steel strip. The welding component 5 can weld the two ends of the bent steel strip, ensuring reliable welding quality and improving the structural stability and safety of the steel strip. The bending transmission module 43 is provided with two sets of transmission seats 431 that are mirror-image transmitted to each other, making the transmission during the bending process more stable, reducing energy waste and mechanical losses. The bending clamping module 45 clamps and bends the steel strip through the bending clamping shaft 451, with precise and stable clamping, ensuring the safety and accuracy of the steel strip during the bending process. The conveying component 6 conveys the welded steel strip towards the testing component 7, realizing an intelligent conveying process, saving human resources and improving production efficiency. The testing component 7 is used to conduct electrical conductivity tests on the steel strip to ensure that the steel strip meets electrical requirements, improving the quality reliability and stability of the product. Through the synergistic effect of multiple functional modules, this embodiment realizes the automatic control and monitoring of the entire process of steel strip production, improving production efficiency, quality stability, and the safety of the production environment.

[0034] The forming table 2 is provided with a first bending through groove 21 and a second bending through groove 22. Both the first bending through groove 21 and the second bending through groove 22 are provided with two and are symmetrically distributed about the center of the forming table 2; the bending moving module 42 is used to drive the bending transmission module 43 to drive the bending clamping module 45 to pass through the first bending through groove 21 and the second bending through groove 22. Specifically, a steel strip end face positioning component 23 is provided on one side of the forming table 2 where the first bending through groove 21 is located. The end face positioning component 23 includes a positioning installation block 231 and a positioning rod 232. The positioning installation block 231 is arranged on the forming table 2, and the positioning rod 232 is arranged on the positioning installation block 231. One end of the positioning rod 232 bends towards the placing component 3 for positioning the end of the steel strip. In this embodiment, by providing two first bending through grooves 21 and second bending through grooves 22 and symmetrically distributing them about the center, and driving the bending transmission module 43 to pass through the through grooves by the bending moving module 42, accurate bending of the steel strip is achieved, ensuring the accuracy of the bending angle and shape. The forming table 2 realizes the stable positioning of the end of the steel strip through the end face positioning component 23, including the positioning installation block 231 and the positioning rod 232, making the position of the steel strip fixed during the bending process, avoiding deviation or dislocation, and improving production accuracy and consistency. The setting of the positioning rod 232 makes the end positioning of the steel strip more convenient and fast. Operators can quickly and accurately position the steel strip, improving production efficiency and operation convenience. Through accurate bending and stable positioning, production quality defects caused by inaccurate bending positions or material offsets are effectively avoided, ensuring the consistency and stability of the product.

[0035] The placing component 3 includes a placing track 31 and a suction element 32. The placing track 31 is arranged on the forming table 2. A placing step 311 is arranged on the placing track 31, and a suction hole 312 is arranged on the placing step 311. The suction element 32 is arranged on the side of the placing track 31 opposite to the placing step 311 and is connected to the suction hole 312 to provide suction force to the suction hole 312, so as to adsorb the steel strip on the placing step 311. Specifically, a plurality of placing tracks 31 are arranged, and the first bending through groove 21 and the second bending through groove 22 are used to separate the plurality of placing tracks 31. In this embodiment, through the combination of the placing track 31, the placing step 311 and the suction element 32, the stable adsorption and fixation of the steel strip are realized, ensuring that the position of the steel strip is accurate and not easy to move during the forming and processing process, and improving the precision and stability of production. The suction element 32 realizes the intelligent adsorption and release control of the steel strip by providing suction force to the suction hole 312, with simple operation and a high level of automation. A plurality of placing tracks 31 are arranged to perform bending forming at multiple positions. The steel strip is firmly adsorbed on the placing step 311, avoiding quality problems caused by material displacement or swing during the production process, and improving the stability and consistency of the product.

[0036] At least two groups of bending moving modules 42 are arranged, and at least two groups of bending moving modules 42 are synchronously driven. Both the bending moving module 42 and the bending moving module 42 are linear drive modules. An L-shaped plate 432 is arranged on the driving seat 431. The bending driving module 44 includes a bending motor 441 and a speed reducer 442 connected to the bending motor 441. The bending clamping module 45 is arranged at the driving end of the speed reducer 442, and the bending motor 441 is arranged on the L-shaped plate 432. In this embodiment, at least two groups of linear drive modules are arranged for the bending moving module 42 and synchronous drive is realized, which can ensure the consistent and stable actions of multiple groups of bending moving modules 42, and improve the accuracy and consistency of the bending process. By arranging the L-shaped plate 432 on the driving seat 431 and installing the bending motor 441 on the L-shaped plate 432, the stability and reliability of the bending driving module 44 are increased, and the risk of equipment failure caused by vibration or instability is reduced. The bending driving module 44 includes a bending motor 441 and a speed reducer 442, and the transmission efficiency can be improved through the design of the speed reducer 442. The coordinated operation of the bending motor 441 and the speed reducer 442 enables the bending clamping module 45 to accurately control the bending action of the steel strip, ensuring the accurate control of the bending angle and strength, and improving the production quality and stability. The linear drive module is adopted, with a simple and stable structure, easy to maintain and operate, reducing the equipment maintenance cost and the training cost of production operators.

[0037] The welding assembly 5 includes a pushing module 51, a supporting module 52, a pressing module 53 and a welding module 54. The pushing module 51 is arranged on the forming table 2. The supporting module 52 is connected to the driving end of the pushing module 51. The pressing module 53 is arranged on the upper side of the supporting module 52. The welding module 54 is arranged at the driving end of the pressing module 53 and is opposite to the supporting module 52. The supporting module 52 is provided with a welding table 521, and the welding table 521 is provided with a welding positioning groove 522. Specifically, the pushing module 51 is a pushing cylinder. The supporting module 52 is provided with a lifting cylinder, and the welding table 521 is arranged at the driving end of the lifting cylinder. The pressing module 53 is a pressing cylinder. The welding module 54 is provided with a plurality of welding heads 541, and the welding heads 541 face the welding positioning groove 522. In this embodiment, through the combination of the pushing module 51, the supporting module 52, the pressing module 53 and the welding module 54, the precise welding of the two ends of the bent steel strip is realized. The welding module 54 is provided with a plurality of welding heads 541 facing the welding positioning groove 522, ensuring accurate welding positions, improving the welding quality and stability. Using cylinders as driving elements and combining the collaborative work between the modules, the automated operation of the welding process is realized, reducing the labor cost and improving the production efficiency. The supporting module 52 is provided with a welding table 521 and a welding positioning groove 522, providing a stable supporting platform and positioning function, ensuring the accurate position and non-easy movement of the steel strip during the welding process, and enhancing the welding quality and consistency. The welding module 54 is provided with a plurality of welding heads 541, which can weld multiple steel strips simultaneously, improving the production efficiency and the flexibility of the production line. The setting of the pressing module 53 can ensure good contact between the welding heads 541 and the steel strip, avoiding voids or looseness during the welding process, and improving the safety and reliability of the welding.

[0038] The conveying assembly 6 includes a circulating transmission chain 61, a conveying drive module 62 and conveying hooks 63. A plurality of the conveying hooks 63 are provided, and the plurality of conveying hooks 63 are arranged on the circulating transmission chain 61. The conveying drive module 62 is used to drive the circulating transmission chain 61 to transmit. The pushing module 51 is used to drive the supporting module 52 to transmit the steel strip after welding towards the conveying hooks 63 so as to hang the steel strip on the conveying hooks 63. Specifically, the testing assembly 7 includes a testing water tank 71. The circulating transmission chain 61 is provided with a sinking position 611, and the sinking position 611 is arranged above the testing water tank 71 to sink the steel strip into the testing water tank 71 during transmission. The conveying hooks 63 are made of conductive materials to cooperate with the testing water tank 71 to test whether the insulation layer outside the steel strip is punctured underwater. In this embodiment, through the design of the circulating transmission chain 61, the conveying drive module 62 and the conveying hooks 63, the automatic transmission and suspension of the welded steel strip are realized, improving the continuity and efficiency of the production line. The conveying hooks 63 are made of conductive materials and cooperate with the testing water tank 71 to test whether the insulation layer outside the steel strip is punctured, realizing the intelligent testing and monitoring of the insulation layer of the steel strip and ensuring that the product quality meets the requirements. By arranging the sinking position 611 above the testing water tank 71, the steel strip can be sunk into the testing water tank 71 for underwater testing to detect the insulation performance of the insulation layer outside the steel strip underwater, ensuring the reliability of the product in various working environments. The pushing module 51 drives the supporting module 52 to transmit the steel strip towards the conveying hooks 63, realizing the quick and accurate hanging of the steel strip on the conveying hooks 63, improving the production efficiency and the automation degree of the production line. Through the design of the testing assembly 7 and the conveying hooks 63, the quality of the insulation layer outside the steel strip can be monitored and tested in real time, problems can be found in time and measures can be taken to ensure the quality and safety of the product.

[0039] It further includes a drying component 8, which is arranged at the rear side of the testing component 7. The circulating transmission chain 61 is used to drive the steel belt through the drying component 8. The drying component 8 includes a drying bracket 81 and drying nozzles 82 arranged on the drying bracket 81. The drying nozzles 82 are used to blow-dry the steel belt during the transmission process. In this embodiment, through the design of the drying component 8, including the drying bracket 81 and the drying nozzles 82, rapid and efficient blow-drying of the steel belt during the transmission process is achieved, improving the production efficiency and processing speed. The drying nozzles 82 blow-dry the steel belt, which can effectively remove moisture and humidity, ensure the surface of the product is dry, avoid problems such as the product being affected by moisture or rust, and improve the product quality and reliability. The circulating transmission chain 61 drives the steel belt through the drying component 8, realizing the drying treatment of the steel belt during the conveying process, saving the time for separate drying, and shortening the production cycle. The setting of the drying component 8 at the rear side of the testing component 7 and its cooperation with the circulating transmission chain 61 in operation make the drying process closely connected with other technological processes, improving the efficiency and continuity of the overall production line.

[0040] The above embodiments only represent several implementation manners of the present utility model, and their descriptions are relatively specific and detailed, but should not be construed as limiting the scope of the patent of the present utility model. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present utility model, several modifications and improvements can still be made, and these all belong to the protection scope of the present utility model. Therefore, the protection scope of the patent of the present utility model shall be subject to the appended claims.

Claims

1. A forming conveying and testing device for fixing steel strips of a new energy battery, characterized in that: It includes a workbench, a forming table, a placement component, a bending component, a welding component, a conveying component, and a testing component. The forming table is arranged on one side of the workbench and forms a right angle with the workbench. The placement component is arranged on the forming table and is used for placing the steel strip. The bending component includes a bending support table, a bending moving module, a bending transmission module, a bending driving module, and a bending clamping module. The bending support table is arranged on the side of the forming table opposite to the workbench. The bending moving module is arranged on the bending support table. The bending transmission module is arranged on the bending moving module. The bending transmission module is provided with two sets of mutually mirror-image transmission driving seats. The bending driving module is arranged on the bending clamping module. The bending clamping module is provided with a bending clamping shaft for clamping and bending the steel strip. The welding component is arranged at the top of the forming table and is used for welding the two ends of the bent steel strip. The conveying component is used for conveying the welded steel strip towards the testing component. The testing component is used for conducting electrical conductivity tests on the steel strip.

2. The forming conveying and testing device for fixing the steel belt of the new energy battery according to claim 1, characterized in that: The forming table is provided with a first bending through groove and a second bending through groove. Both the first bending through groove and the second bending through groove are provided with two, and are symmetrically distributed about the center of the forming table. The bending moving module is used to drive the bending transmission module to drive the bending clamping module to pass through the first bending through groove and the second bending through groove.

3. The forming conveying and testing device for fixing the steel belt of the new energy battery according to claim 2, wherein: On one side of the forming table where the first bending through groove is located, there is a steel strip end face positioning component. The end face positioning component includes a positioning mounting block and a positioning rod. The positioning mounting block is arranged on the forming table. The positioning rod is arranged on the positioning mounting block. One end of the positioning rod is bent towards the placement component for positioning the end of the steel strip.

4. The forming conveying and testing device for fixing steel belts of new energy batteries according to claim 3, wherein: The placement component includes a placement track and an adsorption element. The placement track is arranged on the forming table. The placement track is provided with a placement step. The placement step is provided with adsorption holes. The adsorption element is arranged on the side of the placement track opposite to the placement step and is connected to the adsorption holes to provide suction to the adsorption holes to adsorb the steel strip on the placement step. There are multiple placement tracks. The first bending through groove and the second bending through groove are used to separate the multiple placement tracks.

5. The forming conveying and testing device for fixing steel belts of new energy batteries according to claim 1, wherein: There are at least two sets of bending moving modules. At least two sets of bending moving modules are synchronously driven. The bending moving modules are all linear driving modules. An L-shaped plate is arranged on the driving seat. The bending driving module includes a bending motor and a speed reducer connected to the bending motor. The bending clamping module is arranged at the driving end of the speed reducer. The bending motor is arranged on the L-shaped plate.

6. The forming and conveying test device for fixing the steel belt of the new energy battery according to claim 1, wherein: The welding component includes a pushing module, a supporting module, a pressing module, and a welding module. The pushing module is arranged on the forming table. The supporting module is connected to the driving end of the pushing module. The pressing module is arranged on the upper side of the supporting module. The welding module is arranged at the driving end of the pressing module and is opposite to the supporting module. The supporting module is provided with a welding table. The welding table is provided with a welding positioning groove.

7. The forming conveying and testing device for fixing the steel belt of the new energy battery according to claim 6, wherein: The pushing module is a pushing cylinder, the supporting module is provided with a jacking cylinder, the welding table is arranged at the driving end of the jacking cylinder, the pressing module is a pressing cylinder, the welding module is provided with a plurality of welding heads, and the welding heads face the welding positioning groove.

8. The forming conveying and testing device for fixing the steel belt of the new energy battery according to claim 7, characterized in that: The conveying component includes a circulating transmission chain, a conveying driving module and conveying hooks. A plurality of the conveying hooks are provided, and the plurality of conveying hooks are arranged on the circulating transmission chain. The conveying driving module is used to drive the circulating transmission chain to convey, and the pushing module is used to drive the supporting module to convey the steel strip after welding towards the conveying hooks so as to hang the steel strip on the conveying hooks.

9. The forming and conveying test device for fixing steel strips of new energy batteries according to claim 8, characterized in that: The testing component includes a testing water tank. The circulating transmission chain is provided with a sinking position which is arranged above the testing water tank so as to sink the steel strip into the testing water tank during the conveying process. The conveying hooks are made of conductive materials to cooperate with the testing water tank to test whether the insulating layer outside the steel strip is punctured underwater.

10. The forming conveying and testing device for fixing the steel belt of the new energy battery according to claim 9, characterized in that: It further includes a drying component which is arranged at the rear side of the testing component. The circulating transmission chain is used to drive the steel strip to pass through the drying component. The drying component includes a drying bracket and drying nozzles arranged on the drying bracket. The drying nozzles are used to blow-dry the steel strip during the conveying process.

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