Multi-source power square cabin convenient to move

Abstract

The utility model relates to a power square cabin, in particular to a multi-source power square cabin convenient to move, which comprises a frame, rollers, two vertical partition plates, a transverse partition plate and a fuel generator, the rollers are mounted on the frame, the two vertical partition plates are fixedly connected inside the frame, the transverse partition plate is fixedly connected between the two vertical partition plates, and the fuel generator is mounted on the frame. And a fuel generator is mounted on one side of the frame. When the wind power condition is good, electric energy generated by operation of the wind power generation module is converted into direct current through the rectifier and then stored in the electric power storage module, and therefore the purpose of storing the energy of the power shelter through wind energy is achieved. When the illumination condition is sufficient, the photovoltaic panel assembly converts solar energy into electric energy and stores the electric energy into the electric power storage module, so that the purpose of storing the energy of the power square cabin by using the solar energy is achieved, multi-source energy supply is realized, and the continuity and stability of electric power supply are ensured.

Description

Technical Field

[0001] This utility model relates to a power cabin, and more particularly to a multi-source power cabin that is easy to move. Background Technology

[0002] Mobile power units are power units that can be easily transported and deployed in different locations. They are typically used in situations requiring flexible power supply, such as emergency rescue, construction sites, military operations, and temporary or backup power supply in remote areas. They can meet different application needs and include various types of power generation equipment and related auxiliary systems.

[0003] In the event of natural disasters or other emergencies, power infrastructure can cause power outages. Mobile powered cabins can be rapidly deployed to affected areas to provide much-needed power support and help restore critical services such as communications, lighting, and medical care. However, most powered cabins use fossil fuels as their energy source, resulting in a strong dependence on a single energy source and an inability to adapt to different environments and application scenarios. Furthermore, the combustion of fossil fuels produces large amounts of carbon dioxide and other harmful gases, and uninterrupted power supply cannot be guaranteed when the energy conversion system of fossil fuels malfunctions.

[0004] Therefore, it is necessary to design a mobile multi-source powered container. Utility Model Content

[0005] To overcome the shortcomings of most powered modular housings using fossil fuels as their energy source, which leads to a strong dependence on a single energy source, an inability to adapt to different environments and application scenarios, the production of large amounts of carbon dioxide and other harmful gases during fossil fuel combustion, and the inability to ensure uninterrupted power supply when the energy conversion system of fossil fuels fails, the technical problem to be solved is to provide a mobile multi-source powered modular housing.

[0006] The technical solution is as follows: A mobile multi-source power container includes a frame, rollers, vertical partitions, horizontal partitions, a fuel generator, a control panel, an energy storage module, an inverter, and a rectifier. Multiple rollers are mounted on the frame. Two vertical partitions are fixedly connected inside the frame, and a horizontal partition is fixedly connected between the two vertical partitions. A fuel generator is mounted on one side of the frame, and a control panel is mounted on the fuel generator. An energy storage module is mounted on the other side of the frame, and an inverter and a rectifier are mounted on the energy storage module. The container also includes an electric telescopic mast, a wind power generation module, guide rails, sliding rods, and screws. The vehicle consists of a first worm gear, a rotating rod, a first worm, a mounting base, and a solar power generation module. An electric telescopic rod is mounted on one side of the frame, and a wind power generation module is mounted on the output end of the electric telescopic rod. A guide rail is mounted on the transverse partition, and a sliding rod is slidably mounted on the guide rail. A screw runs through the transverse partition, and the screw is threadedly connected to the sliding rod. The end of the screw away from the sliding rod is fixedly connected to the first worm gear. A rotating rod is rotatably mounted on one side of the frame, and a first worm is mounted on the rotating rod. The first worm meshes with the first worm gear for transmission. A mounting base is fixedly mounted on the sliding rod, and a solar power generation module that converts solar energy into electrical energy is mounted on the mounting base.

[0007] Furthermore, the solar power generation module includes a rotating shaft, a connecting shaft, a second worm gear, a second worm wheel, a first photovoltaic panel assembly, a first limiting block, a second photovoltaic panel assembly, a second limiting block, and a third photovoltaic panel assembly. Rotating shafts extend through both sides of the mounting base. A connecting shaft is rotatably mounted on one side of the mounting base. Second worm gears are fixed to both ends of the connecting shaft. A second worm wheel is fixed to the end of the rotating shaft near the connecting shaft. The second worm gear and the second worm wheel mesh and drive each other. A first photovoltaic panel assembly is fixed to the rotating shaft. First limiting blocks are fixed to both sides of the first photovoltaic panel assembly. A second photovoltaic panel assembly is slidably mounted between the two first limiting blocks. Second limiting blocks are fixed to both sides of the second photovoltaic panel assembly. A third photovoltaic panel assembly is slidably mounted between the two second limiting blocks.

[0008] Furthermore, the input of the inverter is electrically connected to the output of the energy storage module, the outputs of the fuel generator and the wind power generation module are electrically connected to the input of the rectifier, and the outputs of the first photovoltaic panel, the second photovoltaic panel, and the third photovoltaic panel are all connected to the input of the energy storage module.

[0009] Furthermore, it also includes a mounting plate, guide rods, support plates, and elastic elements. Mounting plates are installed on both sides of the sliding rod, and guide rods are fixedly connected to the mounting plates. Two support plates are slidably installed on the two guide rods. The two support plates slide at both ends of the guide rods respectively. Elastic elements connect the support plates to the mounting plates, and the support plates are snapped into the third photovoltaic panel module.

[0010] Furthermore, it also includes a conduit, a surface cooler, a mounting housing, and fans. The conduit is wrapped around the outside of the energy storage module. The surface cooler is installed on the side of the frame away from the fuel generator. The two ends of the conduit pass through the frame and the output and input ends of the surface cooler, respectively, and are connected and communicated. The mounting housing is installed on the side of the surface cooler away from the frame, and two fans are installed on the mounting housing.

[0011] Furthermore, it also includes a cover plate, which is installed on one side of the frame and covers the fuel generator.

[0012] Furthermore, it also includes a tow hook, which is installed on the frame and located below the cover plate.

[0013] The beneficial effects of this utility model are as follows: 1. The fuel generator is started by controlling the panel, thereby achieving the purpose of storing energy in the power cabin using fuel. When the wind conditions are good, the electrical energy generated by the wind power generation module is converted into DC power by the rectifier and stored in the energy storage module, thereby achieving the purpose of storing energy in the power cabin using wind energy. When the sunlight conditions are sufficient, the photovoltaic panel converts solar energy into electrical energy and stores the electrical energy in the energy storage module, thereby achieving the purpose of storing energy in the power cabin using solar energy, so as to realize multi-source energy supply and thus ensure the continuity and stability of power supply.

[0014] 2. When it is necessary to store the photovoltaic panel modules, the first, second, and third photovoltaic panel modules are limited by the support plate and elastic elements, which facilitates the storage of the photovoltaic panel modules.

[0015] 3. When the battery is charging and discharging, the battery storage module uses a fan to dissipate heat from the surface cooler and conduits, thereby removing heat from the battery and extending its lifespan. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the three-dimensional structure of this novel invention.

[0017] Figure 2 This is a three-dimensional sectional view of the vehicle frame, fuel generator, and control panel of this utility model.

[0018] Figure 3 This is a three-dimensional sectional view of the frame, guide rail, and sliding rod of this utility model.

[0019] Figure 4 This is a three-dimensional sectional view of the mounting base, rotating shaft, and connecting shaft of this utility model.

[0020] Figure 5 This is a three-dimensional sectional view of the guide rail, sliding rod, and support plate of this utility model.

[0021] Figure 6This is a three-dimensional sectional view of the vehicle frame, energy storage module, and surface cooler of this utility model.

[0022] Figure 7 This is a three-dimensional sectional view of the surface cooler, mounting shell, and fan of this utility model.

[0023] Reference numerals: 1-Frame, 2-Roller, 3-Vertical partition, 301-Horizontal partition, 4-Fuel generator, 5-Control panel, 6-Energy storage module, 601-Inverter, 602-Rectifier, 7-Electric telescopic rod, 8-Wind power generation module, 9-Guide rail, 10-Sliding rod, 11-Screw, 12-First worm gear, 13-Rotating rod, 14-First worm gear, 15-Mounting base, 16-Rotating shaft, 17-Connecting shaft, 18-Second worm gear, 19-Second worm wheel, 20-First photovoltaic panel assembly, 21-First limiting block, 22-Second photovoltaic panel assembly, 23-Second limiting block, 24-Third photovoltaic panel assembly, 25-Mounting plate, 26-Guide rod, 27-Support plate, 28-Elastic element, 29-Traction buckle, 30-Conduit, 31-Surface cooler, 32-Mounting shell, 33-Fan, 34-Cover plate. Detailed Implementation

[0024] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0025] Example 1: A mobile multi-source powered container, see reference. Figures 1-6As shown, the system includes a frame 1, rollers 2, vertical partitions 3, horizontal partitions 301, a fuel generator 4, a control panel 5, an energy storage module 6, and an inverter 601. Multiple rollers 2 are mounted on the frame 1. Two vertical partitions 3 are fixedly connected inside the frame 1, and a horizontal partition 301 is fixedly connected between the two vertical partitions 3. The fuel generator 4 is bolted to the right side of the frame 1. A cover plate 34 is installed on the top right side of the frame 1, covering the fuel generator 4 and protecting it from malfunction due to moisture. The control panel 5 is mounted on the fuel generator 4. The energy storage module 6 is bolted to the left side of the frame 1, and an inverter 601 is mounted on the energy storage module 6. A rectifier 602 is installed on the energy storage module 6. An electric telescopic mast 7 is mounted on one side of the frame 1, and a wind power generation module is mounted on the output end of the electric telescopic mast 7. Block 8, the wind power generation module 8, consists of blades, hub, generator, gearbox and yaw system. A guide rail 9 is installed on the transverse partition 301 by bolt connection. A sliding rod 10 is slidably installed on the guide rail 9. A screw 11 passes through the transverse partition 301 and is threadedly connected to the sliding rod 10. A first worm gear 12 is fixedly connected to the lower end of the screw 11. The first worm gear 12 is located between the lower part of the frame 1 and the transverse partition 301. A rotating rod 13 is rotatably installed on one side of the frame 1. A first worm gear 14 is installed on the rotating rod 13. The first worm gear 14 meshes with the first worm gear 12 for transmission. A mounting seat 15 is fixedly connected to the sliding rod 10. A solar power generation module that converts solar energy into electrical energy is installed on the mounting seat 15. A tow hook 29 is installed on the right side of the frame 1. The tow hook 29 is located below the cover plate 34. The tow hook 29 is used to connect the frame 1 to the vehicle to facilitate the movement of the power container.

[0026] See Figures 3-6As shown, the solar power generation module includes a rotating shaft 16, a connecting shaft 17, a second worm gear 18, a second worm wheel 19, a first photovoltaic panel assembly 20, a first limiting block 21, a second photovoltaic panel assembly 22, a second limiting block 23, and a third photovoltaic panel assembly 24. The rotating shaft 16 extends through both sides of the mounting base 15. A connecting shaft 17 is rotatably mounted on one side of the mounting base 15. The second worm gear 18 is fixedly connected to both ends of the connecting shaft 17 via keys. A second worm wheel 19 is fixedly connected to the front end of the rotating shaft 16. The second worm gear 18 and the second worm wheel 19 mesh and drive each other. The first photovoltaic panel assembly 20 is fixedly connected to the rotating shaft 16. A first limiting block 21 is fixedly connected to both the front and rear sides of the photovoltaic panel assembly 20. A second photovoltaic panel assembly 22 is slidably arranged between the two first limiting blocks 21. A second limiting block 23 is fixedly connected to both the front and rear sides of the second photovoltaic panel assembly 22. A third photovoltaic panel assembly 24 is slidably arranged between the two second limiting blocks 23. The input of the inverter 601 is electrically connected to the output of the energy storage module 6. The outputs of the fuel generator 4 and the wind power generation module 8 are electrically connected to the input of the rectifier 602. The outputs of the first photovoltaic panel assembly 20, the second photovoltaic panel assembly 22 and the third photovoltaic panel assembly 24 are all connected to the input of the energy storage module 6.

[0027] When the power cabin is needed, the frame 1 is pushed, causing the rollers 2 to roll on the ground and move to the designated location. For power supply, wires are connected to the positive and negative electrodes of the energy storage module 6, and the control panel 5 controls the energy storage module 6 to discharge, thus providing power. For energy storage, fuel is added to the fuel generator 4, which is then started via the control panel 5. The fuel generator 4 burns fuel, converting fossil fuel energy into electrical energy, which is then converted from alternating current to direct current by the rectifier 602 before being stored. This achieves the purpose of using fuel to store energy in the power cabin. When wind conditions are good, the electric telescopic mast is activated. 7. The output end of the electric telescopic pole 7 drives the wind power generation module 8 to move upward. When the wind passes through the wind power generation module 8, the electrical energy generated by the operation of the wind power generation module 8 is converted into DC power by the rectifier 602 and stored in the energy storage module 6, thereby achieving the purpose of using wind energy to store energy in the power cabin. When the sunlight conditions are sufficient, the rotating rod 13 is rotated, and the rotating rod 13 drives the first worm gear 14 to rotate. The first worm gear 14 drives the screw 11 to rotate through the first worm wheel 12. The rotation of the screw 11 drives the sliding rod 10 to slide upward along the guide rail 9. The sliding rod 10 drives the mounting base 15 to move upward. The mounting base 15 drives the first photovoltaic panel assembly through the rotating shaft 16. 20. The second photovoltaic panel assembly 22 and the third photovoltaic panel assembly 24 move upward. When the third photovoltaic panel assembly 24 moves upward until its bottom is higher than the top of the frame 1, the rotating rod 13 stops rotating, and the screw 11 stops driving the sliding rod 10 to move upward. Then, the connecting shaft 17 rotates, which drives the second worm gear 18 to rotate. The second worm gear 18 drives the second worm wheel 19 to rotate. The second worm wheel 19 drives the first photovoltaic panel assembly 20, the second photovoltaic panel assembly 22, and the third photovoltaic panel assembly 24 to rotate upward through the rotating shaft 16. When the first photovoltaic panel assembly 20 rotates upward to a horizontal state, the second photovoltaic panel assembly 22 and the third photovoltaic panel assembly 24 slide to both sides. Component 24 unfolds the second photovoltaic panel component 22 and the third photovoltaic panel component 24. The first limiting block 21 and the second limiting block 23 guide and limit the second photovoltaic panel component 22 and the third photovoltaic panel component 24, respectively. When sunlight shines on the first photovoltaic panel component 20, the second photovoltaic panel component 22 and the third photovoltaic panel component 24, the first photovoltaic panel component 20, the second photovoltaic panel component 22 and the third photovoltaic panel component 24 convert solar energy into electrical energy and store the electrical energy in the energy storage module 6, thereby achieving the purpose of using solar energy to store energy in the power cabin, so as to realize multi-source energy supply and ensure the continuity and stability of power supply.

[0028] Example 2: Based on Example 1, refer to Figure 5As shown, it also includes a mounting plate 25, a guide rod 26, a support plate 27, and an elastic element 28. The mounting plate 25 is installed on both sides of the sliding rod 10 by bolt connection. The guide rod 26 is fixed to the mounting plate 25 by welding. Two support plates 27 are slidably arranged on the two guide rods 26. The two support plates 27 slide at both ends of the guide rods 26 respectively. An elastic element 28 is connected between the support plate 27 and the mounting plate 25. The elastic element 28 is sleeved on the guide rod 26. The support plate 27 is snapped into the third photovoltaic panel module 24.

[0029] Initially, the support plate 27 is engaged with the third photovoltaic panel 24, and the elastic element 28 is stretched. When the photovoltaic panel needs to be unfolded, the third photovoltaic panel 24 moves upward until its bottom is higher than the top of the frame 1. Then, the third photovoltaic panel 24 is pushed upward to disengage it from the support plate 27. The elastic element 28 returns to its original state, causing the support plate 27 to slide inward, thus no longer limiting the third photovoltaic panel 24. When the photovoltaic panel needs to be folded up, the second photovoltaic panel 22 and the third photovoltaic panel 24 are slid together towards the mounting base 15, and then the connecting shaft 17 is rotated in the opposite direction. The connecting shaft 17 drives the first photovoltaic panel assembly 20 to rotate downwards via the second worm gear 18, the second worm wheel 19, and the rotating shaft 16. When the third photovoltaic panel assembly 24 approaches the support plate 27, it pulls the support plate 27 to both sides, causing the elastic element 28 of the support plate 27 to deform. When the third photovoltaic panel assembly 24 rotates to be perpendicular to the frame 1, the support plate 27 is released, and the elastic element 28 returns to its original shape, causing the support plate 27 to slide inwards and re-engage with the third photovoltaic panel assembly 24. This achieves the limitation of the first photovoltaic panel assembly 20, the second photovoltaic panel assembly 22, and the third photovoltaic panel assembly 24, making it convenient to store the photovoltaic panel assembly.

[0030] See Figure 6 and Figure 7 As shown, it also includes a conduit 30, a surface cooler 31, a mounting housing 32, and a fan 33. The conduit 30 is wrapped around the outside of the energy storage module 6. The surface cooler 31 is installed on the left side of the frame 1. The two ends of the conduit 30 pass through the frame 1 and the output and input ends of the surface cooler 31, respectively, and are connected and communicated. The mounting housing 32 is installed on the right side of the surface cooler 31 by bolt connection. Two fans 33 are installed on the mounting housing 32 by bolt connection.

[0031] First, coolant is filled into the conduit 30. When the battery module 6 is charging and discharging, the heat generated by the charging and discharging of the battery module 6 is transferred to the air, and then transferred to the conduit 30. The coolant in the conduit 30 circulates through the surface cooler 31. Then, the fan 33 is started. The fan 33 draws cold air into the surface cooler 31 and then exhausts the hot air generated inside the surface cooler 31 to the outside of the mounting shell 32, thereby removing the heat from the surface cooler 31 and the conduit 30, achieving the purpose of heat dissipation for the battery and extending the battery's service life.

[0032] The embodiments of the present invention have been described in detail above with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments. Within the scope of knowledge possessed by those skilled in the art, various changes can be made without departing from the spirit of the present invention.

Claims

1. A mobile multi-source power container, comprising a frame (1), rollers (2), vertical partitions (3), horizontal partitions (301), a fuel generator (4), a control panel (5), an energy storage module (6), an inverter (601), and a rectifier (602), wherein multiple rollers (2) are mounted on the frame (1), two vertical partitions (3) are fixedly connected inside the frame (1), and a horizontal partition (301) is fixedly connected between the two vertical partitions (3), a fuel generator (4) is mounted on one side of the frame (1), a control panel (5) is mounted on the fuel generator (4), an energy storage module (6) is mounted on the other side of the frame (1), an inverter (601) is mounted on the energy storage module (6), and a rectifier (602) is provided on the energy storage module (6), characterized in that: It also includes an electric telescopic rod (7), a wind power generation module (8), a guide rail (9), a sliding rod (10), a screw (11), a first worm gear (12), a rotating rod (13), a first worm gear (14), a mounting base (15), and a solar power generation module. An electric telescopic rod (7) is installed on one side of the frame (1), and a wind power generation module (8) is installed on the output end of the electric telescopic rod (7). A guide rail (9) is installed on the transverse partition (301), and a sliding rod (10) is slidably installed on the guide rail (9). A screw (11) runs through the 301), and the screw (11) is threadedly connected to the sliding rod (10). A first worm gear (12) is fixedly connected to the end of the screw (11) away from the sliding rod (10). A rotating rod (13) is rotatably set on one side of the frame (1). A first worm gear (14) is installed on the rotating rod (13). The first worm gear (14) meshes with the first worm gear (12) for transmission. A mounting seat (15) is fixedly connected to the sliding rod (10). A solar power generation module that converts solar energy into electrical energy is installed on the mounting seat (15).

2. The easily movable multi-source powered container as described in claim 1, characterized in that: The solar power generation module includes a rotating shaft (16), a connecting shaft (17), a second worm gear (18), a second worm wheel (19), a first photovoltaic panel assembly (20), a first limiting block (21), a second photovoltaic panel assembly (22), a second limiting block (23), and a third photovoltaic panel assembly (24). The mounting base (15) has rotating shafts (16) extending through both sides. A connecting shaft (17) is rotatably mounted on one side of the mounting base (15). The connecting shaft (17) has second worm gears (18) fixed to both ends. The rotating shaft (16) is close to the connecting shaft (19). 7) One end is fixedly connected to a second worm gear (19), and the second worm (18) meshes with the second worm gear (19) for transmission. A first photovoltaic panel assembly (20) is fixedly connected to the rotating shaft (16). A first limiting block (21) is fixedly connected to both sides of the first photovoltaic panel assembly (20). A second photovoltaic panel assembly (22) is slidably arranged between the two first limiting blocks (21). A second limiting block (23) is fixedly connected to both sides of the second photovoltaic panel assembly (22). A third photovoltaic panel assembly (24) is slidably arranged between the two second limiting blocks (23).

3. The easily movable multi-source power container as described in claim 2, characterized in that: The input of the inverter (601) is electrically connected to the output of the energy storage module (6), the outputs of the fuel generator (4) and the wind power generation module (8) are electrically connected to the input of the rectifier (602), and the outputs of the first photovoltaic panel assembly (20), the second photovoltaic panel assembly (22) and the third photovoltaic panel assembly (24) are all connected to the input of the energy storage module (6).

4. A mobile multi-source powered container as described in claim 3, characterized in that: It also includes a mounting plate (25), a guide rod (26), a support plate (27) and an elastic element (28). Mounting plates (25) are installed on both sides of the sliding rod (10). Guide rods (26) are fixed on the mounting plates (25). Two support plates (27) are slidably arranged on the two guide rods (26). The two support plates (27) slide at both ends of the guide rods (26). An elastic element (28) connects the support plate (27) and the mounting plate (25). The support plate (27) is snapped into the third photovoltaic panel module (24).

5. A mobile multi-source powered container as described in claim 4, characterized in that: It also includes a conduit (30), a surface cooler (31), a mounting shell (32), and a fan (33). The conduit (30) is wrapped around the outside of the energy storage module (6). The surface cooler (31) is installed on the side of the frame (1) away from the fuel generator (4). The two ends of the conduit (30) pass through the frame (1) and the output and input ends of the surface cooler (31) respectively and are connected and communicated. The mounting shell (32) is installed on the side of the surface cooler (31) away from the frame (1). Two fans (33) are installed on the mounting shell (32).

6. A mobile multi-source powered container as described in claim 5, characterized in that: It also includes a cover plate (34), which is installed on one side of the frame (1) and covers the fuel generator (4).

7. A mobile multi-source power container as described in claim 6, characterized in that: It also includes a tow hook (29), which is mounted on the frame (1) and is located below the cover plate (34).

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