JP2011089267A - Self-light emitting lighting system for guiding sight line - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a self-light emitting lighting system for guiding a sight line, which properly guides driver's sight line when a storm of snow and strong wind occur on a road in winter and ensures driver's safety from an obstacle to his/her visibility by installing a wind mill in a structure such as a windbreaking fence, a snow breaking fence, a sand breaking fence, a dustproof fence or singly on a side of the road and utilizes thus obtained electric power by the lighting system for guiding driver's sight line. <P>SOLUTION: This self-light emitting lighting system for guiding a sight line comprises a lighting device 1 for guiding the sight line, a generator 2 connected with a wind mill device 1, a control circuit 3 for controlling the electric power and voltage generated by the generator 2, and at least one sight line guiding lamp 4. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

The present invention relates to a line-of-sight guide lamp device during snowstorm or strong wind in a snowy area.
Further, the technology of the present invention can be applied to structures such as windproof, snowproof, sandproof, dustproof fences, etc., or separately installed on the side of a road and applied to a display device in addition to a line-of-sight guide lamp device.

Conventionally, in the Tohoku region and Hokkaido, the visibility of winter roads has been disturbed by snowstorms and strong winds, and road traffic safety has become a major issue. For this reason, various measures are taken such as snow fences, snow forests, and gaze guidance lights. Among them, the line-of-sight guide light requires a large cost because it requires a commercial power source. In recent years, self-luminous gaze guidance lamps with built-in solar cells have been installed, but it is difficult to obtain sufficient solar energy for several days before and after a snowstorm or strong wind. As a result, sufficient effects may not be exhibited.

As a method for reliably turning on the line-of-sight guide light without using a commercial power source in the event of a snowstorm or strong wind, wind power generation that can effectively use the wind during a snowstorm is required.
The conventional drag type windmill has a feature that it rotates even at a low wind speed. However, since it is a low speed rotation, if a generator with high power generation capacity is installed to increase the amount of power generation, the torque becomes large and the windmill does not rotate sufficiently.
On the other hand, if a generator with low power generation capacity is installed, the rotational speed will increase, but the wind energy will be lost to the resistance of the blades and the power generation will decrease. Therefore, in order to obtain the target power generation amount, it is necessary to enlarge the windmill itself, which has a problem of manufacturing cost.

Conventionally, as means for providing a high-visibility line-of-sight guide light, Japanese Patent Application Laid-Open No. 2003-41532
As shown in FIG. 2, a line-of-sight guide lamp using a light guide sheet or a reflection sheet is provided. This requires a light source and is not effective in situations where snowstorms blow in snowy areas. In addition, as a line-of-sight guide lamp device, a type using a crossflow wind turbine (Japanese Patent Laid-Open No. 2003-120501) And JP-A-2004-124922 Etc.

Alternatively, JP2003-138525A
As described above, as a means for improving visibility, there is a case of using a blown snow fence.

In order to alleviate the impediment to visibility caused by snowstorms and to avoid the feeling of pressure or blockage caused by closing the side view of roads, etc., a windmill separated by a snow accumulation prevention plate along the road shoulder and separated by a separator is installed at the top Proposals have also been made (Japanese Patent Laid-Open No. 2006-9300).
). This proposal requires a separator and may require a large number of wind turbines, which may be expensive. JP 2007-177796 A The present invention provides a vertical axis driving device that can obtain a large output by using an air flow or a water flow. This apparatus requires many members such as a support arm, a planetary shaft, a planetary shaft bevel gear, and the structure becomes complicated.

JP 2003-41532 A JP 2003-120501 A JP-A-2004-124922 JP 2003-138525 A JP 2006-9300 A JP 2007-177796 A

The present invention develops a windmill device with high power generation efficiency even at a low wind speed as a gaze-guide light device that is incorporated into a snow fence or is installed alone, and the gaze-guide light is turned on with the obtained power. In other words, the present invention provides a wind turbine device such as a rotation flow type wind turbine or a cross flow type wind turbine to a snow fence or a single destination point, and uses the obtained power for a gaze guidance light, thereby preventing bad weather and winter road safety. The purpose is to provide a gaze guidance light that protects against snowstorms and strong winds.
Rotation flow type windmill: A windmill that rotates efficiently even at low wind speeds due to the double effect of the wind that pushes from outside the blade and the wind that enters inside the blade whirls inside. The present invention uses the effect of the double effect by the wind force from the outside of the blade (by the rotation flow type) and the force of the wind swirling inside, and can effectively use the wind power by simplifying the structure. . In addition, the present invention aims to achieve the problem of realizing compact wind power generation because the windmill operates and generates power even at low wind speeds.
There are various types of windmills, but there is a "rotation flow type windmill" as a shape that solves problems such as efficiency, noise, and strength (safety). It is characterized by noiselessness and resistance to breakage because the rotational speed does not increase above a certain level even when the wind speed increases.

In order to solve the above problems, the self-luminous line-of-sight guide lamp of the present invention has the following configuration. That is, the self-luminous line-of-sight guide lamp device according to claim 1 includes a windmill device, a power generation device connected to the windmill device, a control circuit for controlling power and voltage obtained from the power generation device, and at least one line-of-sight guidance And a light.
The wind turbine apparatus according to claim 2 is a rotation flow type or cross flow type wind turbine apparatus.
The windmill device according to claim 3 is, as the windmill device, a rotation shaft, a cylindrical storage body having the rotation shaft, a plurality of wind guide plates attached to an inner wall portion of the cylindrical storage body, and the storage body The self-luminous line-of-sight guide lamp according to claim 1, further comprising a plurality of flat plate-like or curved blades attached to the inside of the central portion.
The number of the wind guide plates and blades of claim 4 is eight, the angle between the blade and the wind turbine tangent is 55 degrees, and the blade width to wind turbine diameter ratio is approximately 1: 4. The self-luminous line-of-sight guide lamp device according to any one of claims 1 to 3 is provided.
5. The self-light-emitting device according to claim 3 or 4, wherein the blade has a curved cross-sectional shape as a whole, and both ends thereof are circular, substantially circular, triangular, edged triangular, or quadrangular. An object of the present invention is to provide a line-of-sight guide lamp device.
The line-of-sight guide lamp according to claim 6 provides the self-luminous line-of-sight guide lamp device according to claim 1, comprising one line-of-sight guide lamp including six yellow or green LED terminals blinking at a wind speed of 4 m / s or more. To do.
The line-of-sight guide light according to claim 7 includes two line-of-sight lines each including six red or green LEDs in addition to one line-of-sight guide light including six yellow or green LED terminals blinking at a wind speed of 6 m / s or more. It is an object of the present invention to provide a self-luminous line-of-sight guide lamp device according to claim 1 provided with a guide lamp.
The line-of-sight guide lamp according to claim 8 includes four line-of-sight lines each including six red or green LEDs in addition to one line-of-sight guide lamp including six yellow or green LED terminals blinking at a wind speed of 8 m / s or more. It is an object of the present invention to provide a self-luminous line-of-sight guide lamp device according to claim 1 provided with a guide lamp.
The control circuit according to claim 9 is to provide the self-luminous line-of-sight guide lamp device according to claim 1, comprising a rectifier circuit, a limiter, a power supply circuit, and an A / D converter CPU.
According to a tenth aspect of the present invention, in the line-of-sight guide lamp, the six LED terminals in one LED device are arranged in a circular shape or a polygonal shape, and include a control circuit configured to continuously blink in a forward direction. The self-luminous line-of-sight guidance lamp device according to any one of claims 1 to 3 is provided.
The self-luminous line-of-sight guide lamp device according to claim 11 is provided with a windmill device, one rotating shaft, and one idle rotating shaft, and a plurality of plate-like bodies are attached to each. An object of the present invention is to provide a self-luminous line-of-sight guide lamp device.
The wind turbine apparatus according to claim 12 is provided with one rotating shaft and one idle rotating shaft, and four, six, or eight plate-like bodies are attached to each of them. A self-luminous gaze guidance lamp device is to be provided.

The present invention has been made in view of the above viewpoint, and its main configuration is as follows.
A wind turbine device, a power generator connected to the wind turbine device, a control device that controls electric power and voltage obtained from the power generator, and a self-luminous gaze guidance lamp device including at least one gaze guidance light It is characterized by.

The self-luminous line-of-sight guide lamp device of the present invention has the following configuration and operation.
(1) About the windmill device As the windmill device in the present invention, a rotating shaft, a cylindrical housing provided with the rotating shaft, a plurality of wind guide plates attached to an inner wall portion of the cylindrical housing, It is characterized by comprising a plurality of blades attached to the inside of the central portion of the storage body. In the cylindrical storage body, the energy transmitted from the coupling directly connected to the rotating shaft causes a power generation action, and blinks the line-of-sight guide light through the control circuit by the control circuit. Conveniently configured for inspection and repair. As a modified embodiment, an idle rotating shaft 5A having a plurality of plate-like bodies 11 attached around the rotating shaft 5 is provided.
An example in which the wind flow is more reliably captured as a configuration in which the circulates is possible.

(2) Regarding the cross-sectional shape of the blade, the cross-sectional shape of the entire blade is made flat or curved, and it is easy to catch the wind by providing bulges at both ends, resulting in increased drag and strength. In other words, the cross section of the blade member is increased by increasing the ability to capture the wind by making the blade cross section of the windmill as a whole curved and bulging both end portions of the blade, thereby increasing the drag for rotating the windmill. A configuration that can contribute to an increase in strength is also possible.

(3) One purpose of blade optimization
In a wind tunnel experiment that was carried out in order to optimize blades (maximize the amount of power generation) in the power generator of the present invention, wind tunnel experiments were conducted in a wide variety of patterns for combinations of blade number, angle, and width parameters. The optimum conditions for maximizing the amount of power generated were as follows.

2. Wind tunnel experiment Experiment condition Windmill shape: φ200 H180 (model windmill)
Blade shape: Number of sheets: 8,10 / Width: 40, 50, 60, 70mm / Angle: 50, 55, 60 °
Wind speed: 5m / s
Number of blades: 8 Number of blades: 10

2. Experimental result

Table 1 Power generation when the angle is changed for each blade shape at a wind speed of 5 m / s

Unit: (mW)

Number of blades / width Blade angle °
50 55 60
1. 8 sheets 40mm 207.9 179.8 193.6
2. 8 sheets 50mm 369.7 389.4 331.8
3. 8 sheets 60mm 322.6 350.5 350.5
4. 8 sheets 70mm 238.1 254 270.4
5. 10 sheets 40mm 331.8 341.1 360
6. 10 sheets 50mm 331.8 360 350.5
7. 10 sheets 60mm 230.4 278.8 278.8


From the results in Table 1, the maximum power generation amount of 389 mW at a wind speed of 5 m / s was obtained under the conditions of 8 blades, 50 mm width and 55 ° angle.

Windmill shape and dimensions: φ200 H 180
150
200
250
300
350
400
45 50 55 60 65
Blade angle (°)
Power generation (mW)
1. 8 sheets 40 mm 2. 8 sheets 50 mm 3. 8 sheets 60 mm 4. 8 sheets 70 mm 5. 10 sheets 40 mm
6. 10 sheets 50mm 7.10 sheets 60mm
Windmill shape and dimensions: φ200 H 180
150
200
250
300
350
400
45 50 55 60 65
Blade angle (.. °)
Power generation (mW)
1. 8 sheets 40 mm 2. 8 sheets 50 mm 3. 8 sheets 60 mm 4. 8 sheets 70 mm 5. 10 sheets 40 mm
6. 10 sheets 50mm 7.10 sheets 60mm

以上の実験結果から風車径φ200の場合、発電量が最大となるブレードの条件は下記の通りとなった。

ブレード枚数：8枚
ブレード角度：55°
ブレード幅：50ｍｍ Table 2 Experimental results (graph)

From the above experimental results, when the wind turbine diameter was 200 mm, the blade conditions that maximized the amount of power generation were as follows.

Number of blades: 8 Blade angle: 55 °
Blade width: 50mm

(4) About the generator The generator is installed in the cover A, and the snow accumulated by the heat of the generator and the control circuit is melted. It also serves to prevent snow accretion and to cool the generator with snow. Generally, the generator of a vertical axis wind power generator is attached to the lower part of the windmill, but the present invention needs to minimize energy loss to enable power generation even at low wind speeds, The generator has a simple structure in which the generator is directly connected to the rotating shaft of the windmill, and a space (storage chamber C) is provided above the frame structure that holds the windmill, and the generator is mounted therein. Due to the nature of the generator, heat generation during power generation cannot be avoided, but it is possible to expect a cooling effect of the generator by the storage chamber C formed by the cover A and the windmill device top plate. Further, by integrating and storing a base incorporating a control circuit for controlling the line-of-sight guide lamp device in this space, repair and maintenance can be facilitated together with the generator.

(5) Control circuit flowchart for control circuit (explanation) (example)
The rectifier circuit is a power device that converts AC to DC from the generator, performs full-wave rectification, connects to a limiter, and controls the high voltage at high wind speed to an appropriate value (voltage through a resistor at 20V or higher) ). Thereafter, the power supply circuit leads from the power supply for the A / D converter to the A / D converter CPU, and functions as an electronic circuit that converts and controls a continuous analog signal to a discrete digital signal.
These form a device for electrically correcting the difference in the amount of power generated due to the individual difference of the windmill as a fine adjustment base.

Table 3 Graph of relationship between wind speed and voltage generated from generator

Explanation of graph of relationship between wind speed and voltage generated from generator

When the wind speed is 4m / s or less, the line-of-sight guidance lamp does not blink even if the voltage increases.
1. When the wind speed is 4m / s, the yellow or green line-of-sight guidance light starts blinking according to the set voltage value. The LEDs used for the yellow or green line-of-sight guide lights are connected by a parallel circuit, and the LEDs are forwarded one by one in a short time (the first one lights up and the second one flashes simultaneously) By doing so, it is configured such that the entire LED emits light simultaneously using the afterimage phenomenon of the human eye (it takes 0.03 seconds until all the six LEDs have finished blinking).
Incidentally, in order to emit light simultaneously (6 LEDs), it is necessary to use a series connection circuit, but the required voltage is insufficient at a wind speed of 4m / s. For this reason, a parallel connection circuit is used to emit light by the voltage of one LED terminal, and simultaneous light emission by the forward feed described above is possible. The emission time of one LED lamp is 0.005 seconds.
2. When the wind speed is 6m / s, the red or green line-of-sight guidance light starts blinking according to the set voltage value. At this time, since the necessary voltage is obtained, in addition to one gaze guidance light including six yellow or green LEDs, two gaze guidance lights each including six red or green LEDs are connected in series. Simultaneous light emission.
3. When the wind speed is 8m / s, depending on the set voltage value, in addition to one gaze guidance light containing six yellow or green LEDs, there are four gaze guidance lights containing six red or green LEDs respectively. Start blinking. Since this is the same as 2 and a required voltage is obtained, simultaneous light emission is performed by a series connection circuit.
As the wind speed rises, the voltage also rises, and in order to suppress the heat generation of the generator and control circuit caused by this, if the voltage exceeds 20 V or more, it is necessary to add resistance so that the voltage does not rise further There is a limiter.

(6) About the flashing method of the line-of-sight guide light The conventional general self-light type line-of-sight guide light uses a plurality of LED terminals as the light source, and simultaneous light emission is difficult due to the low voltage in the low wind speed region. In the present invention, an efficient use method of electric power is adopted so that LED terminals are blinked one by one in a short time in a short time so that the LED light appears to be equivalent to simultaneous light emission.
In other words, since many conventional self-luminous line-of-sight guidance lights use a plurality of LED lamps as light sources, a wind power generator uses electric power to cause a plurality of LED lamps to emit light simultaneously with a power generation amount in a low wind speed region. The amount tended to be insufficient.
The power generation device of the present invention cannot directly use a capacitor or a storage battery because a change in wind speed needs to be directly recognized as a change in power generation amount. In order to solve this problem, in the present invention, a plurality of LED lamps are arranged in a circular or polygonal shape on the same base as shown in FIG. The first LED is turned on and the second LED is turned on and turned off at the same time.It is turned on or flashed, and the entire LED terminal emits light simultaneously using the afterimage phenomenon of the human eye (0.03 until all 6 LEDs have finished flashing). The circuit configuration is made as if it takes 2 seconds). Here, the emission time of one LED lamp is 0.005 seconds.
This makes it possible to maintain a stable line-of-sight guidance operation even at relatively low wind speeds.
The wind speed at the start of lighting or blinking of the line of sight guide light is set when the speed is 4 m / s or more, 6 m / s or more, or 8 m / s or more. The number and the number are exemplified as yellow or one green, red or two or four, but are not limited thereto. Moreover, although the number of LED lamps is exemplified as six, it is not limited to this. In addition, the flashing method of the line-of-sight guide lamp is exemplified so that it blinks one by one in order and looks the same as the simultaneous light emission, but is not limited thereto.

The present invention uses the effect of the double effect by the wind force from the outside of the blade (by the rotation flow type) and the force of the wind swirling inside, and can effectively use the wind power by simplifying the structure. . In addition, since the windmill operates and generates power even at low wind speeds, compact wind power generation has been achieved. It does not require fossil fuel and contributes to energy saving and cost reduction.
According to the self-luminous gaze guidance light device of claim 1, the gaze guidance light can be surely turned on by using a snowstorm or strong wind to prevent derailment by confirming the position of the road shoulder in winter or strong wind. The driver's safety on the road below can be kept.


According to the self-luminous gaze guidance light device of claim 2, the gaze guidance light is surely blinked by using the wind or the strong wind at the time of the blizzard with the rotation flow type windmill or the crossflow type windmill, The driver's safety can be protected from visibility problems on the winter road.

According to the self-luminous gaze guidance light device of claim 3, the gaze guidance light can be surely blinked by using strong winds when the snowstorm is more effective and protect the driver's safety from visibility obstacles on the winter road. Can do.

According to the self-luminous line-of-sight guide light device of claim 4, the line-of-sight guide lamp can be efficiently used even at low wind speeds by the combined effect of the combination of the number of wind guide plates and blades, the mounting angle, and the diameter of the windmill, in an optimal situation. Can be flashed.

According to the self-luminous line-of-sight guide light device of claim 5, the drag and strength of the blade are increased by the plurality of curved blades, and the ability to catch the wind and the drag are increased by the circular arc shape of the blade and the bulging of both ends. This makes it possible to increase the cross-sectional strength of the blade.

According to the self-luminous line-of-sight guide lamp device of the sixth aspect, it is possible to catch the wind or the wind of the snowstorm without waste even at a low wind speed.
According to the light-emitting line-of-sight guide lamp device according to the seventh or eighth aspect, the LED lamp can be stably blinked by the increase in the amount of power generated by the wind accompanying the increase in the wind speed.
According to the self-luminous line-of-sight guide lamp device of the ninth aspect, the difference in the amount of power generation due to the individual difference of the windmill can be electrically corrected by the control circuit.

According to the self-luminous line-of-sight guide lamp device of the tenth aspect, the effect of visually recognizing a sign to a driver or the like can be enhanced by a lighting effect by continuously lighting even a small amount of electric power by continuously lighting the LED terminal. This also makes it possible to maintain stable operation even at low wind speeds. At the same time, it contributes to energy-saving lighting.

According to the self-luminous line-of-sight guide lamp device of the eleventh aspect, it is possible to obtain a power generation amount under a more favorable condition under a predetermined condition.
According to the self-luminous line-of-sight guide lamp device of the twelfth aspect, it is possible to obtain a power generation amount under a more favorable condition under a predetermined condition.

DESCRIPTION OF EMBODIMENTS Hereinafter, embodiments of a self-luminous line-of-sight guide lamp device according to the present invention will be described in detail with reference to the accompanying drawings.
FIG. 1 is an overall schematic diagram of a self-luminous line-of-sight guide lamp device according to an embodiment of the present invention. FIG. 2 is an enlarged longitudinal sectional view of the power generator.
In the self-luminous line-of-sight guide lamp device of the present embodiment, as shown in FIGS. 1 and 2, the wind turbine device 1 is rotated by a blizzard or wind and is connected to the generator main body 7 of the power generator 2 connected through a coupling 6. However, after the power is generated by absorbing the rotational energy, it is controlled through the control circuit 3 and then the line-of-sight guide lamp 4 is blinked.
As shown in FIG. 2, the windmill device includes a rotating shaft 5, a cylindrical storage body D provided with the rotating shaft 5, and a plurality of wind guide plates 8 attached to the inner wall portion of the cylindrical storage body D. And a plurality of blades 9 attached to the inside of the central portion of the cylindrical storage body. Further, as shown in FIG. 3 shown in the AA line sectional view of FIG. 2, wind is induced by the air guide plate 8, and the accelerated wind is received by the blade 9 as a drag force and converted into generated energy.
In the power generation device in FIG. 2, the rotational force generated by the rotation of the windmill causes the generator body 7 to generate power through the coupling 6 connected to the rotation shaft 5. The generator body 7 is provided in a storage chamber C formed by the windmill device top plate / storage chamber bottom plate B. Snow outside the cover A prevents overheating of the generator body 7 and the control circuit 3, and heat generated from the generator body 7 prevents snow and freezing of the cover A.
According to FIG. 3, the cross section of the wind turbine device 2 is shown along the line AA. The wind flow guided by the wind guide plate 8 installed at equal intervals on the inner wall of the windmill device 2 rotates the blade 9 to transmit the generated energy to the generator body 7. Since the uniquely formed curved shape of the blade 9 effectively receives wind energy, it can react to wind from a wind speed of about 4 m / s. The angle between the blade and the wind turbine tangent is optimally set to an angle of 55 ° as shown in FIG.
FIG. 4 is a diagram in which the entire blade 9 is curved in an arc shape and bulges 10 are formed at both ends.
The swelling of both ends of the blade 9 enhances the wind receiving effect of the wind blade 9 guided through the air guide plate 8.
FIG. 4-A, FIG. 4-B, FIG. 4-C, FIG. 4-D, and FIG. 4-E show modified examples of the bulges at both ends of the blade 9.
FIG. 5 is an explanatory diagram of a state in which the wind current flows into the windmill and rotates the windmill. Fig. 5 shows how wind flows into the wind turbine device (in the figure, the wind flows from the right direction. By design, the wind flow can be received from all directions) and the wind turbine is rotated based on the results of wind tunnel experiments. Show. The black dot in the center of Fig. 5 shows the axis of rotation, and the circle on the right shows the stagnant region of the wind flow.
FIG. 6 is a view in which a plurality of plate-like bodies 11 are attached to the rotating shaft 5.
FIG. 6-A is a state diagram in which a plurality of plate-like bodies 11 are attached to the rotating shaft 5.
FIG. 6-B shows a floating rotating shaft 5A with a plurality of plate-like bodies 11 attached around the rotating shaft 5.
It is a figure showing the state which goes around by a wind current. The circle indicated by the dotted line is the expected orbit of the rotating shaft 5A.
FIG. 7 is a flowchart of the control circuit.
FIG. 8 is a graph explanatory diagram of a flowchart of the control circuit.
FIG. 9 is a continuous explanatory diagram showing a lighting or blinking state of the LED lamp.
FIG. 10 is an explanatory diagram for each wind speed showing the lighting or blinking state of the entire line-of-sight guide light. 10-A shows one yellow or green LED lamp when the wind speed is about 4 m / s or more, and FIG. 10-B shows a wind speed of 6 m / s.
In addition to one yellow or green LED lamp when the temperature is higher than that, two red LEDs are added. FIG. 10-C shows one yellow or green LED lamp and one red or green LED lamp 2 when the wind speed is about 8 m / s or higher. It is a state diagram which shows the condition where two red or green LED lamps blink in addition to the one.
This makes it possible to maintain stable LED lamp flashing even at low wind speeds.

Various wind tunnel experiments were conducted on the windmill model by changing parameters such as the number, angle, and width of the blades of the windmill in the present invention, the number of poles of the multipolar generator, the external resistance value, etc. The optimized (practical) shape was derived. Furthermore, since it has been confirmed that the power generation efficiency is increased by installing the wind guide plate, an optimized shape was also derived for the wind guide plate.
On the generator side, optimization was performed in consideration of matching with the wind turbine, such as the number of poles, the wire diameter, and the number of turns of the coil.

The technology of the present invention is installed in structures such as windproof, snowproof, sandproof, dustproof fences, etc., or installed on the side of the road and used as a gaze guidance light device, as well as a wind speed sign light device, or a sign display device for rivers and harbors Etc.

1 is an overall schematic diagram of a self-luminous line-of-sight guide lamp device according to an embodiment of the present invention. It is an enlarged vertical sectional view of a power generator. FIG. 3 is a cross-sectional view taken along line AA in FIG. 2. It is the figure which curved the whole braid | blade 9 in circular arc shape and formed the bulge 10 in both ends. FIG. 4-A, FIG. 4-B, FIG. 4-C, FIG. 4-D, and FIG. 4-E show modified embodiments in a state where the shape of the bulges at both ends of the blade is changed. It is explanatory drawing of the state which a wind flow flows in into the inside of a windmill and rotates a windmill. FIG. 6-A is a diagram in which a plurality of plate-like bodies 11 are attached to the rotating shaft 5. FIG. 6-B is a diagram illustrating another embodiment in which an idle rotation shaft 5A to which a plurality of plate-like bodies 11 are attached circulates around the rotation shaft 5. The circle indicated by the dotted line is the expected orbit of the rotating shaft 5A. It is a flowchart of a control circuit. It is a graph explanatory drawing of the flowchart of a control circuit. It is a continuous explanatory view showing the lighting / flashing state of the LED lamp. The LED lamp 12 is installed on the LED base 13. It is explanatory drawing according to the wind speed which shows the lighting / flashing state of the whole visual guidance light. In the figure, the light source indicates the generator main body, the yellow indicates the yellow or green LED lamp, and the red indicates the red or green LED lamp.

1. Windmill device 2. Power generator A. Cover B. Windmill device top plate and storage room bottom plate C.I. Storage room D. 2. Cylindrical storage body Control circuit 4. 4. Gaze guidance light Rotating shaft 5A. Free rotating shaft 6. Coupling 7. Generator body 8. Wind guide plate 9. Blade 10. 10. Swelling at both ends Plate-like body 12. LED lamp 13. LED base

Claims (12)

  A self-luminous line-of-sight guide lamp apparatus comprising: a windmill apparatus; a power generation apparatus connected to the windmill apparatus; a control circuit that controls power and voltage obtained from the power generation apparatus; and at least one line-of-sight guide lamp .   2. The self-luminous line-of-sight guide lamp device according to claim 1, wherein the windmill device is a rotation flow type windmill or a crossflow type windmill device.   The windmill device is attached to a rotation shaft, a cylindrical storage body having the rotation shaft, a plurality of wind guide plates attached to an inner wall portion of the cylindrical storage body, and an inner portion of the storage body. The self-luminous line-of-sight guide lamp device according to claim 1, further comprising: a plurality of flat plate-shaped or curved blades having a curved cross section. The number of the air guide plates and the blades is 8 respectively, the mounting angle of the blades is 55 degrees, and the dimensional ratio of the blade width to the windmill diameter is approximately 1: 4. The self-luminous line-of-sight guide lamp device according to any one of claims 1 and 3. 5. The self-luminous line-of-sight guide lamp device according to claim 3, wherein a cross-sectional shape of the blade is entirely curved, and bulges are provided at both ends.   The self-luminous line-of-sight guide lamp device according to claim 1, comprising one line-of-sight guide lamp including six yellow or green LED terminals flashing at a wind speed of 4 m / s or more.   Claims provided with two gaze guidance lights each including six red or green LED terminals in addition to one gaze guidance light including six yellow or green LED terminals flashing at a wind speed of 6 m / s or more 2. The self-luminous line-of-sight guide lamp device according to 1.   Claims comprising four gaze guidance lights each including six red or green LED terminals, in addition to one gaze guidance light including six yellow or green LED terminals flashing at a wind speed of 8 m / s or more. 2. The self-luminous line-of-sight guide lamp device according to 1. The self-luminous line-of-sight guide lamp device according to claim 1, wherein the control circuit includes a rectifier circuit, a limiter, a power supply circuit, and an A / D converter CPU. In the line-of-sight guide lamp, the control circuit is a control circuit configured such that the six LED terminals in one LED device are arranged in a circular shape or a polygonal shape on the base, and continuously blink in a forward direction. The self-luminous line-of-sight guide lamp device according to claim 1, further comprising: The windmill device has one rotating shaft and one idler that circulates on a rotating groove or a rotating guide formed on the top plate and the bottom plate of the cylindrical housing at a certain distance from the rotating shaft. The self-luminous line-of-sight guidance according to any one of claims 1 and 3, wherein a plurality of plate-like bodies are attached to each of or both of the rotating shaft and the floating rotating shaft. Lamp device. 2. The wind turbine apparatus according to claim 1, wherein the wind turbine apparatus includes one rotating shaft and one idle rotating shaft, and four, six, or eight plate-like bodies are attached to each. Luminous line-of-sight guide lamp device.

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