JPS5911752B2 - spiral generator - Google Patents

Description

DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a whirlpool photoelectric device that effectively utilizes wind energy to increase output.

Figure 1 shows the principle of Uzushun Koden, which is a type of wind power generation. 1 is a spiral tube with a spiral cross section, 2 is a suction pipe bent at an approximately right angle, and 3 is installed at the outlet 2b of the suction pipe 2. 4 is a generator, and 5 is a drive shaft that connects the windmill 3 to the generator 4.

The suction pipe 2 has its outlet 2b connected to the lower opening 1 of the spiral tube 1.
The suction port 2a of the suction pipe 2 and the winding port 1a of the spiral tube 1 are arranged facing upwind.

Therefore, swirl spring mud is generated in the spiral tube 1 by the discharge flow of the wind blown into the suction pipe 2 and the swirling flow created by the wind blown from the intake port 1a, and this swirl spring mud is is exhausted from.

The generation of this spiral increases the flow velocity of the discharge flow (upward flow) at the outlet 2b of the suction pipe 2, and the windmill 3 is rotationally driven more effectively than simply by natural wind.

The present invention aims to further improve the efficiency of the whirlpool photoelectric device based on this principle, and its characteristic configuration includes a spiral tube with a spiral cross section that opens upward and downward, and a spiral tube with a spiral cross section that opens upward and downward. a suction pipe body connected to the lower end and having an inlet opening in substantially the same direction as the intake port of the spiral cylinder and an outlet communicating with the lower opening of the spiral cylinder, and an upper end of the spiral cylinder; is connected to
A discharge rectifying pipe body having an exhaust port opening in a direction substantially opposite to the intake port of the spiral pipe, and a communication hole communicating with the upper opening of the spiral pipe, and a windmill installed in the blow-off hole of the suction pipe body. and a generator connected to the windmill via a drive shaft.

An embodiment of the present invention will be described below with reference to FIGS. 2 to 6.

The device of this embodiment has the following features as shown in Figs.
A wind-powered swivel device is installed to follow changes in wind direction.

Fig. 2 shows an example of the whirlpool spring light-producing part, Fig. 3 schematically shows the appearance of the whirlpool spring light electric device using this whirlpool spring light-bearing part, and Fig. 4 shows cross-sections of various parts of the whirlpool spring light-bearing part. shows.

Further, FIG. 5 shows FIG. 4 from an oblique view, and FIG. 6 shows the swing drive system.

As shown in FIG. 2, the whirlpool light generating part includes a whirlpool tube 1, a suction pipe body 6 connected to the lower end of the whirlpool tube 1, and a whirlpool tube 1.
The discharge rectifying pipe body 7 is connected to the upper end of the discharge rectifying pipe body 7.

The suction pipe body 6 has an inlet 6a that opens in approximately the same direction as the intake port 1a of the spiral tube 1, and an outlet hole 6b that communicates with the lower opening 1c of the spiral tube 1. The cross-sectional area gradually decreases when reaching the discharge hole 6b.

On the other hand, the discharge rectifying tube body 7 has an exhaust lower a that opens widely in a direction substantially opposite to the winding port 1a of the spiral tube 1, and a communication hole 7b that communicates with the upper opening 1b of the spiral tube 1.

In addition, as shown in FIG. 4C, the suction port 6a of the suction pipe body 6
A wind guide (louver) 6c is provided, and as shown in FIG.

Furthermore, number 7d in FIG. 4d is a ventilation passage forming plate.

Hiko, the upper and lower ends of the spiral tube 1 are the blowout hole 6b and the communication hole 7b.
The communication area other than the one due to this is closed to prevent unnecessary air flow.

As shown in FIG. 3, the whirlpool light generation part is supported by a swing support bearing 8 and is rotatably installed above the generator 4, and is a driving force that connects the generator 4 and the wind turbine 3. The shaft 5 penetrates into the suction pipe body 6, and the windmill 3 is inserted into the blow-off hole 6b of the suction pipe body 6.
are arranged to form an Uzushunkoden device.

Further, a flywheel 9 is attached to the drive shaft 5.

In such an Uzu Shunko Electric device, when the wind blows in the direction of the arrow as shown in FIGS.
The wind blown in from a is guided by the suction pipe body 6, has an increased speed, and is ejected upward from the blow-off hole 6b.

On the other hand, the wind blowing in from the intake port 1a of the spiral tube 1 creates a swirling flow inside the spiral tube 1 (see Fig. 4C), and the upper end of the spiral mud moves outward from the discharge rectifier tube 7. is exhausted to.

In this case, FIGS. 3 and 4d. As shown by the arrow in e, wind is flowing outside the discharge rectifier tube I in the exhaust direction, and since the exhaust lower a has a wide opening, a suction effect occurs and the air flows inside the discharge rectifier tube 7 and into the spiral. The air inside cylinder 1 is strongly sucked out.

Therefore, inside the spiral tube 1, a strong artificial tornado is generated by the upward flow from the blow-off hole 6b and the swirling flow from the intake port 1a, and therefore an extremely strong upward flow occurs near the blow-off hole 6b.

In the present invention, since the wind turbine 3 is installed in a strong upward flow section, the wind energy is utilized in a concentrated manner, and the power generation output increases.

Further, the swirling spring mud from the spiral tube 1 is rectified by the air regulating plate 7c and the air passage forming plate 7d, and is smoothly exhausted from the exhaust lower a.

Next, the turning device will be explained with reference to Fig. 3.5.6.

This turning device always directs the winding inlet 1a and the inlet 6a of the Uzushunkou production section upwind even when the wind direction changes, and the power generator 4 is always driven to rotate even when the wind direction changes. Ru.

The whirling spring light generating portion supported at the lower part of the suction tube body 6 by the rotation support bearing 8 is provided with a rotation center axis 10 at the upper part of the discharge rectifying tube body 7 to ensure rotation, and the four corners are connected by support tension wires 11. Support frame 13 pulled toward ground surface 12
The pivot shaft 10 is pivotally supported at the center of the shaft, and the whirlpool light generating section is erected.

In addition, in FIGS. 3 and 5, 14 is a support, 15 is a tension wire, and 16 is an anchor.

By the way, the eddy spring light growing part may be erected not only by the support frame 13 and the support tension wire 11 but also by, for example, a steel tower or a steel pole.

A weather vane 17 is fixed to the whirlpool light generating part which has been erected so as to be able to turn in this way on the opposite side of the winding opening 1a, and a windmill 18 for turning is further provided.

The wind vane 17 is installed approximately parallel to the direction of the wind from the intake port 1a to the exhaust lower a, and the windmill 18 is installed approximately perpendicular to the direction of the wind by means of a windmill bearing 20 supported by a bearing support leg 19.

Number 21 is the supporting leg of weather vane 17.

The rotating shaft 18a of the wind turbine 18 for turning is connected to an upper transmission mechanism 24 consisting of a pair of bevel gears 22, 22a and a universal joint 23.
and an intermediate transmission mechanism 29 consisting of an upper transmission shaft 25, a pair of bevel gears 26.26a and two sets of universal joints 27.28,
A lower transmission shaft 30, a universal joint 31, a pair of bevel gears 32.
32a and a lower transmission mechanism 34 consisting of a pair of spur gears 33 and 33a in order.

In this case, the turning mechanism 35 includes a spur gear 33a, a pinion 36 that rotates together with the spur gear 33a, and a fixed large gear 37, but a roller may be used in place of the pinion 36, and a rail may be used in place of the large gear 37. .

Of these turning devices, the parts other than the turning support bearing 8, the support frame 13, and the large gear 37 are supported by the whirlpool spring light generating part, and rotate together with the whirlpool spring light generating part.

Next, the turning operation by the above-mentioned turning device will be explained.
Since it can also be done by only the rotation of 8, it will be explained separately.

First, in the case of the weather vane 17, when the wind blows in a direction other than parallel to the wind vane 17, the wind vane 17 receives wind pressure, and as a result, the weather vane 17 rotates together with the swirling spring light growing part and reaches a position parallel to the wind direction.

As a result, the intake port 1a and the intake port 6a of the Uzuharuko-born part
faces upwind, and exhaust lower a faces downwind.

On the other hand, in the case of the windmill 18, if the wind blows in a direction other than parallel to the windmill 18, the windmill 18 will be rotated by the wind. Now suppose that the wind blows as indicated by the broken line arrow F in FIG.

This wind moves the windmill 1B and its rotating shaft 18a as shown by the arrow G.
Rotate in the direction.

Hereinafter, the upper transmission mechanism 24, the intermediate transmission mechanism 29, and the lower transmission mechanism 34 rotate the upper transmission shaft 25, the lower transmission shaft 30, and the pinion 36 in the direction of the arrow, and as a result, the pinion 36 and the large gear 37 mesh with each other to rotate the whirlpool light. The raw part turns in the direction of arrow H.

This rotation stops when the windmill 18 becomes parallel to the wind direction, and the intake port 1a and intake port 6a of the whirling spring light production section face upwind.
The exhaust lower a faces downwind.

As specifically explained above in conjunction with the embodiments, according to the present invention, the wind turbine that rotationally drives the generator rotates in response to an extremely strong upward flow, resulting in a significant increase in power generation output.

[Brief explanation of the drawing]

Figure 1 is an explanatory diagram showing the principle of Uzu Shunkoden, Figure 2 is a perspective view showing an example of the Uzu Shunko Den, and Figure 3 is the Uzu Shunko Den device using the Uzu Shunko Den of Figure 2. A schematic side view showing the
In Figure 4 a''-e, a.C and d correspond to the A-A line, B-B line and C-
5 is a perspective view of FIG. 3, and FIG. 6 is a sectional view taken along line C, b and e are sectional views taken along line D-D in FIG. 4 a and line E-E in d, respectively. It is an explanatory diagram of a system. In the drawing, 1 is a spiral tube, 1a is its inlet, 1b is an upper opening, 1c is a lower opening, 3 is a windmill, 4 is a generator, 5
6 is a drive shaft, 6 is a suction pipe, 6a is an inlet, 6b is a blowout hole, 7 is a discharge rectifier pipe, 7a is an exhaust 0, 7b is a communication hole, and 9 is a flywheel.

Claims (1)

[Claims] 1. A spiral tube with a spiral cross section that opens upward and downward, and an inlet and a lower end of the spiral tube that are connected to each other at the lower end of the spiral tube and open in substantially the same direction as the intake opening of the spiral tube. an inlet pipe body having a blow-off hole communicating with a side opening; an exhaust port connected to the upper end of the spiral cylinder and opening in a direction substantially opposite to the intake port of the spiral cylinder; and an upper opening of the spiral cylinder. A discharge rectifying pipe body having a communication hole communicating with the suction pipe body, a windmill installed in the blowout hole of the suction pipe body, and a generator connected to the windmill via a drive shaft. Uzuharukoden device.