Liquid cooling type new energy power generation and storage equipment

Abstract

The invention relates to the technical field of power generation and energy storage, and discloses liquid cooling type new energy power generation and energy storage equipment which comprises a cabinet body. The energy storage equipment is mounted in the cabinet body; the temperature sensor is mounted on the side surface of the energy storage equipment; the cooling structure is arranged on the side surface of the energy storage equipment; the water removal structure is arranged on the side surface of the energy storage equipment; the water receiving structure is arranged on the side face of the energy storage equipment and located below the cooling structure; and the feedback structure is arranged on the side surface of the energy storage equipment. The mounting plate and the absorbent cotton on the mounting plate are driven to move through the connecting plate, the vertical plate and the connecting piece, the absorbent cotton is tightly attached to the side face of the outer-layer pipe, the absorbent cotton is clamped to the outer-layer pipe through the grooves in the absorbent cotton, and therefore condensate water generated on the surface of the outer-layer pipe can be effectively absorbed in the moving process; by means of the design, the situation that water mist is condensed into water drops and drips is avoided, and it is ensured that condensate water is effectively treated in time.

Description

Technical Field

[0001] The present invention relates to the technical field of power generation and energy storage, and in particular to a liquid-cooled new energy power generation and energy storage device. Background Art

[0002] New energy power generation and energy storage equipment is a device used to store and manage electrical energy generated by renewable energy. This type of equipment plays a vital role in improving the stability of the power system, optimizing energy utilization and achieving sustainable development.

[0003] After searching, the Chinese patent with the announcement number CN217822991U discloses a heat dissipation device of a liquid-cooled energy storage device and a liquid-cooled energy storage device. The heat dissipation device of the liquid-cooled energy storage device includes a box, a liquid cooling system and a fan assembly. An electrical compartment and a battery compartment are arranged in the box. The liquid cooling system is used to cool the battery pack in the battery compartment. The fan assembly is arranged between the battery compartment and the electrical compartment. The fan assembly is used to form a circulating air path between the battery compartment and the electrical compartment. The cold air flow in the battery compartment cools the electrical equipment in the electrical compartment, thereby reducing the heat dissipation cost. However, the above scheme still has the following shortcomings when it is actually used:

[0004] The above scheme dissipates heat from the energy storage device through a liquid cooling system. However, when the coolant with a lower temperature flows inside the liquid cooling tube, the coolant can cool the liquid cooling tube, so that the surface of the liquid cooling tube has a lower temperature. When the hot air inside the energy storage device encounters the surface of the low-temperature liquid cooling tube, the hot air can form condensed water on the surface of the liquid cooling tube under the action of the temperature difference. As the condensed water increases, the water mist will gather into water droplets and drip downwards. The dripping of condensed water may cause damage to the electronic components, circuit boards and other sensitive components inside the equipment, affecting the normal operation of the equipment.

[0005] Therefore, it is necessary to design a liquid-cooled new energy power generation and energy storage device to solve the above problems. Summary of the invention

[0006] The purpose of the present invention is to solve the shortcomings of the prior art and to propose a liquid-cooled new energy power generation and energy storage device.

[0007] In order to achieve the above object, the present invention adopts the following technical solutions:

[0008] A liquid-cooled new energy power generation and energy storage device, comprising:

[0009] Cabinet;

[0010] An energy storage device is installed inside the cabinet;

[0011] A temperature sensor is installed on the side of the energy storage device;

[0012] A cooling structure, arranged on the side of the energy storage device;

[0013] A water removal structure, arranged on the side of the energy storage device;

[0014] A water receiving structure, arranged on a side of the energy storage device and located below the cooling structure;

[0015] A feedback structure is arranged on a side of the energy storage device;

[0016] A cooling device installed on the side of the energy storage device;

[0017] An air pump, mounted on a side of the cooling device;

[0018] A linear slide is slidably arranged on the side of the energy storage device.

[0019] As a preferred technical solution of the present invention, the cooling structure includes:

[0020] An outer tube is fixed to the side of the energy storage device, and one end of the outer tube is connected to the cooling device;

[0021] An inner tube is fixed inside the outer tube, a gap is formed between the outer tube and the inner tube, a coolant is accumulated in the gap, and one end of the inner tube is connected to the air outlet of the air pump;

[0022] An escape opening is provided at one end of the outer tube, and the other end of the inner tube passes through the escape opening and extends to the outside of the outer tube;

[0023] The air port is opened at one end of the inner tube that is located outside the outer tube.

[0024] As a preferred technical solution of the present invention, the water removal structure comprises:

[0025] A connecting plate, fixed on the linear slide;

[0026] A vertical plate fixed on the side of the connecting plate;

[0027] At least two connecting members, both arranged on the side of the vertical plate;

[0028] A mounting plate connected to the two connecting members;

[0029] Water-absorbing cotton, arranged on the side of the mounting plate;

[0030] A plurality of grooves are provided on the absorbent cotton, and each of the grooves is clamped on the outer tube;

[0031] Two guide blocks are respectively fixed on two sides of the mounting tube, and each guide block is provided with an inclined surface;

[0032] The magnetic block is fixed on the side of the mounting plate facing away from the absorbent cotton.

[0033] As a preferred technical solution of the present invention, the water receiving structure comprises:

[0034] Two magnetic plates are fixed on the sides of the energy storage device and are respectively located on both sides of the outer tube;

[0035] A water storage box is slidably disposed on the side of the energy storage device and is located below the outer tube;

[0036] Two water inlets are provided at both ends of the top surface of the water storage box and are respectively arranged opposite to the two magnetic plates;

[0037] Two guide rods are fixed on the sides of the energy storage device and are respectively located at two ends of the water storage box;

[0038] Two guide blocks are respectively fixed at two ends of the water storage box, and the two guide blocks are respectively slidably sleeved on two guide rods;

[0039] A tension spring, one end of which is connected to the energy storage device, and the other end of which is connected to one of the guide blocks.

[0040] As a preferred technical solution of the present invention, the feedback structure includes:

[0041] Rod body 1, fixed on the side of the energy storage device;

[0042] A guide frame, fixed to an end of the rod body away from the energy storage device;

[0043] A feedback plate, slidably inserted in the guide frame;

[0044] A through opening is provided on a side of the energy storage device, and one end of the feedback plate extends into the through opening;

[0045] A pressing block is fixed on one end of the feedback plate away from the through-hole, the pressing block is located below one of the guide blocks, and an inclined surface is arranged on the pressing block.

[0046] As a preferred technical solution of the present invention, the energy storage device is provided with a pumping structure, and the pumping structure includes:

[0047] Two rod bodies 2 are both fixed on the side of the energy storage device;

[0048] A mounting cylinder fixed to one end of the two rod bodies away from the energy storage device;

[0049] A strip-shaped opening is provided on the mounting tube;

[0050] A slider, slidably disposed in the mounting tube;

[0051] A capsule body, one end of which is connected to the inner surface of the mounting tube, and the other end of which is connected to the slider;

[0052] Two installation tubes, one end of each of which is connected to the bladder, one end of one of the installation tubes away from the bladder is connected to the cooling device, and the other end of the other installation tube away from the bladder is connected to the other end of the outer tube;

[0053] Two one-way valves are respectively installed on the two installation pipes;

[0054] A flexible rod has one end fixedly connected to the top of the vertical plate and the other end fixedly connected to the sliding block. The flexible rod is slidably arranged in the strip-shaped opening and is made of a flexible material.

[0055] As a preferred technical solution of the present invention, both the outer tube and the inner tube are in a serpentine tubular structure.

[0056] As a preferred technical solution of the present invention, a plurality of guide grooves are provided on the sides of the two magnetic plates, and each of the guide grooves is arranged along the length direction of the magnetic plate.

[0057] As a preferred technical solution of the present invention, the side surface of the water storage box and the side surface of the energy storage device are in contact with each other.

[0058] As a preferred technical solution of the present invention, the connecting member includes an outer tube, an inner rod and a spring. The outer tube is fixed to the side of the vertical plate, the inner rod is movably inserted in the outer tube, the spring is arranged between the outer tube and the inner rod, and one end of the inner rod extends to the outside of the outer tube and is fixedly connected to the mounting plate.

[0059] The present invention has the following beneficial effects:

[0060] 1. The movement of the linear slide drives the movement of the mounting plate and the absorbent cotton thereon through the connecting plate, the vertical plate and the connecting piece. The absorbent cotton is tightly attached to the side of the outer tube and is connected to the outer tube by the groove thereon, so that the condensed water generated on the surface of the outer tube can be effectively absorbed during the movement. This design not only avoids the condensation of water mist into water droplets and dripping, but also ensures that the condensed water is handled in a timely and effective manner, preventing potential damage to the energy storage equipment and the entire device;

[0061] 2. Through the magnetic attraction between the magnetic block and the magnetic plate, the mounting plate can be pulled close to the magnetic plate, and then the absorbent cotton is pressed between the two. This design not only achieves effective water removal of the absorbent cotton, but also ensures that the water absorbed inside the absorbent cotton can be fully squeezed out, thereby maintaining its good water absorption performance. This ensures that the absorbent cotton effectively absorbs and removes the condensed water on the surface of the outer tube, and improves the efficiency of the entire dewatering system;

[0062] 3. When the water inside the absorbent cotton is squeezed out, the water will flow down along the surface of the magnetic plate and flow into the water storage box through the water inlet. The water storage box collects the squeezed water, effectively preventing the water from flowing and accumulating inside the cabinet. This not only keeps the inside of the cabinet dry and clean, but also reduces the potential risks of circuit short circuit, equipment damage, etc. caused by water accumulation;

[0063] 4. Through the feedback structure, the device can monitor the water storage situation inside the water storage box in real time. When there is too much water inside the water storage box, the feedback structure will send a feedback signal to the staff in time, so that the staff can deal with the condensed water collected in the water storage box in time. This real-time monitoring and early warning mechanism effectively avoids the overflow of water inside the water storage box, thereby reducing the potential damage caused by water overflow;

[0064] 5. Through the reciprocating movement of the vertical plate, the device realizes the automatic circulation of the coolant. The reciprocating movement of the slider in the installation tube stretches and squeezes the bladder, and cooperates with the function of the one-way valve to make the coolant circulate between the outer tube and the cooling device. This design does not require an additional pump or power source, reducing energy consumption and cost;

[0065] 6. The device achieves dual cooling of the internal environment of the cabinet by integrating temperature sensors, air pumps and cooling systems. On the one hand, the cooling system cools the outer tube through circulating low-temperature coolant, effectively absorbing and taking away the heat generated by the energy storage device; on the other hand, when the temperature sensor detects that the temperature is too high, it starts the air pump, extracts the hot air inside the cabinet and cools it through the inner tube, and then returns the cooled gas to the inside of the cabinet. This dual mechanism significantly improves the cooling effect, ensuring that the energy storage device and the internal environment of the cabinet are always at a suitable working temperature. BRIEF DESCRIPTION OF THE DRAWINGS

[0066] Figure 1 This is a structural schematic diagram of a liquid-cooled new energy power generation and energy storage device proposed by the present invention;

[0067] Figure 2 This is a structural schematic diagram of the back side of a liquid-cooled new energy power generation and energy storage device proposed by the present invention;

[0068] Figure 3 It is a structural schematic diagram of the energy storage device;

[0069] Figure 4 A schematic diagram of the structure of the energy storage device from another perspective;

[0070] Figure 5 It is a schematic diagram of the structure of the cooling equipment and the air pump;

[0071] Figure 6 is a schematic diagram of the cooling structure;

[0072] Figure 7 It is a schematic diagram of the cross-sectional structure of the energy storage device;

[0073] Figure 8 It is a schematic diagram of the cross-sectional structure of the energy storage device from another perspective;

[0074] Fig. 9 for Figure 4 A magnified view of the structure at A;

[0075] Fig.10 for Figure 4 A magnified view of the structure at B;

[0076] Fig.11 for Figure 4 A magnified view of the structure at C;

[0077] Fig.12 for Figure 7 A magnified view of the structure at D;

[0078] Fig.13 for Figure 8 Enlarged view of the structure at E.

[0079] In the figure: 1 cabinet, 2 energy storage device, 3 temperature sensor, 41 outer tube, 42 inner tube, 43 avoidance port, 44 air port, 51 connecting plate, 52 vertical plate, 53 connecting piece, 54 mounting plate, 55 absorbent cotton, 56 groove, 57 guide block, 58 magnetic block, 61 magnetic plate, 62 water storage box, 63 water inlet, 64 guide rod, 65 guide block, 66 tension spring, 71 rod body 1, 72 guide frame, 73 feedback plate, 74 pressure block, 81 rod body 2, 82 mounting tube, 83 strip opening, 84 slider, 85 capsule, 86 mounting tube, 87 one-way valve, 88 flexible rod, 9 cooling device, 10 air pump, 11 linear slide. DETAILED DESCRIPTION

[0080] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0081] Reference Figure 1-13A liquid-cooled new energy power generation and energy storage device includes a cabinet 1; an energy storage device 2, installed inside the cabinet 1; a temperature sensor 3, installed on the side of the energy storage device 2; a cooling device 9, installed on the side of the energy storage device 2; an air pump 10, installed on the side of the cooling device 9; and a linear slide 11, slidably arranged on the side of the energy storage device 2.

[0082] The new energy power generation and energy storage device also includes a cooling structure, which is arranged on the side of the energy storage device 2. The cooling structure includes: an outer tube 41, which is fixed on the side of the energy storage device 2, and one end of the outer tube 41 is connected to the cooling device 9; an inner tube 42, which is fixed inside the outer tube 41, and there is a gap between the outer tube 41 and the inner tube 42, and a coolant is accumulated in the gap, and one end of the inner tube 42 is connected to the air outlet of the air pump 10; an avoidance port 43, which is opened at one end of the outer tube 41, and the other end of the inner tube 42 passes through the avoidance port 43 and extends to the outside of the outer tube 41; an air port 44, which is opened at one end of the inner tube 42 located outside the outer tube 41, and the outer tube 41 and the inner tube 42 are both serpentine shaped tubular structure, an outer tube 41 and an inner tube 42 are provided in the cooling structure, and a coolant is accumulated between the outer tube 41 and the inner tube 42, and the coolant can cool the energy storage device 2 through the outer tube 41, and the air pump 10 can extract the hot air inside the cabinet 1 when it is running, and pump the hot air into the inner tube 42, and during the hot air flowing in the inner tube 42, the low-temperature coolant between the outer tube 41 and the inner tube 42 can also cool the gas flowing in the inner tube 42, and the cooled gas will flow back to the inside of the cabinet 1 through the air port 44, and this design can cool the internal environment of the cabinet 1 and also prevent the energy storage device 2 from overheating;

[0083] The new energy power generation and energy storage device also includes a water removal structure, which is arranged on the side of the energy storage device 2, and the water removal structure includes: a connecting plate 51, fixed on the linear slide 11; a vertical plate 52, fixed on the side of the connecting plate 51; at least two connecting members 53, both arranged on the side of the vertical plate 52, the connecting member 53 includes an outer cylinder, an inner rod and a spring, the outer cylinder is fixed on the side of the vertical plate 52, the inner rod is movably inserted in the outer cylinder, the spring is arranged between the outer cylinder and the inner rod, one end of the inner rod extends to the outside of the outer cylinder, and is fixedly connected to the mounting plate 54; the mounting plate 54 is connected to the two connecting members 53; water-absorbing cotton 55, which is arranged on the side of the mounting plate 54; a plurality of grooves 56, all of which are opened on the water-absorbing cotton 55, and each groove 56 is clamped on the outer tube 41; two guide blocks 57, respectively fixed On both sides of the mounting tube 54, each guide block 57 is provided with an inclined surface; the magnetic block 58 is fixed on the side of the mounting plate 54 away from the absorbent cotton 55. When the linear slide 11 moves, it can drive the vertical plate 52 to move through the connecting plate 51. When the vertical plate 52 moves, it can drive the mounting plate 54 to move through the two connecting pieces 53, and the absorbent cotton 55 on the mounting plate 54 will also move accordingly. The side of the absorbent cotton 55 fits the side of the outer tube 41. A plurality of grooves 56 are provided on the absorbent cotton 55, and each groove 56 is snapped onto the outer tube 41. Therefore, the absorbent cotton 55 can absorb the condensed water generated on the surface of the outer tube 41 during the movement, so as to avoid the situation where the water mist condenses into water droplets and drips, thereby preventing the condensed water from damaging the energy storage device 2 and ensuring the safe operation of the device;

[0084] The new energy power generation and energy storage device also includes a water receiving structure, which is arranged on the side of the energy storage device 2 and is located below the cooling structure. The water receiving structure includes: two magnetic plates 61, both fixed on the side of the energy storage device 2 and respectively located on both sides of the outer tube 41. The sides of the two magnetic plates 61 are provided with a plurality of guide grooves, and each guide groove is arranged along the length direction of the magnetic plate 61; a water storage box 62 is slidably arranged on the side of the energy storage device 2 and is located below the outer tube 41, and the side of the water storage box 62 and the side of the energy storage device 2 are fitted with each other; two water inlets 63 are both opened at both ends of the top surface of the water storage box 62, and are respectively arranged opposite to the two magnetic plates 61; two guide rods 64 are both fixed on the side of the energy storage device 2 and respectively located at both ends of the water storage box 62; two guide blocks 65 are respectively fixed at both ends of the water storage box 62, and the two guide blocks 65 are respectively slidably sleeved on the two guide rods. Toward rod 64; tension spring 66, one end of which is connected to energy storage device 2, and the other end of which is connected to one of guide blocks 65. When mounting plate 54 moves to a position facing magnetic plate 61, magnetic block 58 will move toward magnetic plate 61 under the action of magnetic attraction, so that mounting plate 54 is close to magnetic plate 61. In this process, absorbent cotton 55 can be pressed between mounting plate 54 and magnetic plate 61, and the water absorbed by absorbent cotton 55 will be squeezed out. This design can remove water from absorbent cotton 55, ensure the water absorption performance of absorbent cotton 55, and further ensure the water removal effect of absorbent cotton 55 on outer tube 41. When water flow is squeezed out by mounting plate 54, water flow will flow downward along the surface of magnetic plate 61, and flow into the interior of water storage box 62 through water inlet 63. Water storage box 62 collects the squeezed water to prevent water from flowing around inside cabinet 1.

[0085] The new energy power generation and energy storage device also includes a feedback structure, which is arranged on the side of the energy storage device 2, and the feedback structure includes: a rod body 71, fixed on the side of the energy storage device 2; a guide frame 72, fixed on the end of the rod body 71 away from the energy storage device 2; a feedback plate 73, slidably inserted in the guide frame 72; a through hole, opened on the side of the energy storage device 2, and one end of the feedback plate 73 extends into the through hole; a pressing block 74, fixed on the end of the feedback plate 73 away from the through hole, the pressing block 74 is located below one of the guide blocks 57, and an inclined surface is provided on the pressing block 74, and the water continuously flows into the water storage box 72, and the water storage box 72 will be under the gravity of the water flow. The two guide rods 64 and the two guide blocks 65 limit the movement of the water storage box 72. When the two guide blocks 65 move downward, one of the guide blocks 65 squeezes the inclined surface of the pressing block 74. When the inclined surface of the pressing block 74 is squeezed, it can move and drive the feedback plate 73 to move. In the initial state, the feedback plate 73 does not extend from the through hole. When the pressing block 74 moves, the feedback plate 73 can extend from the through hole. Therefore, the staff can judge the water storage situation in the water storage box 72 by the position of the feedback plate 73 to avoid the phenomenon of water overflowing from the water storage box 72.

[0086] The energy storage device 2 is provided with a pumping structure, which includes: two rod bodies 81, both fixed to the side of the energy storage device 2; a mounting tube 82, fixed to the end of the two rod bodies 81 away from the energy storage device 2; a strip opening 83, opened on the mounting tube 82; a slider 84, slidably arranged in the mounting tube 82; a capsule 85, one end of which is connected to the inner surface of the mounting tube 82, and the other end is connected to the slider 84; two mounting tubes 86, one end of which is connected to the capsule 85, one end of which is away from the capsule 85 and is connected to the cooling device 9, and the other end of which is away from the capsule 85 and is connected to the other end of the outer tube 41 connected; two one-way valves 87 are respectively installed on two mounting tubes 86; a flexible rod 88, one end of which is fixedly connected to the top of the vertical plate 52, and the other end is fixedly connected to the slider 84, the flexible rod 88 is slidably set in the strip opening 83, and the flexible rod 88 is made of flexible material, with the reciprocating movement of the vertical plate 52, the coolant will circulate between the outer tube 41 and the cooling device 9, when the coolant enters the cooling device 9, the cooling device 9 can cool the coolant, so that the coolant between the outer tube 41 and the inner tube 42 always has a lower temperature, thereby ensuring the cooling effect of the coolant on the energy storage device 2.

[0087] The specific working principle of the present invention is as follows:

[0088] When the liquid-cooled new energy power generation and energy storage device proposed by the present invention is in use, a cooling structure is provided on the side of the energy storage device 2 for cooling the energy storage device 2 to prevent the working temperature of the energy storage device 2 from being too high. The cooling structure is provided with an outer tube 41 and an inner tube 42. Coolant is accumulated between the outer tube 41 and the inner tube 42. The coolant can cool the energy storage device 2 through the outer tube 41.

[0089] A temperature sensor 3 is installed on the side of the energy storage device 2 for monitoring the working temperature of the energy storage device 2. When the working temperature of the energy storage device 2 exceeds the preset temperature of the temperature sensor 3, the temperature sensor 3 sends a control signal to the driving module for driving the linear slide 11 to move, so that the linear slide 11 moves back and forth on the side of the energy storage device 2. It should be noted that the linear slide 11 can be driven by a cylinder or a motor in conjunction with a screw rod. The way in which the linear slide 11 is driven is the prior art and will not be described in detail here. Further, when the linear slide 11 moves, it can be connected to the connecting plate 5. 1 drives the vertical plate 52 to move. When the vertical plate 52 moves, it can drive the mounting plate 54 to move through the two connecting pieces 53. The absorbent cotton 55 on the mounting plate 54 will also move accordingly. The side of the absorbent cotton 55 is in contact with the side of the outer tube 41. The absorbent cotton 55 is provided with a plurality of grooves 56. Each groove 56 is clamped on the outer tube 41. Therefore, the absorbent cotton 55 can absorb the condensed water generated on the surface of the outer tube 41 during the movement, so as to avoid the condensation of water mist into water droplets and dripping, thereby preventing the condensed water from damaging the energy storage device 2 and ensuring the safe operation of the device.

[0090] A magnetic block 58 is fixed to the side of the mounting plate 54, and a magnetic plate 61 is provided on both sides of the outer tube 41. When the mounting plate 54 moves to a position facing the magnetic plate 61, the magnetic block 58 will move toward the magnetic plate 61 under the action of magnetic attraction, so that the mounting plate 54 is close to the magnetic plate 61. In this process, the absorbent cotton 55 can be pressed between the mounting plate 54 and the magnetic plate 61, and the water absorbed by the absorbent cotton 55 will be squeezed out. This design can remove water from the absorbent cotton 55, ensure the water absorption performance of the absorbent cotton 55, and then ensure that the absorbent cotton 55 removes water from the outer tube 41. When the water flow is squeezed out by the mounting plate 54, the water flow will flow downward along the surface of the magnetic plate 61 and flow into the interior of the water storage box 62 through the water inlet 63. The water storage box 62 collects the squeezed water to prevent the water from flowing around inside the cabinet 1. In addition, the device also has a feedback function. When too much water is collected inside the water storage box 62, the feedback structure can send a feedback signal to the staff so that the staff can deal with the condensed water collected in the water storage box 62 in time. Specifically, in the initial state, under the elastic force of the tension spring 66, the two guide blocks 65 are respectively located at the two guide The top of the rod 64, at this time, the guide block 65 located above the pressing block 74 does not contact the pressing block 74, and as the water flow continues to enter the water storage box 72, the water storage box 72 will slowly move downward under the action of the gravity of the water flow. In this process, the two guide rods 64 and the two guide blocks 65 limit the movement of the water storage box 72. When the two guide blocks 65 move downward, one of the guide blocks 65 will squeeze the inclined surface of the pressing block 74. When the inclined surface of the pressing block 74 is squeezed, it can move and drive the feedback plate 73 to move. In the initial state, the feedback plate 73 does not extend out of the hole. When the pressing block 7 When the feedback plate 73 moves, it can extend from the hole, so the staff can judge the water storage situation in the water storage box 72 by the position of the feedback plate 73, so as to avoid the water overflowing from the water storage box 72. When the feedback plate 73 moves, the guide frame 72 provides a limit to the movement of the feedback plate 73, so as to ensure the stability of the movement of the feedback plate 73. It should be noted that the feedback structure uses the position change of the feedback plate 73 to provide feedback to the staff. On this basis, when the feedback plate 73 moves, it can squeeze a control switch to energize the alarm or warning light, which can also provide feedback to the staff.

[0091] During the reciprocating movement, the vertical plate 52 can also drive the slider 84 to move through the flexible rod 88, so that the slider 84 can reciprocate inside the mounting tube 82. When the slider 84 moves toward one end of the mounting tube 82, the slider 84 can stretch the capsule 85. When the slider 84 moves toward the other end of the mounting tube 82, the slider 84 can compress the capsule 85. Therefore, with the reciprocating movement of the slider 84, the capsule 85 will be alternately squeezed and stretched. The capsule 85 is connected to two mounting tubes 86, and each mounting tube 86 is installed with a one-way valve 87. The flow limiting directions of the two one-way valves 87 are opposite. Specifically, one of the one-way valves 87 limits the liquid to only enter the interior of the capsule 85, and the other one-way valve 87 limits the liquid to only flow out of the capsule 85. When the slider 84 moves toward one end of the mounting tube 82, the capsule 85 can perform a suction action and extract the outer layer tube 41 and The cooling liquid between the inner tubes 42, when the slider 84 moves toward the other end of the mounting tube 82, the capsule 85 can perform a discharge action and press the cooling liquid inside it into the cooling device 9. Based on the above process, along with the reciprocating movement of the vertical plate 52, the cooling liquid will circulate between the outer tube 41 and the cooling device 9. When the cooling liquid enters the cooling device 9, the cooling device 9 can cool the cooling liquid, so that the cooling liquid between the outer tube 41 and the inner tube 42 always has a lower temperature, thereby ensuring the cooling effect of the cooling liquid on the energy storage device 2. It is worth mentioning that the specific cooling method of the cooling device 9 for the cooling liquid is the existing technology, and the semiconductor refrigeration sheet can be used to cool the cooling liquid, which will not be described in detail here. In addition, the control method of the temperature sensor 3 for the linear slide 11 and the air pump 10 is also the existing technology, which will not be described in detail here.

[0092] The temperature sensor 3 can also send a control signal to the air pump 10 to power on the air pump 10. When the air pump 10 is running, it can extract the hot air inside the cabinet 1 and pump the hot air into the inner tube 42. During the flow of hot air in the inner tube 42, the low-temperature coolant between the outer tube 41 and the inner tube 42 can also cool the gas flowing in the inner tube 42. The cooled gas will flow back to the inside of the cabinet 1 through the air port 44. This design can cool the internal environment of the cabinet 1 and also prevent the energy storage device 2 from overheating. It is worth noting that the outer tube 41 and the inner tube 42 are both serpentine tubular structures, which can extend the flow time of the gas in the inner tube 42, thereby improving the cooling effect of the low-temperature coolant on the gas.

[0093] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A liquid-cooled new energy power generation and energy storage device, characterized in that: include: Cabinet (1); An energy storage device (2) is installed inside the cabinet (1); A temperature sensor (3) is installed on a side of the energy storage device (2); A cooling structure, arranged on a side of the energy storage device (2); A water removal structure, arranged on a side of the energy storage device (2); A water receiving structure, arranged on a side of the energy storage device (2) and located below the cooling structure; A feedback structure is arranged on a side of the energy storage device (2); A cooling device (9) installed on a side of the energy storage device (2); An air pump (10) installed on the side of the cooling device (9); A linear slide (11) is slidably arranged on a side of the energy storage device (2).

2. A liquid-cooled new energy power generation and energy storage device according to claim 1, characterized in that: The cooling structure comprises: An outer tube (41) is fixed on a side of the energy storage device (2), and one end of the outer tube (41) is connected to a cooling device (9); An inner tube (42) is fixed inside the outer tube (41), a gap is provided between the outer tube (41) and the inner tube (42), a coolant is accumulated in the gap, and one end of the inner tube (42) is connected to the air outlet of the air pump (10); An escape opening (43) is provided at one end of the outer tube (41), and the other end of the inner tube (42) passes through the escape opening (43) and extends to the outside of the outer tube (41); The air port (44) is opened at one end of the inner tube (42) located outside the outer tube (41).

3. A liquid-cooled new energy power generation and energy storage device according to claim 2, characterized in that: The water removal structure comprises: A connecting plate (51) fixed on the linear slide (11); A vertical plate (52) fixed on the side of the connecting plate (51); At least two connecting members (53), both arranged on the side of the vertical plate (52); A mounting plate (54) connected to the two connecting members (53); Water-absorbing cotton (55), arranged on the side of the mounting plate (54); A plurality of grooves (56) are provided on the absorbent cotton (55), and each of the grooves (56) is clamped on the outer tube (41); Two guide blocks (57) are respectively fixed on two sides of the mounting tube (54), and each guide block (57) is provided with an inclined surface; The magnetic block (58) is fixed on the side of the mounting plate (54) facing away from the absorbent cotton (55).

4. A liquid-cooled new energy power generation and energy storage device according to claim 2, characterized in that: The water receiving structure comprises: Two magnetic plates (61) are fixed on the side of the energy storage device (2) and are respectively located on both sides of the outer tube (41); A water storage box (62) is slidably arranged on the side of the energy storage device (2) and is located below the outer tube (41); Two water inlets (63) are provided at both ends of the top surface of the water storage box (62) and are respectively arranged opposite to the two magnetic plates (61); Two guide rods (64) are both fixed on the side of the energy storage device (2) and are respectively located at two ends of the water storage box (62); Two guide blocks (65) are respectively fixed at two ends of the water storage box (62), and the two guide blocks (65) are respectively slidably sleeved on two guide rods (64); A tension spring (66) has one end connected to the energy storage device (2) and the other end connected to one of the guide blocks (65).

5. A liquid-cooled new energy power generation and energy storage device according to claim 4, characterized in that: The feedback structure includes: Rod body 1 (71), fixed on the side of the energy storage device (2); A guide frame (72) is fixed to an end of the rod body (71) away from the energy storage device (2); A feedback plate (73) is slidably inserted into the guide frame (72); A through opening is provided on a side surface of the energy storage device (2), and one end of the feedback plate (73) extends into the through opening; A pressing block (74) is fixed to an end of the feedback plate (73) away from the through-hole. The pressing block (74) is located below one of the guide blocks (57), and an inclined surface is provided on the pressing block (74).

6. A liquid-cooled new energy power generation and energy storage device according to claim 5, characterized in that: The energy storage device (2) is provided with a pumping structure, and the pumping structure comprises: Two rod bodies 2 (81) are both fixed on the side of the energy storage device (2); A mounting cylinder (82) is fixed to one end of the two rod bodies (81) away from the energy storage device (2); A strip-shaped opening (83) is provided on the mounting tube (82); A slider (84) slidably disposed in the mounting tube (82); A capsule (85), one end of which is connected to the inner surface of the mounting tube (82), and the other end of which is connected to the slider (84); Two installation tubes (86), one end of each of which is connected to the bladder (85), one end of one of the installation tubes (86) away from the bladder (85) is connected to the cooling device (9), and the other end of the other installation tube (86) away from the bladder (85) is connected to the other end of the outer tube (41); Two one-way valves (87) are respectively installed on the two installation pipes (86); A flexible rod (88) has one end fixedly connected to the top of the vertical plate (52) and the other end fixedly connected to the slider (84). The flexible rod (88) is slidably arranged in the strip opening (83), and the flexible rod (88) is made of a flexible material.

7. The liquid-cooled new energy power generation and energy storage device according to claim 2, characterized in that: The outer tube (41) and the inner tube (42) are both serpentine tube structures.

8. The liquid-cooled new energy power generation and energy storage device according to claim 4, characterized in that: A plurality of guide grooves are provided on the side surfaces of the two magnetic plates (61), and each of the guide grooves is arranged along the length direction of the magnetic plate (61).

9. The liquid-cooled new energy power generation and energy storage device according to claim 4, characterized in that: The side surface of the water storage box (62) and the side surface of the energy storage device (2) are in contact with each other.

10. The liquid-cooled new energy power generation and energy storage device according to claim 6, characterized in that: The connecting member (53) comprises an outer tube, an inner rod and a spring. The outer tube is fixed to the side of the vertical plate (52). The inner rod is movably inserted in the outer tube. The spring is arranged between the outer tube and the inner rod. One end of the inner rod extends to the outside of the outer tube and is fixedly connected to the mounting plate (54).

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