High-wind-bearing multi-layer type multi-blade wind driven generator device

Abstract

A high-wind-receiving multilayer type multi-blade wind driven generator device comprises a shell, the shell comprises a windward plate and a box body, the box body is provided with a containing space with an opening, and the opening is closed by the windward plate; the central gear is arranged in the center of the containing space, and a rotating shaft of the central gear is connected with a generator in the direction facing the box body. The plurality of first peripheral gears are respectively arranged around the central gear in a surrounding manner and are respectively meshed with the central gear, and the first peripheral gears are respectively arranged in the accommodating space; the first wind blades are combined with the ends, facing the windward plate, of the rotating shafts of the first peripheral gears respectively. A plurality of first wind power fan blades rotate each first peripheral gear to drive the central gear and the generator to generate electric power, so that the wind power generation efficiency can be improved, and a vertical or horizontal fan can be manufactured; a plurality of layers of second wind power fan blades can be added, and the first wind power fan blades and the second wind power fan blades can respectively rotate the generator instead of jointly rotating the gear.

Description

TECHNICAL FIELD

[0001] The utility model relates to a high-wind multi-layer multi-blade wind turbine device, in particular to a high-wind multi-layer multi-blade wind turbine device with multiple wind blades on the periphery to generate electricity. BACKGROUND

[0002] Nowadays, environmental awareness is rising, and the demand for renewable energy is increasing, among which wind power generation is the direction of research and development for many countries. However, the existing wind turbine only has a single three-blade fan blade, and the power generation efficiency is limited, so a better fan configuration is needed to improve the efficiency of wind power generation.

[0003] Therefore, based on years of research and practical experience in the relevant field, the present inventor has developed a high-wind multi-layer multi-blade wind turbine device to overcome the shortcomings of the prior art. SUMMARY

[0004] The main purpose of the utility model is to provide a high-wind multi-layer multi-blade wind turbine device, which generates electricity by using multiple wind blades on the periphery, achieving higher wind power generation efficiency and using multi-layer wind blades.

[0005] To achieve the above purpose, the high-wind multi-layer multi-blade wind turbine device of the utility model has a housing, which includes a wind-facing plate and a box. The box has a containing space with an opening, and the wind-facing plate closes the opening. A central gear is arranged in the center of the containing space, and the rotation axis of the central gear is connected to a generator from the direction opposite to the opening. Multiple first peripheral gears are arranged around the central gear and meshed with the central gear, and each first peripheral gear is arranged in the containing space. Multiple first wind blades are combined with the rotation axis of each first peripheral gear towards one end of the wind-facing plate. The generator can be electrically connected to a power facility to output power.

[0006] The utility model makes each first wind blade rotate the first peripheral gears after being blown by the wind, and the first peripheral gears rotate the central gear and the generator together to generate electricity, increasing the efficiency of wind power generation. The meshing surface of the central gear and each first peripheral gear can have lubricating liquid to reduce the friction between the central gear and each first peripheral gear.

[0007] In an embodiment, the utility model is a vertical fan, the opening of the containing space faces one side of the housing, and the central gear and each first peripheral gear are vertically arranged in the containing space. The central gear can be larger than each first peripheral gear. The bottom of the housing can be a flat surface to facilitate installation on the top of a support column.

[0008] In an embodiment, the utility model discloses a horizontal type fan, and the opening of the accommodating space faces the top surface of the shell, and the central gear and each first peripheral gear are horizontally arranged in the accommodating space respectively.

[0009] The central part of the windward plate can be higher than the peripheral part of the windward plate, so that the central part of the windward plate to the peripheral part of the windward plate forms an inclined surface, so as to guide the wind force blowing to the windward plate to leave the shell and reduce the wind force borne by the windward plate. In another embodiment, further, a plurality of second peripheral gears are arranged around the central gear and are engaged with the central gear respectively, each second peripheral gear is arranged in the accommodating space, and a plurality of second wind power fan blades are combined with one end of the rotating shaft of each second peripheral gear towards the windward plate, and each first wind power fan blade and each second wind power fan blade are arranged in different planes respectively.

[0010] By arranging each second wind power fan blade in a different plane from each first wind power fan blade, the wind power fan blades do not interfere with each other when rotating, and more wind power fan blades can drive the central gear and the generator together.

[0011] Further, the central part of the windward plate to the peripheral part of the windward plate forms an inclined surface, and the bottom of the shell forms a plane.

[0012] In an embodiment, the utility model discloses a shell, which comprises a windward plate and a box body, the box body has an accommodating space with an opening, and the windward plate closes the opening; a plurality of first peripheral generators are arranged around the accommodating space at intervals respectively; a plurality of second peripheral generators are arranged around the accommodating space at intervals respectively, and each second peripheral generator is arranged between each first peripheral generator; a plurality of first wind power fan blades are combined with one end of the rotating shaft of each first peripheral generator towards the windward plate; and a plurality of second wind power fan blades are combined with one end of the rotating shaft of each second peripheral generator towards the windward plate, and each first wind power fan blade and each second wind power fan blade are arranged in different planes respectively.

[0013] This embodiment connects each first and second wind power fan blade to the first or second peripheral generator respectively, and the first and second peripheral generators are electrically connected to external power facilities.

[0014] The configuration of the multiple wind wheels and multiple layers of wind power fan blades can increase the wind receiving efficiency and improve the power generation capacity of wind power generation.

[0015] The utility model has the advantages of:

[0016] 1、 each first wind fan blade is rotated after being blown by wind, each first peripheral gear is rotated again, the central gear and the generator are rotated together to generate power, and the efficiency of wind power generation is increased;

[0017] 2、 the efficiency of wind receiving is increased, and the power generation of wind power generation is increased by the multi-wind wheel and multi-layer wind fan blade configuration.

[0018] In order to clearly and fully disclose the utility model, and to list the preferred embodiment of the drawing, the implementation mode is described in detail as follows. BRIEF DESCRIPTION OF DRAWINGS

[0019] Figure 1 It is a perspective view of the embodiment (one) of the utility model.

[0020] Figure 2 It is a longitudinal section schematic view of the first drawing.

[0021] Figure 3 It is a gear configuration schematic view of the embodiment (two) of the utility model.

[0022] Figure 4 It is a side view schematic view of the embodiment (two) of the utility model.

[0023] Figure 5 It is a side view schematic view of the embodiment (three) of the utility model.

[0024] Figure 6 It is a side view schematic view of the embodiment (four) of the utility model.

[0025] BRIEF DESCRIPTION OF DRAWINGS

[0026] 1、 outer shell;

[0027] 11、 windward plate;

[0028] 12、 box;

[0029] 121、 accommodating space;

[0030] 122、 suspension edge;

[0031] 13、 support;

[0032] 2、 central gear;

[0033] 3、 generator;

[0034] 4、 first peripheral gear;

[0035] 5、 first wind fan blade;

[0036] 6、 second peripheral gear;

[0037] 7、 second wind fan blade;

[0038] 8. First peripheral generator;

[0039] 9. Second peripheral generator;

[0040] A. First plane;

[0041] B. Second plane. Detailed Implementation

[0042] Please refer to Figure 1 to... Figure 2 The accompanying drawings of the embodiments of the present invention are disclosed. The drawings illustrate an embodiment (I) of the high wind-receiving multi-layer multi-blade wind turbine generator of the present invention, which includes a housing 1, which includes a windward plate 11 and a box 12. The box 12 has an accommodating space 121 with an opening, and the windward plate 11 closes the opening; a central gear 2, which is disposed in the center of the accommodating space 121, and the rotation shaft of the central gear 2 is connected to a generator 3 in a direction opposite to the opening; a plurality of first peripheral gears 4, each of which is respectively arranged around the central gear 2 and respectively meshes with the central gear 2, and the number of first peripheral gears 4 can be increased or decreased (while changing the interval), and each of the first peripheral gears 4 is respectively disposed within the accommodating space 121; and a plurality of first wind turbine blades 5, which are respectively connected to the end of the rotation shaft of each first peripheral gear 4 facing the windward plate 11.

[0043] Example (1) is a vertical fan, with the central gear 2 and each of the first peripheral gears 4 vertically arranged within the accommodating space 121, i.e. Figure 2 The orientation of the central gear 2 and each of the first peripheral gears 4 shown is such that the opening of the accommodating space 121 faces one side of the outer casing 1. Figure 2 The left side is the side of the housing 12 where the windward plate 11 is attached. Therefore, the rotation shaft of the central gear 2 is connected to the generator 3 from the right side. The generator 3 can be set on the outside of the outer shell 1. In embodiment (I), the generator 3 is set on the side of the housing 12 opposite to the windward plate 11. The rotation shaft of the central gear 2 passes through the housing 12 and is connected to the generator 3. The central gear 2 is larger than each of the first peripheral gears 4. The bottom of the outer shell 1 is flat to facilitate installation on the top of a support column (not shown). As in embodiment (I), an additional support member 13 can be installed below the circular housing 12 to make the bottom of the outer shell 1 flat. In embodiment (I), there is a support member 13 on the left and right sides below the circular housing 12 to make the bottom of the outer shell 1 flat. Alternatively, the bottom of the housing 12 can be designed as a flat surface so that embodiment (I) can be rotated to the windward direction. In embodiment (1), the housing 12 has a suspended edge 122 around the opening of the accommodating space 121 to facilitate the installation of the windward plate 11; the rotation shafts of each first peripheral gear 4 pass through the windward plate 11 to install each first wind turbine blade 5.

[0044] The central part of the windward plate 11 is higher than the peripheral part of the windward plate 11 in the embodiment (I), so that the central part of the windward plate 11 is inclined to the peripheral part, thereby guiding the wind force blowing to the windward plate 11 to leave the shell 1 and reducing the wind force borne by the windward plate 11.

[0045] The utility model makes each first wind force fan blade 5 rotate each first periphery gear 4 after being blown by wind, each first periphery gear 4 rotates central gear 2 and generator 3 to generate electric power again, and the efficiency of wind power generation is increased. The meshing surface of central gear 2 and each first periphery gear 4 can have lubricating liquid (not drawn) to reduce the friction between central gear 2 and each first periphery gear 4.

[0046] Figure 3 And Figure 4 As can be seen in the embodiment (II) of the utility model, a plurality of second periphery gears 6 are respectively arranged around the central gear 2 and are respectively engaged with the central gear 2, each second periphery gear 6 is arranged in the accommodating space 121, and a plurality of second wind force fan blades 7 are respectively combined with one end of the rotating shaft of each second periphery gear 6 towards the windward plate 11, and each first wind force fan blade 5 and each second wind force fan blade 7 are arranged on different planes.

[0047] In the embodiment (II), four second periphery gears 6 are respectively arranged at equal intervals between each first periphery gear 4, but the number of second periphery gears 6 does not have to be equal to that of first periphery gears 4 and can be changed according to design. The embodiment (II) is a vertical wind turbine, and the central gear 2, each first periphery gear 4 and each second periphery gear 6 are vertically arranged in the accommodating space 121, and the central gear 2 is larger than each first periphery gear 4 and each second periphery gear 6. The meshing surfaces of the central gear 2, each first periphery gear 4 and each second periphery gear 6 respectively have lubricating liquid to reduce friction.

[0048] By arranging each second wind force fan blade 7 on a different plane from each first wind force fan blade 5, that is, the length of the rotating shaft of each second wind force fan blade 7 is different from that of each first wind force fan blade 5, each second wind force fan blade 7 is arranged on a second plane B, each first wind force fan blade 5 is arranged on a first plane A, and the second wind force fan blade 7 and the first wind force fan blade 5 do not interfere with each other when rotating, so that the central gear 2 and the generator 3 can be driven together, and the efficiency of wind power generation is increased.

[0049] In the embodiment (III) of the utility model, Figure 5 , the central gear 2, each first periphery gear 4 and each second periphery gear 6 are horizontally arranged in the accommodating space 121, and the horizontal direction is as shown in Figure 5The first plane A to the second plane B of the extension direction shown, the opening of the accommodation space 121 faces the top surface of the shell 1. While the central gear 2 can be larger than each first peripheral gear 4 and each second peripheral gear 6; the bottom of the generator 3 can be a plane to facilitate installation on the top end of a support (not drawn) (or the bottom of the shell of the generator 3 is a plane). Because the wind direction of each wind fan blade is different, the first wind fan blade 5 and the second wind fan blade 7 of the embodiment (three) can adopt a different form from the embodiments (one), (two).

[0050] In Figure 6 , the embodiment (four) of the utility model includes a shell 1, it includes a windward board 11 and a box 12, the box 12 has a accommodation space 121 with an opening, the windward board 11 closes the opening;Multiple first peripheral generators 8, each first peripheral generator 8 is respectively and intervally arranged around the accommodation space 121;Multiple second peripheral generators 9, each second peripheral generator 9 is respectively and intervally arranged around the accommodation space 121;Multiple first wind fan blades 5, it is respectively combined in the rotation axis of each first peripheral generator 8 towards the one end of windward board 11;And multiple second wind fan blades 7, it is respectively combined in the rotation axis of each second peripheral generator 9 towards the one end of windward board 11, each first wind fan blade 5 and each second wind fan blade 7 are arranged in different plane respectively.

[0051] The embodiment (four) makes each first wind fan blade 5 and each second wind fan blade 7 respectively link rotation first peripheral generator 8 or second peripheral generator 9 to generate electric power, and the first peripheral generator 8 and the second peripheral generator 9 are electrically connected to external power facilities (not drawn) to output electric power.

[0052] The multiple wind wheels and the multiple layer type wind fan blade configuration of the utility model can increase the wind receiving efficiency and improve the power generation of wind power generation.

[0053] However, the above is only the preferred embodiment of the utility model, which cannot be used to limit the range of the utility model that can be implemented, and any changes and modifications that are obvious to those skilled in the art should be considered as not departing from the essential content of the utility model.

Claims

1. A high-wind multi-layer multi-blade wind turbine generator device, characterized in that, Comprising: a housing including a windward plate and a box having a receiving space with an opening, the windward plate closing the opening; a plurality of first peripheral generators, each first peripheral generator being spaced apart and arranged around the receiving space; a plurality of second peripheral generators, each second peripheral generator being spaced apart and arranged around the receiving space, each second peripheral generator being arranged between each first peripheral generator; a plurality of first wind blades, each first wind blade being coupled to a rotating shaft of each first peripheral generator toward one end of the windward plate; and a plurality of second wind blades, each second wind blade being coupled to a rotating shaft of each second peripheral generator toward one end of the windward plate, each first wind blade and each second wind blade being arranged in different planes.

2. The high-wind multi-tiered multi-blade windmill apparatus of claim 1, wherein, Each first peripheral generator and each second peripheral generator is arranged upright within the receiving space, the opening of the receiving space facing one side of the housing.

3. The high-wind multi-tiered multi-blade windmill apparatus of claim 1, wherein, Each first peripheral generator and each second peripheral generator is arranged horizontally within the receiving space, the opening of the receiving space facing a top surface of the housing.

4. The high-wind multi-tiered multi-blade windmill generator apparatus of claim 1, wherein, A center of the windward plate is higher than a periphery of the windward plate, such that the center of the windward plate to the periphery of the windward plate forms an inclined surface.

5. The high-wind multi-tiered multi-blade windmill generator apparatus of claim 1, wherein, A bottom of the housing forms a flat surface.

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