Intelligent shared power bank cabinet

Abstract

The utility model provides a kind of intelligent shared power bank cabinet, including cabinet and at least one warehouse body module being arranged in the cabinet, the warehouse body module includes side by side arrangement left warehouse and right warehouse, the left warehouse and right warehouse are provided with the bilateral lock catch mechanism for locking power bank, and a drive mechanism for the bilateral lock catch mechanism of left warehouse and right warehouse is unlocked action is asynchronously driven.The core function unit of cabinet is designed as independent warehouse body module, each module contains two positions, which facilitates mass production, rapid assembly and flexible configuration of cabinet capacity;Through bilateral lock catch design, the shared power bank of each position is locked by double-sided simultaneously, firmly holds power bank from left and right sides, greatly enhances the stability and reliability of locking.And through one drive two asynchronous drive design, the lock action of left warehouse or right warehouse can be controlled selectively in time, which realizes the control of multiple positions with the least power source.

Description

Technical Field

[0001] This utility model relates to the field of power bank cabinet technology, specifically to an intelligent shared power bank cabinet. Background Technology

[0002] Existing shared power bank cabinets have the following drawbacks: single-sided latches can easily cause power banks to shake and signal recognition to be unstable; single-motor drive systems are costly and structurally complex; they lack effective anti-theft designs, posing a risk of theft; and maintenance is complex and after-sales costs are high. In view of these, this application is hereby submitted. Utility Model Content

[0003] This utility model provides an intelligent shared power bank cabinet to solve at least one of the above-mentioned technical problems.

[0004] To address the aforementioned problems, as one aspect of this utility model, an intelligent shared power bank cabinet is provided, characterized in that it includes a cabinet body and at least one compartment module disposed within the cabinet body. The compartment module includes a left compartment and a right compartment arranged side by side. Both the left and right compartments are provided with a double-sided locking mechanism for locking the power bank, and a drive mechanism for asynchronously driving the double-sided locking mechanism of the left and right compartments to perform an unlocking action.

[0005] Furthermore, the drive mechanism includes a stepper motor and a cam driven by the stepper motor to rotate, the cam being located between the left compartment and the right compartment; each of the left compartment and the right compartment is provided with a corresponding transmission rod, and the cam can selectively abut against and push either transmission rod to move linearly, thereby triggering the unlocking action of the corresponding compartment.

[0006] Furthermore, the double-sided locking mechanism includes a left and a right lock slidably mounted on the base of the compartment, and a transmission push rod; the left lock is used to lock the left side of the power bank inside the compartment, and the right lock is used to lock the right side of the power bank inside the compartment; the transmission push rod can move towards the left and right locks under the drive of the transmission rod, and simultaneously push the left and right locks to move in opposite directions to unlock.

[0007] Furthermore, the transmission push rod is slidably disposed within the chamber module, with the first end of the transmission push rod engaging with the transmission rod on an inclined plane, one side of the second end of the transmission push rod engaging with the left locking buckle on an inclined plane, and the other side of the second end of the transmission push rod engaging with the right locking buckle on an inclined plane.

[0008] Furthermore, the left and right latches are each provided with an independent spring reset mechanism, which is used to drive the left and right latches to reset to the locked state after the unlocking action is completed, thereby resetting the transmission push rod to the locked state.

[0009] Furthermore, both the left and right latches are provided with hooks corresponding to the locking grooves on the power bank, and the hooks have guide slopes facing the direction in which the power bank is inserted.

[0010] Furthermore, the base of the compartment module is provided with a dual-track structure for guiding and limiting the movement of the left and right latches.

[0011] Furthermore, the end of the dual-track structure is provided with a racetrack-shaped limiting bone to strengthen the force limiting of the left and right locks in the X and Y directions.

[0012] Furthermore, each of the left and right compartments is equipped with a power bank spring block, which is connected to the compartment body via a tension spring and is slidably connected to the compartment body.

[0013] Furthermore, the power bank's bullet block is provided with guide rail grooves on both sides, and the compartment is provided with guide rail ribs that cooperate with the guide rail grooves.

[0014] This utility model's intelligent shared power bank cabinet utilizes a modular design, with the core functional unit structured as an independent compartment module. Each module contains two compartments, facilitating mass production, rapid assembly, and flexible configuration of cabinet capacity. A double-sided locking design securely holds the shared power bank in each compartment from both sides, significantly enhancing stability and reliability. Furthermore, a one-drive, two-asynchronous drive design allows for time-sharing and selective control of the locking action of either the left or right compartment using a single, ingenious mechanical structure, enabling control of multiple compartments with minimal power source. Attached Figure Description

[0015] Figure 1 This is a structural schematic diagram of the shared power bank cabinet according to an embodiment of this utility model;

[0016] Figure 2 yes Figure 1 A schematic diagram of the exploded structure;

[0017] Figure 3 yes Figure 1 A structural schematic diagram of the warehouse module;

[0018] Figure 4 yes Figure 3 A structural diagram from a second perspective;

[0019] Figure 5 yes Figure 3 A cross-sectional structural diagram of a device with a power bank;

[0020] Figure 6 yes Figure 3A cross-sectional view of the structure without a power bank;

[0021] Figure 7 yes Figure 3 A schematic diagram of the exploded structure;

[0022] Figure 8 yes Figure 7 A schematic diagram of the base structure.

[0023] Figure label:

[0024] 1. Compartment module; 11. Left compartment; 12. Right compartment; 13. Double-sided locking mechanism; 131. Left lock; 132. Right lock; 133. Spring return mechanism; 134. Hook; 14. Power bank spring block; 141. Tension spring; 15. Base; 151. Double track structure; 152. Racetrack-shaped limiting bone position; 16. Receiving cavity; 161. Drain hole; 162. Waterproof and dustproof cover; 17. Drive mechanism; 171. Step 1. Power supply motor; 172. Cam; 173. Transmission rod; 174. Transmission push rod; 18. Water collection wall frame; 181. Water collection area; 182. Water guide hole; 19. Guide positioning protrusion; 191. First threaded hole; 2. Bracket assembly; 21. Left assembly bracket; 22. Right assembly bracket; 23. Guide positioning groove; 24. First through hole; 3. Power supply board; 31. Charging probe; X. Power bank; X1. Locking slot. Detailed Implementation

[0025] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this utility model, not all of them. All other embodiments obtained by those skilled in the art based on the embodiments of this utility model without creative effort are within the scope of protection of this utility model. Therefore, the following detailed description of the embodiments of this utility model provided in the accompanying drawings is not intended to limit the scope of the claimed utility model, but merely represents selected embodiments of this utility model. All other embodiments obtained by those skilled in the art based on the embodiments of this utility model without creative effort are within the scope of protection of this utility model.

[0026] In the description of this utility model, it should be understood that the terms "center," "longitudinal," "lateral," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicating orientation or positional relationships, are based on the orientation or positional relationships shown in the accompanying drawings and are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model. In the description of this utility model, unless otherwise stated, "a plurality of" means two or more.

[0027] The specific embodiments of this utility model are described in detail below with reference to the accompanying drawings.

[0028] This embodiment provides an intelligent shared power bank cabinet, the core of which is the adoption of a highly modular cabinet module 1 design, an intelligent and efficient one-drive two-lock system, and a comprehensive and effective waterproof structure.

[0029] Please refer to Figures 1 to 8 The shared power bank cabinet includes a cabinet body and at least one compartment module 1 disposed within the cabinet body. The compartment module 1 includes a left compartment 11 and a right compartment 12 arranged side by side. Both the left compartment 11 and the right compartment 12 are provided with a double-sided locking mechanism 13 for locking the power bank, and a drive mechanism 17 for asynchronously driving the double-sided locking mechanism 13 of the left compartment 11 and the right compartment 12 to perform an unlocking action.

[0030] Through modular design, the core functional unit of the cabinet is designed as an independent compartment module 1, with each module containing two compartments, facilitating mass production, rapid assembly, and flexible configuration of cabinet capacity. The double-sided locking mechanism 13 securely locks the shared power bank in each compartment from both sides simultaneously, greatly enhancing the stability and reliability of the locking mechanism. Furthermore, the one-drive, two-asynchronous drive design allows for time-sharing and selective control of the locking action of either the left compartment 11 or the right compartment 12 using a single drive component, such as a drive motor, through a clever mechanical structure, achieving control of multiple compartments with minimal power source.

[0031] The double-sided locking mechanism 13 effectively prevents the power bank from shaking, falling off, or being stolen inside the compartment, ensuring a stable connection between the power bank and the contacts and more reliable communication signals. The design of the drive mechanism 17 for the unlocking action of the double-sided locking mechanism 13 in the asynchronous drive left compartment 11 and right compartment 12 reduces the number of motors by half, directly reducing hardware costs and subsequent maintenance costs.

[0032] Please refer to the following: Figure 5 and Figure 6The drive mechanism 17 includes a stepper motor 171 and a cam 172 driven to rotate by the stepper motor 171. The cam 172 is located between the left compartment 11 and the right compartment 12. Each of the left compartment 11 and the right compartment 12 is provided with a corresponding transmission rod 173. The cam 172 can selectively abut against and push either transmission rod 173 to move linearly, thereby triggering the unlocking action of the corresponding compartment. The transmission rod 173 is slidably mounted on a fixed bracket and has a rebound assist spring, so that when the lock is unlocked, the transmission rod 173 automatically returns to its original position under the action of the rebound assist spring.

[0033] Cam 172 is a part with a specific profile. The motor drives cam 172 to rotate. When the protruding portion on the profile of cam 172 rotates to contact the drive rod 173 on one side, it pushes the drive rod 173 to move linearly. The specific shape design of cam 172 ensures that it can push only one drive rod 173 at any given time, thus achieving the asynchronous control function of opening the left compartment 11 by turning left and opening the right compartment 12 by turning right. It cleverly converts the rotational motion of the motor into the linear motion required for unlocking through the cam 172-drive rod 173 mechanism. The combination of stepper motor 171 and cam 172 offers high control precision, reliable operation, and is easily controlled by a program, allowing one motor to control two compartments.

[0034] Furthermore, the profile of cam 172 is designed with a phase difference of 160° to 180° to ensure that only one side of the transmission rod 173 is pushed at the same time.

[0035] Please refer to Figures 5 to 7 The double-sided locking mechanism 13 includes a left locking buckle 131 and a right locking buckle 132 slidably disposed on the base 15 of the compartment, and a transmission push rod 174; the left locking buckle 131 is used to lock the left side of the corresponding power bank in the compartment, and the right locking buckle 132 is used to lock the right side of the corresponding power bank in the compartment.

[0036] Driven by the transmission rod 173, the transmission push rod 174 can move towards the left latch 131 and the right latch 132, and simultaneously push the left latch 131 and the right latch 132 to move in opposite directions to unlock. The transmission push rod 174 is slidably disposed within the compartment module 1. The first end of the transmission push rod 174 is inclinedly engaged with the transmission rod 173, one side of the second end of the transmission push rod 174 is inclinedly engaged with the left latch 131, and the other side of the second end of the transmission push rod 174 is inclinedly engaged with the right latch 132.

[0037] The transmission push rod 174 acts as an intermediate power distributor. When pushed downwards by the transmission rod 173, its own structure, such as a V-shape or wedge-shaped surface, simultaneously contacts the inner sides of the left latch 131 and the right latch 132. The downward movement of the transmission push rod 174 forces the left latch 131 to move to the left and the right latch 132 to move to the right via its inclined surface, thus achieving synchronous and symmetrical disengagement of the two latches from the power bank's slots, completing the unlocking process. This structure ensures consistent movement of the left and right latches, a smooth unlocking process, and avoids jamming or wear caused by asynchrony. Using a single transmission push rod 174 to achieve bidirectional drive results in a very compact and efficient structure; the mechanical force transmission method is direct, reliable, and has a low failure rate.

[0038] The entire unlocking power transmission chain employs inclined planes in multiple places. The inclined planes can efficiently convert movement in one direction, such as the horizontal movement of the transmission rod 173 or the vertical movement of the transmission push rod 174, into movement in another direction, such as the vertical movement of the transmission push rod 174 or the horizontal movement of the latch. At the same time, it has a force-amplifying effect, enabling the small motor to generate sufficient unlocking force, while reducing jamming between moving parts, making the entire unlocking action smoother.

[0039] Please refer to Figure 6 The left latch 131 and right latch 132 are each equipped with an independent spring reset mechanism 133, which is used to drive the left latch 131 and right latch 132 to the locked state after the unlocking action is completed, thereby resetting the transmission rod 174 to the locked state. Each latch is equipped with an independent compression spring. During unlocking, the latch movement compresses the spring to store energy; when the drive mechanism 17 removes the force, the energy stored in the spring is released, pushing the latch back to its initial position. During the latch reset process, it engages with the inclined surface of the transmission rod 174 to push the transmission rod 174 back to its initial position, completing the reset of the entire system. No additional power source is required; automatic reset using spring force is energy-saving and reliable. The spring force ensures that the latches remain locked in the absence of human intervention, preventing accidental unlocking.

[0040] Furthermore, both the left latch 131 and the right latch 132 are equipped with hooks 134 corresponding to the locking slots on the power bank, and the hooks 134 have guide slopes facing the insertion direction of the power bank. When the user returns the power bank and inserts it forcefully, the end of the power bank will contact the slope on the hook 134. This slope will decompose the vertical insertion force into a horizontal component force, which will push the left and right latches 131 and 132 to move in opposite directions for a brief unlocking, allowing the power bank to pass smoothly. When the power bank is fully inserted, the latches will quickly rebound under the action of the spring, and the hooks 134 will click into the locking slots of the power bank, completing the automatic locking. The sloped guide makes the insertion process effortless and avoids damage to the structure from hard collisions. Users only need to insert the power bank to complete the return and locking process, providing a very smooth experience.

[0041] Furthermore, the base 15 of the compartment module 1 is equipped with a double-track structure 151 for guiding and limiting the movement of the left latch 131 and the right latch 132. This structure can effectively guide and limit the left and right latches 131 and 132, allowing the latches to move back and forth smoothly along the track. This ensures that the latches can only slide horizontally along the predetermined path under complex stress conditions, preventing skewing, jamming, or derailment. The two ends of the track limit the movement stroke of the latches, preventing them from moving excessively or leaving the correct position. The double-track structure 151 ensures that the trajectory of each unlocking and resetting action is consistent, improving the reliability and lifespan of the action. It also prevents the latches from skewing due to uneven force, thus avoiding friction and jamming with surrounding parts.

[0042] The dual-track structure 151 features a racetrack-shaped limiting rib 152 at its end, designed to reinforce the force-limiting function of the left and right latches 131 and 132 in the X and Y directions. The racetrack shape is an elliptical-like structure whose contour can wrap around and support the ends of the latches in the X horizontal, Y vertical, and even Z directions. This design increases the contact area between the latches and the base 15, allowing the force to be more effectively distributed across the entire base 15 structure when an external force attempts to impact the latches. This significantly improves the structural stability and reliability of the product under transportation, drops, or rough handling, ensuring that the latches 131 and 132 always return to the same locking position, guaranteeing a constant locking force.

[0043] Corresponding to the double-sided locking mechanism 13, each of the left compartment 11 and right compartment 12 is equipped with a power bank spring block 14. The power bank spring block 14 is connected to the compartment body via a tension spring 141, and is slidably connected to the compartment body. In the return state, the spring block 14 is pressed to the bottom of the compartment by the power bank, and the tension spring 141 is stretched and stores energy. When the lock is opened and the constraint on the power bank is released, the rebound force of the tension spring 141 will eject the power bank upward through the spring block 14. The slidable connection to the compartment body ensures that the movement trajectory of the spring block 14 is stable and will not be skewed. The power bank automatically pops out, eliminating the need for the user to pry it out, thus improving the user experience.

[0044] Furthermore, the power bank spring block 14 is provided with guide rail grooves on both sides, and the compartment is provided with guide rail ribs that cooperate with the guide rail grooves. The guide rail grooves on both sides ensure that the spring block 14 can only move in a strictly vertical direction under the traction of the tension spring 141, preventing it from jamming or rubbing against the compartment wall. This ensures that the spring block 14's pop-out and push-back actions are smooth and fluid, without any jamming, avoiding unnecessary friction and wear between the spring block 14 and the compartment, and ensuring that the spring block 14 always applies a vertically upward force to the power bank, with a positive force direction and high efficiency.

[0045] For further details, please refer to... Figure 1 It also includes a support assembly 2. The storage module 1 is a stackable structure and there are at least two of them. The storage module 1 is detachably fixed in the cabinet through the support assembly 2. The support assembly 2 supports at least the installation and fixing method of the storage module 1 in a vertical stacking layout. The top periphery of the storage module 1 is provided with a raised water collection wall rib 18. The water collection wall rib 18 encloses a water flow collection area 181. Downstream of the water flow collection area 181, there is a downward water discharge through hole 182. The axis of the water discharge through holes 182 of the multiple stacked storage modules 1 is on a straight line or located in a close position.

[0046] The standardized physical structure achieved through the support assembly 2 and stackable cabinet modules 1 allows for flexible configuration of cabinet capacity, much like building blocks. The water collection wall ribs 18 collect liquid splashed onto the top of the cabinet modules 1, and the water drainage holes 182 drain the collected liquid downwards. The centerlines of the water drainage holes 182 of multiple modules are aligned or located close to each other, forming a vertical drainage channel that ensures water drained from the upper level is smoothly guided to the bottom of the cabinet for discharge, preventing spillage onto other precision components.

[0047] The stackable compartment module 1 allows for flexible configuration of the number of compartments based on site and pedestrian flow requirements, greatly enhancing product planning flexibility. Waterproofing is integrated into the structure of each module, making the overall design more systematic and reliable. A systematic waterproof drainage path is formed from top to bottom, effectively protecting internal electronic components, making it particularly suitable for outdoor deployment.

[0048] The storage module 1 has a housing cavity 16 for holding a power bank. The bottom of the housing cavity 16 has a drain hole 161, which is located above the water collection area 181 of the next stacked storage module 1. When used outdoors, the housing cavity 16 is prone to water ingress. Therefore, by providing a drain hole 161 at the bottom of the housing cavity 16, and with the drain hole 161 located above the water collection area 181 of the next stacked storage module 1, any water entering the housing cavity 16 can flow out through the drain hole 161 by gravity. The drained water will drip directly into the lower water collection wall rib 18, and be further discharged downwards by the lower water collection area 181 through its water guide hole 182, preventing it from dripping and damaging other devices.

[0049] Furthermore, the cabinet is used to wrap around the outside of the support assembly 2 and the compartment module 1, and has a power bank placement through hole corresponding to the compartment module 1, and a drainage channel corresponding to the water guide hole 182 of the compartment module 1 stacked at the bottom. The cabinet, as the final outer shell, has power bank placement through holes aligned with the compartment positions of the internal compartment modules 1 to ensure functionality. Specifically, a drainage channel is designed at the bottom of the cabinet, which connects to the water guide hole 182 of the bottom compartment module 1, ultimately guiding all liquids collected by the entire system to the outside of the cabinet.

[0050] The compartment module 1 includes a left compartment 11 and a right compartment 12, with the water guide hole 182 located between the left compartment 11 and the right compartment 12. The water guide hole 182 is positioned in the middle between the left compartment 11 and the right compartment 12. This location is the structural center of the module, maximizing space utilization and making full use of the module's intermediate redundant space, resulting in a compact structure. The water path is physically isolated from the internal circuitry, charging contacts, and identification module, minimizing the risk of leakage.

[0051] The left and right walls of the hopper module 1 are equipped with guide positioning protrusions 19. The support assembly 2 includes a left assembly support 21 and a right assembly support 22. The left and right assembly supports 21 and 22 are vertically provided with multiple guide positioning grooves 23 corresponding to the guide positioning protrusions 19. Guide positioning protrusions 19 are provided on both sides of the hopper module 1, and a series of vertically distributed guide positioning grooves 23 are correspondingly provided on the support 2. During assembly, the worker only needs to align the protrusions on both sides of the module with the grooves on the support and lower it vertically; the module will automatically slide into the accurate design position. This achieves initial positioning and support, significantly reducing assembly difficulty and alignment requirements, and improving production efficiency. It ensures that all modules are installed neatly and accurately. The cooperation between the guide positioning protrusions 19 and the guide positioning grooves 23 provides strong gravity support.

[0052] Furthermore, the guide positioning protrusion 19 is provided with a first threaded hole 191, and the guide positioning groove 23 is provided with a first through hole 24 corresponding to the first threaded hole 191, so that the fastening bolt passes through the first through hole 24 and is threaded into the first threaded hole 191 for fastening. Based on the precise positioning of the protrusion and groove, the final fastening is achieved through bolt connection. This is a classic mechanical assembly method of positioning first and then fastening. Since the guide positioning protrusion 19 and guide positioning groove 23 have already ensured the alignment of the holes, the operation of tightening the bolts becomes very simple. The bolt connection provides strong vibration and impact resistance, ensuring the stability of the cabinet during transportation and use.

[0053] Furthermore, the main body of the compartment module 1 is integrally injection molded using high-strength engineering plastics. For example, high-strength engineering plastics such as PA66+GF30, i.e., nylon with 30% glass fiber, are used. This material has the characteristics of high strength, high toughness, corrosion resistance, and good weather resistance. While ensuring structural sturdiness, the overall weight is reduced.

[0054] Furthermore, the opening of the accommodating cavity 16 is provided with a rotatable waterproof and dustproof cover 162, and the compartment module 1 has an elastic element that keeps the waterproof and dustproof cover 162 sealed at the opening of the accommodating cavity 16. When the waterproof and dustproof cover 162 is rotated open, the elastic element can rotate the waterproof and dustproof cover 162 back to the state of sealing the opening of the accommodating cavity 16. A normally closed cover is provided at the compartment opening. When the latch is released and the power bank pops out, the cover is pushed open; when the power bank is removed, the cover automatically closes under the action of the elastic element (such as a torsion spring), forming a physical barrier.

[0055] It also includes a power supply board 3, and the power supply board 3 supplies power to the charging probe 31 of each compartment module 1.

[0056] Furthermore, the dual-sided locking mechanism 13 also features inductive switches. When the power bank is inserted into the receiving cavity, the power bank, under the action of external force, moves the left and right latches to the left and right. After the left and right latches move to the left and right, they trigger the inductive switches of the left and right latches, and simultaneously trigger the related inductive switches at the bottom. When the power bank is inserted into the bottom of the receiving cavity 16, the left and right latches snap back into the locking slots X1 on both sides of the power bank. At this point, the left and right latches have completely reset, locking the power bank. All communication connections are successful, completing the power bank return logic. The power bank has now been successfully returned.

[0057] The above are merely preferred embodiments of this utility model. The protection scope of this utility model is not limited to the above embodiments. All technical solutions that fall within the scope of this utility model's concept are protected by this utility model.

Claims

1. A smart shared power bank cabinet, characterized in that, The device includes a cabinet and at least one compartment module disposed within the cabinet. The compartment module includes a left compartment and a right compartment arranged side by side. Both the left and right compartments are provided with a double-sided locking mechanism for locking the power bank, and a drive mechanism for asynchronously driving the double-sided locking mechanism of the left and right compartments to perform an unlocking action. The drive mechanism includes a stepper motor and a cam driven to rotate by the stepper motor. The cam is located between the left compartment and the right compartment. Each of the left compartment and the right compartment is provided with a corresponding transmission rod. The cam can selectively abut against and push either transmission rod to move linearly, thereby triggering the unlocking action of the corresponding compartment. The double-sided locking mechanism includes a left and a right lock slidably mounted on the base of the compartment, and a transmission push rod; the left lock is used to lock the left side of the power bank inside the compartment, and the right lock is used to lock the right side of the power bank inside the compartment; the transmission push rod can move towards the left and right locks under the drive of the transmission rod, and simultaneously push the left and right locks to move in opposite directions to unlock.

2. The intelligent shared power bank cabinet according to claim 1, characterized in that, The cam (172) profile is designed with a phase difference of 160°~180° to ensure that only one side of the transmission rod (173) is pushed at the same time.

3. The intelligent shared power bank cabinet according to claim 1, characterized in that, The transmission push rod is slidably disposed within the chamber module. The first end of the transmission push rod is inclined to engage with the transmission rod, one side of the second end of the transmission push rod is inclined to engage with the left latch, and the other side of the second end of the transmission push rod is inclined to engage with the right latch.

4. The intelligent shared power bank cabinet according to claim 3, characterized in that, The left and right latches are each equipped with an independent spring reset mechanism, which is used to drive the left and right latches to reset to the locked state after the unlocking action is completed, thereby resetting the transmission push rod to the locked state.

5. The intelligent shared power bank cabinet according to claim 4, characterized in that, Both the left and right latches are provided with hooks corresponding to the locking grooves on the power bank, and the hooks have guide slopes facing the direction in which the power bank is inserted.

6. The intelligent shared power bank cabinet according to claim 1, characterized in that, The base of the compartment module is equipped with a dual-track structure for guiding and limiting the movement of the left and right latches.

7. The intelligent shared power bank cabinet according to claim 6, characterized in that, The end of the dual-track structure is provided with a racetrack-shaped limiting bone to strengthen the force limiting of the left and right locks in the X and Y directions.

8. The intelligent shared power bank cabinet according to claim 1, characterized in that, Both the left and right compartments are equipped with a power bank spring block, which is connected to the compartment body via a tension spring and is slidably connected to the compartment body.

9. The intelligent shared power bank cabinet according to claim 8, characterized in that, The power bank's bullet block has guide rail grooves on both sides, and the compartment has guide rail ribs that cooperate with the guide rail grooves.

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