A fully liquid-cooled heat dissipation device for distributed energy storage power stations

Abstract

The present invention relates to the technical field of new energy storage power stations, and specifically to a fully liquid-cooled heat dissipation device for distributed energy storage power stations, comprising a cabinet, a plurality of plates, a plurality of supporting mechanisms for holding batteries, and a plurality of output mechanisms for conveying cooling liquid. The plurality of plates are all located inside the cabinet, the plurality of plates are arranged vertically in sequence, and the plurality of plates are all fixedly connected to an inner wall of the cabinet, the plurality of supporting mechanisms correspond one-to-one with the plurality of plates, and any supporting mechanism is located above the corresponding plate. In the present invention, by placing a plurality of batteries inside a plurality of supporting mechanisms, and then inputting cooling liquid into the plurality of supporting mechanisms through a plurality of output mechanisms, the cooling liquid inside the supporting mechanisms is located in different compartments and flows through adjacent frames in sequence, and the heat emitted by the batteries is dissipated by heat conduction through the frames and the cooling liquid, thereby reducing the heat conduction between the cooling liquids in different compartments and improving the cooling effect on the batteries.

Description

Technical Field

[0001] The present invention relates to the technical field of new energy storage power stations, and in particular to a full liquid cooling heat dissipation device for a distributed energy storage power station. Background Art

[0002] New energy vehicles rely primarily on electricity for power. Energy storage stations can provide clean and efficient charging services for new energy vehicles through an integrated photovoltaic, energy storage and charging system (photovoltaic + energy storage + charging). This system uses photovoltaic power generation and energy storage batteries to store energy at night when electricity prices are low, and supply power to charging stations during peak hours, meeting the charging needs of new energy vehicles while achieving peak-valley arbitrage. The synergy between energy storage stations and new energy vehicles can effectively solve the intermittent and volatile problems of new energy power generation. By storing excess electricity, energy storage stations provide a stable charging source for new energy vehicles while reducing load fluctuations in the power grid. Electric vehicles can be charged through mobile energy storage stations, allowing electric vehicles with lower power levels to obtain a certain amount of power.

[0003] When the energy storage power station charges the battery pack formed by the internal energy storage batteries, the performance of general batteries, such as lithium-ion batteries, is extremely sensitive to temperature. In a high temperature environment, the chemical reaction rate inside the battery will be significantly accelerated. Although the battery capacity may be observed to increase in the early stage, long-term exposure to high temperature will cause the battery material to age faster. In addition, high temperature will also reduce the internal resistance of the battery and improve the charging and discharging efficiency, but continuous high temperature will cause the material to degrade and the internal resistance to gradually increase, which will eventually affect the battery performance. When the internal temperature of the battery rises, the chemical reaction rate will accelerate, further causing the temperature to rise, which may cause the decomposition of active substances, combustion of electrolytes, and other phenomena, and eventually cause the battery to catch fire or even explode. Therefore, it is usually necessary to cool the battery when charging. The existing cooling is mostly carried out by liquid cooling and air cooling. Generally, liquid cooling is widely used due to its high cooling efficiency.

[0004] In the liquid cooling system, there are circulating liquid cooling and direct immersion methods. Circulating liquid cooling is to extract the coolant from the liquid storage tank and flow it through the battery through the cooling channel, so that the coolant absorbs the heat of the battery module, then enters the heat exchanger to release the heat, and then flows back to the liquid storage tank to circulate. The direct immersion method is to directly place the battery completely into the coolant for cooling. The direct immersion method needs to consider issues such as sealing and coolant usage, so it is expensive and has high maintenance costs, so it is rarely used. The circulating liquid cooling method absorbs heat from the battery by flowing the coolant through the channel, but when the coolant flows through the channel, the coolant will flow continuously and fill the channel. The temperature of the coolant that exchanges heat with the battery first will increase due to the heat absorption. The characteristic of the coolant is that it is a liquid with excellent thermal conductivity, so the coolant that has not yet exchanged heat with the battery may increase in temperature due to heat conduction between the coolants, affecting the subsequent cooling effect of the coolant on the battery. Summary of the Invention

[0005] The object of the present invention is to provide a fully liquid-cooled heat dissipation device for a distributed energy storage power station to solve the problems raised in the above-mentioned background technology.

[0006] To achieve the above object, the present invention provides the following technical solutions:

[0007] A fully liquid-cooled heat dissipation device for a distributed energy storage power station, comprising:

[0008] A cabinet body, multiple plates, multiple supporting mechanisms for holding batteries and multiple output mechanisms for conveying coolant, multiple plates are all located inside the cabinet body, multiple plates are arranged vertically in sequence, and multiple plates are fixedly connected to an inner wall of the cabinet body, multiple supporting mechanisms correspond one-to-one to multiple plates, any supporting mechanism is located above the corresponding plate body, the supporting mechanism includes multiple frames, and multiple frames are arranged horizontally in sequence, any outer wall of the frame is fixedly sleeved with a connecting frame, any connecting frame has a U-shaped cross-section, any two opposite inner walls of the connecting frame are provided with guide grooves, any guide groove is rotatably sleeved with a connecting ring belt, multiple partitions are fixedly connected between two connecting ring belts located in the same connecting frame, and multiple output mechanisms correspond one-to-one to multiple supporting mechanisms.

[0009] Furthermore, two U-shaped bars are fixedly connected to the two short sides on one side of any frame, and fixed blocks are fixedly connected to the tops of the two short sides on the other side. The bottom surface of any fixed block is fixedly connected to an inserting plate, and any inserting plate is movably inserted between the two arms of adjacent U-shaped bars.

[0010] Furthermore, the invention is characterized in that: a plurality of convex strips are fixedly connected to opposite sides of any plug board, a plurality of grooves are formed on opposite inner side walls of any U-shaped strip, and any convex strip is slidably engaged in adjacent grooves.

[0011] Furthermore, a card plate is provided above any plate body, a plurality of card slots are provided on the top surface of any card plate, a plurality of card blocks are fixedly connected to the bottom surface of any frame body, any card block is slidably connected to the inside of an adjacent card slot, and a plurality of reset springs are fixedly connected between the bottom surface of any card plate and the top surface of the adjacent plate body.

[0012] Furthermore, the output mechanism includes:

[0013] Multiple output assemblies and multiple rod bodies, multiple output assemblies correspond one-to-one to multiple frames on adjacent supporting mechanisms, the output assemblies include two vertically arranged cylinders, and the two cylinders are fixedly connected to conduits at one end away from each other through a three-way connector, and one end of the two conduits is respectively fixedly connected to the top and bottom surfaces of the adjacent connection frames, and one end of the two conduits is respectively arranged diagonally with the center of the adjacent connection frame as the center. Multiple rod bodies correspond one-to-one to multiple output assemblies, and piston blocks are fixedly connected to both ends of any rod body, and the two piston blocks on any rod body are respectively slidably sleeved inside the two cylinders on the corresponding output assemblies.

[0014] Furthermore, a rotating disk is provided on the opposite sides of any rod body, and a sliding groove is opened on the adjacent sides of the two rotating disks on the opposite sides of any rod body, a ring body is fixedly sleeved in the middle of the outer wall of any rod body, a circular through hole is opened on the outer wall of any ring body, a sliding rod is rotatably connected inside any circular through hole, and any sliding rod passes through the adjacent rod bodies, and the two ends of any sliding rod are slidably engaged in the two adjacent sliding grooves, one side of any rotating disk is fixedly connected with a connecting block, and any connecting block is located at one end of the adjacent sliding groove, and a rebound spring is fixedly connected between one side of any connecting block and the adjacent sliding rod, and one end of any connecting frame is opened with two communicating grooves, and the outer wall of any rotating disk is fixedly connected with multiple ridges, and the outer wall of any rotating disk contacts with the adjacent connecting ring belt through the adjacent communicating grooves.

[0015] Furthermore, one side of any connecting block is fixedly connected to a guide rod, both ends of the outer side wall of any sliding rod are provided with sliding holes, and the outer side wall of any guide rod is slidably sleeved in the adjacent sliding holes.

[0016] Furthermore, a connecting rod is provided between two adjacent rod bodies, both ends of any connecting rod are fixedly connected to the centers of two adjacent turntables, one end of any frame is fixedly connected to a support plate, one end of any support plate is provided with a rotating hole, the outer side wall of any connecting rod is rotatably sleeved with the inner side wall of the adjacent rotating hole, one side of a support plate located at one end of any supporting mechanism is fixedly connected to a motor box, a driving motor is provided inside any motor box, and the motor shaft of any driving motor is fixedly connected to the center of the adjacent turntable.

[0017] Furthermore, both ends of any connecting frame are fixedly connected with a suction pipe.

[0018] Furthermore, a cam is fixedly sleeved on the outer side wall of any connecting rod, a plurality of abutment frames are fixedly connected to the top surface of any plate body, the plurality of abutment frames on any plate body correspond one-to-one to the adjacent plurality of cams, and any abutment frame is located below the corresponding cam.

[0019] Compared with the prior art, the present invention has the following beneficial effects:

[0020] 1. By placing multiple batteries inside multiple supporting mechanisms, and then inputting coolant into the multiple supporting mechanisms through multiple output mechanisms, the coolant inside the supporting mechanisms is located in different compartments. Then, the coolant in different compartments is driven by the supporting mechanisms to flow through adjacent frames. The heat emitted by the batteries is dissipated through the frames and coolant by heat conduction, thereby reducing the heat conduction between the coolants in different compartments and improving the cooling effect on the batteries.

[0021] 2. The coolant is injected into the adjacent connection frames through the output mechanism through the conduit. A compartment can be naturally formed between two adjacent partitions inside the connection frame to store the injected coolant. The coolants in different compartments are blocked by the partitions, reducing the contact surface, thereby reducing the heat transfer between them, so that the coolants in different compartments maintain the initial temperature and absorb heat from the frame;

[0022] 3. By starting the driving motor on the output mechanism, multiple turntables are driven to rotate synchronously through the turntable, connecting rod and sliding rod, so that the turntable can drive the adjacent connecting ring belt to rotate through its own convex thorns, thereby causing the connecting ring belt to drive the adjacent partition plate to rotate, so that the partition plate pushes the coolant in different compartments to move. When the turntable rotates, the turntable can resist the adjacent sliding rod and slide along the adjacent sliding groove. The sliding rod can pull the rod body to move, so that the rod body drives the two adjacent piston blocks to move synchronously, so that one piston block sucks the coolant in the adjacent delivery pipe through the adjacent cylinder, and the other piston block pushes the coolant in the adjacent cylinder to output to the connecting frame;

[0023] 4. When the connecting rod rotates, it can intermittently drive the cam protrusion to contact the adjacent frame, so that the cam will lift and tilt the card plate, frame and connecting frame. Then, after the cam protrusion is separated from the frame, the card plate will be pulled back to its original position by the adjacent reset spring, so that the card plate drives the connecting frame to shake, causing the coolant inside the connecting frame to shake, and the distribution of the coolant in the compartment will change due to the shaking, making the coolant distribution in the compartment more even. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0025] Figure 2 It is a schematic diagram of the internal structure of the cabinet in the present invention;

[0026] Figure 3 It is a schematic diagram of the positional relationship between the supporting mechanism and the output mechanism in the present invention;

[0027] Figure 4 It is a structural diagram of the supporting mechanism in the present invention;

[0028] Figure 5 It is a schematic diagram of the frame structure of the present invention;

[0029] Figure 6 In the present invention Figure 5 A partial enlarged view of the middle part;

[0030] Figure 7 In the present invention Figure 5 A partial enlarged view of point B in the middle;

[0031] Figure 8 It is a schematic diagram of the structure of the connection frame and the partition in the present invention;

[0032] Figure 9 It is a schematic diagram of the output mechanism structure of the present invention;

[0033] Figure 10 This is an exploded view of the output mechanism structure of the present invention;

[0034] Figure 11 It is a schematic diagram of the turntable and rod structure of the present invention.

[0035] In the figure: 100, cabinet body; 200, plate body; 210, clamping plate; 211, return spring; 220, support frame; 300, supporting mechanism; 310, frame body; 311, clamping block; 312, U-shaped bar; 313, plug-in plate; 320, connecting frame; 321, suction pipe; 322, guide groove; 330, connecting ring belt; 331, partition; 400, output mechanism; 410, cylinder body; 420, rod body; 421, piston block; 430, turntable; 431, connecting block; 432, rebound spring; 433, guide rod; 440, ring body; 441, slide rod; 450, support plate; 451, cam; 460, motor box. DETAILED DESCRIPTION

[0036] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0037] See also Figure 1-11 In an embodiment of the present invention, a fully liquid-cooled heat dissipation device for a distributed energy storage power station includes:

[0038] The cabinet 100, multiple panels 200, multiple supporting mechanisms 300 for holding batteries, and multiple output mechanisms 400 for delivering coolant, multiple panels 200 are located inside the cabinet 100, multiple panels 200 are arranged vertically in sequence, and multiple panels 200 are fixedly connected to an inner wall of the cabinet 100, multiple supporting mechanisms 300 correspond to multiple panels 200 one by one, and any supporting mechanism 300 is located above the corresponding panel 200, and the supporting mechanism 300 includes multiple frames 310 , and multiple frames 310 are arranged horizontally in sequence, the outer wall of any frame 310 is fixedly sleeved with a connecting frame 320, the cross-section of any connecting frame 320 is U-shaped, and the two opposite inner walls of any connecting frame 320 are provided with guide grooves 322. A connecting ring belt 330 is rotatably sleeved inside any guide groove 322, and multiple partitions 331 are fixedly connected between two connecting ring belts 330 located in the same connecting frame 320, and the multiple output mechanisms 400 correspond one-to-one to the multiple supporting mechanisms 300.

[0039] Specifically, by arranging multiple frames 310 on any supporting mechanism 300 horizontally so that the interiors of the multiple frames 310 are connected, the batteries are inserted into the multiple frames 310, and holes can be drilled on the frames 310 to install connectors to fix the batteries, and then the circuits are connected to the batteries. When the batteries generate heat during energy storage, the battery shells are generally made of metal, and the frames 310 are made of copper, aluminum, and other materials with good thermal conductivity. The coolant is injected into the multiple connection frames 320 through the output mechanism 400, and then the two connection rings 330 in the connection frames 320 are rotated to connect the batteries. The annular belt 330 drives the adjacent partitions 331 to rotate synchronously, so that the coolant in the connecting frame 320 is separated by the compartments formed by the two adjacent partitions 331, and the partitions 331 are made of a material with poor thermal conductivity such as rubber, so that the coolant in different compartments in the connecting frame 320 reduces heat transfer between each other, thereby improving the heat absorption effect of the coolant, and the partitions 331 can push the coolant in different compartments to move along the connecting frame 320, absorb heat dissipated by the battery, so that the coolant in different compartments maintains the initial temperature to absorb heat from the frame 310, thereby improving the cooling effect on the battery. Example 1

[0040] like Figure 3-7As shown, in this embodiment, two U-shaped bars 312 are fixedly connected to the two short sides of one side of any frame body 310, and fixed blocks are fixedly connected to the top of the two short sides of the other side. The bottom surface of any fixed block is fixedly connected to an inserting plate 313, and any inserting plate 313 is movably inserted between the two arms of the adjacent U-shaped bars 312. The opposite sides of any inserting plate 313 are fixedly connected to multiple convex strips, and the two opposite inner side walls of any U-shaped bar 312 are provided with multiple grooves, and any convex strips are slidably engaged in the adjacent grooves. A card plate 210 is provided above any plate body 200, and a plurality of slots are provided on the top surface of any card plate 210. A plurality of card blocks 311 are fixedly connected to the bottom surface of any frame body 310, and any card block 311 is slidably engaged in the adjacent slots. A plurality of return springs 211 are fixedly connected between the bottom surface of any card plate 210 and the top surface of the adjacent plate body 200.

[0041] When the cam 312 is in the closed position, the cam 313 is in the closed position, and the cam 313 is in the closed position, so that the cam 313 is not easily dislodged from the U-shaped bar 312.

[0042] like Figure 8-11 As shown, in this embodiment, the output mechanism 400 includes:

[0043] Multiple output components and multiple rods 420, multiple output components correspond one-to-one with multiple frames 310 on adjacent supporting mechanisms 300, the output component includes two vertically arranged cylinders 410, and the two cylinders 410 are fixedly connected to a conduit at one end opposite to the other through a three-way connector, and one end of the two conduits is fixedly connected to the top and bottom surfaces of the adjacent connection frame 320, and one end of the two conduits is respectively arranged diagonally with the center of the adjacent connection frame 320 as the center, multiple rods 420 correspond one-to-one with multiple output components, and both ends of any rod 420 are fixedly connected to a piston block 421, and the two piston blocks on any rod 420 421 are respectively slidably sleeved on the inside of the two cylinders 410 on the corresponding output components, and a turntable 430 is provided on the opposite sides of any rod body 420, and a slide groove is provided on the adjacent side of the two turntables 430 on the opposite sides of any rod body 420. A ring body 440 is fixedly sleeved on the middle part of the outer wall of any rod body 420, and a circular through hole is provided on the outer wall of any ring body 440. A sliding rod 441 is rotatably connected inside any circular through hole, and any sliding rod 441 passes through the adjacent rod body 420. The two ends of any sliding rod 441 are respectively slidably clamped in the two adjacent slide grooves, and one side of any turntable 430 is fixedly connected with a connecting rod. The connecting block 431 is located at one end of the adjacent sliding groove. A rebound spring 432 is fixedly connected between one side of the connecting block 431 and the adjacent sliding rod 441. Two connecting grooves are provided at one end of each connecting frame 320. A plurality of thorns are fixedly connected to the outer wall of each turntable 430. The outer wall of each turntable 430 contacts the adjacent connecting ring belt 330 through the adjacent connecting groove. A guide rod 433 is fixedly connected to one side of each connecting block 431. Sliding holes are provided at both ends of the outer wall of each sliding rod 441. The outer wall of each guide rod 433 is slidably sleeved in the adjacent sliding holes. A connecting rod is provided between 20, and both ends of any connecting rod are fixedly connected to the centers of two adjacent turntables 430, one end of any frame 310 is fixedly connected to a support plate 450, one end of any support plate 450 is provided with a rotating hole, the outer side wall of any connecting rod is rotatably sleeved with the inner side wall of the adjacent rotating hole, one side of a support plate 450 located at one end on any supporting mechanism 300 is fixedly connected to a motor box 460, a driving motor is provided inside any motor box 460, and the motor shaft of any driving motor is fixedly connected to the center of the adjacent turntable 430, and both ends of any connecting frame 320 are fixedly connected to a suction pipe 321.

[0044] During specific implementation, after absorbing heat, the coolant can dissipate heat through the heat exchanger, and then be re-delivered to the working area by the water pump to cool the working area. A plurality of coolant delivery pipes are arranged inside the cabinet 100, and the plurality of delivery pipes are connected to the water pump through multi-way connectors and soft pipes, and any suction pipe 321 is connected to the suction pump through a hose, and the suction pump can be connected to the heat exchanger through a hose, and one end of the three-way connector on any cylinder 410 is connected to the conduit, and the other end is connected to the adjacent delivery pipe through a metal pipe, and a one-way valve can be provided on the conduit and the metal pipe. When the piston block 421 in any cylinder 410 moves toward the adjacent turntable 430, a negative pressure suction will be generated in the cylinder 410. The liquid in the suction delivery pipe enters the cylinder 410, and the one-way valve can prevent the pipe from sucking the coolant in the connecting frame 320 into the cylinder 410. Then, when the piston block 421 moves away from the adjacent turntable 430, the coolant in the cylinder 410 is pushed out by the piston block 421 and delivered to the inside of the connecting frame 320 through the pipe, and the one-way valve prevents the coolant in the cylinder 410 from flowing back into the delivery pipe. Then, when the coolant in the connecting frame 320 is pushed to the adjacent suction pipe 321 by the adjacent partition 331, the coolant in the compartment can be sucked into the heat exchanger by the suction pump and the suction pipe 321 for heat dissipation, thereby making the coolant circulate. The pipe and the delivery pipe are both made of metal, and the position of the cylinder 410 can be fixed by the pipe and the delivery pipe. , so that the relative position between any frame 310 and the two adjacent cylinders 410 is fixed, the delivery pipe, suction pump, heat exchanger, water pump, hose, soft pipe, metal pipe are all existing technologies and will not be repeated here. When it is necessary to use the cylinder 410 to transport coolant to the inside of the adjacent connecting frame 320, the drive motor can be started, so that the drive motor can drive the adjacent multiple turntables 430 to rotate synchronously through multiple turntables 430 and interconnected connecting rods, and when the turntable 430 rotates, it can pull the adjacent connecting ring belt 330 to rotate through its own thorns, thereby driving the connecting ring belt 330 and the partition 331 in the connecting frame 320 to rotate synchronously to transport the coolant, and when the turntable 430 rotates, it can contact the adjacent sliding rod 441 to pull the adjacent The rod body 420 moves, thereby causing the rod body 420 to drive the two adjacent piston blocks 421 to move synchronously, so that one piston block 421 uses the adjacent cylinder body 410 to suck the coolant, and the other piston block 421 pushes the coolant out of the adjacent cylinder body 410. When the slide bar 441 moves to the center of the turntable 430 due to the rotation of the turntable 430, the end of the slide bar 441 is stuck in the adjacent slide groove, and the slide bar 441 will not rotate in the adjacent slide groove. In addition, with the limiting effect of the guide rod 433 on the slide bar 441, the turntables 430 on the opposite sides of the same rod body 420 can be rotated synchronously through the slide bar 441. When the slide bar 441 is separated from the center of the adjacent turntable 430, the slide bar 441 is driven to slide along the slide groove by the return elastic force of the adjacent rebound spring 432.The guide rod 433 is located inside the adjacent rebound spring 432 to prevent the rebound spring 432 from bending when pressed by the slide rod 441. Example 2

[0045] On the basis of the first embodiment, the cam 451 is used to contact the abutting frame 220 , so as to drive the frame body 310 on the clamping plate 210 to shake, thereby causing the coolant in the connecting frame 320 to shake.

[0046] like Figure 3-4 and Figure 9-10 As shown, in this embodiment, a cam 451 is fixedly sleeved on the outer side wall of any connecting rod, and a plurality of support frames 220 are fixedly connected to the top surface of any plate body 200. The plurality of support frames 220 on any plate body 200 correspond one-to-one to the adjacent plurality of cams 451, and any support frame 220 is located below the corresponding cam 451.

[0047] During specific implementation, when the turntable 430 and the connecting rod rotate synchronously, the connecting rod can drive the protrusion of the cam 451 to intermittently contact the frame 220, causing the card plate 210, the frame body 310 and the connecting frame 320 to be skewed. Then, after the protrusion of the cam 451 is separated from the frame 220, the card plate 210 is pulled back by the adjacent reset spring 211, thereby causing the coolant in the connecting frame 320 to shake. Since the coolant is a fluid, it is easy to shake synchronously when the container shakes, so that the coolant in the compartment can change its distribution due to the shaking, making the coolant temperature distribution in the compartment more uniform, and it is less likely that the coolant temperature near the frame body 310 will be higher.

[0048] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above and that the invention can be embodied in other specific forms without departing from the spirit or essential characteristics of the invention. Therefore, the embodiments should be considered in all respects as illustrative and non-restrictive, and the scope of the invention is defined by the appended claims, not the foregoing description, and all variations within the meaning and range of equivalents of the claims are intended to be included therein. Any reference sign in a claim should not be construed as limiting the claim to which it relates.

[0049] In addition, it should be understood that although this specification is described in terms of implementation methods, not every implementation method contains only one independent technical solution. This narrative method of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment can also be appropriately combined to form other implementation methods that can be understood by those skilled in the art.

Claims

1. A fully liquid-cooled heat dissipation device for a distributed energy storage power station, characterized in that: include: Cabinet (100); A plurality of plates (200) are located inside the cabinet (100), the plurality of plates (200) are arranged vertically in sequence, and the plurality of plates (200) are fixedly connected to an inner wall of the cabinet (100); A plurality of supporting mechanisms (300) corresponding to the plurality of plate bodies (200) one by one, each supporting mechanism (300) being located above the corresponding plate body (200), the supporting mechanism (300) comprising a plurality of frames (310), and the plurality of frames (310) being arranged transversely in sequence, the outer side wall of each frame body (310) being fixedly sleeved with a connecting frame (320), the cross section of each connecting frame (320) being U-shaped, the two opposite inner side walls of each connecting frame (320) being provided with guide grooves (322), the interior of each guide groove (322) being rotatably sleeved with a connecting ring belt (330), and a plurality of partitions (331) being fixedly connected between two connecting ring belts (330) located in the same connecting frame (320); A plurality of output mechanisms (400) corresponding one-to-one to the plurality of supporting mechanisms (300); A card plate (210) is provided above any plate body (200), a plurality of card slots are provided on the top surface of any card plate (210), a plurality of card blocks (311) are fixedly connected to the bottom surface of any frame body (310), and any card block (311) is slidably connected to the inside of an adjacent card slot, and a plurality of return springs (211) are fixedly connected between the bottom surface of any card plate (210) and the top surface of the adjacent plate body (200); The output mechanism (400) comprises: Multiple output components, corresponding one-to-one to multiple frames (310) on adjacent supporting mechanisms (300), the output components comprising two vertically arranged cylinders (410), and the two cylinders (410) are fixedly connected to conduits at opposite ends via three-way connectors, and one end of the two conduits is respectively fixedly connected to the top and bottom surfaces of the adjacent connection frame (320), and one end of the two conduits is respectively arranged diagonally with the center of the adjacent connection frame (320) as the center; The plurality of rod bodies (420) correspond to the plurality of output assemblies one by one, and piston blocks (421) are fixedly connected to both ends of any rod body (420), and the two piston blocks (421) on any rod body (420) are respectively slidably sleeved inside the two cylinder bodies (410) on the corresponding output assembly.

2. The fully liquid-cooled heat dissipation equipment for a distributed energy storage power station according to claim 1, characterized in that: Two U-shaped bars (312) are fixedly connected to the two short side edges on one side of any frame (310), and a fixed block is fixedly connected to the top of the two short side edges on the other side. A plug-in plate (313) is fixedly connected to the bottom surface of any fixed block, and any plug-in plate (313) is movably plugged between the two arms of the adjacent U-shaped bars (312).

3. The fully liquid-cooled heat dissipation equipment for a distributed energy storage power station according to claim 2, characterized in that: A plurality of convex strips are fixedly connected to opposite sides of any plug plate (313), a plurality of grooves are provided on opposite inner side walls of any U-shaped strip (312), and any convex strip is slidably engaged in adjacent grooves.

4. The fully liquid-cooled heat dissipation equipment for a distributed energy storage power station according to claim 1, characterized in that: Both ends of any connecting frame (320) are fixedly connected to a suction pipe (321).

5. The fully liquid-cooled heat dissipation equipment for a distributed energy storage power station according to claim 1, characterized in that: A turntable (430) is provided on both sides of the rod body (420), and a slide groove is provided on the adjacent side of the two turntables (430) on both sides of the rod body (420). A ring body (440) is fixedly sleeved on the middle part of the outer wall of each rod body (420), and a circular through hole is provided on the outer wall of each ring body (440). A slide rod (441) is rotatably connected inside each circular through hole, and each slide rod (441) passes through the adjacent rod body (420). The two ends of each slide rod (441) are respectively slidably connected to the two opposite rod bodies (420). Inside the adjacent chute, one side of any turntable (430) is fixedly connected to a connecting block (431), and any connecting block (431) is located at one end of the adjacent chute. A rebound spring (432) is fixedly connected between one side of any connecting block (431) and the adjacent slide rod (441). Two connecting grooves are provided at one end of any connecting frame (320). The outer wall of any turntable (430) is fixedly connected to a plurality of ridges, and the outer wall of any turntable (430) contacts the adjacent connecting ring belt (330) through the adjacent connecting groove.

6. The fully liquid-cooled heat dissipation equipment for a distributed energy storage power station according to claim 5, characterized in that: One side of any connecting block (431) is fixedly connected to a guide rod (433), and both ends of the outer side wall of any sliding rod (441) are provided with sliding holes, and the outer side wall of any guide rod (433) is slidably sleeved in the adjacent sliding holes.

7. The all-liquid cooling device for distributed energy storage power stations according to claim 5, characterized in that: A connecting rod is provided between two adjacent rod bodies (420), and both ends of any connecting rod are fixedly connected to the centers of two adjacent turntables (430). One end of any frame body (310) is fixedly connected to a support plate (450), and one end of any support plate (450) is provided with a rotation hole. The outer side wall of any connecting rod is rotatably sleeved with the inner side wall of the adjacent rotation hole. One side of a support plate (450) located at one end of any supporting mechanism (300) is fixedly connected to a motor box (460), and a driving motor is provided inside any motor box (460). The motor shaft of any driving motor is fixedly connected to the center of the adjacent turntable (430).

8. The all-liquid cooling device for distributed energy storage power stations according to claim 7, characterized in that: The outer side wall of any connecting rod is fixedly sleeved with a cam (451), the top surface of any plate body (200) is fixedly connected with a plurality of support frames (220), the plurality of support frames (220) on any plate body (200) correspond one-to-one to the adjacent plurality of cams (451), and any support frame (220) is located below the corresponding cam (451).

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