Wind scoop rotating wheel type wind driven generator, wind power station and construction method of wind power station

Abstract

The invention discloses a wind scoop rotating wheel type wind driven generator, a wind power station and a construction method of the wind power station. According to the technical scheme, firstly, a wind scoop rotating wheel type wind driven generator is manufactured, and the wind scoop rotating wheel type wind driven generator is composed of a large-scale special wind gathering plate wall framework, a large-scale special wind driven generator base, a large-scale special wind scoop rotating wheel integration component, a plurality of generators and the like. And secondly, a plurality of wind scoop rotating wheel type wind driven generators are integrated into a building entity with a certain scale by adopting an arrangement and integration mode, and the building entity can be arranged in a manner of extending in the horizontal direction and can also be expanded and ascended in the high altitude direction, so that the integral wind power station is formed. The sequence is the construction method of the wind power station. The method has the outstanding advantages that abundant natural wind power resources distributed in a wide meteorological space range can be effectively developed and utilized, and particularly, a method is provided for developing and utilizing high-altitude natural wind power resources.

Description

I. Technical Fields Involved

[0001] This invention relates to wind power generation, primarily concerning how to better develop and utilize the extremely abundant natural wind resources distributed across a vast meteorological area. To achieve this goal, this invention employs a method of first inventing a wind turbine-type wind turbine generator, and then arranging and integrating numerous such generators to form a wind power station. It belongs to the field of wind power technology. Background Technology

[0002] To my knowledge, the wind power industry has developed rapidly over the past decade or so, particularly in the scale of wind farms, which is very encouraging. However, I believe that if we examine these achievements from a meteorological perspective, we will find that they have only been achieved within the meteorological space near the ground. Natural wind resources, however, extend three-dimensionally across meteorological space, and with increasing altitude—for example, to tens, hundreds, or even thousands of meters—natural wind resources become denser and more abundant. Clearly, within this meteorological spatial context of natural wind resource distribution, the industry cannot yet develop and utilize natural wind resources within a larger meteorological spatial range. This is the current shortcoming in the development of the wind power industry. Summary of the Invention

[0003] 1. The technical problem to be solved

[0004] To address the limitations of existing wind power generation devices in terms of components and structure, which fail to fully utilize the vast distribution of natural wind resources and thus lack the necessary components and structures to absorb the abundant natural wind resources distributed across a wide meteorological space, and to overcome the inadequacy of current wind power generation devices in converting these abundant natural wind resources into sufficient and effective working materials for power generation, thus compensating for the serious deficiency of low wind power efficiency, and to better promote the development of the current wind power industry and achieve breakthroughs, it is crucial to enable unprecedented development and utilization of the abundant natural wind resources distributed across a wide meteorological space, given the significant advancements in modern science, engineering, and industry. In other words, it is necessary to convert the abundant natural wind resources distributed across a wide meteorological space into sufficient and effective working materials for power generation. This invention provides a wind turbine-type wind power generator, a wind power station, and its construction method. This invention not only fully reflects the vast distribution of natural wind resources in the development and utilization of these resources within a broad meteorological space in its components and structure, but also transforms these abundant natural wind resources into a plentiful and effectively usable working medium for power generation during operation. This ensures the efficient utilization of these abundant natural wind resources and achieves high wind power efficiency. In particular, the methods and approaches it provides for developing and utilizing these abundant natural wind resources will have a profound impact on the future development of wind power from a technological, engineering, and industrial perspective.

[0005] 2. Technical solutions adopted

[0006] The technical solution adopted in this invention is as follows: it proceeds in two steps. The first step is to invent a wind turbine-type wind power generator. In this step, four large components are constructed: a large-scale specialized wind-gathering wall frame, a large-scale specialized wind turbine base, a large-scale specialized wind turbine integrated component, and an adjustable generator. Then, based on the invention objective of the first step, these components are assembled into a wind turbine-type wind power generator. After achieving the invention objective of the first step, the second step proceeds. In this step, numerous such wind turbine-type wind power generators are arranged and integrated, allowing them to extend horizontally along the ground and also to rise into the sky, forming a large-scale, integrated building entity. Thus, these numerous wind turbine-type wind power generators ultimately present themselves as a large-scale wind power station, achieving the final invention objective. The sequence of these steps constitutes the construction method of the wind power station.

[0007] In addition, several points need to be emphasized here: First, in developing this invention, I fully incorporated meteorological and fluid mechanics knowledge. Therefore, in the specific implementation of this invention, it is essential to integrate relevant knowledge within the actual context of the geographical environment, meteorological conditions, and natural wind force, combined with construction requirements, and ensure that this knowledge is reflected in the operation. More specifically, the size and scale of the constructed building must effectively reflect the vastness of the meteorological space; simultaneously, the control, direction adjustment, and concentration effects on natural wind force must be fully realized. Second, in designing the large-scale specialized wind turbine framework, I fully incorporated fluid mechanics knowledge and the knowledge that torque enhances rotational effects. Therefore, in the specific construction of the large-scale specialized wind turbine, the size, shape, overall weight, and rotational effects of the turbine components must be fully reflected in the construction of the components according to actual conditions, ensuring that it can effectively concentrate wind resources and demonstrate the synergistic effect of torque. Thirdly, when designing the large-scale custom-made wind turbine rotor, I fully considered the characteristics of natural wind power—its relatively weak energy carrying capacity in the meteorological space and its highly variable strength. Therefore, I specifically adopted a method of assembling the rotor by installing multiple wind turbines. Thus, in the actual construction of the rotor, under the conditions permitted by the overall project, on the one hand, we should expand the overall spatial scale to acquire as much wind power as possible and effectively concentrate and regulate it, creating the prerequisite for the rotor to rotate; on the other hand, the rotor should be constructed using multiple wind turbines to adapt to the highly variable nature of natural wind power. Overall, the strategy should be to develop and utilize natural wind power resources by expanding the meteorological space and using multiple turbines in combination. Fourthly, when constructing a wind power station, the site selection issue must be given top priority, as it is crucial to the ultimate success of this invention and is a prerequisite. Therefore, when selecting a site for a wind power station, it is best to choose a location with canyons, mountain roads, or areas with prevailing winds that blow year-round. Fifthly, during the actual construction of a wind power station, it is crucial to pay attention to the trend of expansion into higher altitudes. This invention can expand into higher altitudes by constructing large-scale structures. Furthermore, the higher the altitude, the less the natural wind resources are affected by terrain, landforms, and urban buildings, resulting in denser and richer natural wind resources at high altitudes. Therefore, under the premise of existing elevated technology, attention should be paid to expanding towards technologies that can achieve even higher elevations, so that the invention can realize its greater potential and achieve greater results. It should also be directly stated here that the ability to expand into higher altitudes and to develop and utilize high-altitude wind resources is precisely the true value of this invention.

[0008] 3. Advantages and positive effects

[0009] 1) Advantages: ① It can effectively develop the extremely rich natural wind resources distributed over a wide meteorological space; ② It can make extensive use of the extremely rich natural wind resources distributed over a wide meteorological space; ③ It can effectively improve the efficiency of natural wind resource utilization; ④ It can greatly improve the efficiency of wind power generation.

[0010] 2) Positive effects: ① It can enable the construction of wind power stations of a certain scale; ② It can enable people to better develop and utilize natural wind resources; ③ It can greatly improve the efficiency of wind power acquisition; ④ It can strongly promote the development of wind power technology and engineering projects; ⑤ It can have a profound impact on the development of the wind power industry. Attached Figure Description

[0011] The present invention will be further described below with reference to the accompanying drawings and embodiments:

[0012] Figure 1 This is a block diagram illustrating several large components of the wind turbine wind generator of the present invention. In the diagram, 1 represents a "large-scale dedicated wind-gathering plate wall structure"; 2 represents a "large-scale dedicated wind power base"; 3 represents a "large-scale dedicated wind turbine integrated component"; 4 represents a "generator"; and 5 illustrates that by cleverly integrating the above four components, a "wind turbine wind generator" can be invented.

[0013] Figure 2 This is a front view showing the overall outline of the wind turbine wind generator in this embodiment of the invention. In the figure, 6 is the left side of the large-scale dedicated wind-gathering plate wall structure; 7 is the upper half of the large-scale dedicated wind turbine integrated component; 8 is the bottom sloping surface of the large-scale dedicated wind-gathering plate wall structure; and 9 is the right side of the large-scale dedicated wind-gathering plate wall structure.

[0014] Figure 3 This is a top view showing the overall outline of the wind turbine wind generator according to an embodiment of the present invention. In the figure, 10 is the left and right axis of symmetry of the figure; 11 is the upper part of the large special wind-gathering plate wall structure; 12 is the bottom sloping part of the large special wind-gathering plate wall structure; 13 is the lower part of the large special wind-gathering plate wall structure; 14 is the left side of the large special wind turbine rotor; 15 is the generator or unit; 16 is the large wind turbine; 17 is the top view of the large wind turbine base.

[0015] Figure 4This is a side view showing the overall outline of the wind turbine wind generator in an embodiment of the present invention. In the figure, 18 is the center of the drawing; 19 is the back part of the left side of the large special wind-gathering plate wall structure; 20 is the back part of the right side of the large special wind-gathering plate wall structure; 21 is the side of the large special wind turbine structure; and 22 is the side of the large special wind turbine base.

[0016] Figure 5 This is a cross-sectional view of the overall outline of the wind turbine rotor type wind turbine in this embodiment of the invention, i.e., Figure AA, in which the large-scale dedicated wind-gathering plate wall structure is omitted. In the figure, 23 is the upper half of the large-scale dedicated wind turbine rotor grid; 24 is the generator or unit; 25 is the lower half of the large-scale dedicated wind turbine rotor grid; and 26 is the large-scale dedicated wind power base entity.

[0017] Figure 6 This is a sectional view (BB diagram) showing the overall outline of the wind turbine rotor type wind turbine in this embodiment of the invention, where the large-scale dedicated wind-gathering plate wall structure is omitted. In the diagram, 27 is the drawing positioning center; 28 is the large-scale dedicated wind turbine rotor grid frame; 29 is the generator or unit; and 30 is the large-scale dedicated wind power base entity.

[0018] Figure 7 This is a view showing the style and size of the front of the large-scale dedicated wind turbine base in an embodiment of the present invention. In the figure, 31 represents the style and size of the front of the large-scale dedicated wind turbine base.

[0019] Figure 8 This is a top view showing the style and size of the large-scale dedicated wind turbine base in an embodiment of the present invention. In the figure, 32 is the solid part of the large-scale dedicated wind turbine base; 33 is the hollow part of the large-scale dedicated wind turbine base.

[0020] Figure 9 This is a side view of the large-scale dedicated wind turbine base in an embodiment of the present invention, showing its style and size. In the figure, 34 represents the side view and dimensions of the large-scale dedicated wind turbine base.

[0021] Figure 10 This is a cross-sectional view and size measurement of the front of the large-scale dedicated wind turbine base in this embodiment of the invention, i.e., a CC view. In the view, 35 is the left-right axis of symmetry of the figure; 36 is the cross-sectional entity of the front of the large-scale dedicated wind turbine base; 37 is the cavity portion where the wind turbine rotor grid frame is installed in the large-scale dedicated wind turbine base; 38 is the cavity portion where the generator or unit is installed at the left end in the large-scale dedicated wind turbine base; 39 is the cavity portion where the square shaft of the generator or unit is installed at the left end in the large-scale dedicated wind turbine base.

[0022] Figure 11 This is a sectional view and size dimension view of the side of a large-scale dedicated wind turbine base in an embodiment of the present invention, i.e., a DD drawing. In the drawing, 40 is the center of the drawing; 41 is the sectional solid part of the side of the large-scale dedicated wind turbine base; 42 is the entire cavity of the large-scale dedicated wind turbine base; 43 is the cavity where the generator or turbine unit is installed in the large-scale dedicated wind turbine base; 44 is the cavity where the square shaft of the generator or turbine unit is installed in the large-scale dedicated wind turbine base; and 45 is the cavity where the wind turbine rotor frame is installed in the large-scale dedicated wind turbine base.

[0023] Figure 12 This is a front view of the overall structure of the large wind turbine rotor integrated component. In the figure, 46 is the front view of the outer shell of the wind turbine rotor integrated component that needs to be fixed; 47 is the front view of the internal grid frame of the wind turbine rotor that can rotate, that is, the front view of the wind turbine rotor grid frame; 48 is the outer shell bearing.

[0024] Figure 13 This is a top view of the overall structure of the large wind turbine rotor integrated component. In the figure, 49 is the top view of the outer shell of the wind turbine rotor integrated component that needs to be fixed; 50 is the top view of the internal grid frame of the wind turbine rotor that can rotate, that is, the top view of the wind turbine rotor grid frame; 51 is the outer shell bearing.

[0025] Figure 14 This is a side view of the overall structure of the large wind turbine rotor integrated component. In the figure, 52 shows the style and dimensions of the side view of the overall structure of the large wind turbine rotor integrated component; 53 shows the outer shell bearing; and 54 shows the electrical wiring path.

[0026] Figure 15 This is a front view of the overall structure of the rotatable wind turbine rotor frame, i.e., diagram EE. In the diagram, 55 is the left and right axis of symmetry of the figure; 56 is the large gear; and 57, 58, 59, 60, 61, and 62 are all left and right connecting crossbars.

[0027] Figure 16 This is a side view of the overall structure of the rotating wind turbine rotor frame, i.e., diagram FF. In the diagram, 63 is the side view of the wind turbine rotor frame structure; 64 is the large gear; and 65 is the wind turbine frame and wind turbine.

[0028] Figure 17 This is a front sectional view of the overall structure of the rotatable wind turbine rotor frame, i.e., the GG diagram. In the diagram, 66, 67, 68, and 69 are all circular connecting rings; 70, 71, 72, 73, 74, and 75 are all long strip connecting rods; and 76, 77, 78, 79, 80, and 81 are the wind turbine rotor frame and the wind turbine.

[0029] Figure 18This is a cross-sectional view of the overall structure of the rotating wind turbine rotor frame, i.e., the HH diagram. In the diagram, 82 represents the upper half of the wind turbine frame and the front of the wind turbine; 83 represents the lower half of the wind turbine frame and the front of the wind turbine.

[0030] Figure 19 Figure II shows a side view of the large wind turbine frame and the wind turbine itself. In the figure, 84 is the center of the circle for drawing; 85 is the upper and lower axis of symmetry of the figure; 86 is a part of the outer circular ring of the large wind turbine frame; 87 is the curved part at the top of the large wind turbine frame; and 88 is the straight frame part of the large wind turbine frame and the upper and lower connecting frames.

[0031] Figure 20 This is a front view, specifically an EE sectional view, illustrating the installation layout of the generator within the integrated wind turbine rotor assembly. In the figure, 89 represents the left-right axis of symmetry; 90 is the rotor housing; 91 is a long, narrow generator or unit; 92 and 93 are both shafts and pinions; 94 is the large wind turbine rotor frame; 95 is the large gear; 96, 97, and 98 are all retaining rings; and 99 is a special-type generator or unit.

[0032] Figure 21 This is a side view, or FF sectional view, demonstrating the installation layout of the generator within the integrated wind turbine rotor assembly. In the figure, 100 is the left-right axis of symmetry; 101 is the rotor housing; 102 is the wind turbine rotor frame; 103, 104, 105, and 106 are all generators or units; 107 is the large gear; and 108 is a special-type generator or unit.

[0033] Figure 22 This is a block diagram illustrating the components and functions of a wind turbine-specific rotation controller, as well as its connection to the wind turbine. In the diagram, 109 is a wind speed sensor; 110 is an intelligent relay-type telescopic component; 111 is the wind speed level control function; 112 is the wind turbine-specific rotation controller; and 113 is a generator with a slot.

[0034] Figure 23 This is a front view of the frame structure of a wind turbine-type wind power station. In the drawing, 114 represents the ground; 115 represents the frame's foundation piles; and 116 represents the front of the frame.

[0035] Figure 24 This is a side view of the frame structure of a wind turbine-type wind power station. In the drawing, 117 represents the ground; 118 represents the frame's foundation piles; and 119 represents the side of the frame.

[0036] Figure 25This is a front view of the overall structure of a wind turbine-type wind power station. In the figure, 120 is the ground; 121 is the left side of the wind-concentrating wall structure; 122 is the arrangement of the first layer of wind turbine-type wind turbine generators; 123 is the arrangement of the second layer of wind turbine-type wind turbine generators; 124 is the arrangement of the third layer of wind turbine-type wind turbine generators; 125 is the arrangement of the fourth layer of wind turbine-type wind turbine generators; 126 is the arrangement of the fifth layer of wind turbine-type wind turbine generators; 127 is the arrangement of the sixth layer of wind turbine-type wind turbine generators; 128 is the right side of the ultra-large dedicated wind-concentrating wall structure; and 129 is the front view of the overall structure of the wind turbine-type wind power station.

[0037] Figure 26 This is a top view of the overall structure of a wind turbine-type wind power station. In the figure, 130 is the left-right axis of symmetry; 131 is the upper part of the ultra-large dedicated wind-gathering wall structure; 132 is the lower part of the ultra-large dedicated wind-gathering wall structure; 133 is the top view of the wind turbine-type wind power station body; and 134 is the top view of the overall structure of the wind turbine-type wind power station. Detailed Implementation

[0038] The following is a further explanation in words, with reference to the accompanying drawings:

[0039] exist Figure 1 The diagram illustrates several large components of the wind turbine wind generator of this invention, using a block diagram. This diagram provides an overall understanding of the wind turbine wind generator, facilitating comprehension of the following figures. The large, specialized wind-gathering plate wall serves two purposes: first, to gather natural wind resources; and second, to regulate the wind direction, providing infrastructure support for the effective development and utilization of natural wind resources distributed across a wide meteorological area. The large, specialized wind turbine base serves two purposes: first, to install the large, specialized wind turbine rotor assembly; and second, to provide stability to the entire wind turbine. The large, specialized wind turbine rotor assembly serves three purposes: first, to construct the large wind turbine; second, to install the rotor with the generator; and third, to provide stability during the wind turbine's stress process and rotational power generation process. The generator section is used to illustrate the intended purpose of the invention.

[0040] exist Figure 2 , 3Views 4, 5, and 6 respectively depict the front, top, side, and cross-sectional views of the overall outline of the wind turbine turbine. It is important to note that the "front view" here refers to the side where the wind turbine is located, i.e., the side where the wind turbine bears the wind force. This is because the wind-bearing aspect of the wind turbine is the focus of this invention and is therefore specifically explained here. All the above views are drawn at a scale of 1:150.

[0041] exist Figure 7 , 8 Views 9, 10, and 11 respectively depict the front, top, side, and cross-sectional views of the large specialized base, illustrating its style and dimensions. Their purpose is twofold: first, to detail the structural features of the large specialized base from different perspectives; and second, to show how the integrated components of the large specialized wind turbine rotor are installed on the large specialized base, clarifying their positions and status. The large specialized base is constructed using heavy materials such as cement and sand to increase its weight and provide stability under gravity for the entire equipment and its operation. All the above drawings are drawn at a scale of 1:150.

[0042] exist Figure 12 , 13 Figures 1 and 14 respectively depict the front, top, and side views of the integrated structure of the large-scale specialized wind turbine rotor. The outer shell, requiring fixation, must be constructed of heavy metal to stabilize the entire device. Conversely, the rotating internal wind turbine rotor frame must be made of lightweight yet extremely robust materials to minimize drag caused by its own weight—this is from an overall spatial layout perspective. Additional weight is needed for some components, as detailed in the following related drawings. All figures are drawn at a scale of 1:150.

[0043] exist Figure 15 , 16 The figures depict the front and side structures of the external shell that requires fixation. All figures above are drawn at a scale of 1:150.

[0044] exist Figure 17 , 18Figures 1, 19, and 10 respectively depict the front, side, and cross-sectional structures of the rotating internal wind turbine rotor frame. The materials used to construct the large wind turbine must be soft, lightweight, strong, and highly elastic, such as elastic fabric or anti-aging rubber. The constructed large wind turbine must be able to form mesh openings on its unfolded surface under strong winds, with the mesh openings becoming larger as the wind force increases. In general, the constructed large wind turbine must allow wind force to form a concave shape on its unfolded surface, concentrating the wind force to generate sustained thrust, and also enabling it to exert a torque-enhancing effect. Furthermore, the length and width of the wind turbine can be extended or reduced according to actual needs. Moreover, the large gears at the edges of the wind turbine rotor frame and the transverse connecting rods at the top must be made of heavy materials to ensure that the entire wind turbine rotor frame generates significant rotational inertia when it begins to rotate under wind force. All the above figures are drawn at a scale of 1:150. ,

[0045] exist Figure 20 , 21 The images show front and side views illustrating the installation layout of the generator within the integrated wind turbine rotor assembly. It's important to note that these are only illustrative; in actual implementation, the number and location of generators, as well as whether they are standard or specialized models, should be determined based on actual wind speeds and other factors. Specialized generators or units refer specifically to those where the outer casing forms the rotor, while the core component serves as the stator. Furthermore, when installing generators on the outer edges, it is crucial to avoid obstructing wind flow. All figures are drawn at a 1:150 scale.

[0046] exist Figure 22 The diagram illustrates the components and functions of a dedicated wind turbine rotation controller, along with its connection to the generator. This diagram explains both the components and control functions of the controller, while also emphasizing the role and significance of controlling the generator. It is important to note that during installation, multiple wind speed control levels should be pre-set on the controller and connected to various generators. This allows the generator set to start or stop different generators at different wind speeds, enabling the entire generator set to effectively cope with the significant variations in wind speed and ensuring smooth and efficient operation of the wind turbine generator system.

[0047] exist Figure 23 and 24The images shown are front and side views of the large frame structure of a wind turbine-type wind power station, providing a model for the effective development and utilization of natural wind resources distributed across a wide meteorological area, particularly those at high altitudes. Both images are drawn at a scale of 1:1500.

[0048] exist Figure 25 and Figure 26 The images shown are front and top views of the basic structure of a wind power station. It's important to note that: firstly, scientific site selection is crucial for the success of this invention; secondly, the construction process involves three steps: first, building a large frame to accommodate the wind turbines; second, constructing a large, specialized wind-gathering wall structure; and third, installing the wind turbines. It's particularly important to emphasize the significance of elevated frame construction for wind power station development. Wind strength increases with altitude, so breakthroughs in elevated frame technology allow for significant advancements in wind power station construction, leading to substantial benefits from the development and utilization of natural wind resources. Both images are drawn at a scale of 1:1500.

Claims

1. A wind turbine-type wind power generator, a wind power station, and a method for constructing the same, characterized in that, It is a wind power station built by integrating wind turbine-type wind turbines and many such wind turbines, which can be used to develop and utilize the extremely rich natural wind resources distributed in a wide meteorological space.

2. As described in claim 1, the wind turbine wind power generator, wind power station, and its construction method include a wind turbine wind power generator, characterized in that, It consists of a large-scale dedicated wind-gathering plate wall structure, a large-scale dedicated wind power base, and a large-scale dedicated wind turbine rotor integrated component, forming a wind turbine rotor type wind turbine.

3. As described in claim 2, the wind turbine generator has a large-scale dedicated wind-gathering plate wall structure, characterized in that... It features a large-scale, robust, and variable configuration, demonstrating its ability to concentrate large amounts of wind force and regulate wind direction. This makes it particularly important and significant in this invention.

4. As described in claim 2, in a wind turbine generator with a large, specially designed integrated wind turbine rotor, characterized in that... It has a fixed outer shell, a rotating internal wind turbine rotor frame, a special wind turbine design, and a special construction method, which ensures that natural wind power can be smoothly converted into mechanical rotational power.

5. As described in claim 2, in a wind turbine-type wind power generator, a generator set is installed, which is further equipped with a dedicated rotation controller for wind power generators, characterized in that, It consists of a wind force sensor, an intelligent relay-type telescopic component, and a wind force level control function. It can enable the generator set to start or stop the corresponding generator according to the preset wind force level control function under different wind force levels, so that the entire generator set can adapt to the natural characteristics of large wind force level changes.

6. As described in claim 1, in a wind turbine-type wind power generator, a power station, and a method for constructing the same, a wind power station is included, characterized in that... It consists of an ultra-large dedicated wind-gathering panel wall structure, a wind turbine-type wind power station building frame, and numerous wind turbine-type wind generators.

7. As described in claim 1 or 6, in a wind turbine-type wind power generator, a wind power station, and a method for constructing the same, a wind power station is included, characterized in that... The proposed solution involves arranging and integrating numerous wind turbine generators to form a large-scale, integrated wind power station. This allows the station to extend both horizontally and vertically, thus enabling it to effectively develop and utilize the abundant natural wind resources distributed across a wide meteorological range.

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