JP2010144712A - Wind power motor for thermal power generation - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To solve the problem of a conventional method of controlling posture of a windmill by sensing a flow of wind wherein it is necessary to operate the windmill to control the posture thereof and, as a result, there is a limitation to enlarge dimension of the windmill. <P>SOLUTION: This wind power motor for thermal power generation is formed by generating wind, which blows in a fixed direction, and housing a windmill in a fixed double-container freely to rotate so that the wind can blow down from a blow-in port provided in an upper part to a blow-out port provided in a lower part. The blow-out wind is inhaled and ejected into the air by a suction unit using natural wind energy to improve efficiency of the windmill, and coupling to a field shaft of a synchronous generator is performed under the windmill for power generation. The generated electricity is converted to the heat energy as a power source of an electric boiler, a water supply pre-heater and an over-heater, and turns a steam turbine to turn a generating turbine to generate electricity at 50 Hz and 60 Hz. <P>COPYRIGHT: (C)2010,JPO&INPIT

Description

Create a windmill that can capture wind energy as much as possible and convert it into mechanical energy.
Wind energy is extracted as mechanical energy by the windmill, and the mechanical energy is converted into electrical energy using a vertical synchronous generator. This electrical energy is large because the windmill is large and the quality of the electrical energy is not perfect. The boiler, feed water preheater, and superheater are used as the power source, converted into thermal energy, the steam turbine is rotated, reconverted into high-quality electrical energy, and the transformer is used for ultra-high voltage for long-distance transmission. Step-by-step and increase the current capacity at critical points to supply to the key points.

Until now, wind power generation sensed the direction of the wind with a sensor and controlled the windmill in the direction of the wind, so a sensor and a windmill control mechanism were required.
Therefore, to reach a large size, it was at the limit, so the wind receiving area could not be increased, so the output of the single machine was also at the limit, the windmills could not be connected, blow the wind blowing from the front Since it cannot be used simultaneously with the wind, the output cannot be increased sufficiently.
It is too small to extract as thermal energy.
Ultra high pressure is not possible for processing using semiconductors.
Therefore, long-distance transmission was impossible.

(1) Documents related to electric boilers (2) Documents related to steam turbines (3) Documents related to synchronous power generation (4) Documents related to transformers (5) Documents related to absorption refrigerators

Problems to be solved by the invention

(1) Create a wind with a constant airflow in a certain direction (2) Put the windmill in a double container and fix it so that it can rotate inside.
(3) When the wind is blown from the inlet at the top of the windmill container, the wind will come to the outlet at the bottom while the windmill is rotating.
(4) Increase the wind-receiving area of the wind turbine.
(5) Blow the windmill to release the reduced energy wind into the atmosphere.
(6) Convert mechanical energy obtained from the windmill into electrical energy. (7) Thicken the windmill mandrel, increase the moment of force, and increase the output (8) After converting the electrical energy of (6) and (6) into thermal energy, reconvert it into electrical energy to improve the quality of the power Improve.
(8) Increase the pressure, transmit power over long distances, and distribute power in remote areas.

Means 1 to be Solved by the Invention

に上の吹き入れ口から下の出口に降りてくるようになっている。（図２）A double windmill container is fixed at a well-ventilated high place. A large windmill is placed in the double container, and bearings are attached to the center of the top, bottom, and bottom of the container to make it rotatable. (Figure 3)
Create 16 wind inlets in the upper part of the container and 16 in the upper part of the inner container so that the blown air can be effectively blown to the inner blades. (Figure 1)
At the lower side of the windmill vessel, 16 outlets are attached to the inner vessel and the outer vessel, and the cross-sectional area of the lower air passage is wider than the cross-sectional area of the upper air passage (Fig. 4).
These outlets are connected to 4 lines and 16 strips of suckers (Fig. 6).

From the upper inlet to the lower outlet. (Figure 2)

Means 2 for Solving the Problems of the Invention

Airflow control hook with omnidirectional blower Make a one-way blower and make the wind direction airflow within a certain range. (FIG. 8) (FIG. 10)
The wind receiving area at the wind inlet is widened so that the wind at the one-way outlet is weaker or lesser. (FIG. 14) (FIG. 15)
The wind blown from the opposite side is U-turned and blown to the blades. The right wind and the left wind are used in either the U-turn wind path or the front wind path. A hook is attached and the induction layer is peeled off (Fig. 8) (Fig. 10)
(0026)
Since the windmill itself is large, the flat type windmill cannot be blown in all directions with an airflow control hook, and the one-way blower cannot be raised or shifted left and right. Therefore, in order to use the U-turn wind, the height must be increased, The blown wind is blown to the windmill blade position. (FIG. 12) (FIG. 13)

Means 3 to solve the invention

の羽根に吹きつけ、有効な角度で羽根から吸い出すための、風路になる．（図１）
風車軸を太くして、羽根に大きなトルクが働くようにするためです。（図１）
風車が等速でないことは誘導される電力が均質でない、ため、電気ボイラー、給水予熱器、過熱器の電源にして、熱エネルギーに変換、蒸気タービンを回して上質の電力に再変換する
変圧器で昇圧して都界の需要地に送電．（図２８）Make an omnidirectional one-way blower with airflow control hook and make artificial wind with one constant direction and one constant amount of air (Fig. 8) (Fig. 10)
Since the wind receiving area at the entrance is widened, it will not be too small even if it is weak to the outlet. (FIG. 14) (FIG. 15)
To increase the size of the windmill, place it in a double container with the windmill fixed at a high place. 7)

It becomes a wind path for blowing on the blades of the wings and sucking them out from the wings at an effective angle. (Figure 1)
This is to make the wind turbine shaft thick so that a large torque acts on the blades. (Figure 1)
Since the induced power is not homogeneous because the windmill is not constant speed, it is used as a power source for electric boilers, feed water preheaters, and superheaters to convert to heat energy, and turn the steam turbine to reconvert to high quality power The voltage is boosted and transmitted to demand areas in the city. (Fig. 28)

Means 4 for the Invention to Solve

A one-way blower with an airflow control hook for a flat-type windmill is created to make natural wind in a constant direction and a constant amount of airflow. It must not. (FIG. 8) (FIG. 10) (FIG. 12) (FIG. 13) (FIG. 14) (FIG. 15)
Since the windmill, windmill container and sucker are all large, they will be manufactured and installed on site.
Since the windmill is large and has a large surface area, it is difficult for the windmill to be completely uniform. Therefore, the electric boiler and feed water preheater heater convert to heat energy, rotate the steam turbine and reconvert to electric energy to improve the quality of electric power. [FIG. 27] [FIG. 28]

(1) Long-distance power transmission becomes possible (2) Fossil fuel consumption can be reduced, that is, CO ₂ greedy system can be created (in the case of emergency, make it a necessary system)
(3) Electricity charges can be reduced.
(4) Since moving parts are not exposed, damage to birds is eliminated.
Along with providing hot water supply services, it can also be used as a heat source for absorption refrigerators and also for supplying cold water.

Industrial applicability

(1) It can be used as a heat source for district heating and cooling.
(2) Can be used as a heat source for heated pools.
(3) It can be used for the power source required at the factory.
(4) The heat source required for nursing homes can be changed to electric.

This windmill can be used in any combination of windy mountain peaks or windy coastlines. The output of a single machine is large. From windmill power generation to high-quality water and abundant water. It only needs to have enough space to transmit power to the electric boiler feed water preheater superheater, rotate the generator with a steam turbine, improve the quality of electricity, boost the voltage with a transformer, and transmit it to the city's consumption areas is.

風車の二重容器図 容器を強固にするとともに、風を中の風車の羽根に吹きつける角度を鋭角にするのがねらいである．（図１）参照 入口の吹き込む断面積に比べ出口の断面積を広くして、風が通りぬけやすくし．た． 風車底面の平面図、風が出ていきやすい方向にしてある． 風車から出た風が４本１６條の吸い取り器に吸い取られる、構造 風車機構の全体立面図の単線図 平面型用風量風量制御フック付き全方向吹き入れ１方向吹き出し器１型の１階の平面図． 平面型用風量制御フック付全方向吹き入れ１方向吹き出し器１型の２階の平面図．１階の風の誘導と、風量制御時と停止時の１階のバイパス． 平面型用風量制御フック付全方向吹き入れ１方向吹き出し器２型、１階平面図、風車軸に正面の風、Ｕターンの風、共高い所から入った風を風車、羽根の位置迄誘導する、（図１２）、（図１３）、その風を羽根に鋭角に吹きつける．（図１） 平面型用風量制御フック付全方向吹き入れ、１方向吹き出し器、２型２階、風量制御時、停止時の１階の風のバイパス風路． 平面型用風量制御フック付全方向吹き入れ１方向吹き出し器断面図． 平面型用風量制御用フック付全方向吹き入れ１方向吹き出し器２型断面図 平面型用風量制御フック付全方向吹き入れ１方向吹き出し器１型の風の吹き入れ口の表面積（南側東側、が点線で囲れた部分）（北側、西側は実線で囲まれた部）出口は、図中の長方形部分、（Ｕターンの風は南口、東口からの風）正面の風は北口、西口からの風 平面型用風量制御フック付、全方向吹き入れ、１方向吹き出し器２型の風の吹き入れ口の表面積（北側西側が点線で囲まれた部分）（南側、東側が実線で囲れた部分）出口は図中長方形部分（正面の風は南口、東口からの風）（Ｕターンの風は北口、西口からの風） 平面型用風量制御フック付全方向吹き入れ１方向吹き出し器１型内のＸ方向（風車外部方向から内部に向け）吹く風の風の進路 平面型用風量制御フック付 全方向吹き入れ１方向吹き出し器１型のＹ方向（風車の屋根を越え、内部に入ってＵターンをする）風の進路 平面型用風量制御フック付全方向吹き入れ１方向吹き出し器２型Ｘ方向の風（風車外部から内部に向けて吹く風）の風車の羽根に向けて吹く風の進行方向 平面型用風量制御フック付全方向吹き入れ１方向吹き出し器２型Ｙ方向の風（風車の屋根を越え吹入れてＵターンをする風）の進路方向 吸い取り器入口側からみた全体図 吸い取り器、風量制御用ゲートが１／４開いた図 吸い取り器、風量制御用ゲートが３／４開いた図 吸い取り器、吸い取り口（１）の図 吸い取り器、吸い取り口（２）の図 吸い取り器 吸い取り口（３）の図 吸い取り器、吸い取り口（４）の図 風車発電機から送電さた、配線図、給水加熱器、ボイラー過熱器迄、点線が蒸気の流れ、実線が給水の流れ． 電気ボイラーで蒸気タービンを回転させ、発電気を運転して、発電し、変電所で超高圧にして、送電する図タービンをまわした蒸気は復水器で冷却水で真空度を高めタービンの回転高率をあげるとともに復水を再じんからさせて使用する． Full plan view with unidirectional blower type I and type II fitted with flat type air flow control hooks at 16 locations in a double container containing a windmill. Since the shaft is thick, the distance from the center is long. Since the moment is large, the rotational force is large and the output is large.

Double-container diagram of the windmill The aim is to make the container strong and make the angle at which the wind blows against the blades of the windmill inside. See (Figure 1) Compared with the cross-sectional area where the inlet blows, the cross-sectional area of the outlet is widened to make it easier for the wind to pass. It was. A plan view of the bottom of the windmill, and the direction in which the wind tends to come out. A structure in which the wind from the windmill is sucked up by four 16 mm suckers Single-line diagram of the whole elevation of the windmill mechanism Plane view of the first floor of the omnidirectional blow-in one-way blower type 1 with a flat-type air flow control hook. Plan view of the second floor of an omnidirectional blow-in unidirectional blower 1 type with a flat-type air volume control hook. 1st floor wind induction and 1st floor bypass during air flow control and stop. Flat type air flow control hook with omnidirectional blow type 1 direction blower 2 type, 1st floor plan view, wind in front of windmill axis, U-turn wind, winds from high places are guided to windmill and blade position (Fig. 12), (Fig. 13), blow the wind on the blades at an acute angle. (Figure 1) Flat air flow control hook with omnidirectional blow-in, one-way blower, 2nd floor, 2nd floor, air flow control, 1st floor wind bypass when stopping. Cross section of unidirectional blower with omnidirectional blower with flat air flow control hook. Flat type air volume control hook with omnidirectional blow-in unidirectional blower 2 mold cross section Flat airflow control hook-equipped omnidirectional blow-in one-way blower 1 type wind blower surface area (parts surrounded by dotted lines on the south east side) (parts surrounded by solid lines on the north and west sides) outlet Is the rectangular part in the figure, (U-turn wind is from the south and east exits) Front wind is from the north and west exits Flat type air volume control hook with omnidirectional blowing, surface area of unidirectional blower type 2 wind blowing inlet (part surrounded by dotted line on the west side on the north side) (part surrounded by solid line on the south side and east side) Exit is rectangular in the figure (front wind is from the south and east exits) (U-turn wind is from the north and west exits) Flow direction of wind blowing in the X direction (from the outside of the windmill to the inside) Flat air flow control hook with omnidirectional one-way blower Type 1 Y direction (over the windmill roof, enter the inside and make a U-turn) Directional flow of wind blown toward the blades of the wind turbine in the omnidirectional blow-in unidirectional blower 2 type X direction wind (wind blowing from outside to inside) Directional direction of wind in the Y direction (wind that blows over the roof of the windmill and makes a U-turn) Overall view from sucker inlet side Figure with sucker and air flow control gate open 1/4 Figure of sucker and air flow control gate opened 3/4 Drawing of sucker and sucker (1) Figure of sucker and sucker (2) Figure of sucker mouth (3) Drawing of sucker and sucker (4) The dotted line shows the flow of steam and the solid line shows the flow of water supply from the wind turbine generator to the wiring diagram, feed water heater, and boiler superheater. The steam that rotates the steam turbine with an electric boiler, generates electricity, generates electricity, generates ultra-high pressure at the substation, and turns the steam around the turbine to transmit power. Increase the rate and use the condensate again.

Claims (6)

One-way blower type I with flat airflow control hook for wind turbine type, front wind is right U-turn toward the windmill axis, and the left bottom is square and the height is long (Fig. 8) (Fig. 12) One-way blower with an airflow control hook for a flat type windmill One-way blower Type II windmill shaft has a frontal left side and a U-turn wind on the right side. (See Fig. 10) (Fig. 13) The cylindrical container of a flat windmill is to increase the strength of the container that is a double container, and adjust the angle at which the wind hits the blades of the windmill so that it can be applied at an effective angle Make 16 inlets in the upper part of the container and make 16 inlets in the middle container. At the bottom, 16 outlets will be provided, and a filling section will be provided to reinforce the container so that wind can enter and exit the windmill effectively both at the top and bottom.
The wind turbine can be rotated by attaching bearings to the top and bottom of the container at the center of the container. . (FIG. 12) (FIG. 13) (FIG. 15)

In the meantime, allow the wind to reach the lower outlet, and make the outlet cross-sectional area wider than the inlet cross-sectional area so that it can be easily sucked into the sucker. (FIG. 15) (FIG. 16) Make four 4 條 type suckers in one system. By widening the cross-sectional area of the inlet and outlet and making it the middle to speed up the speed of the wind, the wind that came out from the blades on the way is sucked and released using the energy of natural wind, bypassed to the lower side A circuit will be provided, and an air flow control gate will be installed to make it possible to control the amount of suction. The sucker is retracted around the windmill and started to suck in the direction of rotation of the windmill. A rotating field generator is placed under the windmill and the windmill shaft is coupled to generate power ( (Fig. 6) (Fig. 7)
Airflow control hook for flat-type windmills, omnidirectional blow-in unidirectional blowers I and II control the direction of the wind blown and wind the windmill in a double container fixed as an artificial wind. Infuse from 16 locations

While rotating, make the structure so that it comes down from the upper inlet to the lower outlet. The cross-sectional area of the outlet is wider than the cross-sectional area of the inlet, making it easier to get out.The sucker is provided with a bypass, and the suction amount can be controlled. Increase the rotational efficiency of the windmill

Images