A hoist type fixed energy storage power supply

Abstract

The utility model relates to energy storage device technical field, and disclose a kind of hoisting fixed energy storage power supply, including energy storage power supply, lifting lug, sliding block, air bag, base, set vertical, auxiliary shock absorption and shock absorption dustproof structure, energy storage power supply rectangular cabinet, four groups of shaft symmetry lifting lug are convenient to hoist at top;Sliding block convex, bottom surface gas tank is equipped with air bag, and shock absorbing block air column is cooperated with base, vertical shock absorption component contains slide column, spring, rotating block etc.;Auxiliary shock absorption component has shock absorbing block, slide column, sliding groove etc., synergic absorption horizontal and vertical vibration, shock absorption dustproof structure is composed of rubber gasket and flexible dust cover, gasket enhances shock absorption and connection stability, dust cover prevents impurities from entering, the utility model structure installation is convenient, shock absorption is efficient, protective property is good, adapts to multiple scenes, prolongs equipment life, reduces maintenance cost.

Description

Technical Field

[0001] This utility model relates to the field of energy storage device technology, specifically a suspended fixed energy storage power supply. Background Technology

[0002] In today's energy sector, energy storage technology has become a key link in achieving efficient energy utilization and sustainable development. As a core device, energy storage power supplies bear the important responsibility of storing excess electrical energy and releasing it during peak electricity demand or when energy supply is unstable. They are of great significance for balancing energy supply and demand, improving the stability of the power system, and promoting the grid connection of renewable energy. They are an indispensable part of building a modern smart energy system. In many application scenarios, such as power supply in remote areas, emergency disaster relief, and distributed energy systems, there is an urgent need for a flexible, stable, and reliable energy storage power supply to meet diverse electricity demands.

[0003] However, traditional energy storage power sources have many drawbacks in terms of installation and fixing methods. Traditional fixing methods are often difficult to adapt to complex and ever-changing installation environments. In areas with large terrain undulations, their stability and reliability are greatly reduced. They are easily affected by external factors, causing displacement, shaking, or even damage, which leads to the energy storage power source failing to work properly. This in turn affects the stability of the entire power supply and makes it impossible to provide continuous and stable power support for related equipment and systems. To address this, we propose a suspended fixed energy storage power source. Utility Model Content

[0004] In view of the shortcomings of the existing technology, this utility model provides a suspended fixed energy storage power supply, which solves the above-mentioned problems.

[0005] To achieve the above-mentioned objectives, this utility model provides the following technical solution: A suspended and fixed energy storage power supply includes an energy storage power supply, a lifting lug, a slider, an airbag, and a base. The lifting lug is fixedly installed on the top of the energy storage power supply. A slider is fixedly installed at the center of the bottom surface of the energy storage power supply. A cylindrical air groove is opened at the center of the bottom surface of the slider. An airbag is fixedly installed inside the air groove. The base is located at the bottom of the slider. A vertical damping assembly is provided on the top and bottom surfaces of the slider. The vertical damping assembly includes a sliding structure and a rotating structure. The sliding structure is provided on the top surface of the slider, and the rotating structure is provided on the bottom surface of the slider. An auxiliary shock absorption assembly is installed inside the base. The auxiliary shock absorption assembly includes an auxiliary structure and a force-dissipating structure. Circular sliding holes are opened on the sides of the base. The auxiliary structure is installed inside the sliding holes. The force-dissipating structure is installed inside the auxiliary structure and connected to the rotating structure. A shock-absorbing dust-proof structure arranged on the top surface of a base, wherein the shock-absorbing dust-proof structure comprises a rubber gasket and a flexible dust-proof cover; the rubber gasket is fixedly mounted on the top surface of the base, and the flexible dust-proof cover is fixedly mounted between the base and an auxiliary shock-absorbing assembly, which is used for preventing dust and impurities from entering the interior of the base.

[0006] Preferably, the energy storage power supply is a rectangular cabinet body, four groups of the lifting lugs are distributed axisymmetrically, the sliding block is a convex-shaped boss, the base is I-shaped with a hollow interior, an opening is arranged on the top surface of the base, and four groups of the sliding holes are distributed axisymmetrically.

[0007] Preferably, the sliding structure comprises vertical sliding columns and vertical springs, the cylindrical vertical sliding columns are fixedly mounted on the top surface of the transverse edge of the sliding block, four groups of the vertical sliding columns are distributed axisymmetrically, the vertical springs are fixedly mounted at positions corresponding to the vertical sliding columns on the top surface of the transverse edge of the sliding block, and four groups of the vertical springs are distributed axisymmetrically.

[0008] Preferably, the rotating structure comprises rotating blocks, rotating holes, connecting rods and rotating shafts, the concave rotating blocks are fixedly mounted on the bottom surface of the sliding block, four groups of the rotating blocks are distributed axisymmetrically, the circular rotating holes are formed on the side surfaces of the rotating blocks, the rotating holes transversely penetrate through the rotating blocks, the connecting rods are oblong strips, four groups of the connecting rods are distributed axisymmetrically, the cylindrical rotating shafts are fixedly mounted on the side surfaces of the connecting rods, two groups of the rotating shafts are vertically distributed at equal intervals, and the rotating shaft at the top of the connecting rod is in rotating fit connection with the rotating hole.

[0009] Preferably, the auxiliary structure comprises a shock-absorbing block, an air column and a vertical sliding hole, the shock-absorbing block is a square block with a convex-shaped hollow interior, an opening is arranged on the top surface of the shock-absorbing block, the cylindrical air column is fixedly mounted at the center of the inner bottom surface of the shock-absorbing block, the air column is in sliding fit connection with an air groove, the circular vertical sliding hole is formed on the top surface of the shock-absorbing block, four groups of the vertical sliding holes are distributed axisymmetrically, the vertical sliding hole is in sliding fit connection with the vertical sliding column, and the inner space of the shock-absorbing block is in sliding fit connection with the sliding block Preferably, the auxiliary structure further comprises sliding columns and sliding column springs, the cylindrical sliding columns are fixedly mounted on the side surfaces of the shock-absorbing block, four groups of the sliding columns are distributed axisymmetrically, the sliding column springs are fixedly mounted at positions corresponding to the sliding columns on the side surfaces of the shock-absorbing block, and the sliding columns are in sliding fit connection with the sliding holes.

[0010] Preferably, the force-releasing structure comprises sliding grooves, springs and grooves, the I-shaped sliding grooves are formed in the inner bottom surface of the shock-absorbing block, four groups of the sliding grooves are distributed axisymmetrically, the springs are fixedly mounted on the side walls of the shock-absorbing block corresponding to the interior of the sliding grooves, the transverse edges of the sliding grooves are in sliding fit connection with the rotating shaft at the bottom of the connecting rod, the square groove is formed in the inner bottom surface of the shock-absorbing block, which is away from the spring corresponding to the sliding grooves, the groove vertically penetrates through the top and the transverse edge of the sliding groove and does not penetrate through the bottom of the sliding groove, so as to provide a moving space for the connecting rod and the rotating block and prevent the connecting rod from detaching from the sliding groove.

[0011] Compared with the prior art, the advantages of this utility model are: A suspended, fixed energy storage power source is provided, which has the following advantages: 1. This suspended, fixed energy storage power supply significantly outperforms traditional energy storage power supplies in terms of ease of installation and environmental adaptability. Its top-mounted lifting lugs allow for quick positioning and installation with the aid of hoisting equipment, drastically reducing installation time. Even in rugged mountainous terrain or confined spaces, its hoistable design allows for easy access to the designated location and secure fixation. Furthermore, the unique cooperation structure between the slider and the base, combined with multi-component shock absorption, effectively prevents displacement and swaying caused by external factors in complex environments, ensuring stable operation of the energy storage power supply and greatly improving installation convenience and stability in various scenarios. Regarding shock absorption protection and extended service life, traditional energy storage power supplies, due to their limited shock absorption measures, are prone to damage to their internal precision electronic components when subjected to vibration and impact. This leads to performance degradation, frequent malfunctions, and shortened lifespan. This device, however, is equipped with multiple vibration damping structures, including vertical damping components and auxiliary damping components. In the vertical damping component, the vertical sliding column and vertical spring work together. When the energy storage power supply is subjected to vertical vibration, the vertical sliding column guides the energy, while the vertical spring and airbag work together to evenly disperse the impact force and assist in rapid return to its original position. In the auxiliary damping component, the damping block, air column, sliding column, and spring work together to convert and disperse the vertical force to absorb vibration energy. Simultaneously, rubber pads further enhance the damping effect, and a flexible dust cover prevents impurities from entering and affecting the performance of the damping components. These structures work together in all directions to reduce the impact of vibration on the energy storage power supply, effectively protect internal components, significantly extend the lifespan of the energy storage power supply, and reduce equipment replacement and maintenance costs. Attached Figure Description

[0012] Figure 1 This is a schematic diagram of the structure of this utility model; Figure 2 This is a schematic diagram of the present invention; Figure 3 This is a schematic diagram of the cross-section of this utility model; Figure 4 This is a schematic cross-sectional view of the present invention (AA). Figure 5 This is a schematic cross-sectional view of the present invention. Figure 6 for Figure 5 A magnified view of part A in the diagram.

[0013] In the diagram: 1. Energy storage power supply; 2. Lifting lug; 3. Slider; 4. Airbag; 5. Base; 6. Sliding hole; 7. Rubber pad; 8. Flexible dust cover; 9. Vertical sliding column; 10. Vertical spring; 11. Rotating block; 12. Rotating hole; 13. Connecting rod; 14. Rotating shaft; 15. Shock absorber; 16. Air column; 17. Vertical sliding hole; 18. Sliding column; 19. Sliding column spring; 20. Sliding groove; 21. Spring; 22. Groove. Detailed Implementation

[0014] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0015] Please see Figure 1-6 A suspended fixed energy storage power supply includes an energy storage power supply 1, a lifting lug 2, a slider 3, an air bag 4, and a base 5. The lifting lug 2 is fixedly installed on the top of the energy storage power supply 1. The slider 3 is fixedly installed at the center of the bottom surface of the energy storage power supply 1. A cylindrical air groove is opened at the center of the bottom surface of the slider 3. An air bag 4 is fixedly installed inside the air groove. The base 5 is set at the bottom of the slider 3. Vertical damping components are provided on the top and bottom surfaces of slider 3. The vertical damping components include a sliding structure and a rotating structure. The sliding structure is provided on the top surface of slider 3, and the rotating structure is provided on the bottom surface of slider 3. An auxiliary shock absorption component is installed inside the base 5. The auxiliary shock absorption component includes an auxiliary structure and a force-dissipating structure. Circular sliding holes 6 are opened on the sides of the base 5. The auxiliary structure is installed inside the sliding holes 6, and the force-dissipating structure is installed inside the auxiliary structure and connected to the rotating structure. The shock-absorbing and dust-proof structure installed on the top surface of the base 5 includes a rubber pad 7 and a flexible dust cover 8. The rubber pad 7 is fixedly installed on the top surface of the base 5, and the flexible dust cover 8 is fixedly installed between the base 5 and the auxiliary shock-absorbing components to prevent dust and impurities from entering the interior of the base 5. The rubber pad 7 is fixed on the top surface of the base 5. When the slider 3 moves vertically, the rubber pad 7 further absorbs vertical vibration through its own deformation. Together with the vertical spring 10 and the airbag 4, multiple shock absorption is achieved, improving the overall shock absorption effect. At the same time, the rubber material has a certain anti-slip property, which can enhance the connection stability between the slider 3 and the base 5. The flexible dust cover 8 connects the base 5 and the auxiliary shock-absorbing components. Its flexibility can adapt to the lateral movement of the shock absorber 15, avoiding damage to the dust cover due to the movement of the shock absorber 15. At the same time, the dust cover 8 can completely cover the gap between the base 5 and the auxiliary shock-absorbing components, preventing outdoor dust, rainwater, and impurities from entering the interior of the base 5, and preventing components such as the slider 18 and spring 21 from jamming or rusting due to the accumulation of impurities, thus extending the equipment maintenance cycle.

[0016] Furthermore, the energy storage power supply 1 is a rectangular cabinet with four sets of lifting lugs 2 symmetrically distributed along its axis. The slider 3 has a convex-shaped boss, and the base 5 is an internally hollow I-shaped structure with an opening on its top surface. Eight sets of sliding holes 6 are symmetrically distributed along its axis. In addition to its basic energy storage function, the energy storage power supply 1's regular cabinet structure can adapt to various installation scenarios. It also provides stable installation positions for components such as the lifting lugs 2 and sliders 3. The four sets of symmetrically distributed lifting lugs 2 meet the balance requirements during hoisting, and their symmetrical distribution can distribute the weight of the energy storage power supply 1, preventing single-point overload breakage of the lifting lugs. The convex-shaped slider 3's boss structure can... The opening on the top surface of the shock absorber 15 is adapted to form a vertical limit, preventing the slider 3 from shifting laterally within the shock absorber 15. At the same time, it provides installation space for components such as the vertical sliding column 9 and the vertical spring 10. The hollow I-shaped base 5 provides space for the auxiliary shock absorber components. The opening on the top surface provides room for the shock absorber 15 to move. The I-shaped structure can enhance the bending strength of the base 5 itself. The four sets of symmetrically distributed sliding holes 6 cooperate with the sliding column 18 to ensure the stability of the shock absorber 15 when it moves laterally. At the same time, the symmetrical distribution can make the shock absorber force evenly transmitted in all directions, preventing the base 5 from tilting due to excessive force on one side.

[0017] Furthermore, the sliding structure includes vertical sliding columns 9 and vertical springs 10. Cylindrical vertical sliding columns 9 are fixedly installed on the top surface of the horizontal side of the slider 3, and four sets of vertical sliding columns 9 are axially symmetrically distributed. Vertical springs 10 are fixedly installed on the top surface of the horizontal side of the slider 3 at positions corresponding to the vertical sliding columns 9, and four sets of vertical springs 10 are axially symmetrically distributed. In addition to cooperating with the vertical sliding holes 17 for vertical sliding guidance, the axially symmetrical distribution of the vertical sliding columns 9 can simultaneously limit the horizontal offset of the slider 3, preventing the slider 3 from tilting to one side when it shakes with the energy storage power supply 1, ensuring that the slider 3 always moves along the vertical trajectory. Simultaneously, the vertical sliding columns 9... The length is adapted to the depth of the vertical sliding hole 17. When the energy storage power supply 1 is subjected to extreme vertical impact, the bottom of the sliding column will not completely detach from the sliding hole, and the structural connection will always be maintained to prevent the components from separating. The four sets of axisymmetrically distributed vertical springs 10 can extend and retract synchronously. When the energy storage power supply 1 vibrates vertically, it can evenly distribute the impact force and avoid local spring overload. In addition, the elastic reset characteristics of the spring can help the energy storage power supply 1 quickly return to the initial installation position after vibration, reduce the positional deviation caused by vibration, and reduce the accumulation of positional deviation caused by long-term vibration of the energy storage power supply 1 in the hoisting state, and maintain the normal working posture of the equipment.

[0018] Furthermore, the rotating structure includes a rotating block 11, a rotating hole 12, a connecting rod 13, and a rotating shaft 14. A concave rotating block 11 is fixedly mounted on the bottom surface of the slider 3, and four sets of rotating blocks 11 are axially symmetrically distributed. Circular rotating holes 12 are opened on the sides of each rotating block 11, and the rotating holes 12 transversely penetrate the rotating block 11. The connecting rod 13 is an oblong strip, and four sets of connecting rods 13 are axially symmetrically distributed. Cylindrical rotating shafts 14 are fixedly mounted on the sides of each connecting rod 13, and two sets of rotating shafts 14 are vertically equidistant. The rotating shaft 14 at the top of the connecting rod 13 is rotatably connected to the rotating hole 12. The opening size of the concave structure of the rotating block 11 matches the thickness of the connecting rod 13, providing a stable connection for the connecting rod 13. The installation space, along with the fixed connection between the four sets of axially symmetrically distributed rotating blocks 11 and the bottom surface of the slider 3, can enhance the overall structural strength of the slider 3 and prevent local deformation of the slider 3 due to concentrated force. The rotating hole 12 passes through the rotating block 11 laterally, which makes the connecting rod 13 rotate smoothly and can also prevent the rotating shaft 14 from moving radially within the rotating hole 12. The elongated strip-shaped connecting rod 13 can extend the force transmission path and convert the vertical force on the slider 3 into a composite force combining lateral and vertical forces, which is transmitted to the force relief structure through the bottom rotating shaft 14. The two sets of vertically equidistant rotating shafts 14 synchronize the rotation trajectories of the upper and lower ends of the connecting rod 13, preventing the connecting rod 13 from twisting and deforming due to asynchronous rotation at both ends.

[0019] Furthermore, the auxiliary structure includes a shock absorber 15, an air column 16, and a vertical sliding hole 17. The shock absorber 15 is a hollow cube with an internal convex shape, and the top surface of the shock absorber 15 has an opening. A cylindrical air column 16 is fixedly installed at the center of the bottom surface of the shock absorber 15, and the air column 16 is slidably connected to the air groove. The top surface of the shock absorber 15 has a circular vertical sliding hole 17, and four sets of vertical sliding holes 17 are axially symmetrically distributed. The vertical sliding holes 17 are slidably connected to the vertical sliding column 9, and the internal space of the shock absorber 15 is slidably connected to the slider 3. The sliding engagement of the four sets of axially symmetrically distributed sliding columns 18 with the sliding holes 6 can form a lateral positioning from the four sides of the shock absorber 15, so that the horizontal movement of the shock absorber 15 is always along the axis of the sliding hole 6, avoiding the twisting or displacement of the shock absorber 15.

[0020] Furthermore, the auxiliary structure also includes sliding columns 18 and sliding column springs 19. Cylindrical sliding columns 18 are fixedly installed on the sides of the damping block 15, and the four sets of sliding columns 18 are axially symmetrically distributed. Sliding column springs 19 are fixedly installed on the sides of the damping block 15 corresponding to the positions of the sliding columns 18. The sliding columns 18 are slidably connected to the sliding holes 6. The lateral positioning and motion coordination function of the sliding columns 18: the slidable engagement of the four axially symmetrically distributed sliding columns 18 with the sliding holes 6 can form lateral positioning from the four sides of the damping block 15, ensuring that the horizontal movement of the damping block 15 is always along the axis of the sliding holes 6, preventing the damping block 15 from twisting or shifting. The sliding columns 18 and... The fixed connection method of the shock absorber 15 can enhance the structural strength of the side of the shock absorber 15 and prevent the shock absorber 15 from local deformation due to the concentration of lateral force. The sliding column spring 19 can absorb the lateral impact force in different directions and reduce the transmission of vibration energy to the energy storage power source 1. The axially symmetrical distribution of the four sets of springs can make the buffer force in each direction uniform, and prevent the shock absorber 15 from tilting due to excessive force on one side of the spring. At the same time, the reset characteristic of the sliding column spring 19 can work in conjunction with the guiding function of the sliding column 18 to make the shock absorber 15 quickly return to the initial lateral position after vibration, reduce the abnormal force on other components caused by lateral displacement, and ensure the motion coordination of the overall structure.

[0021] Further, the force-releasing structure comprises a sliding groove 20, a spring 21 and a groove 22. The inner bottom surface of the damping block 15 is provided with sliding grooves 20 in a middle-character shape, and four groups of the sliding grooves 20 are distributed axisymmetrically. The springs 21 are fixedly installed on the side walls of the sliding grooves 20 corresponding to the damping block 15, and the transverse edges of the sliding grooves 20 are in sliding fit connection with the rotating shaft 14 at the bottom of the connecting rod 13. The square groove 22 is formed on the inner bottom surface of the damping block 15 on the side of the sliding groove 20 away from the spring 21, the groove 22 vertically penetrates the top of the sliding groove 20 and the transverse edge does not penetrate the bottom of the sliding groove 20, so as to provide activity space for the connecting rod 13 and the rotating block 11 and prevent the connecting rod 13 from separating from the sliding groove 20. The transverse edge of the middle-character-shaped structure of the sliding groove 20 not only provides sliding space for the rotating shaft 14 at the bottom of the connecting rod 13, but also the side walls on both sides of the transverse edge can guide the sliding direction of the rotating shaft 14, so that the rotating shaft 14 always moves along the axial direction of the transverse edge of the sliding groove, which avoids conduction disorder caused by the offset of the rotating shaft 14. Meanwhile, the integrated design of the sliding groove 20 and the inner bottom surface of the damping block 15 can enhance the structural strength of the sliding groove area, and prevent the sliding groove from being worn or cracked due to long-term stress. When the rotating shaft 14 slides along the sliding groove 20 to compress the spring 21, the spring 21 can be compressed according to the magnitude of the stress to absorb light impact; when the stress is large, the spring is further compressed, and heavy impact is absorbed through a larger deformation, which is adapted to external force scenarios with different intensities. At the same time, the elastic feedback force of the spring 21 can be transmitted to the connecting rod 13 through the rotating shaft 14, so as to indirectly adjust the vertical movement speed of the sliding block 3, and prevent the sliding block 3 from colliding with other components due to too fast movement. In addition, the synchronous operation of the springs in the four groups of sliding grooves can make the force-releasing force in all directions uniform, and prevent the energy storage power supply 1 from tilting due to insufficient force-releasing on one side. In addition to providing activity space for the connecting rod 13 and the rotating block 11, the design that the groove 22 vertically penetrates the top of the sliding groove 20 can prevent the connecting rod 13 from rubbing or colliding with the top edge of the sliding groove 20 during rotation, and reduce the wear of the connecting rod 13. The structural design that the groove does not penetrate the bottom of the sliding groove 20 can form a bottom support for the rotating shaft 14, and prevent the rotating shaft 14 from falling off from the bottom of the sliding groove under the action of gravity or vibration.

[0022] Structure description: Energy storage power supply: the energy storage power supply 1 is a rectangular cabinet body, which is the core energy storage component of the device, provides electric energy for each device, and its regular cabinet body provides a stable installation position for other components; Lifting lugs: there are four groups of lifting lugs 2, which are distributed axisymmetrically on the top of the energy storage power supply 1, used for connecting hoisting equipment, hoisting the energy storage power supply, dispersing weight, and ensuring hoisting balance and safety; Sliding block: the sliding block 3 is in a convex shape, is fixed at the center of the bottom surface of the energy storage power supply 1, provides an installation space for the vertical damping assembly, and cooperates with the base 5 to limit the horizontal offset of the energy storage power supply; Air bag: the air bag 4 is installed in the air groove on the bottom surface of the sliding block 3, when subjected to vertical force, absorbs vibration energy through self-compression and rebound, and cooperates with other damping assemblies to reduce the vibration of the energy storage power supply; Base: Base 5 is hollow in the shape of an I-beam with an opening on the top surface, providing installation space for auxiliary shock absorption components, enhancing its own bending strength, stably supporting the energy storage power supply, and ensuring overall stability; Sliding holes: There are eight sets of sliding holes 6, which are symmetrically distributed on the side of the base 5 and cooperate with the sliding column 18 to provide guidance for the lateral movement of the shock absorber 15. Rubber pad 7: The rubber pad 7 is fixed on the top surface of the base 5. When the slider 3 moves vertically, it absorbs vertical vibration through its own deformation. In combination with other shock absorption structures, it improves the shock absorption effect and enhances the connection stability. Flexible dust cover 8: The flexible dust cover 8 connects the base 5 and the auxiliary shock absorption components, and is adapted to the lateral movement of the shock absorption block 15 to prevent dust and impurities from entering the interior of the base 5 and extend the equipment maintenance cycle; Vertical sliding column 9: There are four sets of vertical sliding columns 9, which are symmetrically distributed on the top surface of the horizontal side of the slider 3. They cooperate with the vertical sliding hole 17 to guide the vertical sliding, limit the horizontal displacement of the slider 3, and ensure the motion trajectory. Vertical spring 10: There are four sets of vertical springs 10, which are symmetrically distributed on the top surface of the horizontal side of slider 3. When the energy storage power source vibrates vertically, it evenly disperses the impact force, assists in quick return to position, and reduces position deviation. Rotating block 11: There are four sets of rotating blocks 11, which are symmetrically distributed on the bottom surface of slider 3 to provide installation space for connecting rod 13, enhance the structural strength of slider 3, and stably transmit vertical force; Rotary hole 12: Rotary hole 12 passes through the rotating block 11 laterally and rotates with the top rotating shaft 14 of the connecting rod 13 to ensure smooth rotation of the connecting rod 13 and prevent radial movement of the rotating shaft; Link 13: Link 13 is an elongated oval strip, with four sets in total, distributed symmetrically along the axis. It converts the vertical force of slider 3 into circular motion, which is transmitted to the force-dissipating structure through the rotating shaft 14, ensuring stable transmission. Rotary shaft 14: Rotary shaft 14 is installed on the side of connecting rod 13. Two sets are vertically and equidistantly distributed, respectively cooperating with rotating hole 12 and sliding groove 20 to ensure that connecting rod 13 rotates and slides, and transmits force accurately. Shock absorber 15: The shock absorber 15 is a hollow cube with an internal convex shape and an open top surface. It slides with the slider 3 inside and works in conjunction with the auxiliary structure to absorb and disperse vibration energy and reduce vibration transmission. Air column 16: The air column 16 is fixed at the center of the bottom surface inside the shock absorber block 15 and slides with the air groove on the bottom surface of the slider 3 to help absorb vertical vibration energy and improve the shock absorption effect. Vertical sliding holes 17: There are four sets of vertical sliding holes 17, which are symmetrically distributed on the top surface of the damping block 15. They slide in conjunction with the vertical sliding column 9 to guide the vertical sliding column and ensure smooth vertical movement. Sliding column 18: there are four sets of sliding columns 18, which are axially symmetrically distributed on the side surface of the damping block 15, slidably fit with the sliding hole 6, position the damping block 15 transversely, and ensure stable horizontal movement; Sliding column spring 19: the sliding column spring 19 is mounted on the side surface of the damping block 15, corresponding to the position of the sliding column 18, absorbs transverse impact force, equalizes the buffering force, and assists the damping block in rapid return; Chute 20: the chutes 20 are I-shaped, there are four sets of chutes 20, which are axially symmetrically distributed on the inner bottom surface of the damping block 15, and provide sliding space and guidance for the rotating shaft 14 at the bottom of the connecting rod 13; Spring 21: the spring 21 is mounted inside the chute 20 and connected to the side wall of the damping block 15, absorbs impact according to the magnitude of the force, adjusts the vertical movement speed of the sliding block 3, and equalizes force unloading; Groove 22: the groove 22 is provided on the side of the chute away from the spring, vertically penetrates the top of the chute 20 and does not penetrate the bottom, provides activity space for the connecting rod 13 and the rotating block 11, and prevents the rotating shaft 14 from falling off.

[0023] Working Principle: When this suspended fixed energy storage power supply is in operation, it is first hoisted and installed by four sets of lifting lugs 2 symmetrically distributed on the top of the energy storage power supply 1. The four sets of lifting lugs 2 meet the hoisting balance requirements and distribute the weight of the energy storage power supply 1 itself. When the energy storage power supply 1 is placed in the installation position and subjected to vertical vibration by a reverse force, the four sets of vertically sliding columns 9 symmetrically distributed on the top surface of the slider 3 slide and guide within the vertical sliding holes 17, while limiting the horizontal displacement of the slider 3. The four sets of vertically sliding springs 10 symmetrically distributed simultaneously extend and retract, evenly dispersing the impact force and assisting the energy storage. Power source 1 quickly returns to its initial installation position; the air bladder 4 in the air groove on the bottom surface of slider 3 slides and engages with the air column 16 at the center of the bottom surface of the shock absorber 15, absorbing vertical vibration energy. Simultaneously, the concave and axially symmetrically distributed rotating blocks 11 on the bottom surface of slider 3 rotate and engage with the rotating shaft 14 at the top of connecting rod 13 through rotating holes 12. The elongated strip-shaped connecting rod 13 converts the vertical force of slider 3 into a combined horizontal and vertical arc motion, which is transmitted through the bottom rotating shaft 14 to the symmetrically distributed, T-shaped sliding groove 20 on the bottom surface of the shock absorber 15, and then along... The slider 3 slides along the slide groove 20, compressing the spring 21 inside. The spring 21 absorbs impacts of varying intensities depending on the force applied, and simultaneously adjusts the vertical speed of the slider 3 through elastic feedback. The horizontal edge of the slide groove 20 guides the sliding direction of the rotating shaft 14. The groove 22 provides space for the connecting rod 13 and the rotating block 11 and prevents the rotating shaft 14 from falling off. The shock absorber 15 has cylindrical sides and axially symmetrically distributed sliding columns 18 that slide within the sliding hole 6, working with the sliding column spring 19 to absorb lateral impact forces. The four sets of sliding columns 18 form lateral positioning from four sides, avoiding... To prevent the damping block 15 from twisting or shifting, the restoring characteristic of the sliding column spring 19 allows the damping block 15 to quickly return to its initial lateral position. At the same time, the rubber pad 7 on the top surface of the base 5 further absorbs vertical vibrations through its own deformation. Together with the vertical spring 10 and the airbag 4, multiple shock absorptions enhance the stability of the connection between the slider 3 and the base 5. The flexible dust cover 8 connects the base 5 and the auxiliary shock absorption components, adapts to the lateral movement of the damping block 15, prevents outdoor impurities from entering the interior of the base 5, avoids jamming or corrosion of components such as the sliding column 18 and the spring 21, and extends the equipment maintenance cycle.

[0024] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A suspended, fixed energy storage power source, characterized in that, include: Energy storage power supply (1), lifting lug (2), slider (3), airbag (4) and base (5). The top of the energy storage power supply (1) is fixedly installed with the lifting lug (2). The slider (3) is fixedly installed at the center of the bottom surface of the energy storage power supply (1). A cylindrical air groove is opened at the center of the bottom surface of the slider (3). An airbag (4) is fixedly installed inside the air groove. The base (5) is set at the bottom of the slider (3). Vertical damping components are provided on the top and bottom surfaces of the slider (3). The vertical damping components include a sliding structure and a rotating structure. The sliding structure is provided on the top surface of the slider (3), and the rotating structure is provided on the bottom surface of the slider (3). An auxiliary shock-absorbing component is set inside the base (5). The auxiliary shock-absorbing component includes an auxiliary structure and a force-relieving structure. The sides of the base (5) are all provided with circular sliding holes (6). The auxiliary structure is set inside the sliding holes (6). The force-relieving structure is set inside the auxiliary structure and is connected to the rotating structure. A shock-absorbing and dust-proof structure is provided on the top surface of the base (5). The shock-absorbing and dust-proof structure includes a rubber pad (7) and a flexible dust cover (8). The rubber pad (7) is fixedly installed on the top surface of the base (5). The flexible dust cover (8) is fixedly installed between the base (5) and the auxiliary shock-absorbing components to prevent dust and impurities from entering the interior of the base (5).

2. The suspended fixed energy storage power supply according to claim 1, characterized in that, The energy storage power supply (1) is a rectangular cabinet, the four sets of the lifting lugs (2) are symmetrically distributed, the slider (3) is a convex boss, the base (5) is hollow in the inside and has an opening on the top surface, and the four sets of sliding holes (6) are symmetrically distributed.

3. The suspended fixed energy storage power supply according to claim 2, characterized in that, The sliding structure includes a vertical sliding column (9) and a vertical spring (10). A cylindrical vertical sliding column (9) is fixedly installed on the top surface of the horizontal side of the slider (3), and four sets of vertical sliding columns (9) are symmetrically distributed. A vertical spring (10) is fixedly installed on the top surface of the horizontal side of the slider (3) at the position corresponding to the vertical sliding column (9), and four sets of vertical springs (10) are symmetrically distributed.

4. The suspended fixed energy storage power supply according to claim 3, characterized in that, The rotating structure includes a rotating block (11), a rotating hole (12), a connecting rod (13), and a rotating shaft (14). The bottom surface of the slider (3) is fixedly equipped with a concave rotating block (11), and the four sets of rotating blocks (11) are axially symmetrically distributed. The side of each rotating block (11) is provided with a circular rotating hole (12), and the rotating hole (12) passes through the rotating block (11) laterally. The connecting rod (13) is an oblong strip, and the four sets of connecting rods (13) are axially symmetrically distributed. The side of each connecting rod (13) is fixedly equipped with a cylindrical rotating shaft (14), and the two sets of rotating shafts (14) are vertically equidistant. The rotating shaft (14) at the top of the connecting rod (13) is rotatably connected to the rotating hole (12).

5. A suspended, fixed energy storage power source according to claim 2, characterized in that, The auxiliary structure comprises a damping block (15), an air column (16) and vertical slide holes (17), wherein the damping block (15) is a square block with a convex-shaped hollow interior and an opening is provided on the top surface of the damping block (15); the cylindrical air column (16) is fixedly installed at the center of the inner bottom surface of the damping block (15), and the air column (16) is in sliding fit with the air groove; the circular vertical slide holes (17) are formed on the top surface of the damping block (15), four groups of the vertical slide holes (17) are distributed axisymmetrically, the vertical slide holes (17) are in sliding fit connection with vertical sliding columns (9), and the inner space of the damping block (15) is in sliding fit connection with a sliding block (3).

6. A suspended, fixed energy storage power source according to claim 5, characterized in that, The auxiliary structure further comprises sliding columns (18) and sliding column springs (19), wherein the cylindrical sliding columns (18) are fixedly installed on the side surfaces of the damping block (15), four groups of the sliding columns (18) are distributed axisymmetrically; the sliding column springs (19) are fixedly installed at positions corresponding to the sliding columns (18) on the side surfaces of the damping block (15), and the sliding columns (18) are in sliding fit connection with sliding holes (6).

7. A suspended, fixed energy storage power source according to claim 6, characterized in that, The force-releasing structure comprises sliding grooves (20), springs (21) and grooves (22), wherein the I-shaped sliding grooves (20) are formed on the inner bottom surface of the damping block (15), and four groups of the sliding grooves (20) are distributed axisymmetrically; the springs (21) are fixedly installed on side walls of the damping block (15) corresponding to the inside of the sliding grooves (20), and the transverse edges of the sliding grooves (20) are in sliding fit connection with a rotating shaft (14) at the bottom of a connecting rod (13); the square grooves (22) are formed on the inner bottom surface of the damping block (15) at the side of the sliding grooves (20) away from the springs (21), the grooves (22) vertically penetrate through the top and the transverse edges of the sliding grooves (20) but do not penetrate through the bottom of the sliding grooves (20), so as to provide a movable space for the connecting rod (13) and a rotating block (11) and prevent the connecting rod (13) from separating from the sliding grooves (20).

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