A container power generation system

Abstract

This utility model discloses a containerized power generation system, comprising: a container body; a wind power generation device disposed within the container body; and a wind guide structure disposed on the container body. The wind guide structure has an open position and a closed position. When the wind guide structure is in the closed position, it forms a side panel of the container body. When the wind guide structure is in the open position, it flips from the side of the container body to form a wind-guiding area, which is suitable for guiding outside wind to the location of the wind power generation device. This utility model integrates the wind power generation device into the container body, changing the cumbersome mode of traditional independent wind turbines requiring separate main structures, and eliminating the need for professional construction teams and large hoisting equipment. When the wind guide structure is closed, it fits against the side of the container body, and the structure of the container body protects the power generation equipment, reducing the risk of component damage caused by harsh outdoor environments.

Description

Technical Field

[0001] This utility model relates to the field of power energy storage and power generation technology, specifically to a container power generation system. Background Technology

[0002] Currently, distributed power generation in industrial plants mostly consists of independent wind power systems or independent photovoltaic power systems. However, independent wind power systems typically require separate installation of the wind turbine itself. This not only demands a professional construction team and large hoisting equipment, making the installation process extremely complex, but also makes subsequent maintenance very difficult and costly. Currently, wind turbines in wind power systems are exposed to the outdoors for extended periods, making them highly susceptible to harsh natural environments (such as strong winds, heavy rain, and sandstorms), increasing the probability of component damage and consequently raising maintenance frequency and costs. Utility Model Content

[0003] In view of this, the present invention provides a containerized power generation system to solve the problem that wind turbines in current wind power generation systems are exposed to the outdoors for a long time, which increases the probability of component damage and the corresponding increase in maintenance frequency and cost.

[0004] To achieve the above objectives, the technical solution adopted by this utility model is as follows:

[0005] This utility model provides a containerized power generation system, including:

[0006] Box;

[0007] A wind power generation device, wherein the wind power generation device is installed inside a housing;

[0008] An air guide structure is provided on the housing. The air guide structure has an open position and a closed position. When the air guide structure is in the closed position, it forms a side plate of the housing. When the air guide structure is in the open position, it flips over from the side of the housing to form an air guide area. The air guide structure is suitable for guiding outside wind to the location of the wind power generation device.

[0009] The advantages of the aforementioned containerized power generation system are as follows: It integrates wind power generation devices into the container, eliminating the cumbersome traditional method of requiring separate installation of independent wind turbines, and removing the need for specialized construction teams and large hoisting equipment. The containerized design allows for complete transportation to a designated location within an industrial plant; once placed, wiring can be connected for immediate use, significantly shortening the installation cycle and reducing manpower and material costs.

[0010] The wind-guiding structure can be flipped to create a directional wind-guiding area, concentrating and guiding external wind to the wind power generation device (such as a vertical axis generator), enhancing wind capture efficiency and solving the problems of traditional wind power generation relying on natural wind direction and having low utilization rates. When the wind-guiding structure is open, it encloses and forms a continuous wind-guiding surface, reducing airflow leakage. When the wind-guiding structure is closed, it fits snugly against the side of the enclosure, reducing space occupation during transportation / non-operational states, protecting the equipment. The enclosure structure protects the power generation equipment, reducing the risk of component damage caused by harsh outdoor environments, reducing maintenance frequency and costs, and solving the problems of difficult and costly installation and maintenance of independent wind power systems.

[0011] The technical solution is further optimized, and the air guide structure includes:

[0012] Multiple air guide plates are provided, and the air guide area has an air guide inlet and an air guide outlet, with the air guide outlet connected to the air passage of the wind power generation device.

[0013] The beneficial effects of the above technical solution are as follows: when the air guide plate is closed, it fits against the side of the box, reducing the space occupied during transportation or when not in operation, and protecting the air guide plate and internal equipment; when the air guide plate is opened, it flips to the upper part of the box to enclose the air guiding area, specifically capturing wind energy, realizing on-demand air guiding, and improving scene adaptability.

[0014] When open, the air guide plate encloses and forms a directional airflow area. Compared with a fixed airflow structure, the airflow direction can be optimized by adjusting the rotation angle, further improving the wind energy capture efficiency of the wind power generation device. The integrated design of the air guide plate and the housing is rotatably connected, avoiding the cumbersome installation problem of traditional detachable airflow components, making the structure more compact and reducing maintenance costs.

[0015] To further optimize the technical solution, the driving device includes a winch, pulleys, positioning blocks, and cables. At least one pair of pulleys are provided and respectively mounted on the housing. The winch is located inside the housing. Two positioning blocks are provided and respectively located on the outer bottom of the air guide plate. Two cables are provided, one end of which is connected to the positioning block, and the other end of which passes around the pulley and connects to the winch. When the winch is driven to rotate by external force, the cables drive the positioning blocks and air guide plate to rotate, thereby switching the air guide plate between open and closed positions.

[0016] The beneficial effects of the above technical solution are as follows: When the air guide plate needs to be opened, the operator starts the winch. Driven by external force, the winch rotates and winds up the cable. Under the traction of the cable, the air guide plate flips upwards around the hinge point with the housing frame, switching between the open and closed positions. The opened air guide plate is fixed to the housing frame by a fixing device to ensure its stability in the open state. This design makes opening the air guide plate more labor-saving and convenient, while ensuring the stability of the system.

[0017] To further optimize the technical solution, a buffer device is provided on the housing. The buffer device is located between the air guide plate and the housing. The buffer device is adapted to buffer the air guide plate when it moves to the closed position.

[0018] The beneficial effects of the above technical solution are as follows: When the winch releases the cable and the air guide plate closes downward under its own weight, the buffer device starts to work. Through the internal damping mechanism, it provides a reverse resistance to the air guide plate, causing the air guide plate to descend slowly. This effectively reduces the tension on the cable when the air guide plate lever arm is large, extends the service life of the drive device, and reduces maintenance costs. In addition, the buffer device can also provide support force when the container is tilted upwards by the air guide plate, making the drive device lighter, more reliable, and safer.

[0019] To further optimize the technical solution, the buffer device includes a fixed plate, a first moving plate, a second moving plate, a first telescopic member, and a second telescopic member. The fixed plate is disposed on the side wall of the housing. The fixed plate, the first moving plate, and the second moving plate each have a first end and a second end. The first end of the first moving plate and the first end of the second moving plate are both hinged to the fixed plate. A first telescopic member is hinged between the second end of the first moving plate and the second end of the second moving plate. A second telescopic member is hinged between the second end of the second moving plate and the second end of the fixed plate.

[0020] To further optimize the technical solution, the photovoltaic power generation device is installed on the wind guide plate, so that the wind guide plate can not only meet the wind guidance requirements of the wind power generation device, but also position the photovoltaic power generation device, thus integrating the photovoltaic power generation device with the wind guide plate, thereby eliminating the need for additional photovoltaic power generation device positioning brackets.

[0021] To further optimize the technical solution, the air guide plate includes a plate body and a flexible plate; two adjacent plate bodies are connected by the flexible plate.

[0022] The beneficial effects of the above technical solution are as follows: Adjacent panels are connected by flexible panels. When the wind guide plate is opened to form a wind-guiding area, the flexible panel can naturally unfold with the panel, filling the gaps between the panels and forming a continuous and uninterrupted wind-guiding surface. This prevents airflow leakage from the gaps between the panels, ensuring that external wind is efficiently guided to the wind power generation device, further improving wind energy utilization. At the same time, the flexibility of the flexible panel can adapt to different wind directions and angles, optimizing the airflow direction through slight deformation and enhancing wind guidance stability. When the wind guide plate is closed, the flexible panel can fold and retract with the panel, without occupying additional space, ensuring the compactness of the enclosure in the closed state.

[0023] To further optimize the technical solution, a connecting rope is provided between the bottom end of the inner side wall of the air guide plate and the bottom end of the side wall of the box.

[0024] The beneficial effects of the above technical solution are: the connecting rope and the drive device together stabilize the opened wind guide plate, ensuring that the wind guide plate can withstand greater external forces such as wind when it is open, thus ensuring the stability and safety of the power generation area structure.

[0025] To further optimize the technical solution, the wind power generation device includes at least one vertical axis generator, and when the wind guide structure is in the open position, the wind guide structure is positioned above the vertical axis generator.

[0026] The beneficial effects of the above technical solution are as follows: The air guide structure, positioned above the vertical axis generator, can vertically guide external wind to the generator blades. Utilizing the vertical axis generator's strong adaptability to wind direction, combined with directional airflow guidance, a concentrated airflow is formed, reducing wind energy dispersion and loss, and significantly improving wind energy capture efficiency. The vertical arrangement of the air guide structure and the vertical axis generator allows for coordinated design with the photovoltaic panel installation space of the container. For example, the air guide structure frame can also serve as a photovoltaic panel support, without occupying additional horizontal space, meeting the requirements of a compact and integrated design, and solving the problem of the loose structure of existing simple, assembled wind-solar integrated cabinets.

[0027] To further optimize the technical solution, a photovoltaic power generation device is installed on the air guide structure and / or the box.

[0028] The technical solution is further optimized by dividing the interior of the enclosure into an energy storage area and a power generation area. The energy storage area is equipped with an energy storage battery and an electronic control system. The wind power generation device is located in the power generation area. The wind power generation device is connected to the energy storage battery through the electronic control system to store the generated electrical energy in the energy storage battery. Attached Figure Description

[0029] To more clearly illustrate the specific embodiments of this utility model or the technical solutions in the prior art, the drawings used in the description of the specific embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this utility model. For those skilled in the art, other drawings can be obtained from these drawings without creative effort.

[0030] Figure 1 A first-view structural diagram of a container when it is opened, provided by this utility model;

[0031] Figure 2 A second-view structural diagram of a container when it is opened, provided by this utility model;

[0032] Figure 3 This utility model Figure 2 Partial structural diagram;

[0033] Figure 4 This utility model Figure 2 A partial structural diagram.

[0034] Figure label:

[0035] 1. Housing; 11. Energy storage area; 12. Power generation area; 2. Wind power generation device; 3. Wind guide structure; 31. Wind guide plate; 311. Plate body; 312. Flexible plate; 313. Inner wall of wind guide plate; 314. Outer wall of wind guide plate; 4. Photovoltaic power generation device; 5. Buffer device; 51. Fixed plate; 52. First moving plate; 53. Second moving plate; 54. First telescopic component; 55. Second telescopic component; 6. Drive device; 61. Cable; 62. Winch; 63. Pulley; 64. Positioning block; 7. Connecting rope. Detailed Implementation

[0036] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this utility model, not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this utility model.

[0037] Currently, distributed power generation in industrial plants mostly consists of independent wind power systems or independent photovoltaic power systems. However, independent wind power systems typically require separate installation of the wind turbine itself. This not only demands a professional construction team and large hoisting equipment, making the installation process extremely complex, but also makes subsequent maintenance very difficult and costly. Wind turbines are exposed to the outdoors for extended periods, making them highly susceptible to harsh natural environments (such as strong winds, heavy rain, and sandstorms), increasing the probability of component damage and consequently raising maintenance frequency and costs.

[0038] Based on this, the present invention provides a containerized power generation system, which aims to solve the problem that wind turbines in current wind power generation systems are exposed to the outdoors for a long time, increasing the probability of component damage and the corresponding increase in maintenance frequency and cost. At the same time, it meets the needs of enterprises to reduce carbon emissions and reduce dependence on traditional fossil energy, realize green, stable and efficient power supply for industrial plants, and improve the economic and social benefits of enterprises.

[0039] According to an embodiment of this utility model, a containerized power generation system is provided for power supply to industrial plants, combined with... Figures 1 to 4 As shown, it includes a housing 1, a wind power generation device 2, and a wind guide structure 3.

[0040] Box 1 is composed of a frame and serves as the carrier of the entire system.

[0041] The wind power generation device 2 is installed inside the housing 1 and is used to generate electricity using wind energy.

[0042] The air guide structure 3 is installed on the housing 1, and the air guide structure 3 has an open position and a closed position. When the air guide structure 3 is in the closed position, the air guide structure 3 forms a side plate of the housing 1; when the air guide structure 3 is in the open position, the air guide structure 3 flips from the side of the housing 1 and forms an air guide area, and the air guide structure 3 is suitable for guiding the outside wind to the location of the wind power generation device 2.

[0043] The aforementioned containerized power generation system integrates the wind power generation unit 2 within the container 1, eliminating the cumbersome traditional method of requiring separate installation of independent wind turbines and eliminating the need for specialized construction teams and large hoisting equipment. The containerized design allows for complete transport to a designated location within an industrial plant; once placed, wiring can be connected for immediate use, significantly shortening the installation cycle and reducing manpower and material costs.

[0044] The wind guide structure 3 can be flipped to form a directional wind guide area, concentrating and guiding external wind to the wind power generation device (such as a vertical axis generator), enhancing wind capture efficiency and solving the problems of traditional wind power generation relying on natural wind direction and having low utilization rates. When the wind guide structure 3 is open, it forms a continuous wind guide surface, reducing airflow leakage. When the wind guide structure 3 is closed, it fits snugly against the side of the housing, reducing space occupation during transportation / non-operation, protecting the equipment. The structure of the housing protects the power generation equipment, reducing the risk of component damage caused by harsh outdoor environments, reducing maintenance frequency and costs, and solving the problems of difficult and costly installation and maintenance of independent wind power systems.

[0045] In some embodiments, the air guiding structure 3 includes multiple air guiding plates 31, which are sequentially arranged to form an air guiding area. The air guiding area has an air guiding inlet and an air guiding outlet, and the air guiding outlet is connected to the wind power generation device 2 via an air passage. The air guiding area formed by the multiple air guiding plates 31 gathers outside wind through the air guiding inlet and guides it directionally to the wind power generation device 2 through the air guiding outlet, so that the airflow is concentrated on the power generation components (such as generator blades), reducing wind energy dispersion loss and improving wind power generation efficiency.

[0046] The air guide plate 31 has an open position and a closed position. When each air guide plate 31 is in the closed position, the air guide plate 31 is located on the side of the housing 1. When each air guide plate 31 is in the open position, each air guide plate 31 flips to the upper part of the housing 1 and sequentially surrounds to form an air guiding area.

[0047] In this embodiment, when the air guide plate 31 is closed, it fits against the side of the box, reducing the space occupied during transportation or when not in operation, and protecting the air guide plate and internal equipment; when the air guide plate 31 is opened, it flips to the upper part of the box to enclose the air guiding area, specifically capturing wind energy, realizing on-demand air guiding, and improving scene adaptability.

[0048] When open, the air guide plate 31 encloses and forms a directional air guide area. Compared with a fixed air guide structure, the airflow direction can be optimized by adjusting the flip angle, which further improves the wind energy capture efficiency of the wind power generation device. The integrated design of the air guide plate 31 and the housing 1 is rotatably connected, which avoids the cumbersome installation problem of traditional detachable air guide components, making the structure more compact and reducing maintenance costs.

[0049] In some embodiments, a photovoltaic power generation device 4 is provided on the wind guide structure 3, which is used to generate electricity using solar energy. In this embodiment, by integrating the wind power generation device 2 into the housing 1, the cumbersome process of traditional independent wind turbine installation is avoided, eliminating the need for a professional construction team and large hoisting equipment, thus reducing the investment of manpower and resources in installation.

[0050] Furthermore, the wind power generation unit 2 and photovoltaic power generation unit 4 are integrated and mounted on the container, giving the entire power generation system a compact structure and greatly simplifying the installation process. Compared with traditional stand-alone wind turbine installations, the containerized design allows for direct transport to a designated location in an industrial plant, where it can be put into operation simply by connecting the relevant lines, eliminating the need for complex on-site installation work and saving significant manpower, material resources, and time costs.

[0051] Photovoltaic power generation device 4 and wind power generation device 2 work together. Photovoltaic power generation device 4 can supplement the shortcomings of wind power generation device 2 during the day, while wind power generation device 2 is not limited by day and night. The two complement each other and effectively alleviate the problem of power supply intermittency caused by weather and day and night in independent photovoltaic systems, and enhance the stability of power support for industrial plants.

[0052] The wind guide structure directs outside wind to the wind power generation device, enhancing wind capture efficiency and solving the problems of traditional wind power generation relying on natural wind direction and having low utilization rate. At the same time, the photovoltaic power generation device is integrated into the wind guide structure, realizing efficient use of space and forming a compact wind-solar integrated structure, avoiding the inefficiency of existing simple and piecemeal wind-solar integrated cabinets.

[0053] All devices are integrated into the housing 1, which has a simple structure, is easy to transport, install and maintain, and is suitable for the rapid deployment needs of industrial plants.

[0054] In some embodiments, the photovoltaic power generation device 4 is mounted on the wind guide plate 31, enabling the wind guide plate 31 to not only meet the wind guidance requirements of the wind power generation device 2 but also to position the photovoltaic power generation device 4. In this embodiment, the photovoltaic power generation device 4 is integrated with the wind guide plate 31, thus eliminating the need for additional positioning brackets for the photovoltaic power generation device 4. The photovoltaic power generation device 4 includes a photovoltaic panel. The photovoltaic power generation device 4 can be mounted on the outer wall of the wind guide plate, the inner wall of the wind guide plate, or other locations on the wind guide plate. When the photovoltaic power generation device 4 is mounted on the outer wall of the wind guide plate, it can still generate electricity using sunlight regardless of whether the wind guide plate is open or closed.

[0055] In some embodiments, the wind power generation device 2 includes at least one vertical axis generator, which is positioned above the vertical axis generator when the wind guide structure 3 is in the open position. The wind guide structure 3, positioned above the vertical axis generator, can vertically guide outside wind to the generator blades. Utilizing the strong adaptability of the vertical axis generator to wind direction, combined with directional wind guidance, a concentrated airflow is formed, reducing wind energy dispersion losses and significantly improving wind energy capture efficiency. The vertical arrangement of the wind guide structure and the vertical axis generator allows for coordinated design with the photovoltaic panel installation space of the container. For example, the wind guide structure frame can also serve as a photovoltaic panel support, without occupying additional horizontal space, meeting the requirements of compact and integrated design and solving the problem of loose structure in existing wind-solar integrated cabinets that are simply pieced together.

[0056] In some embodiments, the interior of the housing 1 is divided into two areas: an energy storage area 11 and a power generation area 12.

[0057] The energy storage area is located on one side of the enclosure 1. Energy storage area 11 contains energy storage batteries (not shown in the figure) and an electrical control system (not shown in the figure). The energy storage batteries effectively store the electrical energy generated by the power generation area. The electrical control system manages the electrical energy generated by the power generation device, including rectification, voltage stabilization, and charge / discharge control, ensuring that the energy storage batteries can safely and efficiently store and release electrical energy. For example, when the voltage of the electrical energy generated by the power generation device is unstable, the electrical control system can stabilize it before charging the energy storage batteries; when the industrial plant needs electricity, the electrical control system can control the energy storage batteries to output electrical energy with stable voltage and current. This embodiment solves the problem of power instability caused by intermittent power supply in traditional distributed generation. Even when wind power is insufficient or photovoltaic power generation is not possible at night, the electrical energy stored in the energy storage batteries can still continuously supply power to the industrial plant, ensuring the normal operation of production equipment.

[0058] The power generation area 12 is located on the other side of the container 1. The wind power generation device 2 is arranged in the power generation area 12. More specifically, two vertical axis generators are vertically installed in the power generation area. The blades of the vertical axis generators are arranged vertically. This structure allows the generators to effectively capture wind energy and convert it into electrical energy under different wind direction conditions. Compared with traditional horizontal axis generators, vertical axis generators have the advantage of lower wind direction requirements and can generate electricity more efficiently under different wind directions, thus improving the utilization efficiency of wind energy. The bottom of the vertical axis generators is firmly installed on the bottom frame of the container by fixed brackets to ensure its stability during operation.

[0059] Furthermore, the two vertical axis generators and the photovoltaic power generation device 4 are connected to the electrical control system circuit via cables, and the electrical control system is connected to the energy storage battery circuit. The generated electrical energy can be stored in the energy storage battery in a timely manner, realizing the efficient connection between power generation and energy storage.

[0060] In some embodiments, the air guide plate 31 is rotatably mounted on the housing 1 and is switched between open and closed positions by the drive device 6.

[0061] Combination Figure 3 As shown, the drive unit 6 includes a winch 62, pulleys 63, positioning blocks 64, and cables 61. At least one pair of pulleys 63 are provided and respectively embedded in corresponding positions on the top frame of the housing 1. The winch 62 is located inside the housing 1. This structure helps reduce wear and tear on moving parts in harsh environments and lowers maintenance costs. Two positioning blocks 64 are provided and respectively located at the bottom of the outer wall of the air guide plate. Two cables 61 are provided; one end of each cable is connected to a positioning block 64, and the other end of each cable passes around the pulleys 63 and connects to the winch 62. The two cables 61 are respectively located at the two corners of the bottom outer side of the air guide plate 31.

[0062] In this embodiment, two symmetrical cables 61 act synchronously on the air guide plate 31, ensuring smooth operation of the air guide plate during opening / closing by avoiding unilateral pulling that could cause it to jam or flip. The winch 62 provides mechanical power output, which, in conjunction with pulleys, changes the direction of the force. By pulling the positioning block 64 (the bottom outer side of the air guide plate) through the cables, the rotational motion of the winch is converted into the flipping motion of the air guide plate. Compared to direct manual flipping or a single drive structure, this significantly reduces the required operating force and achieves a labor-saving switching mechanism.

[0063] The winch 62 can achieve electric / intelligent switching of the air guide plate through motor drive, such as automatically adjusting the opening and closing angle according to the wind speed without manual intervention; the overall mechanism is mechanically integrated with the container frame, without occupying extra space, meeting the requirements of container compact and modular design, and facilitating transportation and on-site deployment.

[0064] When the air guide plate needs to be opened, the operator starts the winch. As the winch 62 rotates under external force, it winds up the cable 61. Pulled by the cable 61, the air guide plate flips upwards around its hinge point with the housing frame, switching between the open and closed positions of the air guide plate 31. The opened air guide plate is secured to the housing frame by a fixing device to ensure its stability in the open state. This design makes opening the air guide plate easier and more convenient, while also ensuring system stability.

[0065] As a further improved embodiment, the two symmetrical cables share the same winch 62, and the two cables are synchronously controlled by a single winch, which effectively simplifies the transmission system and reduces manufacturing costs and maintenance complexity.

[0066] In some embodiments, the wind guide plate 31 includes a plate body 311 and a flexible plate 312; two adjacent plates 311 are connected by the flexible plate 312, which can be canvas. When the wind guide plate 31 is opened to form a wind guiding area, the flexible plate 312 can naturally unfold with the plate body, filling the gaps between the plates 311 to form a continuous and uninterrupted wind guiding surface, preventing airflow leakage from the gaps between the plates, ensuring that the outside wind is efficiently guided to the wind power generation device 2, and further improving the wind energy utilization rate; at the same time, the flexibility of the flexible plate 312 can adapt to different wind angles, optimize the airflow direction through slight deformation, and enhance the wind guiding stability. When the wind guide plate 31 is closed, the flexible plate 312 can be folded and retracted with the plate body without occupying additional space, ensuring the compactness of the housing 1 in the closed state.

[0067] The panel of the housing 1 is designed to be opened and fixed by the drive device 6. This design allows the power generation area to obtain better ventilation when needed, thereby improving the power generation efficiency of the vertical axis generator.

[0068] Furthermore, all three panels 311 of the power generation area can be opened, further optimizing ventilation. Triangular canvas panels are installed at the corners between the opened panels 311, forming wind deflectors that effectively guide wind to the two vertical-axis generators in the power generation area, further improving wind energy utilization. These canvas panels, installed at the corners of the panels, effectively direct natural wind to the two vertical-axis generators. When there is wind, the wind is guided by the deflectors, changing its direction and concentrating it on the blades of the vertical-axis generators, improving their wind energy capture efficiency and thus increasing power generation efficiency.

[0069] Furthermore, photovoltaic panels are evenly laid on the openable side panels and top of the container. These panels are fixed to the side and top panels using specialized mounting brackets and connected to the energy storage area's electrical control system via cables. This design achieves integrated wind and solar power generation. When there is sunlight, the photovoltaic panels generate direct current (DC). The electrical control system converts and processes this DC power, storing it in energy storage batteries along with the electricity generated by the vertical axis generator. This complements wind power generation, significantly improving the overall power generation efficiency of the system and reducing reliance on traditional energy sources. For example, during periods of ample sunlight, the photovoltaic panels generate sufficient electricity, and the electrical control system prioritizes storing this electricity in the energy storage batteries. When the electricity generated by the photovoltaic panels exceeds the charging capacity of the energy storage batteries, the electrical control system automatically adjusts, supplying the excess electricity to the industrial plant's electrical equipment.

[0070] In some embodiments, the air guide plate has an inner sidewall 313 and an outer sidewall 314. After the air guide plate 31 is opened, to further stabilize it, a connecting rope 7, which can be a steel wire rope, is provided between the bottom end of the inner sidewall 313 and the bottom end of the sidewall of the housing 1. The connecting rope 7, together with the drive device, stabilizes the opened air guide plate 31, ensuring that the air guide plate 31 can withstand greater wind force and other external forces in the opened state, thus guaranteeing the stability and safety of the power generation area structure.

[0071] In some embodiments, a buffer device 5 is provided on the housing 1. The buffer device 5 is disposed between the air guide plate 31 and the frame of the housing 1. One end of the buffer device 5 is connected to an appropriate position of the air guide plate 31, and the other end is connected to the frame of the housing. The buffer device 5 is adapted to buffer the air guide plate 31 when the air guide plate 31 moves to the closed position.

[0072] When the winch releases the cable and the air guide plate closes downward under its own weight, the buffer device 5 starts to work. Through the internal damping mechanism, it provides a reverse resistance to the air guide plate, causing the air guide plate to descend slowly. This effectively reduces the tension on the cable when the air guide plate lever arm is large, extends the service life of the drive device 6, and reduces maintenance costs. In addition, the buffer device 5 can also provide support force when the container is tilted upwards by the air guide plate 31, making the drive device 6 lighter, more reliable, and safer.

[0073] Combination Figure 4 As shown, the buffer device 5 includes a fixed plate 51, a first moving plate 52, a second moving plate 53, a first telescopic member 54, and a second telescopic member 55. The fixed plate 51 is disposed on the side wall of the housing 1. The fixed plate 51, the first moving plate 52, and the second moving plate 53 each have a first end and a second end. The first end of the first moving plate 52 and the first end of the second moving plate 53 are both hinged to the fixed plate 51. The first telescopic member 54 is hinged between the second end of the first moving plate 52 and the second end of the second moving plate 53, and the second telescopic member 55 is hinged between the second end of the second moving plate 53 and the second end of the fixed plate 51. When the first telescopic member 54 and the second telescopic member 55 extend, they can drive the first moving plate 52 and the second moving plate 53 to unfold, thereby enabling the first moving plate 52 to support the air guide plate 31. When the first telescopic member 54 and the second telescopic member 55 shorten, they can close the first moving plate 52 and the second moving plate 53.

[0074] In this device, both the first telescopic member 54 and the second telescopic member 55 can be hydraulic rods, making the buffer device 5 a hydraulic buffer device.

[0075] This utility model has many significant beneficial effects:

[0076] In terms of ease of installation, integrating the wind power generation unit 2 into the container 1 changes the cumbersome traditional model of wind power generation requiring separate installation of the main unit. Previously, installing a wind turbine separately required large hoisting equipment and a professional construction team, consuming a significant amount of time for installation. However, this new container design allows for complete transportation to a designated location in the industrial plant. It can be placed simply like a regular shipping container, connected to the power lines, and put into operation. This not only significantly shortens the installation cycle but also reduces the labor and material costs involved in the installation process, providing convenience for enterprises to quickly replenish their power supply.

[0077] Its advantages are particularly prominent in terms of power supply stability. On the one hand, the energy storage batteries and electrical control system equipped in the energy storage area can effectively store the electrical energy generated by the power generation area. Both wind power and photovoltaic power generation have a certain degree of intermittency. For example, photovoltaics cannot generate electricity when there is no sunlight at night, and the power output of wind turbines fluctuates greatly when the wind is unstable. However, this utility model, through energy storage batteries, stores electrical energy when power generation is sufficient and releases electrical energy when power generation is insufficient or interrupted, ensuring the continuous and stable operation of industrial plant production equipment and avoiding economic losses caused by production stoppages due to unstable power supply. On the other hand, the dual power generation mode, namely the vertical axis generator and photovoltaic panels working together to generate electricity, complements each other. When there is wind but no sunlight, the vertical axis generator generates electricity normally; when there is sufficient sunlight but the wind is weak, the photovoltaic panels play the main role in power generation. This complementary mechanism greatly improves the overall stability and reliability of power generation.

[0078] Regarding power generation efficiency, this invention employs several effective measures. The selection of a vertical-axis generator, compared to a traditional horizontal-axis generator, has lower requirements for wind direction, enabling efficient wind energy capture under varying wind conditions and improving wind energy utilization efficiency. The openable side panels of the power generation area, along with the triangular canvas installed between them, form a wind deflector, optimizing airflow and effectively guiding the wind to the vertical-axis generator, further enhancing power generation efficiency. Simultaneously, photovoltaic panels are installed on the side and top panels of the container, achieving integrated wind and solar power generation. This fully utilizes diverse natural resources, comprehensively improving the overall power generation efficiency of the system, allowing this containerized power generation system to provide more abundant power to industrial plants.

[0079] From an environmental and cost perspective, this utility model helps enterprises achieve green production and reduce costs. Using this dual-generator energy storage container reduces industrial plants' reliance on traditional fossil fuel power, lowers carbon emissions, complies with increasingly stringent global environmental requirements, and helps enterprises establish a positive social image. Furthermore, by utilizing free clean energy sources such as wind and solar power as supplementary power for industrial plants, electricity costs can be effectively reduced. It is estimated that this can help industrial plants reduce electricity costs by 20%-40%, improve economic efficiency, and enhance their competitiveness in the market.

[0080] In summary, this dual-generator energy storage container demonstrates outstanding advantages in installation, power supply, power generation, environmental protection, and cost, providing an innovative and practical solution for power supply in industrial plants.

[0081] Obviously, the above embodiments are merely illustrative examples for clear explanation and are not intended to limit the implementation. Those skilled in the art will recognize that other variations or modifications can be made based on the above description. It is neither necessary nor possible to exhaustively list all possible implementations here. However, obvious variations or modifications derived therefrom are still within the protection scope of this invention.

Claims

1. A containerized power generation system, characterized in that, include: Box (1); Wind power generation device (2), the wind power generation device (2) is installed inside the housing (1); A wind-guiding structure (3) is provided on the housing (1). The wind-guiding structure (3) has an open position and a closed position. When the wind-guiding structure (3) is in the closed position, the wind-guiding structure (3) forms a side plate of the housing (1). When the wind-guiding structure (3) is in the open position, the wind-guiding structure (3) flips from the side of the housing (1) and forms a wind-guiding area. The wind-guiding structure (3) is suitable for guiding the outside wind to the position of the wind power generation device (2).

2. The containerized power generation system according to claim 1, characterized in that, The air guiding structure (3) includes: Multiple air guide plates (31) are rotatably mounted on the housing (1) and switched between open and closed positions by a drive device (6).

3. The containerized power generation system according to claim 2, characterized in that, The driving device (6) includes a winch (62), pulleys (63), positioning blocks (64), and cables (61). At least one pair of pulleys (63) are provided and are respectively provided on the housing (1). The winch (62) is provided inside the housing (1). Two positioning blocks (64) are provided and are respectively provided on the outer bottom of the air guide plate (31). Two cables (61) are provided. One end of the two cables (61) is connected to the positioning block (64), and the other end of the two cables (61) passes around the pulleys (63) and is connected to the winch (62). When the winch (62) is driven to rotate by external force, the cables (61) drive the positioning blocks (64) and the air guide plate (31) to rotate, so as to switch the air guide plate (31) between the open and closed positions.

4. The containerized power generation system according to claim 2, characterized in that, A buffer device (5) is provided on the housing (1). The buffer device (5) is located between the air guide plate (31) and the housing (1). The buffer device (5) is adapted to buffer the air guide plate (31) when the air guide plate (31) moves to the closed position.

5. The containerized power generation system according to claim 4, characterized in that, The buffer device (5) includes a fixed plate (51), a first moving plate (52), a second moving plate (53), a first telescopic member (54), and a second telescopic member (55). The fixed plate (51) is disposed on the side wall of the housing (1). The fixed plate (51), the first moving plate (52), and the second moving plate (53) each have a first end and a second end. The first end of the first moving plate (52) and the first end of the second moving plate (53) are both hinged to the fixed plate (51). The first telescopic member (54) is hinged between the second end of the first moving plate (52) and the second end of the second moving plate (53). The second telescopic member (55) is hinged between the second end of the second moving plate (53) and the second end of the fixed plate (51).

6. The containerized power generation system according to claim 2, characterized in that, The air guide plate (31) includes a plate body (311) and a flexible plate (312); two adjacent plates (311) are connected by the flexible plate (312).

7. The containerized power generation system according to claim 2, characterized in that, A connecting rope (7) is provided between the bottom end of the inner side wall of the air guide plate (31) and the bottom end of the side wall of the box (1).

8. The containerized power generation system according to any one of claims 1-7, characterized in that, The wind power generation device (2) includes at least one vertical axis generator, which is positioned above the vertical axis generator when the wind guide structure (3) is in the open position.

9. The containerized power generation system according to any one of claims 1-7, characterized in that, A photovoltaic power generation device (4) is installed on the air guide structure (3) and / or the box (1).

10. The containerized power generation system according to any one of claims 1-7, characterized in that, The interior of the housing (1) is divided into an energy storage area (11) and a power generation area (12); an energy storage battery and an electronic control system are arranged in the energy storage area (11); the wind power generation device (2) is arranged in the power generation area (12); the wind power generation device (2) is connected to the energy storage battery through the electronic control system to store the generated electrical energy in the energy storage battery.

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