Energy storage cabinet facilitating battery taking and storing

Abstract

The present application relates to the technical field of energy storage cabinet, and particularly relates to an energy storage cabinet facilitating battery taking and storing, which enables users to easily take out and place the battery without manually moving heavy objects, greatly reduces physical labor and improves work efficiency; comprising: a cabinet shell fixedly arranged on the ground; a plurality of storage assemblies arranged in the cabinet shell and vertically distributed; each storage assembly comprises a fixed supporting plate fixedly installed in the cabinet shell, a storage plate slidably installed on the fixed supporting plate, a linkage clasp fixedly installed on the storage plate and a T-shaped slot arranged on the linkage clasp; a push-pull mechanism comprising an installation base plate vertically slidably arranged in the cabinet shell; the installation base plate is provided with a power assembly, a top block is slidably arranged on the installation base plate, the power assembly is used for driving the top block to reciprocally slide, a linkage clamping block is fixedly installed on the top block, and the linkage clamping block is arranged in a T shape.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of energy storage cabinets, and particularly relates to an energy storage cabinet facilitating battery taking and storing. BACKGROUND

[0002] With the development of renewable energy and the popularity of electric vehicles, there is an increasing demand for efficient and convenient battery storage and replacement systems. Traditional battery storage methods often have many inconveniences, including the need for manual handling of heavy objects, low efficiency, and lack of flexibility in space utilization.

[0003] Existing battery storage devices mostly use fixed shelves or drawers to store batteries, which can meet the basic storage needs to some extent, but still have some deficiencies in actual use. First, fixed shelves are difficult to adapt to batteries of different sizes, resulting in poor storage flexibility. Second, when replacing batteries, users often need to manually take out and put in new batteries, which is tedious and time-consuming. Finally, due to the lack of effective automation mechanisms, the labor cost is high when used on a large scale. SUMMARY

[0004] To solve the above technical problems, the present application provides an energy storage cabinet facilitating battery taking and storing, which allows users to easily take out and place batteries without manual handling of heavy objects, greatly reducing physical labor and improving work efficiency.

[0005] The energy storage cabinet facilitating battery taking and storing of the present application comprises:

[0006] A cabinet shell is fixedly arranged on the ground;

[0007] A plurality of storage assemblies 3 are arranged in the cabinet shell 1 and distributed vertically. Each storage assembly comprises a fixed support plate fixedly installed in the cabinet shell 1, a storage plate slidably installed on the fixed support plate, a linkage clasp fixedly installed on the storage plate, and a "T"-shaped slot arranged on the linkage clasp;

[0008] A push-pull mechanism 2 comprises an installation base plate vertically sliding in the cabinet shell 1. A power assembly is arranged on the installation base plate. A top block is slidably arranged on the installation base plate. The power assembly is used to drive the top block to reciprocally slide. A linkage clamping block is fixedly installed on the top block and arranged in a "T" shape;

[0009] A lifting mechanism 4 is arranged in the cabinet shell 1 and used to drive the sliding of the installation base plate;

[0010] When the battery is replaced, the lifting mechanism 4 drives the mounting base plate to move, so that the linkage clamping block is inserted into the T-shaped slot of the storage assembly 3.

[0011] The power assembly of the energy storage cabinet convenient for moving and taking and storing batteries comprises:

[0012] The sliding block is vertically slid on the top block.

[0013] The driving shaft is rotatably installed on the mounting base plate.

[0014] The long lever is fixedly connected with the driving shaft at one end for synchronous rotation, and is hingedly connected with the sliding block at the other end.

[0015] The first motor is fixedly installed on the mounting base plate and is used for driving the driving shaft to rotate.

[0016] The push-pull mechanism 2 of the energy storage cabinet convenient for moving and taking and storing batteries further comprises:

[0017] The support sliding block is fixedly installed on the mounting base plate.

[0018] The support sliding seat is slid on the support sliding block.

[0019] The short lever is fixedly connected with the driving shaft at one end for synchronous rotation.

[0020] The driving connecting rod is hingedly connected with the support sliding seat at one end and is hingedly connected with the other end of the short lever away from the driving shaft.

[0021] The guide rail is fixedly installed on the support sliding seat, the top block is fixedly installed with a guide sliding block at the bottom end, and the guide sliding block is slid on the guide rail at the bottom.

[0022] The energy storage cabinet convenient for moving and taking and storing batteries is characterized in that the fixed supporting plate is provided with an avoiding slot for avoiding the linkage clamping block moving up and down.

[0023] The energy storage cabinet convenient for moving and taking and storing batteries is characterized in that the linkage clamping block and the linkage clamping ring are provided with rounded corners, and are used for guiding the linkage clamping block to be slid and inserted into the linkage clamping ring.

[0024] The energy storage cabinet convenient for moving and taking and storing batteries is characterized in that two positioning plates are fixedly installed on the fixed supporting plate in a symmetrical mode, and the positioning plates are used for positioning the storage plate to reset the position.

[0025] The energy storage cabinet convenient for moving and taking and storing batteries is characterized in that the positioning plate is provided with a rubber gasket at the contact end with the storage plate, and is used for buffering the impact between the positioning plate and the storage plate.

[0026] The present invention provides an energy storage cabinet for easy access to and storage of mobile batteries, wherein a set of infrared transmitters and an infrared receiver are fixedly installed on the two positioning plates respectively, and the infrared transmitters and the infrared receivers are arranged on the same horizontal straight line.

[0027] The present invention provides an energy storage cabinet for easy access to and retrieval of mobile batteries, wherein the lifting mechanism 4 includes:

[0028] The lifting support is fixedly installed inside the bottom of the cabinet shell;

[0029] Top plate, fixedly installed inside the top of the cabinet shell;

[0030] Two support guide columns, each of which is fixedly connected at both ends to the lifting support and the top plate, respectively; the support guide columns pass through the mounting base plate;

[0031] Both driven pulleys are rotatably mounted on the lifting support;

[0032] Both drive pulleys are rotatably mounted on the top plate;

[0033] The second motor is used to drive the two drive pulleys to rotate synchronously.

[0034] Two drive belts are respectively wrapped around and installed on the driven pulley and the driving pulley, which are opposite each other.

[0035] Two belt clamps are also fixedly installed on the mounting base plate, and each belt clamp clamps a corresponding transmission belt.

[0036] The present invention provides an energy storage cabinet for easy access to and storage of mobile batteries, wherein the supporting guide column and the transmission belt are parallel to each other in their transmission directions.

[0037] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0038] By incorporating multiple vertically distributed storage components, along with vertically sliding push-pull and lifting mechanisms, this energy storage cabinet can quickly locate and access the required batteries, significantly reducing battery storage and retrieval time. Through the coordinated design of interlocking rings and blocks, users can easily remove and place batteries without manually moving heavy objects, greatly reducing physical labor and improving work efficiency. The coordinated operation of the push-pull and lifting mechanisms enables semi-automation or even full automation of the battery replacement process, reducing user steps and making the entire storage and retrieval process simpler and faster. The introduction of automation mechanisms reduces reliance on manual labor in large-scale applications, thereby lowering operating costs. The vertical arrangement of multiple storage components, along with their adjustable positions to optimize space utilization, allows for the efficient storage of a larger number of batteries even in limited spaces. BRIEF DESCRIPTION OF DRAWINGS

[0039] The application will be further described in conjunction with the drawings.

[0040] Figure 1 is a schematic view of the enlarged structure of the cabinet shell;

[0041] Figure 2 is a schematic view of the cooperation structure of the push-pull mechanism, the storage assembly and the lifting mechanism;

[0042] Figure 3 is a schematic view of the enlarged structure of the push-pull mechanism;

[0043] Figure 4 is a schematic view of the cooperation structure of the power assembly and the top block;

[0044] Figure 5 is a schematic view of the installation structure of the power assembly;

[0045] Figure 6 is a schematic view of the cooperation structure of the top block and the storage assembly;

[0046] Figure 7 is a schematic view of the enlarged structure of the storage assembly;

[0047] Figure 8 is a schematic view of the enlarged structure of the lifting mechanism;

[0048] In the drawings, 1 is a cabinet shell; 2 is a push-pull mechanism; 21 is an installation base plate; 22 is a top block; 23 is a linkage clamping block; 24 is a first motor; 25 is a driving shaft; 26 is a long push lever; 27 is a push sliding block; 28 is a guide sliding block; 29 is a belt clamping block; 2a is a supporting sliding block; 2b is a supporting sliding seat; 2c is a short push lever; 2d is a driving connecting rod; 2e is a guide rail; 3 is a storage assembly; 31 is a fixed supporting plate; 32 is a storage plate; 33 is a linkage clamping ring; 34 is a positioning plate; 35 is an infrared emitter; 36 is an infrared receiver; 4 is a lifting mechanism; 41 is a lifting support; 42 is a supporting guide column; 43 is a driven pulley; 44 is a top plate; 45 is a driving pulley; 46 is a second motor; 47 is a transmission belt. DETAILED DESCRIPTION

[0049] The specific embodiments of the application will be further described in detail in conjunction with the drawings and examples. The following examples are used to illustrate the application, but are not used to limit the scope of the application.

[0050] As shown in Figures 1 to 8 , a storage cabinet facilitating the storage and retrieval of batteries, comprising:

[0051] The cabinet shell 1 is fixedly arranged on the ground;

[0052] A plurality of storage assemblies 3 are arranged in the cabinet shell 1 and are vertically distributed; each storage assembly comprises a fixed support plate 31 fixedly installed in the cabinet shell 1, a storage plate 32 slidably installed on the fixed support plate 31, and a linkage clasp 33 fixedly installed on the storage plate 32, wherein the linkage clasp 33 is provided with a "T"-shaped slot;

[0053] A push-pull mechanism 2 comprises an installation base plate 21 vertically sliding in the cabinet shell 1; the installation base plate 21 is provided with a power assembly, and a top block 22 is slidably arranged on the installation base plate 21, wherein the power assembly is configured to drive the top block 22 to reciprocally slide, and a linkage clamping block 23 is fixedly installed on the top block 22 and is provided in a "T" shape;

[0054] A lifting mechanism 4 is arranged in the cabinet shell 1 and is configured to drive the sliding of the installation base plate 21;

[0055] When the battery is replaced, the lifting mechanism 4 drives the installation base plate 21 to move, so that the linkage clamping block 23 is inserted into the "T"-shaped slot of one storage assembly 3; by arranging a plurality of vertically distributed storage assemblies, as well as the vertically slidable push-pull mechanism and the lifting mechanism, the energy storage cabinet can quickly locate and access the position of the required battery, greatly shortening the time for battery storage and access; by the cooperation of the linkage clasp 33 and the linkage clamping block 23, the user can easily take out and place the battery without manually moving heavy objects, greatly reducing physical labor and improving work efficiency; with the coordinated work of the push-pull mechanism 2 and the lifting mechanism 4, the battery replacement process is semi-automated or even fully automated, reducing the operation steps of the user and making the entire storage and access process more simple and fast; by introducing an automatic mechanism, the dependence on manual labor can be reduced in large-scale application occasions, thereby reducing operating costs; the plurality of storage assemblies 3 are vertically arranged and can be adjusted in position to optimize space use, which makes it possible to effectively store a larger number of batteries even in limited space.

[0056] As a preferred embodiment of the above embodiment, the power assembly comprises:

[0057] A driving slide 27 vertically sliding on the top block 22;

[0058] A driving shaft 25 rotatably installed on the installation base plate 21;

[0059] A long driving rod 26 having one end fixedly connected with the driving shaft 25 for synchronous rotation and the other end hingedly connected with the driving slide 27;

[0060] The first motor 24 is fixedly installed on the installation base plate 21 and used to drive the driving shaft 25 to rotate. Each component of the power assembly is compactly installed on the installation base plate 21 and the top block 22, so that the whole push-pull mechanism 2 is more compact and space-saving. The driving shaft 25 is driven to rotate by the first motor 24, and then the long lever 26 is driven to rotate, and finally the lever sliding block 27 is vertically slid on the top block 22, so that the battery locking and releasing operation of the linkage clamping block 23 can be quickly responded and driven. The first motor 24 serves as a power source, and its rotating direction and speed can be accurately controlled through electrical control, so as to accurately control the movement of the linkage clamping block 23. The operation process of the battery access is simplified, the manual intervention is reduced, and the operation efficiency is improved. The fixed connection of the driving shaft 25 and the long lever 26 and the hinged design of the long lever 26 and the lever sliding block 27 make the transmission process stable and reliable, and the jamming situation is not easy to occur.

[0061] As a preferred embodiment of the above embodiment, the push-pull mechanism 2 further comprises:

[0062] The support sliding block 2a is fixedly installed on the installation base plate 21.

[0063] The support sliding seat 2b is slid on the support sliding block 2a.

[0064] The short lever 2c is fixedly connected with the driving shaft 25 at one end for synchronous rotation.

[0065] The driving link 2d is hingedly connected with the support sliding seat 2b at one end and hingedly connected with the other end of the short lever 2c away from the driving shaft 25.

[0066] The guide rail 2e is fixedly installed on the support sliding seat 2b. The top block 22 is fixedly installed with a guide sliding block 28 at the bottom end, and the bottom of the guide sliding block 28 is slid on the guide rail 2e. The cooperation of the support sliding block 2a and the support sliding seat 2b provides a stable sliding track for the push-pull mechanism 2, and enhances the stability of the overall structure. The introduction of the guide rail 2e further ensures the stability and accuracy of the guide sliding block 28 during sliding, reduces the risk of failure caused by shaking or deviation, and drives the support sliding seat 2b and the guide sliding block 28 to slide on the guide rail 2e when the driving shaft 25 rotates. The efficiency and accuracy of the transmission are improved, and the driving stroke is increased, so that the driving top block 22 can push the battery to a farther position. The support sliding block 2a, the support sliding seat 2b, the short lever 2c, the driving link 2d and the guide rail 2e are compactly installed inside the push-pull mechanism 2, which optimizes the space utilization. The overall structure of the energy storage cabinet is more compact, the floor area is reduced, and the space utilization is improved.

[0067] As a preferred embodiment of the above, the fixed supporting plate 31 is provided with a avoiding slot for avoiding the up-down movement of the linkage block 23; the avoiding slot allows the linkage block 23 to move up and down on the fixed supporting plate 31 without obstacles; when the mounting base plate 21 and the push-pull mechanism 2 thereon are moved by the lifting mechanism 4, the linkage block 23 can easily insert or pull out the "T"-shaped slot on the linkage ring 33 without being hindered by the fixed supporting plate 31; since the linkage block 23 can smoothly move in the avoiding slot, the process of accessing the battery becomes faster and more efficient; this reduces the delay caused by mechanical interference and improves the operation efficiency of the entire energy storage cabinet; the ingenious design of the avoiding slot makes the space on the fixed supporting plate 31 more effectively utilized; it not only provides the necessary space for the movement of the linkage block 23, but also maintains the overall compactness of the storage assembly 3, thereby improving the storage density of the energy storage cabinet.

[0068] As a preferred embodiment of the above, the linkage block 23 and the linkage ring 33 are both provided with rounded corners for guiding the sliding insertion of the linkage block 23 in the linkage ring 33; the rounded corners can guide the linkage block 23 to slide and insert in the linkage ring 33 more smoothly; compared to a right-angle design, the rounded corners reduce friction and collision between the block and the ring, making the insertion and removal process smoother and reducing mechanical wear and noise; since the rounded corner design reduces friction and collision, it can significantly improve the durability of the linkage block 23 and the linkage ring 33; it helps to prolong the service life of the energy storage cabinet and reduce the cost of maintenance and replacement of parts; the rounded corner design also helps to enhance the structural strength of the linkage block 23 and the linkage ring 33; when subjected to external forces, the rounded corners can better disperse stress and avoid structural damage caused by stress concentration.

[0069] As a preferred embodiment of the above, two positioning plates 34 are symmetrically fixed on the fixed supporting plate 31, and the positioning plates 34 are used to position the storage plate 32 to reset position; the positioning plates 34 can ensure that the storage plate 32 can be accurately reset when sliding to the specified position; it helps users to quickly find the correct storage position when replacing the battery, avoiding operation errors or time waste caused by inaccurate position; the positioning plates 34 not only play a positioning role, but also enhance the structural stability between the fixed supporting plate 31 and the storage plate 32 to a certain extent; when the storage plate 32 is subjected to external forces, the positioning plates 34 can prevent it from moving or deforming excessively, thereby maintaining the stability and reliability of the entire storage assembly; by accurately positioning the reset position of the storage plate 32, the space inside the energy storage cabinet can be more effectively utilized; this helps to improve the storage density and storage efficiency, so that more batteries can be properly stored in a limited space.

[0070] As a preferred embodiment of the above, the positioning plate 34 is provided with a rubber pad at the contact end of the storage plate 32, which is used to buffer the impact of the positioning plate 34 and the storage plate 32; the rubber pad has good shock absorption and sound insulation effect; when the storage plate 32 slides to the position of the positioning plate 34, the rubber pad can absorb the energy generated by the impact and reduce the generation of noise, thereby providing a more quiet and comfortable use environment; direct impact between the positioning plate 34 and the storage plate 32 can cause structural damage, especially when operated frequently for a long time; the addition of the rubber pad can disperse the impact force and reduce the impact on the structure, thereby prolonging the service life of the energy storage cabinet and reducing maintenance costs; the rubber pad not only plays a buffering role, but also increases the friction between the positioning plate 34 and the storage plate 32 to some extent, which helps the storage plate 32 to stay more stably at the specified position when resetting, avoids shaking or displacement, and improves the stability and reliability of the entire energy storage cabinet.

[0071] As a preferred embodiment of the above, a set of infrared emitters 35 and an infrared receiver 36 are respectively fixedly installed on the two positioning plates 34, and the infrared emitters 35 and the infrared receiver 36 are arranged on the same horizontal straight line; the combination of the infrared emitters 35 and the infrared receiver 36 can realize accurate detection of the position of the storage plate 32; when the linkage block 23 slides into the linkage clasp 33, it will block the infrared rays emitted by the infrared emitters 35, causing the infrared receiver 36 to receive a signal change, thereby judging whether the linkage block 23 is clamped with the linkage clasp 33, and further controlling the operation of the push-pull mechanism 2; the non-contact detection method not only has high accuracy, but also avoids wear and failure caused by mechanical contact; the infrared detection method has the characteristics of fast response speed and strong anti-interference ability; even in complex environmental conditions, the infrared emitters 35 and the infrared receiver 36 can still work stably, ensuring the reliability and stability of the system.

[0072] As a preferred embodiment of the above, the lifting mechanism 4 comprises:

[0073] The lifting support 41 is fixedly installed at the inner bottom of the cabinet shell;

[0074] The top plate 44 is fixedly installed at the inner top of the cabinet shell;

[0075] The two support guide columns 42 are respectively fixedly connected at both ends of each support guide column 42 and the lifting support 41 and the top plate 44; the support guide column 42 passes through the mounting base plate 21;

[0076] The two driven pulleys 43 are rotatably installed on the lifting support 41;

[0077] The two driving pulleys 45 are rotatably installed on the top plate 44;

[0078] The second motor 46 is used to drive the two driving pulleys 45 to rotate synchronously;

[0079] Two transmission belts 47 are respectively wound around the upper and lower opposite driven pulleys 43 and the driving pulleys 45;

[0080] Two belt clamping blocks 29 are fixedly arranged on the mounting base plate 21, and each belt clamping block 29 clamps a corresponding transmission belt 47; the lifting support 41 and the top plate 44 are respectively fixedly installed at the bottom and the top of the cabinet shell, thereby providing stable support for the entire lifting mechanism; the two support guide columns 42 penetrate through the entire lifting mechanism from the bottom to the top, thereby further enhancing the stability of the structure; the lifting mechanism can withstand a larger vertical load, and can ensure stability when accessing a battery with a larger weight; the stable lifting of the mounting base plate 21 is realized through the cooperation of the two driven pulleys 43 and the two driving pulleys 45 and the transmission of the transmission belts 47; the belt transmission has smaller friction and vibration, which is helpful to realize high-precision lifting control and ensure that the linkage clamping block 23 can be accurately inserted into the linkage clamping ring 33; the belt transmission has high transmission efficiency and can quickly respond to the driving signal of the second motor 46 to realize rapid lifting.

[0081] As a preferred embodiment of the above embodiment, the support guide column 42 and the transmission direction of the transmission belt 47 are parallel to each other; when the support guide column and the transmission belt direction are parallel, they jointly constitute a stable frame, which is helpful to prevent the mounting base plate 21 from being laterally deviated or shaken during lifting, thereby improving the overall stability of the system; the parallel layout is also helpful to reduce the noise and vibration generated by the lifting mechanism during operation; when the support guide column and the transmission belt direction are parallel, the transmission belt can maintain a stable trajectory during winding, thereby reducing the noise and vibration generated due to the jumping or irregular movement of the belt, and improving the overall operation quality of the energy storage cabinet.

[0082] The energy storage cabinet for conveniently moving battery taking and storing of the present application, when working, the energy storage cabinet is in standby state, all the storage plates in the storage assemblies are in initial position, the linkage clamping block and the linkage clamping ring are not connected; the lifting mechanism is in the lowest position, the installation base plate is located at the bottom of the cabinet shell; the user selects the position of the battery to be taken out through the external control interface; the system controls the lifting mechanism to start according to the user's selection, and drives the installation base plate to rise to the position where the target storage assembly is located; when the installation base plate reaches the target position, the power assembly starts; the first motor drives the driving shaft to rotate, and drives the top block and the linkage clamping block to move to the target linkage clamping ring through the long lever and the lever sliding block; the linkage clamping block is slidably inserted into the "T"-shaped slot of the linkage clamping ring to realize connection; then, the power assembly continues to work, and drives the storage plate and the battery to slide along the fixed supporting plate to the predetermined position through the short lever, the driving connecting rod and the supporting sliding seat and other mechanisms; when the storage plate slides to the predetermined position, the user can manually take out the battery or put in a new battery; after the taking out or storing is completed, the user issues an instruction through the external control interface to control the power assembly to work reversely, so as to reset the storage plate and the battery to the original position; after the storage plate is reset, the lifting mechanism drives the installation base plate to descend to the initial position, and prepares for the next operation.

[0083] The energy storage cabinet for conveniently moving battery taking and storing of the present application, the installation mode, the connection mode or the setting mode are all common mechanical modes, as long as the beneficial effects can be achieved, they can be implemented.

[0084] The above is only the preferred embodiment of the present application, it should be pointed out that for ordinary skilled in the art, without departing from the technical principles of the present application, a number of improvements and modifications can be made, these improvements and modifications should also be considered as the protection scope of the present application.

Claims

1. An energy storage cabinet for easy access to and storage of mobile batteries, characterized in that, The utility model provides a kind of battery replacement device, including: Cabinet shell, fixedly arranged on ground; Multiple storage assemblies, each arranged in the cabinet shell, and distributed vertically;Each of the storage assemblies includes a fixed mounting plate fixedly mounted in the cabinet shell, a storage plate slidably mounted on the fixed mounting plate, and a linkage clasp fixedly mounted on the storage plate, wherein the linkage clasp is provided with a "T" shaped slot; A push-pull mechanism includes an installation base plate that slides vertically within the cabinet shell;The installation base plate is provided with a power assembly, and a top block is slidably arranged on the installation base plate;The power assembly is configured to drive the top block to reciprocally slide, and the top block is fixedly mounted with a linkage clamping block, which is provided in a "T" shape; A lifting mechanism is arranged in the cabinet shell and configured to drive the sliding of the installation base plate; When replacing the battery, the lifting mechanism drives the movement of the installation base plate, so that the linkage clamping block is inserted into the "T" shaped slot of one of the storage assemblies; The power assembly includes: A sliding knob that slides vertically on the top block; A drive shaft that is rotatably mounted on the installation base plate; A long lever that is fixedly connected to the drive shaft at one end for synchronous rotation and hingedly connected to the sliding knob at the other end; A first motor that is fixedly mounted on the installation base plate and configured to drive the rotation of the drive shaft; The push-pull mechanism further includes: A support sliding block that is fixedly mounted on the installation base plate; A support sliding seat that slides on the support sliding block; A short lever that is fixedly connected to the drive shaft at one end for synchronous rotation; A drive link that is hingedly connected to the support sliding seat at one end and hingedly connected to the short lever at the other end, away from the drive shaft; A guide rail that is fixedly mounted on the support sliding seat;The bottom end of the top block is fixedly mounted with a guide sliding block, and the bottom of the guide sliding block slides on the guide rail.

2. The energy storage cabinet of claim 1, wherein, The fixed mounting plate is provided with an avoiding slot for avoiding the upward and downward movement of the linkage clamping block.

3. The energy storage cabinet of claim 1, wherein, The linkage clamping block and the linkage clasp are both provided with rounded corners for guiding the sliding insertion of the linkage clamping block into the linkage clasp.

4. The energy storage cabinet of claim 1, wherein, Two positioning plates are symmetrically fixedly mounted on the fixed mounting plate, and the positioning plates are configured to position the storage plate to a reset position.

5. The energy storage cabinet of claim 4, wherein, The contact end of the positioning plate and the storage plate is provided with a rubber gasket for buffering the impact between the positioning plate and the storage plate.

6. The energy storage cabinet of claim 4, wherein, A set of infrared emitters and an infrared receiver are fixedly mounted on each of the two positioning plates, and the infrared emitters and the infrared receiver are arranged on the same horizontal line.

7. The mobile battery storage cabinet of claim 1, wherein, The lifting mechanism includes: A lifting support that is fixedly mounted on the bottom of the cabinet shell; A top plate that is fixedly mounted on the top of the cabinet shell; Two support guide columns, each of which is fixedly connected to the lifting support and the top plate at both ends, and the support guide columns pass through the installation base plate; Two driven pulleys that are rotatably mounted on the lifting support; Two driving pulleys that are rotatably mounted on the top plate; A second motor that is configured to drive the synchronous rotation of the two driving pulleys; Two transmission belts that are respectively wound around the corresponding driven pulley and driving pulley arranged opposite to each other; Two belt clamping blocks are fixedly arranged on the installation base plate, and each of the belt clamping blocks clamps one of the transmission belts.

8. The energy storage cabinet of claim 7, wherein, The transmission direction of the support guide column and the transmission belt is parallel to each other.

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