JP2013100751A - Jet wind power generating device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To develop a jet wind power generating device which gathers a large quantity of airflow in a wide range, protects the device against strong winds, and strengthens wind power or the like to enhance capability of a wind power utilizing instrument.SOLUTION: The jet wind power generating device includes: an airflow intake part 1 equipped with a first airflow receiver 2 and a second airflow receiver 8; a guide pipe 11; a body part 16; a discharge part 31; and a wind power utilizing instrument 25. Airflow guides 6 and opening/closing doors 7 are provided on sidewalls 5 of the first airflow receiver 2, a discharge varying part 32 and a gap passage 35 are provided on the discharge part 31, and, in addition, a pressurized airflow extraction device 40 and a rainwater storage device 48 can be provided. Thus, the airflow over a wide range is gathered, the device is protected against strong winds, and wind power or the like is strengthened. This improves the capability of the wind power utilizing instrument 25, and a significant effect is achieved in solving the problem and enabling earth-friendly coexistence of humans.

Description

The present invention relates to a jet wind power generator for generating a pressurized airflow.

At present, due to problems such as global warming, there is a growing tendency to reduce carbon dioxide (CO2) and save energy, and various types of energy sources such as wind power are being considered.

There is generally a wind power generator as a device using wind power.
Since power generation using a technique for generating an air flow under pressure is performed, such a wind power generator will be described.

For example, Japanese Patent Laid-Open No. 56-135762 of Patent Document 1 discloses a wind power generator. There are air outlets with shutters that open in the radial direction, speed increasing passages, jet outlets, air collecting passages located in the center, a generator provided in the power generation chamber, and a downstream side of the generator. It is a wind power generator comprising a plurality of directional exhaust vents provided around. This wind turbine generator collects wind from an arbitrary direction at some of a large number of air collecting openings, and the speed increasing path has a curved or slanted upper side and a bent portion with a lower-side shape. As a result of this, air is also drawn into the air collecting path from the air collecting port where the wind is not blown at the same time, and this wind is blown to one side of the wind turbine so as to obtain a rotational torque in one direction, and the wind turbine is rotated. In this configuration, power is generated by a connected generator.

In addition, this wind power generator is equipped with a wind collecting port and a speed increasing path, so that it can generate power even in light winds, and when the wind is strong, the wind collecting port is made smaller with a shutter, or the position of the windmill is moved to hit the windmill. Power generation can be continued safely by reducing the wind. In addition, if this wind power generator is provided with a plurality of air outlets around the air collecting path and is a gravity drop type open / close door, it prevents inflow of wind from the opposite direction, and discharge becomes a preferable flow. . As described above, this wind turbine generator can obtain electric power safely and efficiently regardless of the direction in which the wind blows.

Next, in Japanese Patent Application Laid-Open No. 11-141452 of Patent Document 2, a plurality of trumpet-shaped air guide tubes that expand forward are placed in a superposed state with the rear end portion of which the front end portion is the front end. Or a propeller arranged in series on the same axis so as to be close to each other and linked to drive the generator inside the rear end of the rearmost wind guide tube The wind power generator is mounted on a substrate that can be swung around a vertical axis, and the generator and the power transmission line thereby are also mounted on the substrate.

Even if the outer diameter of this wind turbine generator is the same as that of a conventional propeller, wind energy can be recovered significantly more effectively than the conventional one, so that a highly efficient power generation effect can be obtained. It is said that a wind power generator can be obtained.

Next, Japanese Patent Application Laid-Open No. 59-082584 of Patent Document 3 discloses a wind power generator characterized in that a wall surface of a wind collecting hood and a lid provided on the wall surface of the wind collecting hood are connected by a projectile body. It is.

This wind power generator is provided with a swingable lid that is urged by an ammunition at the opening of the wall surface of the wind collecting hood. It is said that there is an effect that the rotational power can be obtained safely.

JP-A-56-135762 Japanese Patent Laid-Open No. 11-141452 JP 59-082584 A

However, in the wind current intake of this wind power generator disclosed in Japanese Patent Application Laid-Open No. 56-135762, the cross-sectional shape of the air collecting port is an obliquely bent portion with the upper side going down and the lower side going up. In addition, the air flow direction of the air outlet is formed obliquely in the air collecting path, and even if the speed can be increased, resistance is applied to the air flow, resulting in turbulent air flow, and the amount of air collected decreases. Further, the upper side of the air collecting port is a roof, and since the air flow from above is not used, the air collecting amount is small. Therefore, in order to increase the air collecting amount, a configuration in which the polygonal chambers are stacked in two or three stages is employed.

Next, a shutter and a storage place are attached to the lower part of the air collecting port on the entire circumference, and when there is a strong wind, it is necessary to manually and mechanically open and close the air volume for each shutter, etc. It must be moved manually or by machine.

Next, the airflow is blown to one side of the windmill in order to make the airflow taken in one direction a rotational torque, the rotation is uneven, stable performance is difficult to obtain, and noise is also generated. In addition, although it is considered that the wind turbine blades are mounted vertically below the air collecting path, the wind turbine blades are considered to ignore the discharge of the air flow, and the air flow is not discharged quickly.

Next, there are several outlets around the air collecting path, and it is a gravity drop open / close door. To prevent strong wind and backflow, the surrounding open / close door and windmill must be moved manually or by machine. Don't be.

As described above, the wind power generator disclosed in Japanese Patent Application Laid-Open No. 56-135762 is a two-stage or three-stage polygon in order to capture a wide range of airflow, protect the apparatus from strong winds, and obtain a stable power generation capacity. It is necessary to provide a room, a shutter storage place, a mobile windmill, an airflow discharge opening / closing door, etc., and there is a problem that it takes large equipment, complicated equipment, labor, time and the like.

Next, the wind power generator disclosed in Japanese Patent Application Laid-Open No. 11-141452 of Patent Document 2 is arranged so that the wind guide tubes are in a superposed state in series on the same axis, and only the horizontal airflows are sequentially stacked. It is a method of taking in airflow from above. In addition, no measures against strong wind currents are taken. Further, the whole apparatus is provided with a substrate and a support tube so as to rotate in the horizontal direction around the support shaft, and both take in only the airflow in the horizontal direction.

Next, the wind power generator disclosed in Japanese Patent Application Laid-Open No. 59-082584 of Patent Document 3 is a door that opens and closes only to the strong wind airflow flowing in one direction in the horizontal direction, and the intake airflow from the upper direction and both directions. And it does not support strong winds.

The present invention solves the problems such as the effective use of air volume, wind speed, wind power, etc., countermeasures against strong wind, stability due to blade rotation, prompt discharge of airflow, noise, backflow prevention, etc., which such a conventional configuration had. The purpose is to increase the capacity of wind-powered machinery and equipment, and to make effective use of pressurized wind power and rainwater.

The jet wind power generator of the present invention includes an air flow intake section, a guide pipe connected thereto, a cylindrical blade main body connected to the guide pipe, and a discharge section connected to the cylindrical blade main body. In the jet wind power generator, the airflow intake section includes a tapered or cylindrical first airflow receiver, and a tapered or cylindrical second airflow receiver provided behind the first airflow receiver. The first air flow receiver includes a front first intake port, a rear first blow-out port, and a side wall. The side wall includes a front end portion of the side wall and a front side to the rear side of the side wall. There are a plurality of airflow guide portions provided with airflow receivers, and an openable / closable door therein, and the second airflow receiver includes a second intake port and a second outlet, 2 The intake port is larger than the first air outlet of the first airflow receiver, The second air outlet of the second air current receiver is connected to a guide pipe, and the openable door is located at the same position as the opening, or at a position on the first air current receiver side before that. Either an airflow of a predetermined strength that is going to pass from the first intake port to the first blowout port or an airflow of a predetermined strength that is going to pass from the second intake port to the second blower outlet It can be opened and closed depending on the object.

The cylindrical blade main body portion has a main shaft to which a rotor with blades for generating a pressurized airflow is attached, and the main shaft is connected to a wind-powered machine tool.

Further, the air flow intake section is provided fixed in the vertical direction.

The cylindrical blade body includes an outer cylinder casing, an inner cylinder casing, a partition passage formed by the outer cylinder casing and the inner cylinder casing, a main shaft attached to the inner cylinder casing, and a main shaft in front of the inner cylinder casing. A first rectifying plate provided outward from the center line, a first cone having a conical shape incorporated in the central portion of the first rectifying plate, and a bladed rotor attached to the main shaft at the rear of the inner casing And a second rectifying plate provided outward from the main shaft center line behind the rotor with blades, and a second cone having a conical shape incorporated in the central portion of the second rectifying plate. And

In addition, the cylindrical blade main body portion is provided with an airflow outlet, and the pressurized airflow is taken out from the airflow outlet so that it can be used for an apparatus for storing and distributing air.

Further, the jet wind power generator is provided with a device for collecting, storing, or distributing rainwater that passes through one or both of the inside and the outside of the jet wind power generator.

The operation of the present invention will be described below.

First, the airflow intake portion of the present invention will be described. The air flow intake section has a vertical installation type as shown in FIG. 1 and a horizontal installation type as shown in FIG. 8, but the vertical installation type air intake shown in FIG. The first airflow receiver and the second airflow receiver of the tapered type or cylindrical type of the part will be described.

Since the first intake port, the side wall, and the first blowout port are provided in the first airflow receiver of the airflow intake unit, the airflow from the upper direction is collected at the first intake port, and from the first blowout port. The blowout air enters the guide pipe through the second blowout port in the second airflow receiver.

Further, the first airflow receiver has a side wall and an airflow guide portion provided on the side wall, and the second airflow receiver is provided with the second intake port and the second blowout port. The airflow from is collected at the side wall, the airflow guide section, and the second intake port, and enters the guide pipe through the second blowout port.

Since it did in this way, an airflow intake part respond | corresponds to the wide range of the airflow of an upward direction, and the airflow of a horizontal direction, and can collect a large amount of airflows rapidly.

Next, the openable / closable door will be described. The openable / closable door is provided in the side wall of the first airflow receiver and the plurality of airflow guides. Therefore, when the wind is strong, the strong wind current coming from the first intake port is stronger than a certain level. If this happens, the door can be opened from the inside of the side wall to the outside by its own force and escape to the outside. When the strong wind current from the horizontal direction entering from the second intake port becomes stronger than a certain level during strong wind, after pushing the openable door from the outside of the side wall to the inside by its own force, Because the first open port escapes to the upper outside, or the other openable door opens from the inside of the side wall to the outside and escapes to the outside, the openable door can take in the amount of airflow during strong winds. Adjust automatically.

Next, since the second air outlet of the second airflow receiver and the guide pipe are connected and further connected to the cylindrical blade main body (hereinafter referred to as the main body), the airflow flows to the main body. .

Further, by providing the airflow intake portion fixed in the vertical direction, the airflow is stably collected with respect to the airflow in each direction.

Next, the main body will be described. The main body includes an outer cylinder casing, an inner cylinder casing, a partition passage formed by the outer cylinder casing and the inner cylinder casing, a main shaft attached to the inner cylinder casing, and an outer side from the main axis center line in front of the inner cylinder casing. A first rectifying plate provided toward the center, a first cone having a conical shape incorporated in the central portion of the first rectifying plate, a rotor with blades attached to the main shaft at the rear of the inner casing, and the blades Since the main body is composed of a second rectifying plate provided on the rear side of the main shaft from the main axis toward the outside and a second cone having a conical shape incorporated in the center of the second rectifying plate. The air flow from the induction pipe is simultaneously rectified and contracted by the first rectifying plate and the first cone, strengthens the wind speed, wind force, etc., passes through the partition wall passage, and then the plurality of blades efficiently receive the air current, Rotate and low -Also functions as a flywheel, which rotates the main shaft stably, and the main shaft is connected to the wind-powered equipment. Further, the second rectifying plate and the second cone are re-rectified and diffused behind the rotor. By carrying out simultaneously and sending an airflow to a discharge part, a powerful airflow can be generated in a main-body part.

Next, since the airflow outlet is provided in the main body, the airflow pressurized by the blades can be taken out from the airflow outlet, so the pressurized airflow is stored, distributed, etc. Can be used.

Next, because of the structure of this device, rainwater passes through one or both of the inside and outside of the airflow intake, guide pipe, main body, and discharge, so that rainwater is collected, stored, or distributed. By providing such a device, rainwater can be effectively used as necessary. It can also be used in combination with the above-described pressurized airflow.

The airflow intake unit collects the airflow from the upper direction at the first intake port, and collects the airflow from the horizontal direction at the second intake port. It collects a lot of water and has the effect of strengthening the air volume, wind speed, wind power, etc.

Since the openable door is installed with a spring so that it naturally returns to the neutral position, the strong wind current from the upper side naturally pushes the openable door from the inside to the outside by its own force. The strong wind current from the horizontal direction escapes from the device and pushes the openable door from the outside to the inside by its own force, and pushes the other openable door from the inside to the outside. The door can be automatically escaped, and the openable door automatically controls the strong winds in both directions and adjusts the amount of intake to protect the device and have an effective effect, and the structure is simple. There is also an effect that does not require large-scale equipment or labor.

Since the airflow intake section is fixed in the vertical direction, it can collect stable airflow in all directions except the airflow from the lower direction without the need for agile movement, so the structure, function, economy, etc. It has the effect of being able to safely perform highly stable abilities.

The main body rectifies and contracts the airflow with the first rectifying plate and the first cone, and then the airflow passes through the partition wall and rotates a plurality of blades evenly, and with a rotor that also serves as a flywheel, The main shaft is rotated to rotate the wind-powered machine tool. Re-rectifying and diffusing with the second rectifying plate and the second cone, reducing noise and sending it to the discharge part quickly, so that the effect of exhibiting advanced capabilities in rotation speed, output, performance, stability, etc. There is. In addition, when a plurality of stages of rotors, blades and the like are stacked, there is an effect of further increasing rotation, output, and the like.

Since the pressurized air flow taken out can be stored and distributed from the air flow outlet, it can be blown to cool the product in the factory, etc., to dry it, and to adjust the humidity and temperature in the farm etc. There are effects that can be performed.

By providing a device that collects, stores, and distributes rainwater in this device, there is an effect that water can be sprayed as needed in schools, factories, farms, fields, and the like. Moreover, there is an effect that the application can be used in a wide range by using in combination with the above-described pressurized airflow.

As described above, the present invention enhances the capabilities of wind-powered machinery and equipment, is more efficient than conventional wind-powered machinery and equipment, is easy to maintain and manage facilities, and reduces human operations. Large amounts of airflow can be collected in large quantities, and can be made larger and smaller. Also, wind and rainwater can be distributed and rainwater can be used for effective use. This is a great way to protect the Earth.

The whole figure of the jet wind power generator of the present invention containing a partial section. The figure showing the flow of the normal airflow in an airflow intake part, and the airflow at the time of a strong wind. (A) From the direction of the first intake port. (B) From the second intake port direction. The combination figure of the airflow intake parts other than FIG. (A) A taper type first air flow receiver and a cylindrical type second air flow receiver. (B) A cylindrical-type first airflow receiver and a tapered-type second airflow receiver. (C) A cylindrical first airflow receiver and a cylindrical second airflow receiver. The figure showing the Example of the door which can be opened and closed. (A) A double-sided opening. (B) A hydraulic type. The figure showing the combination of various airflow intake parts and various cones. The figure showing the structure of the jet wind power generator of this invention other than FIG. The whole sectional view which attached the free rotor, the blade, and the belt to the horizontal installation type of the present invention. The installation example figure of the pressurized air flow taking-out apparatus and rain water storage apparatus of this invention.

Hereinafter, the jet wind power generator of the present invention will be described with reference to the drawings.

The jet wind power generation device of FIG. 1 is a jet wind power generation device including an airflow intake portion 1, a guide pipe 11, a main body portion 16, a discharge portion 31, and a wind-powered machine tool 25.

The present invention can be used on roofs, rooftops, etc. of ordinary households, schools, hospitals, factories, etc. by making it small and lightweight, and by expanding it, it can be used for vast plains, oceans, islands, capes, peninsulas, mountain peaks, etc. Since it can be used in the above and can be manufactured in a large and small range, a case where it is specifically used for a rooftop will be described.

The airflow intake section 1 is provided with a first airflow receiver 2 on the inner side and a second airflow receiver 8 on the outer side, and the first airflow receiver 2 is disposed around the front portion inside the first intake port 3. The first air outlet 4 is formed around the rear inner portion, a plurality of airflow guide portions 6 are provided outside the side wall 5, and the openable / closable door 7 is attached to the side wall 5 inside the airflow guide portion 6.

The second airflow receiver 8 is provided with a front portion, a side wall 5 of the first airflow receiver 2, and a plurality of airflow guide portions 6 to form a second intake port 9, and a rear portion of the second airflow receiver 8. A second outlet 10 was provided at the end and connected to the guide pipe 11.

The air flow intake unit 1 collects the air flow 12 from the upper direction at the first intake port 3, collects the air flow 13 from the horizontal direction at the second intake port 9, and sends the air flow 13 from the second blowing port 10 to the guide pipe 11. Therefore, it is possible to collect a large amount of air current over a wide area, increase the air volume, and strengthen the wind power.

The openable / closable door 7 attached to the side wall 5 is normally in a closed state, and the airflow 12 passes through the first blowout port 4 and the airflow 13 passes through the second blowout port 10 and flows into the guide pipe 11. The openable / closable door 7 is pushed open by the wind force in a strong wind, and the strong wind airflow 14 is released from the openable door 7a state, and the strong wind airflow 15 is released from the openable door 7b state to the outside of the apparatus. Therefore, the openable / closable door 7 prevents the strong wind airflows 14 and 15 from entering the apparatus and protects the apparatus.

The main body 16 is a rotor in which a partition passage 19 is formed by an outer cylinder casing 17 and an inner cylinder casing 18, a first rectifying plate 20 and a first cone 21 are provided in front of the inner cylinder casing 18, and a blade 22 is provided in the rear. 23 is connected to the main shaft 24, the main shaft 24 is connected to the wind-powered machine tool 25, and a second rectifying plate 26 and a second cone 27 are provided behind the rotor 23. The main body portion 16 rectifies and contracts the airflow, rotates the blades 22, the rotor 23, and the main shaft 24 with a strong airflow, rotates the wind-powered machine tool 25, further re-rectifies and diffuses the airflow, The generation can be promoted.

The discharge unit 31 includes a discharge change unit 32 that protrudes and a discharge port 34 around the discharge change unit 32 in order to discharge the air flow in the direction changed by the discharge change unit 32. The discharge portion 31 can be reduced and attached, and a gap passage 35 that passes through the external airflow 39 is provided between the main body portion 16 and the discharge change portion 32. Since the exhaust air can be exhausted without being obstructed by the external air flow 39 entering from the discharge port 34, the ability of the wind-powered machine tool 25 can be enhanced.

As described above, the airflow is collected after being collected by the airflow intake unit 1 at the high position or the front, and passes through the main body portion 16 at the low position or the rear to strengthen the air volume, the wind speed, the wind force, etc. The utilization machine tool 25 is rotated and discharged through the discharge unit 31.

The material of the airflow intake part 1, the induction pipe 11, the main body part 16, the discharge part 31, etc. can be composed of metal, light metal, cement, plastic, resin, stone, wood, or the like.

Although the airflow intake section 1 is described as being fixed, it may be movable for angle adjustment or the like, or may be rotated so as to face the flow of the airflow depending on the situation such as the installation location.

If a net, a screen, or the like is attached to the airflow intake portion 1, entry of birds or the like can be prevented. Moreover, the airflow guide part 6 of the airflow intake part 1 can also serve as a support | pillar. Further, fins may be provided in the airflow intake portion 1 from the front to the rear to increase the effect of rectification and the like.

The normal airflow and the flow of the airflow in the strong wind in the jet wind power generator of the present invention will be described with reference to FIG. 2. The normal airflow includes the airflow 12 from the first intake port direction and the airflow 13 from the second intake port direction. There are two types of air currents during strong winds: a strong wind air flow 14 from the first intake port direction and a strong wind air flow 15 from the second intake port direction.

In FIG. 1, although the airflow intake part 1 of the jet wind power generator of this invention was demonstrated, (b), (b), (c) of FIG. 3 may be sufficient. It is the combination figure of the taper-shaped type | mold and cylindrical type | mold of the 1st airflow receiving body 2 of the airflow intake part 1, and the 2nd airflow receiving body 8. FIG.

FIG. 4 (a) shows the openable door 7 divided and mounted on both sides, which operates with a flow difference of airflow, wind speed, wind force, etc., and corresponds to the strong wind airflow 14 and the strong wind airflow 15. In the embodiment, which is normally closed at the neutral position, it is attached to the side wall 5 with bolts 7c, washers 7d, springs 7e, nuts 7f and the like. In addition, the airflow of a predetermined strength that tries to pass from the first intake port 3 to the first blowout port 4 by reverse operation and the predetermined strength that tries to pass from the second intake port 9 to the second blowout port 10. It is also possible to operate each in only one direction with respect to the air current. Fig. 4 (b) shows that the openable door 7 is made hydraulic so that it can be forcibly opened and closed during inspection, inspection, repair, maintenance, emergency, etc. It is also possible to do this with a column shaft 7g, a working cylinder 7h, etc.

FIG. 5 shows an example in which the type of the airflow intake section 1 is changed, and a conical shape, a polygonal pyramid shape, a shell and the like formed by a straight line and a curve having an angle in the range of 0 to 90 degrees inside the cylinder or the like. This is an embodiment in combination with various first cones 21 such as a shape and a long nose shape, and can also be applied to the second cone 27. An example in which intake, compression, contraction, or expansion, expansion, diffusion, flow change, and the like are performed on a fluid such as an airflow, gas, or liquid to change the fluid.

Although the jet wind power generator of the present invention has been described with reference to FIG. 1, it can also be configured as shown in FIG. 6 in addition to FIG. FIG. 6 (a) shows the vertical airflow intake 1, the guide pipe 11, the vertical main body 16, and the vertical discharger 31. (B) is a horizontal air flow intake unit 1, a guide pipe 11, a vertical main body unit 16, and a vertical discharge unit 31. (C) is the horizontal airflow intake 1, the guide pipe 11, the horizontal main body 16, and the horizontal discharger 31.

The wind-powered machine tool 25 includes a machine tool, a pump, a compressor, a generator, and the like for mixing, crushing, stretching, washing, processing, pressurizing, manufacturing, manufacturing, working, and the like.

FIG. 7 illustrates an alternative apparatus different from the description of FIG. 1 in the combined configuration of the jet wind power generation apparatus described in FIG. FIG. 7 is an overall cross-sectional view in which the free rotor 28 and the blade 29 are attached to the horizontal installation type of the present invention, the main shaft 24 is shortened, and connected to the wind-powered machine tool 25 by the belt 30. The first intake port 3 of the first airflow receiver 2 is installed in the forward direction, and the second intake port 9 of the second airflow receiver 8 is installed in the circumferential direction of the side wall. Since the second intake port 9 collects airflow from the side wall circumferential surface direction, a large amount of airflow can be collected from multiple directions.

The main body portion 16 is provided with a blade 29 attached to a free rotor 28 that is connected to the main shaft 24 and freely rotates behind the first rectifying plate 20 and the first cone 21 and in front of the partition passage 19. Furthermore, since the blades 22 attached to the rotor 23 are disposed behind the partition wall passage 19 and the second rectifying plate 26 and the second cone 27 are disposed behind the rotor 23, the airflow 12 and the airflow 13 However, when the free rotor 28 and the blade 29 are rotated at a high speed, a compressed airflow is applied to the blades 22 attached to the rotor 23, and the main shaft 24 and the wind-powered machine tool 25 are rotated at a high speed with a more stable force. Thereafter, re-rectification and diffusion are performed by the second rectifying plate 26 and the second cone 27, and the airflow is smoothly flowed to the discharge portion 31.

The blades 22, the rotor 23, the blades 29, etc. can be formed in a plurality of stages.

As a method for connecting the main shaft 24 of the main body 16 and the wind-powered machine tool 25, the main shaft 24 is shortened, and the main shaft 24 and the wind-powered machine tool 25 are connected to the belt 30 behind the second rectifying plate 26 and the second cone 27. Connected with. Further, the connection position of the main shaft 24 and the wind-powered machine tool 25 can be changed to the front and rear, and a connection method such as a chain and a gear can be used in addition to the belt 30.

FIG. 8 is an installation example diagram of a pressurized air flow take-out device 40 and a rainwater storage device 48 in the jet wind power generator of the present invention,

First, the pressurized air flow take-out device 40 will be described. Since the pressurized air flow take-out port 41 is provided in the periphery of the blade 22 of the main body portion 16, the taken-out pressurized air flow is connected to the air flow pipe 42 and a one-way backflow prevention valve. 43 and stored in a pressurized airflow storage 45 to which a pressure gauge 44 is attached.

The pressurized airflow storage 45 is configured by a rubber balloon application type or a cylinder type, and when a pressurized airflow is required, the airflow is distributed by passing through the pipe 46 and opening and closing the airflow opening / closing valve 47.

A plurality of pressurized air flow outlets 41 may be provided.

Next, the rainwater storage device 48 will be described. Since the rainwater receiving tray 49 and the rainwater pipe 50 are provided at the lower part of the jet wind power generator according to the present invention, and the rainwater storage 52 to which the rainwater remaining amount gauge 51 is attached is provided. The rainwater passing through the inside and outside of the jet wind power generator is stored in the rainwater storage 52.

Rainwater from the rainwater storage 52 passes through the pipe 53 and is distributed by opening and closing the rainwater opening / closing valve 54.

By connecting the merging open / close pipe 55 and the merging valve 56 to the pressurized airflow storage 45 and the rainwater storage 52, the pressurized airflow and the rainwater can be mixed and used.

As described above, the jet wind power generation apparatus of the present invention is more efficient and easier to maintain and manage than conventional wind power generation, etc. It is possible to coexist gently and provide an effort to help protect the earth on which living things can live.

DESCRIPTION OF SYMBOLS 1 Airflow intake part 2 1st airflow receiving body 3 1st intake port 4 1st outlet 5 Side wall 6 Airflow guide part 7 Openable / closable door (normally closed state)
7a A state in which the openable door is pushed open from the inside to the outside by the strong wind 14.
7b A state in which the openable door is pushed open from the outside by the strong wind airflow 15 and a state in which the openable door on the facing side is pushed open from the inside to the outside.
7c Bolt 7d Washer 7e Spring 7f Nut 7g Strut shaft 7h Actuating cylinder 8 Second air flow receiver 9 Second intake port
10 Second outlet
11 Induction pipe
12 Airflow from the first intake port
13 Airflow from the second intake port
14 Strong wind current from the direction of the first intake port
15 Strong wind flow from the second intake port
16 Main body (tubular blade main body)
17 Outer casing
18 Inner cylinder casing
19 Bulkhead passage
20 First rectifying plate
21 First cone
22 feathers
23 Rotor (flywheel)
24 Spindle
25 Wind power machinery and equipment
26 Second baffle
27 2nd cone
28 Free rotor
29 blade
30 belts
31 Discharge section
32 Projected discharge change part (conical shape, polygonal pyramid shape)
34 Discharge port
35 Clearance passage
38 Exhaust airflow
39 Outside airflow
40 Pressurized air flow extraction device
41 Pressurized air flow outlet
42 Airflow pipe
43 Backflow prevention valve
44 Pressure gauge
45 Pressurized airflow storage
46 Pipe
47 Air flow open / close valve
48 Rainwater storage device
49 Rainwater tray
50 rainwater pipe
51 Rainwater gauge
52 Rainwater storage
53 Pipe
54 Rainwater open / close valve
55 Junction pipe
56 Merge open / close valve

Claims (5)

A jet wind power generator comprising an airflow intake section, a guide pipe connected to the guide pipe, a cylindrical blade body connected to the guide pipe, and a discharge section connected to the cylindrical blade body, The airflow intake section includes a first airflow receiver having a tapered shape or a cylindrical shape, and a second airflow receptor having a taper shape or a cylindrical shape provided behind the first airflow receiver, The air flow receiver includes a front first intake port, a rear first blow-out port, and a side wall, and the side wall includes a plurality of air flow guides provided with air flow receivers around the front end of the side wall and from the front side to the rear side of the side wall. And a door that can be opened and closed. The second airflow receiver includes a second intake port and a second blowout port. The second intake port of the second airflow receiver includes the first airflow receiver. Larger than the first outlet of the body, at the same position as the first outlet, or before The second air outlet of the second air current receiver is connected to a guide pipe, and the openable door will pass from the first intake port to the first air outlet. The cylindrical blade body portion can be opened and closed by any one of an airflow having a predetermined strength and an airflow having a predetermined strength that is to pass from the second intake port to the second outlet. A jet wind power generator characterized by having a main shaft to which a rotor with blades for generating a pressurized air flow is attached, and the main shaft is connected to a wind-powered machine tool. The jet wind power generation device according to claim 1, wherein the airflow intake portion is fixed in the vertical direction. The cylindrical blade main body includes an outer cylinder casing, an inner cylinder casing, a partition passage formed by the outer cylinder casing and the inner cylinder casing, a main shaft attached to the inner cylinder casing, and a main axis centerline in front of the inner cylinder casing. A first rectifying plate provided outward from the first rectifying plate, a first cone having a conical shape incorporated in the central portion of the first rectifying plate, a rotor with blades attached to the main shaft at the rear of the inner casing, It consists of the 2nd rectifier plate provided in the back of the rotor with a blade from the main axis center line toward the outside, and the 2nd cone of the cone shape etc. which were built in the central part of the 2nd rectifier plate, The jet wind power generator of Claim 1 or Claim 2. The cylindrical blade main body is provided with an airflow outlet, and the pressurized airflow is taken out of the airflow outlet and can be used for an apparatus for storing, distributing air, or the like. The jet wind power generator of Claim 2 or Claim 3. 3. The jet wind power generator is provided with a device for collecting, storing, or distributing rainwater passing through one or both of the inside and outside of the jet wind power generator. The jet wind power generator of Claim 3 or Claim 4.

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