Equipment for quickly eliminating polarization activation after storage battery inventory and use method

Abstract

The invention relates to the technical field of storage battery detection and activation, and discloses equipment for quickly eliminating polarization activation after storage battery inventory, which comprises an anti-explosion cabinet body, a conveying channel is arranged at the bottom of the anti-explosion cabinet body, and a storage battery conveying mechanism is arranged in the conveying channel. A plurality of independent detection activation chambers are arranged in the upper end of the explosion-proof cabinet body, lifting clamping mechanisms and automatic identification connecting mechanisms which are used for taking and placing storage battery bodies are mounted in the detection activation chambers, and a fire extinguishing mechanism is connected in the explosion-proof cabinet body. According to the use method of the device for rapidly eliminating polarization activation after storage battery inventory, an automatic identification connecting mechanism comprising a visual identification lens, an XY numerical control workbench and an automatic adjustment detection connecting end is adopted, low-efficiency and unreliable manual electrode connection operation is replaced, and by arranging a plurality of independent detection activation chambers, the detection efficiency is greatly improved. And the risk of chain reaction caused by spontaneous combustion or explosion of a single battery in the traditional open layout is thoroughly eliminated from the structure.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of battery detection and activation, and particularly relates to a device for quickly eliminating polarization activation after battery storage and a use method. BACKGROUND

[0002] At present, in the operation of eliminating polarization activation after battery storage, a common method is to place a large number of batteries on an open shelf or a common workbench.

[0003] The existing device structure is usually a centralized and non-isolated operation area, as shown in the accompanying drawings. Figure 1 The device relies on manual use of simple clamping tools to connect the leads of the activation instrument to the battery electrodes, and the entire process lacks effective physical separation and automatic safety protection.

[0004] The existing device structure has the following obvious deficiencies: first, the open layout makes it possible for a single battery to catch fire or explode during the activation process, which will quickly spread to the surrounding batteries, causing a chain reaction and posing a great fire safety hazard. Second, the complete reliance on manual electrode identification, alignment and connection not only has low efficiency and cannot guarantee connection reliability, but also cannot achieve automatic identification and precise connection of different types of batteries, and the degree of automation is low.

[0005] Therefore, the present application provides a device for quickly eliminating polarization activation after battery storage and a use method to solve the above problems in the background. SUMMARY

[0006] The present application provides a device for quickly eliminating polarization activation after battery storage and a use method, which can solve the problem that the open layout of the existing device makes it possible for a single battery to catch fire or explode during the activation process, which will quickly spread to the surrounding batteries, causing a chain reaction and posing a great fire safety hazard.

[0007] To solve the above technical problems, the present application provides the following technical solutions: The application discloses a device for quickly eliminating polarization activation of battery stock, which comprises an explosion-proof cabinet body, a conveying channel arranged at the bottom of the explosion-proof cabinet body, a battery conveying mechanism arranged in the conveying channel, a plurality of independent detection activation chambers arranged in the upper end of the explosion-proof cabinet body, conveying ports arranged between the bottoms of the detection activation chambers and the conveying channel, and an electric control switch mechanism arranged at the conveying ports of the detection activation chambers; a lifting and clamping mechanism for taking and placing a battery body and an automatic identification connecting mechanism are arranged in the detection activation chambers; a fire extinguishing mechanism is connected to the explosion-proof cabinet body; and a battery intelligent activation instrument is arranged outside the explosion-proof cabinet body.

[0008] Preferably, the battery conveying mechanism comprises a horizontal conveying table which is arranged in parallel to the conveying channel.

[0009] Preferably, the lifting and clamping mechanism comprises fixed guide rails which are arranged in the two sides of the detection activation chamber, a sliding guide rail which is slidably connected to the fixed guide rails, and a threaded column which is rotatably connected to the fixed guide rails; a stepping motor is arranged at the upper end of the detection activation chamber and used for driving the threaded column; and the upper end of the sliding guide rail is threadedly connected to the threaded column.

[0010] Preferably, the lower end of the sliding guide rail is fixedly connected to a rectangular lifting frame, the two sides of the rectangular lifting frame are symmetrically provided with clamping plates, and first forward and reverse tooth bidirectional screw rod sliding tables are arranged at the two ends of the rectangular lifting frame and used for driving the two clamping plates to move close to or away from each other.

[0011] Preferably, the automatic identification connecting mechanism comprises an XY numerical control workbench which is arranged at the upper end of the detection activation chamber, an electric telescopic rod which is arranged on the driving seat of the XY numerical control workbench, a steering motor which is arranged at the telescopic end of the electric telescopic rod, a second forward and reverse tooth bidirectional screw rod sliding table which is arranged on the rotating shaft of the steering motor, and two detection connecting ends which are arranged on the second forward and reverse tooth bidirectional screw rod sliding table and electrically connected to the corresponding detection ends of the battery intelligent activation instrument.

[0012] Preferably, visual identification lenses are arranged at the two sides of the detection activation chamber.

[0013] Preferably, the fire extinguishing mechanism comprises a dry powder fire extinguishing tank arranged outside the explosion-proof cabinet body and a dry powder spray head arranged inside the detection activation chamber and the conveying channel, a fireproof conveying pipe being in communication between the dry powder spray head and the dry powder fire extinguishing tank, and an electromagnetic switch valve being mounted on the dry powder spray head; the detection activation chamber and the conveying channel are both internally provided with a smoke sensor and a temperature sensor.

[0014] Preferably, the electromagnetic switch valve, the smoke sensor and the temperature sensor are electrically connected with the battery intelligent activation instrument.

[0015] Preferably, the electric control switch mechanism comprises an explosion-proof partition plate, the explosion-proof partition plate being slidingly connected to the bottom of the detection activation chamber, the detection activation chamber being provided with a guide opening away from the battery intelligent activation instrument, the explosion-proof partition plate extending to the outside of the guide opening, an outer baffle being fixedly connected to one end of the explosion-proof partition plate outside the guide opening, a limiting sliding block being arranged at one end of the inner side of the explosion-proof partition plate, a reduction motor being installed below the guide opening, a driving gear being installed on the rotating shaft of the reduction motor, a gear slot being arranged on the bottom surface of the explosion-proof partition plate, and the driving gear being engaged with the gear slot.

[0016] The use method of the device for rapidly eliminating polarization activation after battery storage comprises the following steps: S1, conveying the battery to below the target detection activation chamber through the horizontal conveying table and accurately positioning by the grating position sensor; S2, starting the electric control switch mechanism, automatically lowering the lifting clamping mechanism, lifting the clamped battery to the inside of the detection activation chamber, and then closing the explosion-proof partition plate to form an independent explosion-proof space in the detection activation chamber; S3, recognizing the position and polarity of the battery electrode through the visual recognition lens, automatically recognizing the detection connecting end to be driven to be horizontally positioned, adjusted in spacing and turned in angle, and finally automatically connected with the battery electrode; S4, activating the battery by the battery intelligent activation instrument; in this process, the temperature sensor and the smoke sensor are used for real-time monitoring, and if an abnormality occurs, the system immediately interrupts the activation and automatically starts the fire extinguishing mechanism to extinguish the fire; S5, after the activation is completed, the detection connecting end is automatically separated, the lifting clamping mechanism sends the battery back to the horizontal conveying table and sends the battery out of the device.

[0017] Compared with the prior art, the present application has the following beneficial effects: The application is characterized in that: a plurality of independent detection activation chambers are arranged, and an electric control switch mechanism composed of an explosion-proof partition plate is arranged at the bottom of each detection activation chamber, so that each battery is in a physically isolated independent space during activation. This design completely eliminates the risk of a single battery self-ignition or explosion triggering a chain reaction in the traditional open layout, and cooperates with the fire extinguishing mechanism covering the detection activation chamber and the conveying channel to realize effective physical isolation and establish a double safety barrier of active fire extinguishing, greatly improving the safety of the battery activation equipment.

[0018] The application adopts an automatic identification connection mechanism including a visual identification lens, an XY numerical control workbench and an automatic adjustment detection connection end, which replaces the low-efficiency and unreliable manual electrode connection operation. The mechanism can automatically complete the positioning, identification, alignment and connection of the battery electrode, significantly improves the operation efficiency and connection reliability, realizes the adaptability and precise docking of different models of batteries, and improves the automation degree of the equipment, which is more efficient and convenient to use. BRIEF DESCRIPTION OF DRAWINGS

[0019] Figure 1 The drawings are background technology of the application; Figure 2 The drawings are schematic diagrams of the overall external structure of the equipment of the application; Figure 3 The drawings are schematic diagrams of the back structure of the equipment of the application; Figure 4 The drawings are schematic diagrams of the internal cross-sectional structure of the equipment of the application; Figure 5 The drawings are schematic diagrams of the lifting clamping mechanism and the automatic identification connection mechanism of the application; Figure 6 The drawings are schematic diagrams of the bottom structure of the explosion-proof partition plate of the application; Figure 7 The drawings are schematic diagrams of the Figure 6 The drawings are schematic diagrams of the enlarged structure of A of the application.

[0020] 1, explosion-proof cabinet; 2, conveying channel; 3, grating position sensor; 4, horizontal conveying table; 5, battery body; 6, detection activation chamber; 7, dry powder fire extinguishing tank; 8, fireproof conveying pipe; 9, dry powder spray head; 11, explosion-proof partition plate; 12, outer baffle; 13, limit sliding block; 14, gear slot; 15, speed reducer motor; 16, driving gear; 21, fixed guide rail; 22, sliding guide rail; 23, threaded column; 24, stepping motor; 25, rectangular lifting frame; 26, clamping plate; 31, XY numerical control workbench; 32, electric telescopic rod; 33, steering motor; 34, first forward and reverse tooth bidirectional screw sliding table; 35, detection connection end; 41, visual identification lens; 42, smoke sensor; 43, temperature sensor. DETAILED DESCRIPTION

[0021] The specific embodiments of the present application are described in detail below, but it should be understood that the scope of protection of the present application is not limited by the specific embodiments.

[0022] Example one: Please refer to Figures 1-7 The present application provides a technical solution: A kind of equipment for quickly eliminating polarization activation after storage of battery, including explosion-proof cabinet body 1, the bottom of explosion-proof cabinet body 1 is provided with conveying channel 2, conveying channel 2 is provided with battery conveying mechanism inside, the upper end of explosion-proof cabinet body 1 is provided with multiple independent detection activation chamber 6 inside, multiple detection activation chamber 6 linear equidistant distribution, the bottom of each detection activation chamber 6 is provided with conveying port between conveying channel 2, and electric control switch mechanism is installed at the conveying port of detection activation chamber 6;Detection activation chamber 6 is installed with lifting and clamping mechanism and automatic identification connecting mechanism for the taking and placing of battery body 5 inside, fire extinguishing mechanism is connected in explosion-proof cabinet body 1, explosion-proof cabinet body 1 outside is installed with battery intelligent activation instrument, and the battery intelligent activation instrument uses pulse charging process; The inventory battery is stored for a long time, and is easy to produce sulfuration due to lead-acid battery double sulfate theory.Chemical reaction is not 100% reversible, and high potential is needed during reversible reaction, if the charging method is improper, desulfuration is not complete, battery self-discharge is large, battery capacity loss is easy to produce, customer experience effect is poor, and battery is easy to produce return.

[0023] During charging, the battery voltage can only be charged to a certain limit value when a certain rate of current is used for charging, and when the limit value is reached, continuing to charge can only lead to electrolytic water reaction to produce gas and temperature rise, and the charging speed of the battery cannot be improved.

[0024] The present application selects pulse charging process, which can effectively solve the problem of reducing battery polarization during pulse charging, improve current utilization rate, reduce heat generation and water decomposition after formation, thereby reduce the amount of electricity, shorten the formation time, and reduce the loss of electrolyte.

[0025] Through the technical scheme, when the device works, the storage battery is transported to the lower side of the corresponding detection activation chamber 6 through the horizontal conveying table 4 in the conveying channel 2 and is transported at intervals, so as to avoid continuous concentrated transportation and the risk of fire expansion. After the control switch mechanism of the storage battery intelligent activation instrument is opened, the lifting clamping mechanism lifts the storage battery into the independent detection activation chamber 6, and then the explosion-proof partition plate 11 is closed to form a closed space. Then, the automatic identification connection mechanism accurately positions the electrode through the visual identification lens 41, drives the detection connection end 35 to automatically complete the connection, and performs the activation operation by the storage battery intelligent activation instrument. The detection activation chamber 6 designed by physical isolation can effectively prevent the chain fire caused by a single battery failure, and the automatic mechanism solves the technical problems of low efficiency of manual operation and unreliable connection.

[0026] The storage battery conveying mechanism comprises a horizontal conveying table 4, which is installed in parallel inside the conveying channel 2, and a continuous grating position sensor 3 is arranged on both sides of the conveying channel 2 in the horizontal direction.

[0027] Through the technical scheme, the storage battery conveying mechanism carries and conveys the storage battery through the horizontal conveying table 4, and cooperates with the continuous grating position sensor 3 arranged on both sides of the conveying channel 2 inside, so as to realize real-time monitoring and accurate positioning of the specific position of each storage battery in the channel, and ensure that the storage battery is accurately transported to the lower side of the target detection activation chamber 6, thereby providing accurate positioning support for the subsequent automatic taking and placing operation.

[0028] The lifting clamping mechanism comprises fixed guide rails 21 embedded on both sides of the detection activation chamber 6, a sliding guide rail 22 slidably connected inside the fixed guide rail 21, a threaded column 23 rotatably connected inside the fixed guide rail 21, a stepping motor 24 installed at the upper end of the detection activation chamber 6 and driving the threaded column 23, and the upper end of the sliding guide rail 22 is threadedly connected with the threaded column 23.

[0029] Through the technical scheme, the threaded column 23 is driven to rotate in the fixed guide rail 21 by the stepping motor 24, the sliding guide rail 22 threadedly connected with the threaded column 23 is accurately moved in the vertical direction, the stable lifting movement of the rectangular lifting frame 25 and the clamping plate 26 is realized, and the storage battery in the conveying channel 2 can be accurately lifted into the detection activation chamber 6 or placed back into the channel from the chamber.

[0030] The lower end of the sliding guide rail 22 is fixedly connected with a rectangular lifting frame 25, the inside of the rectangular lifting frame 25 is symmetrically provided with clamping plates 26 on both sides, first positive and negative tooth bidirectional screw rod sliding tables 34 are installed at both ends of the rectangular lifting frame 25, and the first positive and negative tooth bidirectional screw rod sliding tables 34 drive the two clamping plates 26 to approach or move away.

[0031] Through the technical scheme, the rectangular lifting frame 25 drives two symmetrically arranged clamping plates 26 to perform synchronous opposite or reverse movement through the first reverse tooth bidirectional screw rod sliding table 34 installed at both ends of the rectangular lifting frame 25, so that the battery body 5 can be reliably clamped or released, and the stability and safety of the battery during lifting and transfer are ensured.

[0032] The automatic identification connecting mechanism comprises an XY numerical control table 31 installed in the upper end inside the detection activation chamber 6, a driving seat of the XY numerical control table 31 is provided with an electric telescopic rod 32, a telescopic end of the electric telescopic rod 32 is provided with a steering motor 33, a rotating shaft of the steering motor 33 is provided with a second reverse tooth bidirectional screw rod sliding table, and two detection connecting ends 35 are installed on the second reverse tooth bidirectional screw rod sliding table.

[0033] Visual identification lenses 41 are installed on both sides inside the detection activation chamber 6.

[0034] Through the technical scheme, the position and polarity of the battery electrode are accurately identified through the visual identification lenses 41, information is transmitted to the control system, the XY numerical control table 31 is accurately positioned according to the electrode position, the steering motor 33 adjusts the angle of the detection connecting end 35, and the second reverse tooth bidirectional screw rod sliding table adjusts the spacing of the two detection connecting ends 35; the detection connecting end 35 is electrically connected with the battery intelligent activation instrument, can automatically identify the polarity of the electrode and intelligently switch the connection, and ensures that correct positive and negative electrode butt joint can be realized regardless of how the battery is placed.

[0035] Embodiment two: Please refer to Figures 2-7 , and further obtain that the fire extinguishing mechanism comprises a dry powder fire extinguishing tank 7 arranged outside the explosion-proof cabinet body 1 and a dry powder spray head 9 arranged inside the detection activation chamber 6 and the conveying channel 2, the dry powder spray head 9 is communicated with the dry powder fire extinguishing tank 7 through a fireproof conveying pipe 8, and the dry powder spray head 9 is provided with an electromagnetic switch valve; the conveying channel 2 and the detection activation chamber 6 are both provided with a smoke sensor 42 and a temperature sensor 43.

[0036] Through the technical scheme, the fire extinguishing mechanism is provided with the smoke sensor 42 distributed inside the detection activation chamber 6 and the conveying channel 2, and cooperates with the temperature sensor 43 to monitor the environmental state in real time, when the fire sign is detected, the battery intelligent activation instrument immediately triggers the electromagnetic switch valve in the corresponding area, so that the fire extinguishing agent in the dry powder fire extinguishing tank 7 is accurately sprayed from the dry powder spray head 9 through the fireproof conveying pipe 8, rapid automatic fire extinguishing is realized, and the fire expansion is avoided.

[0037] The electromagnetic switch valve, the smoke sensor 42 and the temperature sensor 43 are electrically connected with the battery intelligent activation instrument.

[0038] Through the technical scheme, the electromagnetic switch valve, the smoke sensor 42 and the temperature sensor 43 are electrically connected with the battery intelligent activation instrument, forming an intelligent monitoring system, the battery intelligent activation instrument continuously collects sensor data, and once the temperature is detected to be abnormal or the smoke concentration is detected to be excessive, the opening and closing of the electromagnetic switch valve is controlled, automatic judgment of a fire and intelligent start of a fire extinguishing system are realized.

[0039] The electric control switch mechanism comprises an explosion-proof partition plate 11 which is slidingly connected to the bottom of the detection activation chamber 6, the detection activation chamber 6 is provided with a guide opening away from the battery intelligent activation instrument, the explosion-proof partition plate 11 extends to the outside of the guide opening, an outer baffle 12 is fixedly connected to one end of the explosion-proof partition plate 11 outside the guide opening, a limiting sliding block 13 is arranged at one end of the inner side of the explosion-proof partition plate 11, a reduction motor 15 is installed below the guide opening, a driving gear 16 is installed on the rotating shaft of the reduction motor 15, a tooth groove 14 is arranged on the bottom surface of the explosion-proof partition plate 11, and the driving gear 16 is engaged with the tooth groove 14.

[0040] Through the technical scheme, the electric control switch mechanism drives the rotation of the driving gear 16 through the reduction motor 15, the driving gear 16 is engaged with the tooth groove 14 at the bottom of the explosion-proof partition plate 11 for transmission, and the explosion-proof partition plate 11 is driven to slide horizontally along the guide opening, the limiting sliding block 13 at the inner side of the explosion-proof partition plate 11 ensures stable sliding of the partition plate and prevents the partition plate from being separated from the guide opening. When the explosion-proof partition plate 11 is completely closed, the detection activation chamber 6 is completely isolated from the conveying channel 2, forming an independent explosion-proof space; the outer baffle 12 plays a limiting and protective role, ensuring the reliability of the operation of the mechanism.

[0041] The complete working principle of the device is as follows: the storage battery body 5 is transported in the conveying channel 2 by the horizontal conveying table 4, is accurately positioned by the grating position sensor 3, and is conveyed below the target detection activation chamber 6; then the explosion-proof baffle 11 is opened by the speed reducer 15 to drive the conveying port, the step motor 24 drives the sliding guide rail 22 to drive the rectangular lifting frame 25 to descend through the threaded column 23, the first positive and negative tooth bidirectional screw sliding table 34 drives the clamping plate 26 to clamp the storage battery and then lifts to the detection activation chamber 6, at this time, the explosion-proof baffle 11 is closed and an independent explosion-proof space is formed; then the visual recognition lens 41 identifies the electrode position and polarity, the XY numerical control workbench 31, the steering motor 33 and the second positive and negative tooth bidirectional screw sliding table work together to adjust the position and spacing of the detection connecting end 35, so that the detection connecting end 35 automatically completes the polarity identification and abuttingly connects with the battery intelligent activation instrument; during the activation process, the smoke sensor 42 and the temperature sensor 43 are monitored in real time, once the fire is detected, the battery intelligent activation instrument triggers the electromagnetic switch valve immediately, the dry powder fire extinguishing tank 7 is conveyed to the dry powder spray head 9 through the fireproof conveying pipe 8 to convey the fire extinguishing agent to implement the fire extinguishing, and the storage battery body 5 is conveyed back to the conveying channel 2 by the lifting clamping mechanism.

[0042] The above only discloses several specific embodiments of the present application, but the embodiments of the present application are not limited to this, any changes that can be thought of by those skilled in the art should fall within the protection scope of the present application.

Claims

1. A device for rapidly eliminating polarization activation after battery storage, comprising an explosion-proof cabinet (1), characterized in that: The explosion-proof cabinet (1) has a conveying channel (2) at the bottom, and a battery conveying mechanism is provided inside the conveying channel (2). The explosion-proof cabinet (1) has multiple independent detection and activation chambers (6) at the top. The multiple detection and activation chambers (6) are linearly and equidistantly distributed. Each detection and activation chamber (6) has a conveying port between its bottom and the conveying channel (2). An electric control switch mechanism is installed at the conveying port of the detection and activation chamber (6). The detection and activation chamber (6) has a lifting and clamping mechanism and an automatic identification and connection mechanism for picking up and putting down the battery body (5). The explosion-proof cabinet (1) is connected to a fire extinguishing mechanism. The explosion-proof cabinet (1) has a battery intelligent activator (10) installed on its outside.

2. The device for rapidly eliminating polarization activation after battery storage according to claim 1, characterized in that: The battery conveying mechanism includes a horizontal conveying platform (4), which is installed in parallel inside the conveying channel (2). Continuous grating position sensors (3) are arranged horizontally on both sides inside the conveying channel (2).

3. The device for rapidly eliminating polarization activation after battery storage according to claim 1, characterized in that: The lifting and clamping mechanism includes fixed guide rails (21) embedded on both sides inside the detection activation chamber (6), a sliding guide rail (22) is slidably connected inside the fixed guide rail (21), a threaded column (23) is rotatably connected inside the fixed guide rail (21), a stepper motor (24) for driving the threaded column (23) is installed at the upper end of the detection activation chamber (6), and the upper end of the sliding guide rail (22) is threadedly connected to the threaded column (23).

4. The device for rapidly eliminating polarization activation after battery storage according to claim 3, characterized in that: A rectangular lifting frame (25) is fixedly connected to the lower end of the sliding guide rail (22). Clamping plates (26) are symmetrically arranged on both sides inside the rectangular lifting frame (25). A first positive and negative thread bidirectional screw slide is installed at both ends of the rectangular lifting frame (25). The first positive and negative thread bidirectional screw slide drives the two clamping plates (26) to move closer or further away.

5. The device for rapidly eliminating polarization activation after battery storage according to claim 1, characterized in that: The automatic identification connection mechanism includes an XY CNC worktable (31) installed at the upper end of the detection activation chamber (6). An electric telescopic rod (32) is installed on the drive seat of the XY CNC worktable (31). A steering motor (33) is installed at the telescopic end of the electric telescopic rod (32). A second forward and reverse threaded bidirectional screw slide (34) is installed on the shaft of the steering motor (33). Two detection connection ends (35) are installed on the second forward and reverse threaded bidirectional screw slide (34). The second forward and reverse threaded bidirectional screw slide (34) drives the two detection connection ends (35) to move closer or further away. The two detection connection ends (35) are electrically connected to the detection end corresponding to the battery intelligent activator (10).

6. The device for rapidly eliminating polarization activation after battery storage according to claim 5, characterized in that: Visual recognition lenses (41) are installed on both sides inside the detection activation chamber (6).

7. The device for rapidly eliminating polarization activation after battery storage according to claim 1, characterized in that: The fire extinguishing mechanism includes a dry powder fire extinguishing tank (7) located outside the explosion-proof cabinet (1) and a dry powder nozzle (9) located inside the detection activation chamber (6) and the conveying channel (2). A fireproof conveying pipe (8) connects the dry powder nozzle (9) and the dry powder fire extinguishing tank (7). An electromagnetic switch valve is installed on the dry powder nozzle (9). A smoke sensor (42) and a temperature sensor (43) are installed inside the conveying channel (2) and the detection activation chamber (6).

8. The device for rapidly eliminating polarization activation after battery storage according to claim 7, characterized in that: The electromagnetic switch valve, smoke sensor (42), and temperature sensor (43) are all electrically connected to the battery intelligent activator (10).

9. The device for rapidly eliminating polarization activation after battery storage according to claim 1, characterized in that: The electronic control switch mechanism includes an explosion-proof partition (11), which is slidably connected to the bottom of the detection activation chamber (6). The detection activation chamber (6) has a guide opening on the side away from the battery intelligent activator (10). The explosion-proof partition (11) extends to the outside of the guide opening. An outer baffle (12) is fixedly connected to one end of the explosion-proof partition (11) outside the guide opening. A limit slider (13) is provided on one end of the inner side of the explosion-proof partition (11). A reduction motor (15) is installed below the guide opening. A drive gear (16) is installed on the shaft of the reduction motor (15). A tooth groove (14) is provided on the bottom surface of the explosion-proof partition (11). The drive gear (16) meshes with the tooth groove (14).

10. A method of using the device for rapidly eliminating polarization activation after battery storage according to any one of claims 1-9, characterized in that, Includes the following steps: S1. The battery is transported to the target detection activation chamber (6) via the horizontal conveyor (4) and precisely positioned by the grating position sensor (3); S2. Turn on the electronic control switch mechanism, and the lifting and clamping mechanism will automatically descend, clamp the battery and lift it into the detection and activation chamber (6). Then close the explosion-proof partition (11) to make the detection and activation chamber an independent explosion-proof space. S3. The position and polarity of the battery electrode are identified by the visual recognition lens (41), and the automatic identification connection mechanism drives the detection connection end (35) to perform horizontal positioning, spacing adjustment and angle rotation, and finally automatically dock with the battery electrode. S4. The intelligent battery activator (10) activates the battery. During this process, the temperature sensor (43) and the smoke sensor (42) monitor in real time. If an abnormality occurs, the system immediately interrupts the activation and automatically starts the fire extinguishing mechanism to extinguish the fire. S5. After activation, the detection connection end (35) automatically disconnects, and the lifting clamping mechanism sends the battery back to the horizontal conveyor table (4) and out of the equipment.

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