Intelligent bottom box supporting distributed energy storage self-adaptive charging

Abstract

The invention relates to the technical field of intelligent bottom boxes, in particular to an intelligent bottom box supporting distributed energy storage self-adaptive charging. A threading groove hole is formed in the end part of the bottom box body; a sealing box is arranged in the bottom box body; a rechargeable battery is arranged in the sealing box; auxiliary lugs are arranged on two sides of the top of the sealing box; a servo motor drives a driving gear to rotate, driven gears arranged on the two sides of the driving gear rotate in a meshed mode, rotating lead screws arranged at the ends of the driven gears rotate in the rotating process of the driven gears, and rack rods are arranged on the surfaces of the rotating lead screws; the rack rod moves on the surface of the rotating lead screw, and in the moving process of the rotating lead screw, the rack rod drives the driven gear to rotate in a meshed mode, so that the sealing plate is automatically opened to be perpendicular to the sealing box, the side wall of the rechargeable battery is completely exposed outside, and heat generated in the discharging process of the battery is dissipated quickly.

Description

Technical Field

[0001] The present invention relates to the technical field of smart base boxes, and in particular to a smart base box that supports distributed energy storage and adaptive charging. Background Art

[0002] Smart base boxes are necessary electrical auxiliary tools in construction projects or various types of decoration construction. They can simultaneously connect wires, ensure the transition of various electrical circuits, and protect the safety of circuits. Commonly used electrical boxes include 86-type, 120-type, octagonal boxes, etc. Smart boxes are a type of equipment in smart home systems, mainly used for the control and intelligent transformation of home appliances. Smart boxes usually have functions such as intelligent control, voice control, and remote control. They can be controlled through mobile phone APPs, voice assistants, etc., making it convenient for users to manage and operate home appliances.

[0003] There are many existing technologies for intelligent bottom box devices, such as: Chinese patent publication number CN117939855A discloses a plug-and-play smart dark box without wiring, including a smart dark box, wherein a copper metal connection terminal is fixedly installed on the top of the smart dark box. The present invention moves the wire through the cable inlet and moves it to the inside of the copper metal connection terminal, and then the user rotates the rubber rotating block, the rubber rotating block drives the metal screw to rotate, the metal screw rotates and drives the metal screw sleeve to move downward, the metal screw sleeve moves downward and drives the non-conductive moving plate to move downward, the non-conductive moving plate moves downward and drives the conductive fixing rod to move, the conductive fixing rod drives the conductive fixing ring and the conductive cutting ring downward, the conductive cutting ring contacts the surface of the wire and cuts the wire, so that the conductive cutting ring can be connected to electricity, and when it is necessary to dehumidify and dissipate heat inside the smart dark box, the user starts the cooling fan, and the cooling fan ventilates and dissipates heat inside the smart dark box, and at the same time, the air passes through the dehumidification particles, which can absorb water molecules in the air.

[0004] At present, when the traditional smart base box is in use, the connected household appliances are charged through the smart base box connected to the line inlet. However, when the line is out of power, the low-power appliances in the home cannot be used, affecting people's quality of life.

[0005] In view of this, we propose a smart base box that supports adaptive charging of distributed energy storage. Summary of the invention

[0006] The purpose of the present invention is to provide an intelligent base box that supports distributed energy storage and adaptive charging, so as to solve the problems raised in the above background technology.

[0007] To achieve the above-mentioned purpose, the purpose of the present invention is to provide an intelligent bottom box supporting distributed energy storage adaptive charging, including a bottom box body, a threading slot hole is provided at the end of the bottom box body, a sealing box is provided inside the bottom box body, a rechargeable battery is provided inside the sealing box, auxiliary ears are provided on both sides of the top of the sealing box, and a clamping component is provided on the side wall of the bottom box body, and the clamping component is used to clamp and fix the sealing box, through grooves are opened on both sides of the sealing box, and ventilation components are provided on both sides of the sealing box, and the ventilation components are used to close the through grooves to prevent dust from accumulating on the surface of the rechargeable battery, and a cushioning component is provided at the bottom of the sealing box, and the cushioning component is used to cushion the rechargeable battery placed in the sealing box so that the bottom of the rechargeable battery is away from the sealing box. At the same time, the cushioning component drives the ventilation component to rotate during the process of cushioning the rechargeable battery, so that the through grooves provided on the side wall of the sealing box are exposed to the outside, and a degassing component is provided inside the bottom box body, and the degassing component is used to blow air to dissipate heat from the rechargeable battery.

[0008] As a further improvement of the present technical solution, the clamping assembly includes a first screw rod rotatably arranged inside the bottom box body, the thread on the surface of the first screw rod is symmetrical, and the surface of the first screw rod is provided with symmetrical clamping plates. Rotating the first screw rod drives the clamping plates to move relative to each other to clamp the two sides of the sealing box.

[0009] As a further improvement of the technical solution, a step block is provided on the inner surface of the clamping plate, and the step block moves to the bottom of the auxiliary ear to support it, and at the same time, the side wall of the step block is fitted and clamped with the surface of the sealing box.

[0010] As a further improvement of the technical solution, the ventilation assembly includes a support rod, a sealing plate is rotatably provided on the surface of the support rod, an elastic member is provided on the surface of the support rod, and two sides of the elastic member are respectively fixed to the sealing plate and the side wall of the sealing box.

[0011] As a further improvement of the technical solution, a symmetrical groove is provided at the bottom of the sealing plate, and a meshing gear is provided in the groove. Under natural light, the sealing plate is acted upon by the elastic member to seal the through groove, thereby preventing external dust from accumulating on the surface of the rechargeable battery.

[0012] As a further improvement of the present technical solution, the cushioning assembly includes a fixed box arranged at the bottom of the sealing box, a servo motor is arranged in the fixed box, a driving gear is arranged at the output end of the servo motor, symmetrical driven gears are meshed on both sides of the driving gear, rotating screws are arranged at the ends of the driven gears, a rack rod is arranged on the surface of the rotating screw rod, and when the rack rod moves, it drives the meshing gears to mesh and rotate.

[0013] As a further improvement of the technical solution, a slot is provided at the bottom of the sealing box, a slope block is provided in the slot, and a pad is provided at the end of the rack rod, and the rack rod is pushed to drive the pad to slide on the surface of the slope block.

[0014] As a further improvement of the technical solution, the slope of the bottom of the cushion block is adapted to the slope block, and the top of the cushion block and the bottom of the sealing box are at the same level in a natural state.

[0015] As a further improvement of the present technical solution, the degassing assembly includes a fan, a ventilation net is provided at the end of the fan, dry particles are placed inside the ventilation net, and the dry particles occupy 1 / 5 of the internal volume of the ventilation net, a connecting sleeve is provided at the end of the fan, a rotating arm is provided at the end of the connecting sleeve, the rotating arm passes through the ventilation net and rotates inside it, and a stirring rod is provided on the surface of the rotating arm.

[0016] Compared with the prior art, the present invention has the following beneficial effects: 1. In the intelligent bottom box supporting distributed energy storage adaptive charging, when the external power outage occurs and the rechargeable battery is used for power supply, the servo motor drives the driving gear to rotate, and the driven gears provided on both sides of the driving gear mesh and rotate. During the rotation of the driven gear, the rotating screw provided at the end thereof rotates, and a rack rod is provided on the surface of the rotating screw rod, and the rack rod moves on the surface of the rotating screw rod. During the movement of the rotating screw rod, the rack rod drives the driven gear to mesh and rotate, so that the sealing plate automatically opens and is perpendicular to the sealing box, so that the side wall of the rechargeable battery is completely exposed to the outside, and the heat generated during the discharge of the battery is accelerated to dissipate heat. During the power outage, low-power electrical appliances can still be used through the discharge of the rechargeable battery, thereby improving the quality of life.

[0017] 2. In the intelligent bottom box that supports distributed energy storage and adaptive charging, the top of the pad block is at the same level as the bottom of the sealed box. During the movement of the rack rod, the sealing plate is driven to rotate so that the side wall of the rechargeable battery is exposed to the outside to improve heat dissipation. At the same time, the rack rod drives the pad block to slide on the surface of the slope block and shovel the bottom of the rechargeable battery to keep the bottom of the battery away from the bottom of the sealed box, thereby increasing the contact area between the bottom of the rechargeable battery and the external air, thereby dissipating heat from the rechargeable battery in all directions and improving the service life of the rechargeable battery.

[0018] 3. In the intelligent bottom box that supports distributed energy storage and adaptive charging, the fan drives the connecting sleeve to rotate during the rotation process, and the connecting sleeve drives the rotating arm to rotate. The rotating arm rotates inside the ventilation net. Since dry particles are placed inside the ventilation net, the water vapor in the air inside the bottom box body can be adsorbed. When the rotating arm rotates and drives the stirring rod to stir the dry particles, the contact area between the dry particles and the water vapor in the air is increased, thereby improving the absorption efficiency of the water vapor in the bottom box body. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a cross-sectional view of the overall structure of the present invention; Figure 2 It is a schematic diagram of the overall structure of the present invention; Figure 3 It is a schematic diagram of the sealing box structure of the present invention; Figure 4 It is a schematic diagram of the structure of the clamping assembly of the present invention; Figure 5 It is a schematic diagram of the structure of the ventilation assembly of the present invention; Figure 6 It is a schematic diagram of the sealing box structure of the present invention; Figure 7 It is a schematic diagram of the structure of the cushioning assembly of the present invention; Figure 8 It is a schematic diagram of the structure of the steam removal component of the present invention; Fig. 9 This is a diagram showing the replacement of the bottom box body of the present invention.

[0020] The meaning of each number in the figure is: 100, bottom box body; 101, threading slot; 200, sealed box; 201, rechargeable battery; 202, auxiliary ear; 300, clamping assembly; 301, first screw rod; 302, clamping plate; 303, step block; 400, ventilation assembly; 401, support rod; 402, sealing plate; 403, elastic member; 404, meshing gear; 500, padding assembly; 501, driving gear; 502, driven gear; 503, rotating screw rod; 504, rack rod; 505, pad; 600, degassing assembly; 601, fan; 602, ventilation net; 603, rotating arm; 604, stirring rod. DETAILED DESCRIPTION

[0021] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. 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 creative work are within the scope of protection of the present invention.

[0022] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise" and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as a limitation on the present invention.

[0023] The purpose of this embodiment is to provide a smart base box that supports distributed energy storage and adaptive charging. Figure 1-Figure 9 As shown, the bottom box body 100 includes a bottom box body 100, a threading slot 101 is provided at the end of the bottom box body 100, a sealing box 200 is provided inside the bottom box body 100, a rechargeable battery 201 is provided inside the sealing box 200, auxiliary ears 202 are provided on both sides of the top of the sealing box 200, a clamping assembly 300 is provided on the side wall of the bottom box body 100, the clamping assembly 300 is used to clamp and fix the sealing box 200, through grooves are opened on both sides of the sealing box 200, and ventilation assemblies 400 are provided on both sides of the sealing box 200, and the ventilation assembly 400 is used to seal the through groove to prevent dust from entering. Dust accumulates on the surface of the rechargeable battery 201. A raising component 500 is provided at the bottom of the sealing box 200. The raising component 500 is used to raise the rechargeable battery 201 placed in the sealing box 200 so that the bottom of the rechargeable battery 201 is away from the sealing box 200. At the same time, the raising component 500 drives the ventilation component 400 to rotate during the process of raising the rechargeable battery 201, so that the through grooves provided on the side walls of the sealing box 200 are exposed to the outside. A degassing component 600 is provided inside the bottom box body 100. The degassing component 600 is used to blow air to dissipate heat for the rechargeable battery 201.

[0024] In actual use, different smart bottom boxes can be connected in series to form a battery system with a larger capacity, which specifically involves the following steps: Determine the voltage and capacity requirements of the batteries in series, calculate the voltage and capacity of each dark box battery to ensure that the total voltage and total capacity meet the requirements, select batteries with the same voltage and chemical properties to avoid mismatch problems when connected in series, use appropriate wires to connect the positive terminal of the battery in each dark box to the negative terminal of the next dark box to achieve series connection, ensure that the connection is firm and meets the current and voltage requirements, and install a battery management system, integrate a battery management system (BMS) to monitor and manage the charging and discharging status of the battery, which helps to balance the charge of each battery and prevent overcharging or over-discharging, and use fuses or overcurrent protectors to prevent overload, properly package and install all dark boxes of batteries in series, ensure the stability and safety of the battery system during use, and regularly check the operating status of the battery system, monitor the health and performance of the battery, and perform necessary maintenance.

[0025] By connecting the small batteries of multiple smart dark boxes in series into a larger battery system, it can meet higher power demands, while providing longer usage time and higher total energy reserves, meet high voltage requirements, support higher power devices, and enable household appliances to operate normally during power outages.

[0026] The improvement of this embodiment is that the driving gear 501 is driven to rotate by the servo motor, and the driven gears 502 provided on both sides of the driving gear 501 are meshed and rotated. During the rotation of the driven gear 502, the rotating screw rod 503 provided at the end thereof rotates, and a rack rod 504 is provided on the surface of the rotating screw rod 503, and the rack rod 504 moves on the surface of the rotating screw rod 503. During the movement of the rotating screw rod 503, the rack rod 504 drives the driven gear 502 to mesh and rotate, so that the sealing plate 402 is automatically opened and perpendicular to the sealing box 200, so that the side wall of the rechargeable battery 201 is completely exposed to the outside, and the heat generated during the discharge of the battery is accelerated. The rack rod 504 drives the pad 505 to slide on the surface of the slope block and shovels the bottom of the rechargeable battery 201, so that the bottom of the battery is away from the bottom of the sealing box 200, thereby increasing the contact area between the bottom of the rechargeable battery 201 and the external air, thereby performing multi-directional heat dissipation on the rechargeable battery 201 and improving the service life of the rechargeable battery 201.

[0027] Taking into account that the rechargeable battery 201 often needs to be replaced due to its limited service life during use, in order to facilitate the quick replacement of the rechargeable battery 201, the clamping assembly 300 includes a first screw rod 301 rotatably arranged inside the bottom box body 100, the surface thread of the first screw rod 301 is symmetrical, and the surface of the first screw rod 301 is provided with symmetrical clamping plates 302. Rotating the first screw rod 301 drives the clamping plates 302 to move relative to clamp the two sides of the sealing box 200. When the battery needs to be replaced, by rotating the first screw rod 301, the symmetrical clamping plates 302 on both sides of the surface of the first screw rod 301 move away from each other, causing the sealing box 200 to fall, and by pulling the rechargeable battery 201 placed inside the sealing box 200, the rechargeable battery 201 can be quickly replaced, thereby improving the replacement efficiency.

[0028] During the clamping process of the sealed box 200, since the rechargeable battery 201 is heavy, in order to prevent the sealed box 200 from slipping due to excessive force during the clamping process, resulting in damage to the rechargeable battery 201 inside the sealed box 200 and affecting its service life, a step block 303 is provided on the inner surface of the clamping plate 302, and the step block 303 moves to align with the bottom of the auxiliary ear 202 for support. At the same time, the side wall of the step block 303 is fitted and clamped with the surface of the sealed box 200, and the clamping plate 302 drives the step block 303 to move and fit to both sides of the sealed box 200, and the bottom of the auxiliary ear 202 is supported by the step block 303. At the same time, the side wall of the step block 303 clamps the sealed box 200, and the sealed box 200 is limited and fixed in different force directions, thereby improving the stability of the sealed box 200, preventing the sealed box 200 from falling and causing damage to the rechargeable battery 201, and improving the service life of the rechargeable battery 201; During the movement of the rack rod 504, the sealing plate 402 is driven to rotate so that the side wall of the rechargeable battery 201 is exposed to the outside to improve heat dissipation. At the same time, the pad 505 slides on the surface of the slope block and scoops up the bottom of the rechargeable battery 201, so that the bottom of the battery is away from the bottom of the sealing box 200, thereby increasing the contact area between the bottom of the rechargeable battery 201 and the external air, thereby dissipating heat from the rechargeable battery 201 in multiple directions and improving the service life of the rechargeable battery 201.

[0029] When the external power is cut off, the rechargeable battery 201 is used to supply power to external low-power electrical appliances, such as lamps. When the rechargeable battery 201 is discharged, a lot of heat energy is generated on its surface. When the temperature is too high, it is easy to cause the performance of the rechargeable battery 201 to decline, and may also reduce its service life. Therefore, the ventilation component 400 includes a support rod 401, and a sealing plate 402 is rotatably provided on the surface of the support rod 401. An elastic member 403 is provided on the surface of the support rod 401. Both sides of the elastic member 403 are respectively fixed to the sealing plate 402 and the side wall of the sealing box 200. The sealing plate 402 Symmetrical grooves are provided at the bottom, and meshing gears 404 are provided in the grooves. Under natural light conditions, the sealing plate 402 is sealed at the through grooves by the force of the elastic member 403, thereby preventing external dust from accumulating on the surface of the rechargeable battery 201. When the external power outage occurs and the rechargeable battery 201 is used for power supply, the sealing plate 402 is rotated on the surface of the support rod 401 so that the sealing plate 402 and the side wall of the sealing box 200 are perpendicular to each other, thereby making the side wall of the rechargeable battery 201 completely exposed to the outside, thereby increasing the heat dissipation efficiency of the rechargeable battery 201 and thus improving the service life of the rechargeable battery 201.

[0030] When the rechargeable battery 201 is used to power the electrical appliance during a power outage, in order to facilitate the automatic opening of the sealing plate 402 to dissipate heat from the rechargeable battery 201, the cushioning component 500 includes a fixed box arranged at the bottom of the sealing box 200, a servo motor is arranged in the fixed box, a driving gear 501 is arranged at the output end of the servo motor, symmetrical driven gears 502 are meshed on both sides of the driving gear 501, and rotating screw rods 503 are arranged at the ends of the driven gears 502, and rack rods 504 are arranged on the surface of the rotating screw rods 503. When the rack rods 504 move, they drive the meshing gears 404 to mesh and rotate. A slot is opened at the bottom of the interior of the sealing box 200, a slope block is arranged in the slot, and a pad block 505 is arranged at the end of the rack rod 504. The rack rod 504 is pushed to drive the pad block 505 to rotate. 05 slides on the surface of the slope block. When it is used specifically, the servo motor drives the driving gear 501 to rotate, and the driven gears 502 provided on both sides of the driving gear 501 mesh and rotate. During the rotation of the driven gear 502, the rotating screw rod 503 provided at the end thereof rotates, and a rack rod 504 is provided on the surface of the rotating screw rod 503. The rack rod 504 moves on the surface of the rotating screw rod 503. During the movement of the rotating screw rod 503, the rack rod 504 drives the driven gear 502 to mesh and rotate, so that the driven gear 502 drives the sealing plate 402 to rotate, so that the sealing plate 402 automatically opens and is perpendicular to the sealing box 200, thereby avoiding the large amount of heat generated during the discharge of the battery and the inability to quickly dissipate the heat, which affects the service life of the rechargeable battery 201.

[0031] Considering that the bottom of the rechargeable battery 201 is in contact with the sealing box 200 during the discharge process, resulting in poor heat dissipation at the bottom, in order to improve the overall heat dissipation efficiency of the rechargeable battery 201, a slot is provided at the bottom of the sealing box 200, and a slope block is provided in the slot. A pad 505 is provided at the end of the rack rod 504. The rack rod 504 is pushed to drive the pad 505 to slide on the surface of the slope block. The screw rod 503 is rotated to drive the rack rod 504 provided on the surface to move horizontally. The pad 505 provided at the end of the rack rod 504 moves on the surface of the slope block provided in the slot. The slope of the bottom of 05 is adapted to the slope block. In the natural state, the top of the cushion block 505 is at the same level as the bottom of the sealing box 200. When the rack rod 504 moves, it drives the sealing plate 402 to rotate so that the side wall of the rechargeable battery 201 is exposed to the outside to improve heat dissipation. At the same time, the cushion block 505 slides on the surface of the slope block and scoops up the bottom of the rechargeable battery 201, so that the bottom of the battery is away from the bottom of the sealing box 200, increasing the contact area between the bottom of the rechargeable battery 201 and the external air, thereby dissipating heat from the rechargeable battery 201 in all directions and improving the service life of the rechargeable battery 201.

[0032] Considering that there is a lot of water vapor in the air, when there is too much water vapor inside the bottom box body 100, it is easy to affect the energy storage efficiency of the rechargeable battery 201. In order to improve the energy storage efficiency of the rechargeable battery 201, the degassing component 600 includes a fan 601, and a ventilation net 602 is provided at the end of the fan 601. Dry particles are placed inside the ventilation net 602, and the dry particles occupy 1 / 5 of the internal volume of the ventilation net 602. A connecting sleeve is provided at the end of the fan 601, and a rotating arm 603 is provided at the end of the connecting sleeve. The rotating arm 603 penetrates the ventilation net 602 and rotates inside it. A stirring rod 604 is provided on the surface of the rotating arm 603. By starting the fan 601, air is blown to the inside of the bottom box body 100. The air circulation between the bottom box body 100 and the outside is accelerated, thereby quickly reducing the internal temperature of the bottom box body 100, so that the rechargeable battery 201 is always kept at room temperature during the discharge process, thereby increasing the service life of the rechargeable battery 201. The fan 601 drives the connecting sleeve to rotate during the rotation process, and the connecting sleeve drives the rotating arm 603 to rotate. The rotating arm 603 rotates inside the ventilation net 602. Since dry particles are placed inside the ventilation net 602, it can absorb water vapor in the air inside the bottom box body 100. When the rotating arm 603 rotates and drives the stirring rod 604 to stir the dry particles, the contact area between the dry particles and the water vapor in the air is increased, thereby improving the absorption efficiency of the water vapor in the bottom box body 100 and improving the energy storage efficiency of the rechargeable battery 201.

[0033] In summary, the working principle of the present invention is as follows: by rotating the first screw rod 301, when the first screw rod 301 rotates, the symmetrical clamping plates 302 on both sides of the surface thereof move apart, so that the sealing box 200 falls off, and the rechargeable battery 201 placed inside the sealing box 200 is pulled up, so as to complete the rapid replacement of the rechargeable battery 201. When the circuit is powered off, in order to meet the daily power demand, the rechargeable battery 201 is discharged, and the sealing plate 402 is sealed at the through groove by the force of the elastic member 403 to prevent external dust from accumulating on the surface of the rechargeable battery 201. When the external power is off, the rechargeable battery 201 is used for power supply, and the driving gear 501 is driven to rotate by the servo motor, and the driving gear 501 is provided with a symmetrical clamping plate 302 on both sides. The driven gear 502 meshes and rotates. During the rotation of the driven gear 502, the rotating screw rod 503 at its end rotates. A rack rod 504 is provided on the surface of the rotating screw rod 503. The rack rod 504 moves on the surface of the rotating screw rod 503. During the movement of the rotating screw rod 503, the rack rod 504 drives the driven gear 502 to mesh and rotate, so that the driven gear 502 drives the sealing plate 402 to rotate, so that the sealing plate 402 automatically opens and is perpendicular to the sealing box 200, thereby avoiding the large amount of heat generated during the discharge of the battery and failing to dissipate the heat quickly, so that the side wall of the rechargeable battery 201 is completely exposed to the outside, thereby increasing the heat dissipation efficiency of the rechargeable battery 201 and thus improving the service life of the rechargeable battery 201. By starting the fan 601 to blow air into the bottom box body 100, the air circulation between the inside and outside of the bottom box body 100 is accelerated, thereby quickly reducing the internal temperature of the bottom box body 100. The bottom box body 100 can be replaced by Fig. 9 , so that the rechargeable battery 201 is always kept at room temperature during the discharge process, thereby increasing the service life of the rechargeable battery 201. The fan 601 drives the connecting sleeve to rotate during the rotation process, and the connecting sleeve drives the rotating arm 603 to rotate. The rotating arm 603 rotates inside the ventilation net 602. Since dry particles are placed inside the ventilation net 602, it can absorb water vapor in the air inside the bottom box body 100. When the rotating arm 603 rotates and drives the stirring rod 604 to stir the dry particles, the contact area between the dry particles and the water vapor in the air is increased, thereby improving the absorption efficiency of the water vapor in the bottom box body 100.

[0034] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. The above embodiments and descriptions are only preferred examples of the present invention and are not intended to limit the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A smart bottom box supporting distributed energy storage and adaptive charging, characterized by: The invention comprises a bottom box body (100), wherein an end of the bottom box body (100) is provided with a threading slot (101), a sealing box (200) is provided inside the bottom box body (100), a rechargeable battery (201) is provided inside the sealing box (200), auxiliary ears (202) are provided on both sides of the top of the sealing box (200), a clamping assembly (300) is provided on the side wall of the bottom box body (100), the clamping assembly (300) is used to clamp and fix the sealing box (200), through slots are provided on both sides of the sealing box (200), ventilation assemblies (400) are provided on both sides of the sealing box (200), and the ventilation assemblies (400) are used to seal the through slots. To prevent dust from accumulating on the surface of the rechargeable battery (201), a cushioning component (500) is provided at the bottom of the sealed box (200), and the cushioning component (500) is used to cushion the rechargeable battery (201) placed in the sealed box (200), so that the bottom of the rechargeable battery (201) is away from the sealed box (200). At the same time, the cushioning component (500) drives the ventilation component (400) to rotate during the process of cushioning the rechargeable battery (201), so that the through grooves provided on the side wall of the sealed box (200) are exposed to the outside. A degassing component (600) is provided inside the bottom box body (100), and the degassing component (600) is used to blow air to dissipate heat from the rechargeable battery (201).

2. The intelligent bottom box supporting distributed energy storage and adaptive charging according to claim 1 is characterized in that: The clamping assembly (300) comprises a first screw rod (301) rotatably arranged inside the bottom box body (100), the first screw rod (301) having a symmetrical surface thread, and a symmetrical clamping plate (302) provided on the surface of the first screw rod (301). The first screw rod (301) is rotated to drive the clamping plate (302) to move relative to each other to clamp the two sides of the sealing box (200).

3. The intelligent bottom box supporting distributed energy storage and adaptive charging according to claim 2 is characterized in that: The inner surface of the clamping plate (302) is provided with a step block (303), and the step block (303) moves to the bottom of the auxiliary ear (202) to support it, while the side wall of the step block (303) is fitted and clamped with the surface of the sealing box (200).

4. The intelligent bottom box supporting distributed energy storage and adaptive charging according to claim 1 is characterized in that: The ventilation assembly (400) comprises a support rod (401), a sealing plate (402) being rotatably provided on the surface of the support rod (401), an elastic member (403) being provided on the surface of the support rod (401), and two sides of the elastic member (403) being respectively fixed to the sealing plate (402) and the side wall of the sealing box (200).

5. The intelligent bottom box supporting distributed energy storage and adaptive charging according to claim 4 is characterized in that: The bottom of the sealing plate (402) is provided with a symmetrical groove, and a meshing gear (404) is provided in the groove. Under natural light conditions, the sealing plate (402) is acted upon by the elastic member (403) to seal the through groove, thereby preventing external dust from accumulating on the surface of the rechargeable battery (201).

6. The intelligent bottom box supporting distributed energy storage and adaptive charging according to claim 1 is characterized in that: The cushioning assembly (500) comprises a fixed box arranged at the bottom of the sealing box (200), a servo motor being arranged in the fixed box, a driving gear (501) being arranged at the output end of the servo motor, symmetrical driven gears (502) being arranged in meshing relationship on both sides of the driving gear (501), a rotating screw rod (503) being arranged at the end of each driven gear (502), a rack rod (504) being arranged on the surface of the rotating screw rod (503), and the rack rod (504) driving the meshing gear (404) to mesh and rotate when the rack rod (504) moves.

7. The intelligent bottom box supporting distributed energy storage and adaptive charging according to claim 6 is characterized in that: The sealing box (200) has a slotted hole at its inner bottom, a slope block is provided in the slotted hole, and a cushion block (505) is provided at the end of the rack rod (504). The rack rod (504) is pushed to drive the cushion block (505) to slide on the surface of the slope block.

8. The intelligent bottom box supporting distributed energy storage and adaptive charging according to claim 7 is characterized in that: The slope of the bottom of the cushion block (505) matches the slope block, and in a natural state, the top of the cushion block (505) and the bottom of the sealing box (200) are at the same level.

9. The intelligent bottom box supporting distributed energy storage and adaptive charging according to claim 1 is characterized in that: The degassing component (600) comprises a fan (601), a ventilating net (602) is provided at the end of the fan (601), dry particles are contained inside the ventilating net (602), and the dry particles occupy 1 / 5 of the internal volume of the ventilating net (602), a connecting shaft sleeve is provided at the end of the fan (601), a rotating arm (603) is provided at the end of the connecting shaft sleeve, the rotating arm (603) penetrates the ventilating net (602) and rotates inside the ventilating net, and a stirring rod (604) is provided on the surface of the rotating arm (603).

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