Battery test tool and system

Abstract

The invention provides a battery testing tool and system, and the tool comprises a testing cabin which is internally provided with a testing channel; the guide butt joint mechanism comprises a lifting frame, a guide pressing assembly and a butt joint assembly, the guide pressing assembly and the butt joint assembly synchronously ascend and descend through the lifting frame, the guide pressing assembly comprises a guide wheel, the butt joint assembly comprises a butt joint head, the guide wheel abuts against the top face of the battery to be tested to roll, and the butt joint head is located at the extending tail end of the test channel. According to the invention, an independent adaptive test space is provided for the to-be-tested battery through the test bin; through the guide pressing assembly in the guide docking mechanism, an accurate abutting guide structure is constructed for the to-be-tested battery, the structure can limit and correct the moving track of the battery in real time, and the problem of interface dislocation caused by inclination is avoided. Based on the above design, the charging and discharging interface of the to-be-tested battery can be accurately plugged with the docking assembly, and the risk of test interruption or data error caused by interface docking deviation is greatly reduced.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of battery testing, and particularly refers to a battery testing tool and system. BACKGROUND

[0002] In the process of battery production, quality inspection and research and development, charge-discharge testing is a key link for verifying core indicators such as battery capacity, cycle life and safety performance, and the accuracy and stability of the test results directly determine the quality evaluation and performance optimization direction of the battery product. With the rapid development of the new energy industry, battery models are showing a trend of diversification - batteries for different application scenarios differ significantly in size, positioning reference, etc., posing serious challenges to the charge-discharge testing process.

[0003] Currently, battery charge-discharge testing relies on customized automated testing equipment. Such equipment has fixed charging connectors and positioning structures designed for a single battery model, enabling automatic plugging and testing. However, such equipment has poor compatibility. When the test model is changed, the connector module, positioning fixture and corresponding control program of the equipment need to be replaced as a whole, making it difficult to meet the batch testing demand, especially in the frequent replacement and debugging process. Such equipment is difficult to accurately control the docking direction and angle of the battery and the connector, and if there is a misalignment, it may cause poor contact, local heating and other problems, affecting the accuracy of test data and possibly damaging the battery or testing equipment due to overcurrent or short circuit, posing a safety hazard. Not only does it increase the cost of equipment procurement and maintenance, but it also severely restricts the flexibility and continuity of the testing process, making it unable to adapt to the current industry demand for rapid iteration of battery products and parallel testing of multiple models.

[0004] The above problems restrict the automation upgrade and industrial scale development of the battery testing process. Therefore, developing a charge-discharge testing device with multi-model compatibility and accurate automatic plugging of the battery and the charging connector has become a key problem that needs to be solved in the current industry. SUMMARY

[0005] To this end, the technical problem to be solved by the present application is to overcome the low precision and efficiency of battery testing in the prior art, and to provide a battery testing tool and system.

[0006] To solve the above technical problems, the application provides a battery testing tool, which comprises a testing cabin, wherein the testing cabin is internally provided with a testing channel extending in a first direction, and a battery to be tested enters the testing cabin along the testing channel; a guiding and docking mechanism, wherein the guiding and docking mechanism comprises a lifting frame, a guiding and pressing assembly and a docking assembly, the guiding and pressing assembly and the docking assembly are respectively connected to the lifting frame and synchronously move up and down through the lifting frame, the guiding and pressing assembly comprises a guiding wheel, and the docking assembly comprises a docking head, and the guiding wheel and the docking head are both movable into the testing cabin, wherein the guiding wheel rolls against the top surface of the battery to be tested, and the docking head is located at the extension end of the testing channel to be inserted into the charging and discharging interface of the battery to be tested.

[0007] In an embodiment of the application, the battery testing tool comprises a plurality of testing cabins, any of the testing cabins is provided with at least two testing channels arranged in the height direction thereof, a partition strip is arranged between adjacent testing channels to transmit at least two types of batteries to be tested, the partition strip is provided with a avoiding groove, and the guiding wheel can move between at least two testing channels through the avoiding groove.

[0008] In an embodiment of the application, the testing cabin comprises a bottom plate, two side plates and at least one fixing assembly, the two side plates are respectively arranged on the two sides of the bottom plate in a second direction, the fixing assembly comprises a locking plate, a connecting pin and a pushing block, the locking plate is connected to the outer wall of at least one side plate, one end of the connecting pin is connected to the locking plate, the other end of the connecting pin penetrates through the locking plate and is connected to the pushing block, and at least part of the pushing block is located in the testing channel and abuts against the battery to be tested in the second direction.

[0009] In an embodiment of the application, the guiding and docking mechanism comprises a mounting frame and a jacking driver, the mounting frame is supported on one side of the testing cabin and is provided with a lifting module extending in a third direction thereon, and the jacking driver is arranged on one side of the mounting frame and has a working end connected to the lifting frame to drive the lifting frame to slideably connect to the lifting module.

[0010] In an embodiment of the application, the guiding and pressing assembly comprises an assembly plate, a floating connecting column and at least two guiding wheels, one end of the floating connecting column is connected to the lifting frame, the other end of the floating connecting column is connected to the assembly plate, the assembly plate extends in a horizontal direction, and the at least two guiding wheels are respectively connected to the assembly plate.

[0011] In one embodiment of the present invention, the docking assembly further includes an extension plate, one end of which is connected to the lifting frame and the other end extends toward the extended end of the test channel. The docking connector is disposed on the extension plate and is disposed toward the test channel.

[0012] In one embodiment of the present invention, the guiding docking mechanism further includes an external component, which includes an adjustment module, an external plate, a connecting plate, and an adjustment driver. The adjustment module is disposed on the lifting frame and extends along a first direction. One side of the external plate is slidably connected to the adjustment module, and the other side is externally connected to a communication testing device. The adjustment driver is disposed on the external plate, and both ends of the connecting plate are respectively connected to the working end of the adjustment driver and the lifting frame.

[0013] In one embodiment of the present invention, the battery testing fixture further includes a stop positioning mechanism, which is disposed at the end of the test channel and includes a stop plate, a buffer stop piece and a trigger switch. The buffer stop piece is disposed on the side of the stop plate facing the test channel to abut against the battery to be tested. The trigger switch is connected to the stop plate and is disposed facing the test channel.

[0014] In one embodiment of the present invention, the battery testing fixture further includes a fixed mounting plate and a control mechanism. The test chamber, the stop positioning mechanism, and the guide docking mechanism are all disposed on the fixed mounting plate, and the stop positioning mechanism and the guide docking mechanism are respectively connected to the control mechanism.

[0015] The present invention also provides a battery testing system, which includes the battery testing fixture described above.

[0016] The technical solution of the present invention has the following advantages compared with the prior art: The battery testing fixture and system described in this invention provides an independent and adaptable testing space for the battery under test through a testing chamber. A precise contact and guiding structure is constructed for the battery through a guiding and pressing component in the guiding docking mechanism. This structure can limit and correct the battery's movement trajectory in real time, ensuring that the battery maintains a horizontal posture throughout its entry into the testing chamber and avoiding interface misalignment caused by tilting. Based on the above design, the charging and discharging interface of the battery under test can be precisely inserted into the docking component, significantly reducing the risk of test interruptions or data errors caused by interface docking deviations.

[0017] Compared to existing charge-discharge testing structures, this application offers greater compatibility. Through the adaptive adjustment of the guide pressing component, it can adapt to the testing needs of batteries of different sizes and models, eliminating the need for frequent tooling changes. Furthermore, it boasts higher testing efficiency, reduces ineffective debugging steps, and increases the number of test batches per unit time. In addition, this application also offers advantages such as strong controllability, flexible use, wide applicability, and stable and accurate test results. Attached Figure Description

[0018] To make the content of this invention easier to understand, the invention will be further described in detail below with reference to specific embodiments and accompanying drawings.

[0019] Figure 1 This is a three-dimensional structural diagram of the battery testing fixture in a preferred embodiment of the present invention; Figure 2 yes Figure 1 A three-dimensional structural schematic diagram of the battery testing fixture from another perspective; Figure 3 yes Figure 1 A three-dimensional structural diagram of the test chamber in the battery testing fixture shown. Figure 4 yes Figure 3 A three-dimensional structural diagram of the fixed components in the test chamber shown. Figure 5 yes Figure 1 A three-dimensional structural schematic diagram of the stop positioning mechanism of the battery testing fixture shown. Figure 6 yes Figure 1 The diagram shows a three-dimensional structural schematic of the guiding docking mechanism.

[0020] Explanation of reference numerals in the accompanying drawings: 100, Test chamber; 110, Base plate; 120, Side plate; 130, Test channel; 140, Fixing assembly; 141, Locking plate; 142, Connecting pin; 143, Push block; 150, Partition strip; 151, Clearance groove; 200, Stop positioning mechanism; 210, Stop plate; 220, Buffer stop piece; 230, Trigger switch; 300, Guide docking mechanism; 310, Mounting bracket; 311, Lifting module 320. Lifting frame; 330. Lifting drive; 340. Guide pressing assembly; 341. Floating connecting column; 342. Assembly plate; 343. Guide wheel; 350. Docking assembly; 351. Connecting joint; 352. Extension plate; 360. External assembly; 361. Adjustment module; 362. External plate; 363. Connecting plate; 364. Adjustment drive; 400. Fixed mounting plate; X, First direction; Y, Second direction; Z, Third direction. Detailed Implementation

[0021] The present invention will be further described below with reference to the accompanying drawings and specific embodiments, so that those skilled in the art can better understand and implement the present invention. However, the embodiments described are not intended to limit the present invention.

[0022] Example 1:

[0023] See Figure 1 and Figure 2 As shown, this embodiment provides a battery testing fixture, which includes: a test chamber 100, wherein the test chamber 100 has a test channel 130 extending along a first direction X, and the battery to be tested enters the test chamber 100 along the test channel 130; a guide docking mechanism 300, wherein the guide docking mechanism 300 includes a lifting frame 320, a guide pressing component 340, and a docking component 350, wherein the guide pressing component 340 and the docking component 350 are respectively connected to the lifting frame 320 and move synchronously up and down through the lifting frame 320; the guide pressing component 340 includes a guide wheel 343, and the docking component 350 includes a connector 351; both the guide wheel 343 and the connector 351 can be moved into the test chamber 100, wherein the guide wheel 343 rolls against the top surface of the battery to be tested, and the connector 351 is located at the extended end of the test channel 130 to be inserted into the charging and discharging interface of the battery to be tested.

[0024] It should be noted that, for ease of description, in this embodiment, the depth direction in the horizontal plane of the test chamber 100 is defined as the first direction X, the arrangement direction of the multiple test chambers 100 is defined as the second direction Y, and the height direction of this tooling is defined as the third direction Z. The first direction X, the second direction Y, and the third direction Z are arranged perpendicularly to each other, and the first direction X and the second direction Y are located in the same plane.

[0025] In this embodiment, the battery testing fixture includes multiple test chambers 100, thereby forming a parallel operation structure of multiple independent test units, which greatly improves the efficiency of batch testing and adapts to the large-scale testing needs of battery production lines. Each test chamber 100 can independently form a closed and stable testing environment, avoiding interference between different test units. At the same time, combined with the multiple specification test channels 130 that can be set in each test chamber 100, it can further accommodate the testing needs of different battery models. This not only reduces the time spent on frequently changing the compatibility specifications of a single test chamber 100, but also reduces the overall space occupied by the equipment through the synchronous operation of multiple units. Furthermore, if an abnormality occurs in one test chamber 100, it will not affect the normal operation of other test chambers 100, ensuring the continuity and stability of the testing process.

[0026] Specifically, see Figure 3 and Figure 4As shown, in this embodiment, each test chamber 100 is provided with at least two test channels 130 arranged along its height direction. A partition strip 150 is provided between adjacent test channels 130 to transport at least two types of batteries to be tested. This design effectively avoids collisions or positional interference between batteries in different channels during transmission. Simultaneously, based on the height difference of the channels and the isolation effect of the partition strip 150, this structure can specifically transport at least two types of batteries to be tested. Larger batteries are placed in the unobstructed upper test channel 130, utilizing the openness of the upper space and avoiding transmission bottlenecks caused by limited channel space for large batteries. Smaller batteries are placed in the lower test channel 130. The compact layout of the lower channel provides more stable positioning for smaller batteries, ensuring that batteries of different models can move smoothly within their respective suitable channels, further improving the compatibility and transmission stability of the testing fixture for multiple battery specifications.

[0027] Furthermore, the partition bar 150 is provided with a clearance groove 151, through which the guide wheel 343 can move between at least two test channels 130. The size of the clearance groove 151 is adapted to the outer diameter and thickness of the guide wheel 343. When the guide docking mechanism 300 needs to guide and press the batteries in different test channels 130, the guide wheel 343 does not need to significantly adjust its overall position with the lifting frame 320. It can move flexibly between at least two test channels 130 simply by following the trajectory of the clearance groove 151. This further enhances the compatibility of the test fixture with batteries of multiple specifications, while shortening the test switching time between different channels and improving the overall test efficiency.

[0028] In this embodiment, the test chamber 100 includes a base plate 110, two side plates 120, and at least one fixing component 140. The two side plates 120 are respectively disposed on both sides of the base plate 110 in the second direction Y. The fixing component 140 includes a locking plate 141, a connecting pin 142, and a push block 143. The locking plate 141 is connected to the outer wall of at least one of the side plates 120. One end of the connecting pin 142 is connected to the locking plate 141, and the other end passes through the locking plate 141 and connects to the push block 143. At least a portion of the push block 143 is located within the test channel 130 and abuts against the battery to be tested along the second direction Y. The base plate 110 serves as a load-bearing foundation, providing a horizontal support surface for the battery. The two side plates 120 are respectively erected on both sides of the base plate 110 along the second direction Y, jointly defining the lateral boundary of the test channel 130 and limiting the significant displacement of the battery along the second direction Y during transmission. The fixing component 140 further enhances the battery's positioning accuracy. It is fixed to the outer wall of at least one side plate 120 via a locking plate 141, forming a stable installation reference. Specifically, when the battery enters the test channel 130, the push block 143 forms a stable abutment against the side of the battery along the second direction Y. This not only allows for adjustment of the abutment force according to the width of different battery models via the connecting pin 142, ensuring that the battery is centered or in a preset position within the channel, but also prevents attitude deviation caused by shaking during battery transport. This lays a reliable positional foundation for the subsequent pressing and guiding of the guide wheel 343 and the precise insertion of the connector 351.

[0029] See Figure 5As shown, the battery testing fixture also includes a stop positioning mechanism 200, which is disposed at the end of the test channel 130, thereby forming an interception cooperation with the battery transmission direction. Specifically, the stop positioning mechanism 200 includes a stop plate 210, a buffer stop piece 220, and a trigger switch 230. The buffer stop piece 220 is disposed on the side of the stop plate 210 facing the test channel 130 to abut the battery being tested. The trigger switch 230 is connected to the stop plate 210 and is disposed facing the test channel 130. Among them, the stop plate 210 serves as a basic support component, fixed perpendicular to the extension direction of the test channel 130, forming a physical limit reference for the battery position; the buffer stop plate 220 is made of elastic material. When the battery to be tested is transported to the end of the channel, it will first contact the buffer stop plate 220, absorbing the inertial impact force of the battery through its own deformation, avoiding rigid collision between the battery and the stop plate 210, which would cause appearance damage or positional displacement; the trigger switch 230 is also connected to the stop plate 210, with its sensing end facing the inside of the test channel 130. When the battery presses against the buffer stop plate 220 and pushes it to deform slightly, the switch 230 will be triggered simultaneously. The switch will then send a battery positioning signal to the control mechanism of the tooling, providing a precise timing trigger for subsequent actions such as starting the pressing of the guide docking mechanism 300 and inserting the connector 351, ensuring that each test is conducted under the premise of accurate battery positioning.

[0030] See Figure 6As shown, the guide docking mechanism 300 in this embodiment integrates the lifting frame 320, the guide pressing component 340, and the docking component 350 to form an integrated linkage structure for guiding, positioning, and docking. The lifting frame 320 synchronously drives the guide pressing component 340 and the docking component 350 to rise and fall, thereby achieving overall displacement adjustment. When it rises, it can allow both to exit the test channel 130, and when it falls, it can accurately send the guide wheel 343 and the docking connector 351 into the working position inside the test chamber 100. Specifically, the guide docking mechanism 300 includes a mounting frame 310 and a lifting driver 330. The mounting frame 310 is supported on one side of the test chamber 100 and has a lifting module 311 extending in the third direction Z. The lifting driver 330 is located on one side of the mounting frame 310, and its working end is connected to the lifting frame 320 to drive the lifting frame 320 to slide and connect to the lifting module 311. The mounting frame 310, serving as the core support structure, is securely mounted on one side of the test chamber 100, providing a reliable installation benchmark and spatial positioning for the entire guiding docking mechanism 300. The mounting frame 310 is equipped with a lifting module 311 extending Z-direction, providing a precise guide trajectory for the movement of the lifting frame 320. When the lifting drive 330 is activated, it drives the lifting frame 320 to smoothly slide up and down along the lifting module 311, thereby precisely controlling the height position of the guiding pressing assembly 340 and the docking assembly 350.

[0031] Furthermore, the guide wheel 343, by abutting against the top surface of the battery under test and rolling with the battery, creates a dynamic constraint on the battery. It applies appropriate pressure to ensure the bottom surface of the battery adheres to the test channel 130, while the rolling contact reduces frictional resistance, preventing obstruction of battery movement. The entire assembly, through continuous abutment guidance, corrects any minor tilting or offset that may occur in real time, ensuring the battery remains horizontal throughout its entry into the test channel 130, laying the foundation for precise insertion of the end connector 351.

[0032] Furthermore, the guide pressing assembly 340 includes an assembly plate 342, a floating connecting column 341, and at least two guide wheels 343. One end of the floating connecting column 341 is connected to the lifting frame 320, and the other end is connected to the assembly plate 342. The assembly plate 342 extends horizontally, and at least two guide wheels 343 are respectively connected to the assembly plate 342. The assembly plate 342, extending horizontally, serves as the mounting carrier for the guide wheels 343, providing a stable mounting reference for the at least two guide wheels 343. The arrangement of the guide wheels 343 adapts to the force requirements of the battery's top surface, ensuring a balanced downward pressure on the battery. The floating connecting column 341 connects the lifting frame 320 and the assembly plate 342, and has a certain elastic extension or swing margin, allowing for adaptive adjustment based on minor undulations or positional deviations of the battery's top surface, ensuring that the guide wheels 343 always fit tightly against the battery's top surface without excessive pressure. As the battery moves along the test channel 130, the guide wheel 343 rolls accordingly. This ensures the battery remains horizontal through continuous resistance and reduces resistance to battery transmission by utilizing rolling friction, preventing scratches on the battery surface or transmission jams. This provides a stable posture guarantee for the subsequent precise insertion of the connector 351 into the battery charging and discharging interface.

[0033] In this embodiment, the connector 351 is designed to match the charging / discharging interface of the battery under test. Before the guide pressing assembly 340 ensures the battery is horizontally positioned, the connector 351 is positioned to wait for battery insertion, thereby establishing a stable electrical connection channel. Specifically, the docking assembly 350 also includes an extension plate 352. One end of the extension plate 352 is connected to the lifting frame 320, and the other end extends towards the extended end of the test channel 130. The connector 351 is mounted on the extension plate 352 and faces the test channel 130. The extension plate 352 serves as the mounting and extension carrier for the connector 351. One end of the extension plate 352 is fixedly connected to the lifting frame 320 to ensure synchronous lifting and lowering with the lifting frame 320, while the other end extends horizontally towards the extended end of the test channel 130, allowing the connector 351 to accurately reach the corresponding position of the battery charging / discharging interface. The connector 351 is installed on the side of the extension plate 352 facing the test channel 130, and its orientation is consistent with the battery transmission direction. When the lifting frame 320 drives the docking assembly 350 to descend to the working position, the length design of the extension plate 352 can ensure that the connector 351 and the battery charging and discharging interface at the end of the test channel 130 are on the same axis. With the stable control of the battery posture by the guide pressing assembly 340, the connector 351 and the battery interface can be accurately aligned and plugged in, establishing a reliable circuit connection for charging and discharging tests.

[0034] The guiding docking mechanism 300 in this embodiment further includes an external component 360. The external component 360 includes an adjustment module 361, an external plate 362, a connecting plate 363, and an adjustment driver 364. The adjustment module 361 is mounted on the lifting frame 320 and extends along the first direction X. One side of the external plate 362 is slidably connected to the adjustment module 361, and the other side is connected to an external communication testing device. The adjustment driver 364 is mounted on the external plate 362. Both ends of the connecting plate 363 are respectively connected to the working end of the adjustment driver 364 and the lifting frame 320. The external component 360 provides an adjustable connection carrier for adapting the tooling to external communication testing equipment, while ensuring precise coordination between the equipment and the battery testing link. In its structure, the adjustment module 361 is fixed on the lifting frame 320 and extends along the first direction X, providing a directional trajectory for the movement of the external plate 362. One side of the external plate 362 is slidably engaged with the adjustment module 361, and the other side serves as a mounting surface for fixing external communication test equipment, thereby realizing the physical connection between the test equipment and the tooling. The adjustment driver 364 is mounted on the external plate 362, and its working end is connected to the lifting frame 320 through the connecting plate 363. When the adjustment driver 364 is activated, it can drive the external plate 362 to slide flexibly along the adjustment module 361 in the first direction X, thereby accurately adjusting the relative position of the external test equipment, the connector 351, and the battery, ensuring that the test equipment can accurately acquire data signals during the battery charging and discharging process.

[0035] Furthermore, the battery testing fixture in this embodiment also includes a fixed mounting plate 400 and a control mechanism. The test chamber 100, the stop positioning mechanism 200, and the guide docking mechanism 300 are all mounted on the fixed mounting plate 400, and the stop positioning mechanism 200 and the guide docking mechanism 300 are respectively connected to the control mechanism. In actual production and processing, operators can adjust the above structure in real time through the control mechanism, thereby improving the flexibility of the equipment. Parameters can also be preset through the control mechanism, thereby improving the automation level of the equipment.

[0036] Example 2:

[0037] This embodiment provides a battery testing system, which includes the battery testing fixture described in Embodiment 1.

[0038] In summary, the battery testing fixture and system described in this invention, through the test chamber 100, constructs an independent and adaptable test space for the battery under test, effectively isolating it from external environmental interference and laying a stable foundation for subsequent accurate testing. Simultaneously, with the help of the guide pressing component 340 in the guide docking mechanism 300, a precise contact and guiding structure is built for the battery under test to limit and dynamically correct its movement trajectory, ensuring that the battery maintains a horizontal posture throughout the entire process of entering the test chamber 100, fundamentally avoiding the problem of misalignment of the charging and discharging interfaces caused by battery tilting. Based on the above design, the charging and discharging interfaces of the battery under test can achieve high-precision insertion with the docking component 350, significantly reducing the risk of test interruption caused by interface docking deviation, while also greatly reducing data errors and ensuring the reliability of test data.

[0039] Compared to existing charge-discharge testing structures, this application, through the adaptive adjustment capability of the guide pressing component 340, can flexibly adapt to the testing needs of batteries of different sizes and models, eliminating the need for frequent tooling changes, reducing operating costs and time losses. At the same time, the precise guiding and docking structure eliminates the debugging process, effectively increasing the number of test batches per unit time and adapting to large-scale testing scenarios. In addition, this application also features strong controllability, flexible use, and wide applicability, and can stably output accurate test results, providing an efficient and reliable solution for battery performance testing.

[0040] Obviously, the above embodiments are merely illustrative examples for clear explanation and are not intended to limit the implementation. Those skilled in the art will recognize that other variations or modifications can be made based on the above description. It is neither necessary nor possible to exhaustively list all possible implementations here. However, obvious variations or modifications derived therefrom are still within the scope of protection of this invention.

Claims

1. A battery test fixture, characterized by: include: The test chamber has a test channel extending in a first direction inside, and the battery to be tested enters the test chamber along the test channel. The guiding docking mechanism includes a lifting frame, a guiding pressing assembly, and a docking assembly. The guiding pressing assembly and the docking assembly are respectively connected to the lifting frame and move synchronously up and down through the lifting frame. The guiding pressing assembly includes a guide wheel, and the docking assembly includes a connector. Both the guide wheel and the connector can be moved into the test chamber. The guide wheel rolls against the top surface of the battery under test, and the connector is located at the extended end of the test channel to be inserted into the charging and discharging interface of the battery under test.

2. The battery test fixture of claim 1, wherein: The battery testing fixture includes multiple test chambers, each of which has at least two test channels arranged along its height direction. A partition is provided between adjacent test channels to transport at least two types of batteries to be tested. The partition is provided with a clearance groove, and the guide wheel can move between at least two test channels through the clearance groove.

3. The battery test fixture of claim 1, wherein: The test chamber includes a base plate, two side plates, and at least one fixing component. The two side plates are respectively disposed on both sides of the base plate in a second direction. The fixing component includes a locking plate, a connecting pin, and a push block. The locking plate is connected to the outer wall of at least one of the side plates. One end of the connecting pin is connected to the locking plate, and the other end passes through the locking plate and is connected to the push block. At least a portion of the push block is located within the test channel and abuts against the test battery in the second direction.

4. The battery test fixture of claim 1, wherein: The guiding docking mechanism includes a mounting frame and a lifting driver. The mounting frame is supported on one side of the test chamber and has a lifting module extending in a third direction. The lifting driver is located on one side of the mounting frame and its working end is connected to the lifting frame to drive the lifting frame to slide and connect to the lifting module.

5. The battery test fixture of claim 1, wherein: The guide pressing assembly includes an assembly plate, a floating connecting column, and at least two guide wheels. One end of the floating connecting column is connected to the lifting frame, and the other end is connected to the assembly plate. The assembly plate extends horizontally, and at least two guide wheels are respectively connected to the assembly plate.

6. The battery test fixture of claim 1, wherein: The docking assembly also includes an extension plate, one end of which is connected to the lifting frame and the other end extends toward the extended end of the test channel. The docking connector is disposed on the extension plate and is positioned toward the test channel.

7. The battery test fixture of claim 1, wherein: The guiding docking mechanism also includes an external component, which includes an adjustment module, an external plate, a connecting plate, and an adjustment driver. The adjustment module is mounted on the lifting frame and extends along a first direction. One side of the external plate is slidably connected to the adjustment module, and the other side is connected to an external communication testing device. The adjustment driver is mounted on the external plate, and both ends of the connecting plate are respectively connected to the working end of the adjustment driver and the lifting frame.

8. The battery test fixture of claim 1, wherein: The battery testing tool further comprises a stop positioning mechanism arranged at the end of the testing channel, which comprises a stop plate, a buffer stop sheet arranged on the side of the stop plate facing the testing channel to abut against the battery to be tested, and a trigger switch connected to the stop plate and arranged towards the testing channel.

9. The battery test fixture of claim 8, wherein: The battery testing tool further comprises a fixed mounting plate and a control mechanism, wherein the testing chamber, the stop positioning mechanism and the guiding docking mechanism are arranged on the fixed mounting plate, and the stop positioning mechanism and the guiding docking mechanism are respectively connected to the control mechanism.

10. A battery testing system, comprising: The battery testing tool according to any one of claims 1-9.

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