KR20100000001A - The cyclone wind power station or system which can produce electricity by sola heat - Google Patents

Abstract

The present invention relates to a convection wind power generation system capable of producing electricity by driving a wind power generator using the rising airflow generated from the solar air using the sunlight and at the same time capable of heating and cooling using the flow of convection.

In summary, in order to achieve the above object, the convection wind power generation system includes a cyclone generating pipe (1) and an air conditioner (2) and a heat collector (4), a wind power generator (5), a heat exchanger (6), and a heat storage tank (7). It is characterized by the configuration.

The cyclone generating pipe (1) is characterized by consisting of a cold air generation unit (1a) and a warm air generation unit (1b), a high temperature rise air flow outlet (1c) and a low temperature air intake (1d).

The cyclone generating tube (1) is characterized in that it is configured in a spiral so that the air is gradually accelerated by the centrifugal force and generate a large force vortex, and the inner surface of the cyclone generating tube (1) is also a spiral groove (1aa) ) Is characterized.

The cold air generating portion (1a) of the cyclone generating pipe (1) is characterized in that it serves to cool the external air continuously introduced by using a low temperature in the ground,

The cold air suction port 1a1 is formed near the upper end of the cold air generating portion 1a of the cyclone generating pipe 1,

The warmth generating unit 1b of the cyclone generating pipe 1 serves as a part exposed to the ground and converts low temperature air introduced into the warming unit 1b from the cold air generating unit 1a into hot air of low density. What is characterized by

The heating pipe 4a is characterized by being composed of a heat medium. The heating medium in the heating pipe 4a is characterized in that the solar energy collected in the collector 4 is continuously stored in the heat storage tank 7 through the heating pipe circulator 18.

The hot air suction port 1b1 is configured near the upper end of the warmth generating unit 1b of the cyclone generating tube 1,

As described above, the air temperature in the warm air generating unit 1b is increased by the heat medium, and as the temperature is increased, the air density is lowered and the airflow is generated. As described above, it is possible to generate electricity by driving a wind power generator using the rising airflow generated from the solar air by using the solar light as described above, and at the same time, it is possible to cool and heat using the flow of convection.

As described above, the present invention can produce clean electricity for four seasons free of charge anywhere in the country without any local restrictions using solar light at an economical installation cost. At the same time, natural heating and cooling is possible without consuming electricity using solar heat and natural air. This can reduce astronomical property loss and casualties due to extreme weather conditions by suppressing the release of the causative agents that cause global warming and destroy and disturb the ground and atmospheric environments.

Description

THE CYCLONE WIND POWER STATION OR SYSTEM WHICH CAN PRODUCE ELECTRICITY BY SOLA HEAT}

The present invention relates to the construction of a convection wind power generation system that generates electricity using a cyclone generated by causing a temperature difference of air with solar heat.

Conventionally, wind power generation systems using wind, which normally occur in a natural state, are mainly used. As such, the wind power generation using the natural wind has a limitation that it can only be used in locally limited regions due to the influence of local seasonal time zones. In addition, in case of wind power generation system using natural wind, it is sensitive to wind strength, which causes frequent breakdowns of wind power generation system in uneven areas, and does not produce electricity even after investing billions of dollars per facility cost. There are many cases. As described above, the installation of the wind power generation system was not only economically constrained by local constraints but also enormous facility cost compared to efficiency.

In addition, thermal power plants that generate electricity by turning steam turbines cause global warming in the case of nuclear power plants and emit large amounts of substances that destroy and disturb the ground and atmospheric environment. In addition, in the case of nuclear power generation, since the cooling water is discharged to increase the water temperature, it acts as a cause of disturbance of the ecosystem. This causes frequent abnormal climates, accelerating astronomical economic damage and casualties.

In addition, in the case of solar cell power generation, the cost of space is relatively high compared to efficiency.

In order to solve the above problems, the hot air is generally heated and the movement of the molecules becomes active, the distance between the air is far away, and thus the distance between the molecules becomes smaller density. As described above, since the material having a lower density tries to rise up than the material having a higher density, the heated air generates an upward airflow. It is a convective wind power generation system that induces the difference in density of air by using sunlight as described above, and uses a rising air flow to drive a wind power generator to produce electricity, and at the same time, cooling and heating using a flow of convection.

The convection wind power generation system is characterized by consisting of a cyclone generating pipe (1), an air conditioner (2) and a collector (4), a wind power generator (5), a heat exchanger (6) and a heat storage tank (7).

The cyclone generating pipe (1) is characterized by consisting of a cold air generation unit (1a) and a warm air generation unit (1b), a high temperature rise air flow outlet (1c) and a low temperature air intake (1d).

The cyclone generating tube (1) is characterized in that it is configured in a spiral so that the air is gradually accelerated by the centrifugal force and generate a large force vortex, and the inner surface of the cyclone generating tube (1) is also a spiral groove (1aa) ) Is characterized.

The cold air generating portion (1a) of the cyclone generating pipe (1) is characterized in that it serves to cool the external air continuously introduced by using a low temperature in the ground; The cold air generating unit (1a) may be characterized in that it is simply buried in the ground to cool the air. In addition, when the temperature of the air flowing in the cold air generating unit 1a is further reduced to generate cold air of high density, the cooling water pipe 1ab such as a water pipe is brought into contact with the outer surface of the cold air generating unit 1a. Or a structure constituting a cooling water pipe so that cold water flows to the cold air generating unit 1a.

And a cold air suction port (1a1) formed near the upper end of the cold air generating portion (1a) of the cyclone generating pipe (1); The cold air suction port (1a1) is a cold air generation unit (1a) to send a portion of the cool air flowing inside the cold air generating unit (1a) to the air conditioner (2) through the cold air absorption pipe (1a1a) in the summer It is characterized by being configured near the upper end. In addition, when the temperature of the air flowing in the cold air intake pipe (1a1a) to further reduce the cold air to create a high-density cold air absorption pipe (1a1a), the outer surface of the cold water intake pipe (1a1a) is characterized in that it has a configuration to contact the cooling water pipes It is characterized in that it has a structure that constitutes a cooling water pipe so that cold water flows through the cold air suction pipe (1a1a).

The warmth generating unit 1b of the cyclone generating pipe 1 serves as a portion exposed to the ground and converts low temperature air introduced into the warming generating unit 1b from the cold generating unit 1a into hot air of low density. Characterized by doing; Means for heating the air flowing in the warmth generating unit (1b) is characterized in that it has a configuration in which the air heating pipe (10) in contact with the outer surface of the warmth generating unit (1b) or the warming unit (1b) It is characterized by having a configuration in which the heating pipe 4a is brought into contact with the outer surface, or having a configuration in which the warm air generating unit 1b is formed in the high temperature collector 4 and directly exposed to solar heat.

The air heating pipe 10 and the heating pipe (4a) is characterized in that consisting of a heat medium, and the heat medium flowing in the air heating pipe 10 and the heating pipe (4a) is an air heating pipe circulator 15 And heat exchange by the heating pipe circulator 18 and supply heat energy to the warmth generating unit 1b to heat the air.

In addition, in the means for heating the air flowing in the warmth generating section (1b) having a configuration in which the air heating pipe 10 or the heating pipe (4a) in contact with the outer surface of the warming generating section (1b) or the warming generating section (1b) Instead of having the air heating pipe 10 or the heating pipe 4a in contact with the outer surface, the heat medium circulating in the air heating pipe 10 or the heating pipe 4a is a warm air generating unit ( 1b) It is characterized by having a structure in which the heat medium circulation tube 16 is configured in the warmth generation unit 1b so as to flow directly inside.

The heat medium flowing in the air heating pipe 10, which is one of the means for heating the air flowing in the warmth generating unit 1b, passes through the heat storage tank 7 configured in the heat exchanger 6, and the air heating pipe circulator 15 It is characterized by having a configuration that continuously supplies the thermal energy to the warmth generating unit (1b) by.

As the means for supplying thermal energy to the heat medium flowing in the air heating pipe 10, the heat storage tank 7 formed in the heat exchanger 6 is used. The heating pipe 4a is used as a means for supplying solar energy to the heat storage tank 7. The heating pipe 4a is characterized by being composed of a heat medium. The heating medium in the heating pipe 4a is characterized in that the solar energy collected in the collector 4 is continuously stored in the heat storage tank 7 through the heating pipe circulator 18.

As described above, the air heating pipe 10 or the heating pipe 4a or the warming generator 1b, which is a means for supplying solar thermal energy to the warming generator 1b of the cyclone generating pipe 1, is collected at a high temperature. The air inside the warmth generating unit 1b is rapidly heated by a component that is directly exposed to solar heat, and the air density drops rapidly, and the lightened air rapidly rises to a smaller density, and the high temperature rising air discharge outlet 1c is opened. It is characterized by having a configuration that begins to be discharged through.

As described above, due to the air pressure difference between the air in the warm air generating unit 1b and the cold air generating unit 1a of the cyclone generating pipe 1, the warm air generating unit 1b flows and the lightened air is about to rise. At this time, the cold air in the cold air generation unit 1a is continuously sucked into the warm air generation unit 1b due to the lightened rising air flows through the warm air generation unit 1b. And the cold air sucked into the warmth generating unit (1b) is continuously heated in the warmth generating unit (1b) and discharged through the high temperature rise air flow outlet (1c) and the strong whirlwind by the structural features of the cyclone generating pipe (1) Creates. In the same principle as above, a strong suction force is generated at the low temperature air inlet 1d of the cyclone generating pipe 1. Therefore, the wind power generator 5 installed at one side of the low temperature air inlet 1d is driven and is characterized by having a configuration capable of producing electricity.

And a hot air suction port 1b1 is formed near the upper end of the warmth generating unit 1b of the cyclone generating tube 1; The hot air intake (1b1) is configured near the upper end of the warmth generating unit (1b) to send a portion of the heated hot air of low density to the air conditioner (2) through the hot air absorption pipe (1b1a) for the natural heating of the room in winter Is characteristic.

In addition, the air conditioner (2) is a heating and cooling air flow selection switch (2a) and a wind speed control switch (2b) and the primary air purification filter (1) and the cold and hot air discharge fan (2c2) and the secondary air purification filter (2c3) and air-conditioning air discharge outlet It is characterized by consisting of (2d). In the winter season, the air-heated air inlet 1b1 near the upper end of the warm air generating unit 1b is introduced into the room by the air-conditioning unit 2b. And in the summer season, the cold air intake (1a) near the upper end of the cold air generating portion (1a) is characterized by being able to solve the heating by introducing the air naturally cooled into the room.

The collector 4 is characterized by having a configuration including a heating pipe 4a and a light collector 4b. The solar heat energy 3 is collected from the light collector 4b of the collector 4 and supplied to the heating pipe 4a. The solar energy 3 supplied to the heating pipe 4a heats the heat medium in the heating pipe 4a. The heat medium has a composition of oil and salt and other compounds can raise the temperature in a short time and has a heat storage characteristic that can sustain the elevated temperature for a long time. The heat medium in the heated heating pipe 4a has a temperature of 300 to 700 degrees.

The heating medium in the heating pipe 4a circulates through the heating pipe circulator 18. The heat medium in the heating pipe 4a circulated by the heating pipe circulator 18 provides thermal energy to the heat storage tank 7 configured in the heat exchanger 6 or directly provides the thermal energy generation unit 1b to heat temperature. The lower heat medium is continuously collected through the heating pipe circulator 18 and collected in the collector 4, and is supplied with solar energy 3 again to continuously circulate.

As described above, the air temperature in the warm air generating unit 1b is increased by the heat medium, and as the temperature is increased, the air density is lowered and the airflow is generated. In this case, the heated air in the warmth generating unit 1b becomes active in the movement of molecules, so that the distance between the air becomes farther, and when the distance between the molecules becomes farther, the density becomes smaller. As described above, since the material having a lower density tries to rise up than the material having a higher density, the heated air generates an upward airflow. As described above, it is possible to generate electricity by driving a wind power generator using the rising airflow generated from the solar air by using the solar light as described above, and at the same time, it is possible to cool and heat using the flow of convection.

In addition, the wind power generator 5 is characterized by having a configuration driven by the strong wind generated during the air suction in the low-temperature air inlet (1d) of the cyclone generating pipe (1). The wind turbine (5) is characterized in that it has a configuration that is connected to the electrical control box (9) that can directly supply electricity to the electrical appliance or charger 5a so that it can be used to store electricity in climatic conditions impossible for power generation It is characterized by having a configuration connected with. And the charger (5a) has a structure that is connected to the surplus current vending machine (5a1) is used in the building is characterized in that the surplus current remaining in the building can be sold to the power company through the surplus current vending machine (5a1).

The heat exchanger 6 has a configuration in which a heating pipe 4a, an air heating pipe 10, a heating hot water heating pipe 8a and a heating water heating pipe 8b intersect the heat storage tank 7. It is characterized by having. The heat medium in the heating pipe 4a which is a means for supplying the solar heat energy 3 to the heat storage tank 7 is configured to continuously supply the solar heat energy 3 to the heat storage tank 7 by the heating pipe circulator 18. It is characteristic to have. At this time, the air heating pipe 10, the heating hot water heating pipe 8a and the domestic hot water heating pipe 8b continuously generate hot air in the warm air generating unit 1b by using the thermal energy stored in the heat storage tank 7 It is characterized by having a configuration to generate electricity by driving a generator or to solve the heating water and domestic water in winter.

And in order to be able to supply the heat energy from the heating pipe (4a) of the collector (4) at night or rainy weather during the day to store the solar energy in the heat storage tank (7) of the heat exchanger (6) Has a configuration.

As described above, wind power can be generated by heating the air inside the warm-generation unit 1b of the cyclone generating pipe 1 by using the non-heat storage energy provided from the heat storage tank 7 as described above. In addition, it is characterized by having a configuration that provides the non-heat storage energy to the hot water heating pipe (8a) for heating and the hot water heating pipe (8b) for living in the heat storage tank (7) at night.

The means for supplying solar thermal energy to the warmth generating unit 1b is merely an example of the above-mentioned contents, and despite the illustrated means, the warming unit 1b is formed by any heating means or heat collecting means using solar heat. In principle, solar energy is supplied to the warmth generating unit 1b.

 As described above, the present invention, in the case of the existing wind power plant, except for a special region, can only be used during the winter season, which is economically less efficient. In addition, in the case of the existing wind power generation facilities are often neglected due to the cause of irregular wind speed, the waste of resources is severe because they are not used efficiently. However, in the case of the present invention, it is possible to produce clean electricity free of charge for four seasons 24 hours a year anywhere in the country without any local restrictions using solar light as an economical installation cost. At the same time, natural heating and cooling is possible without consuming electricity using solar heat and natural air. This can reduce astronomical property loss and casualties due to extreme weather conditions by suppressing the release of the causative agents that cause global warming and destroy and disturb the ground and atmospheric environments.

 Hereinafter will be described in detail with reference to the accompanying drawings.

1 is a view showing a state before each part is combined in the configuration of the present invention, the convection wind power generation system is a cyclone generating pipe (1) and air conditioner (2) and collector (4) and wind power generator (5) and heat exchange It is characterized by consisting of the group 6 and the heat storage tank 7.

The cyclone generating pipe (1) is characterized by consisting of a cold air generation unit (1a) and a warm air generation unit (1b), a high temperature rise air flow outlet (1c) and a low temperature air intake (1d).

The cyclone generating tube (1) is characterized in that the spiral formed in the form of a coil so that the introduced air is accelerated by the centrifugal force and generate a large force vortex, and also the inner surface of the cyclone generating tube (1) as a barrel It is characterized by a spiral groove (1aa) is configured.

The cold air generating portion (1a) of the cyclone generating pipe (1) is characterized in that it serves to cool the external air continuously introduced by using a low temperature in the ground; The cold air generating unit (1a) may be characterized in that it is simply buried in the ground to cool the air. In addition, when the temperature of the air flowing in the cold air generating unit 1a is further reduced to generate cold air of high density, the cooling water pipe 1ab such as a water pipe is brought into contact with the outer surface of the cold air generating unit 1a. Or a structure constituting a cooling water pipe so that cold water flows to the cold air generating unit 1a.

And a cold air suction port (1a1) formed near the upper end of the cold air generating portion (1a) of the cyclone generating pipe (1); The cold air suction port (1a1) is a cold air generation unit (1a) to send a portion of the cool air flowing inside the cold air generation unit (1a) to the air conditioner (2) through the cold air absorption pipe (1a1a) for the natural cooling of the room in the summer It is characterized by being configured near the upper end. In addition, when the temperature of the air flowing in the cold air intake pipe (1a1a) to further reduce the cold air to create a high-density cold air absorption pipe (1a1a), the outer surface of the cold water intake pipe (1a1a) is characterized in that it has a configuration to contact the cooling water pipes It is characterized in that it has a structure that constitutes a cooling water pipe so that cold water flows through the cold air suction pipe (1a1a).

The warmth generating unit 1b of the cyclone generating pipe 1 is a portion exposed to the ground, and converts the low temperature air introduced into the warming generating unit 1b from the cold air generating unit 1a into low-density hot air. Characterized by playing a role; Means for heating the air flowing in the warmth generating unit (1b) is characterized in that it has a configuration in which the air heating pipe (10) in contact with the outer surface of the warmth generating unit (1b) or the warming unit (1b) It is characterized by having a configuration in which the heating pipe 4a is brought into contact with the outer surface, or having a configuration in which the warm air generating unit 1b is formed in the high temperature collector 4 and directly exposed to solar heat.

The air heating pipe 10 and the heating pipe (4a) is characterized in that consisting of a heat medium and the heat medium flowing in the air heating pipe 10 and the heating pipe (4a) is an air heating pipe circulator 15 And continuously heat exchange by the heating pipe circulator 18 and supply heat energy to the warmth generating unit 1b to heat the air.

In addition, in the means for heating the air flowing in the warmth generating section (1b) having a configuration in which the air heating pipe 10 or the heating pipe (4a) in contact with the outer surface of the warming generating section (1b) or the warming generating section (1b) Instead of having the air heating pipe 10 or the heating pipe 4a in contact with the outer surface, the heat medium circulating in the air heating pipe 10 or the heating pipe 4a is a warm air generating unit ( 1b) It is characterized by having a structure in which the heat medium circulation tube 16 is configured in the warmth generation unit 1b so as to flow directly inside.

The heat medium flowing in the air heating pipe 10, which is one of the means for heating the air flowing in the warmth generating unit 1b, passes through the heat storage tank 7 configured in the heat exchanger 6, and the air heating pipe circulator 15 It is characterized by having a configuration that continuously supplies the thermal energy to the warmth generating unit (1b) by.

As the means for supplying thermal energy to the heat medium flowing in the air heating pipe 10, the heat storage tank 7 formed in the heat exchanger 6 is used. The heating pipe 4a is used as a means for supplying solar energy to the heat storage tank 7. The heating pipe 4a is characterized by being composed of a heat medium. The heating medium in the heating pipe 4a is characterized in that the solar energy collected in the collector 4 is continuously stored in the heat storage tank 7 through the heating pipe circulator 18.

As described above, the air heating pipe 10 or the heating pipe 4a or the warming generator 1b, which is a means for supplying solar thermal energy to the warming generator 1b of the cyclone generating pipe 1, is collected at a high temperature. The air inside the warmth generating unit 1b is rapidly heated by a component that is directly exposed to solar heat, and the air density drops rapidly, and the lightened air rapidly rises to a smaller density, and the high temperature rising air discharge outlet 1c is opened. It is characterized by having a configuration that begins to be discharged through.

As described above, due to the air pressure difference between the air in the warm air generating unit 1b and the cold air generating unit 1a of the cyclone generating pipe 1, the warm air generating unit 1b flows and the lightened air is about to rise. At this time, the cold air in the cold air generation unit 1a is continuously sucked into the warm air generation unit 1b due to the lightened rising air flows through the warm air generation unit 1b. And the cold air sucked into the warmth generating unit (1b) is continuously heated in the warmth generating unit (1b) and discharged through the high temperature rise air flow outlet (1c) and the strong whirlwind by the structural features of the cyclone generating pipe (1) Creates. In the same principle as above, a strong suction force is generated at the low temperature air inlet 1d of the cyclone generating pipe 1. Therefore, the wind power generator 5 installed at one side of the low temperature air inlet 1d is driven and is characterized by having a configuration capable of producing electricity.

And a hot air suction mouth 1b1 is formed near the upper end of the warmth generating unit 1b of the cyclone generating tube 1; The hot air intake (1b1) is configured near the upper end of the warmth generating unit (1b) to send a portion of the heated hot air of low density to the air conditioner (2) through the hot air absorption pipe (1b1a) for the natural heating of the room in winter Is characteristic.

In addition, the air conditioner (2) is a heating and cooling air flow selection switch (2a) and a wind speed control switch (2b) and the primary air purification filter (1) and the cold and hot air discharge fan (2c2) and the secondary air purification filter (2c3) and air-conditioning air discharge outlet It is characterized by consisting of (2d). In the winter season, the air-heated air inlet 1b1 near the upper end of the warm air generating unit 1b is introduced into the room by the air-conditioning unit 2b. In the summer, and in the summer, the cold air intake (1a) near the upper end of the cold air generating portion (1a) is characterized by being able to solve the heating by introducing the naturally cold air into the room.

The collector 4 is characterized by having a configuration including a heating pipe 4a and a light collector 4b. The solar heat energy 3 is collected from the light collector 4b of the collector 4 and supplied to the heating pipe 4a. The solar energy 3 supplied to the heating pipe 4a heats the heat medium in the heating pipe 4a. The heat medium has a composition of oil and salt and other compounds can raise the temperature in a short time and has a heat storage characteristic that can sustain the elevated temperature for a long time. The temperature of the heat medium in the heated heating pipe 4a reaches 300 to 700 degrees.

The heating medium in the heating pipe 4a circulates through the heating pipe circulator 18. The heating medium in the heating pipe 4a circulated by the heating pipe circulator 18 provides thermal energy to the heat storage tank 7 configured in the heat exchanger 6 or directly provides the thermal energy generation unit 1b to thermal energy.

The heat medium whose temperature has been lowered is continuously recovered through the heating pipe circulator 18 to the collector 4 and supplied with solar energy 3 again, and has a configuration of continuously repeating circulation.

As described above, the air temperature in the warm air generating unit 1b is increased by the heat medium, and as the temperature is increased, the air density is lowered and the airflow is generated. In this case, the heated air in the warmth generating unit 1b becomes active in the movement of molecules, so that the distance between the air becomes farther, and when the distance between the molecules becomes farther, the density becomes smaller. As described above, since the material having a lower density tries to rise up than the material having a higher density, the heated air generates an upward airflow. As described above, it is possible to generate electricity by driving a wind power generator using the rising airflow generated from the solar air by using the solar light as described above, and at the same time, it is possible to cool and heat using the flow of convection.

In addition, the wind power generator 5 is characterized by having a configuration driven by the strong wind generated during the air suction in the low-temperature air inlet (1d) of the cyclone generating pipe (1). The wind turbine (5) is characterized in that it has a configuration that is connected to the electrical control box (9) that can directly supply electricity to the electrical appliance or charger 5a so that it can be used to store electricity in climatic conditions impossible for power generation It is characterized by having a configuration connected with. And the charger (5a) has a structure that is connected to the surplus current vending machine (5a1) is used in the building is characterized in that the surplus current remaining in the building can be sold to the power company through the surplus current vending machine (5a1).

The heat exchanger 6 has a configuration in which a heating pipe 4a, an air heating pipe 10, a heating hot water heating pipe 8a and a heating water heating pipe 8b intersect the heat storage tank 7. Is characteristic. The heat medium in the heating pipe 4a which is a means for supplying the solar heat energy 3 to the heat storage tank 7 is configured to continuously supply the solar heat energy 3 to the heat storage tank 7 by the heating pipe circulator 18. It is characteristic to have. At this time, the air heating pipe 10, the heating hot water heating pipe 8a and the domestic hot water heating pipe 8b continuously generate hot air in the warm air generating unit 1b by using the thermal energy stored in the heat storage tank 7 It is characterized by having a configuration to generate electricity by driving a generator or to solve the heating water and domestic water in winter.

In addition, in the daytime or rainy days, in order to be unable to supply heat energy from the heating pipe 4a of the collector 4, the solar thermal energy is stored in the heat storage tank 7 of the heat exchanger 6 during the day so that it can be used at night or rainy days. Has a configuration.

As described above, wind power can be generated by heating the air inside the warm-generation unit 1b of the cyclone generating pipe 1 by using the non-heat storage energy provided from the heat storage tank 7 as described above. In addition, it is characterized by having a configuration that provides the non-heat storage energy to the hot water heating pipe (8a) for heating and the hot water heating pipe (8b) for living in the heat storage tank (7) at night.

The means for supplying solar thermal energy to the warmth generating unit 1b is merely an example of the above-mentioned contents, and despite the exemplified means, the warming unit 1b is warmed by all heating means or heat collecting means using solar heat. In principle, solar energy is supplied to the generation unit 1b.

FIG. 2 is a view showing a state after the parts are joined in the configuration of the present invention, as described above with reference to FIG. 1.

3 is a side view showing a state after the respective parts are combined in the configuration of the present invention, as described above in FIG.

4 is a view for explaining the principle of the cyclone generation in the configuration of the present invention, the cyclone generating pipe (1) as described above in Figure 1 is a cold air generating portion (1a) and cyclone production pipe connection portion 12 and warmth The main feature is composed of the generation unit 1b. The cyclone generating tube (1) is characterized in that the spiral configuration of the coil. The spiral formation of the cyclone generating pipe 1 is made so that the air introduced from the low temperature air inlet 1 is gradually accelerated by the centrifugal force and generates a large force vortex.

The warmth generating unit 1b, which is configured at the lower part of the cyclone generating pipe connecting unit 12 of the cyclone generating pipe 1, is a portion exposed to the ground 14a, and generates warm water from the cold air generating unit 1a. It is characterized in that it serves to convert the low-temperature air introduced into the portion (1b) to low-density hot air.

As described above, the air heating pipe 10 is brought into contact with the outer surface of the heat generating unit 1b as a means for generating hot air by heating the air flowing in the heat generating unit 1b by exposing it to the ground 14a. Characterized by having a configuration or having a configuration in which the heating pipe (4a) in contact with the outer surface of the heat generating unit (1b) or by configuring the heat generating unit (1b) in the high temperature collector (4) directly to the solar heat It is characterized by having an exposed structure.

In addition, in the means for heating the air flowing in the warmth generating section (1b) having a configuration in which the air heating pipe 10 or the heating pipe (4a) in contact with the outer surface of the warming generating section (1b) or the warming generating section (1b) Instead of having the air heating pipe 10 or the heating pipe 4a in contact with the outer surface, the heat medium circulating in the air heating pipe 10 or the heating pipe 4a is a warm air generating unit. (1b) It is characterized by having a structure in which the heat medium circulation tube 16 is constituted in the warm air generating unit 1b so as to flow directly inside.

And it is characterized in that configured in the lower portion of the cyclone generating pipe connecting portion 12 of the cyclone generating pipe (1). The warmth generating unit 1b is mainly exposed to the ground 14a and is constructed in the air heating pipe 10 contact or connection or the heating pipe 4a contact or connection or the collector 4 to a high temperature of 300 to 700 degrees. On the other hand, the cold air generating unit 1a is buried underground 14b or exposed to air in natural state, while the cold air generating unit 1a is exposed to the air in a low temperature state relative to the warming unit 1b. It is characterized by having a configuration that can maintain the air.

As described above, the air heating pipe 10 or the heating pipe 4a or the warming generator 1b, which is a means for supplying solar thermal energy to the warming generator 1b of the cyclone generating pipe 1, is collected at a high temperature. The air inside the warmth generating unit 1b is rapidly heated by a component that is directly exposed to solar heat, and the air density drops rapidly, and the lightened air rapidly rises to a smaller density, and the high temperature rising air discharge outlet 1c is opened. It is characterized by having a configuration that begins to be discharged through.

As described above, due to the air pressure difference between the air in the warm air generating unit 1b and the cold air generating unit 1a of the cyclone generating pipe 1, the warm air generating unit 1b flows and the lightened air is about to rise. At this time, the cold air in the cold air generation unit 1a is continuously sucked into the warm air generation unit 1b due to the lightened rising air flows through the warm air generation unit 1b. And the cold air sucked into the warmth generating unit (1b) is continuously heated in the warmth generating unit (1b) and discharged through the high temperature rise air flow outlet (1c) and the strong whirlwind by the structural features of the cyclone generating pipe (1) Creates. In the same principle as above, a strong suction force is generated at the low temperature air inlet 1d of the cyclone generating pipe 1. Therefore, the wind power generator 5 installed at one side of the low temperature air inlet 1d is driven and is characterized by having a configuration capable of producing electricity.

As described above, the air temperature in the warm air generating unit 1b is increased by the heat medium, and as the temperature is increased, the air density is lowered and the airflow is generated. In this case, the heated air in the warmth generating unit 1b becomes active in the movement of molecules, so that the distance between the air becomes farther, and when the distance between the molecules becomes farther, the density becomes smaller. As described above, since the material having a lower density tries to rise up than the material having a higher density, the heated air generates an upward airflow. As described above, it is possible to generate electricity by driving a wind power generator using the rising airflow generated from the solar air by using the solar light as described above, and at the same time, it is possible to cool and heat using the flow of convection.

5 is a view showing the configuration of the inner surface of the cyclone generating tube (1) in the configuration of the present invention, the cyclone generating tube (1) as described above in Figures 1 and 4, the cold air generating portion (1a) and cyclone generation It is a main feature that consists of the pipe connection portion 12 and the warmth generating portion (1b). The inner surface of the cold air generating portion 1a, the cyclone generating pipe connecting portion 12 and the warm air generating portion 1b is characterized in that the spiral grooves are formed in the same shape as the barrel. The inner surface of the cold air generating unit 1a, the cyclone generating pipe connecting unit 12, and the warming unit 1b is composed of spiral grooves having a barrel-like shape, and the air introduced from the cold air inlet 1 rotates. As it is accelerated to pass through the inside of the cyclone generating tube (1), it is possible to generate a large force vortex with little solar energy.

FIG. 6 illustrates an embodiment in which the air heating pipe 10 or the heating pipe 4a of the solar energy supply means is brought into contact with the outer surface of the heat generating unit 1b in the heat generating unit 1b according to the configuration of the present invention. As shown, as described above in Figs. 1 and 2.

FIG. 7 is a view showing an exemplary embodiment in which the heat medium circulation tube 16 is formed in the warmth generation unit 1b itself of the solar energy supply means in the warmth generation unit 1b according to the configuration of the present invention. As described above.

FIG. 8 is a view showing an exemplary embodiment in which the warmer generation unit 1b of the solar energy supply means itself is configured in the collector 4 in the structure of the present invention, as described above with reference to FIGS. 1 and 2. Same as

1 is a view showing a state before each part is combined in the configuration of the present invention

2 is a view showing a state after each part is combined in the configuration of the present invention;

Figure 3 is a side view showing a state after each part is combined in the configuration of the present invention

Figure 4 is a view for explaining the principle of generating cyclone in the configuration of the present invention

5 is a view showing the configuration of the inner surface of the cyclone generating tube in the configuration of the present invention;

FIG. 6 is a view showing an exemplary embodiment in which an air heating pipe or a heating pipe of a solar energy supply means is brought into contact with an outer surface of the warm air generating unit in the warm air generating unit according to the present invention.

FIG. 7 is a view showing an embodiment in which a heat medium circulation tube is formed in the warmth generation unit itself of the solar energy supply means in the warmth generation unit in the configuration of the present invention;

8 is a view showing an exemplary embodiment in which the warmth generating subsidiary body among the solar energy supply means in the warming unit is configured in the collector in the configuration of the present invention;

<Explanation of Signs of Major Parts of Drawings>

Cyclone tube 1aa.Spiral groove

1a.Cool air generation unit 1a1.Cool air intake 1a1a.Cold air intake pipe 1ab.Cooled water pipe

1b. Hot air generating unit 1b1. Hot air intake 1b1a. Hot air intake pipe

1c.High temperature rise air flow outlet 1d.Low temperature air intake

2. Air conditioner 2a. Air conditioner switch 2b. Wind speed control switch

2c1.1 primary air purification filter 2c2. Cold and hot air discharge fan 2c3.2 secondary air purification filter

2d.Heating air outlet

3. Solar 4. Collector 4a. Heating pipe 5. Wind generator

5a.Charger 5a1. Surplus Current Vending Machine 6.Heat Exchanger

7.Heat storage tank 8a.Hot water pipe for heating 8b.Hot water pipe for living

9. Electric control box 10. Air heating pipe 11. Cyclone discharge pipe

12. Cyclone generation tube connection 13. Expansion connection

14.Installation boundary line 14a.Earth exposure indication 14b.Underground buried indication

15.Pipe circulator for air heating 16.Heat media circulating pipe 18.Circulator for heating pipe

Claims (9)

The convection wind power generation system is characterized by consisting of a cyclone generating pipe (1) and an air conditioner (2) and a collector (4) and a wind power generator (5), a heat exchanger (6) and a heat storage tank (7); The cyclone generating pipe (1) is characterized in that it consists of a cold air generating unit (1a) and a warm air generating unit (1b), a high temperature rise air flow outlet (1c) and a low temperature air intake (1d); The cyclone generating tube (1) is characterized in that it is configured in a spiral so that the introduced air is accelerated by the centrifugal force and generate a large force vortex and the inner side of the cyclone generating tube (1) is also a spiral groove such as a barrel ( 1aa), characterized in that; The cold air generating unit 1a of the cyclone generating pipe 1 serves to cool the external air continuously introduced by using a low temperature below the ground surface in the basement or the water below the ground surface based on the installation boundary line 14. Characterized by having a configuration located; Characterized in that a cold air suction port (1a1) is formed near the upper end of the cold air generating portion (1a) of the cyclone generating pipe (1); Characterized in that the wind generator (5) is configured on one side of the low temperature air inlet (1d) to produce electricity by using a strong suction force generated in the low temperature air inlet (1d); The warmth generating unit 1b of the cyclone generating pipe 1 has an installation boundary line 14 for converting the low temperature air introduced into the warmth generating unit 1b from the cold generating unit 1a into low density hot air. Characterized by having a configuration located on the ground surface with respect to the ground; As the air inside the warmth generating unit 1b rapidly heats up, the air density drops rapidly and the lightened air at a lower density rapidly rises and is rapidly discharged at a high temperature at the upper end of the warming unit 1b. The discharge port 1c is constituted; Near the upper end of the warmth generating unit 1b of the cyclone generating pipe 1, a portion of the heated hot air having a low density for natural heating of the room in winter is sent to the air conditioner 2 through the hot air absorbing pipe 1b1a. It is characterized by comprising the suction port 1b1; Characterized in that it has a configuration in which the hot air suction pipe (1b1a) is connected to the hot air suction port (1b1); Convection wind power generation system to produce electricity by causing the temperature difference of the air by solar heat, characterized in that the air conditioner (2) is configured at the end of the hot air intake (1b1). The cooling water pipe (1ab), such as a water pipe, is provided on the outer surface of the cold air generating portion (1a) in order to further reduce the temperature of the air flowing in the cold air generating portion (1a) to produce high density cold air. A convective wind power generation system that generates electricity by inducing a temperature difference of air with solar heat, which is characterized by having a structure in contact with or having a structure of constituting a cooling water pipe so that cold water flows to the cold air generating portion (1a). According to claim 1, wherein the means for heating the air flowing in the warmth generating section (1b) is characterized in that it has a configuration in which the air heating pipe (10) in contact with the outer surface of the warming generating section (1b). Alternatively, the temperature difference between air and solar is characterized in that the heating pipe 4a is brought into contact with the outer surface of the heat generating unit 1b, or the heat generating unit 1b is formed in the high temperature collector 4. Convection wind power generation system that produces electricity by inducing. 4. The structure according to claim 3, wherein the air heating pipe 10 or the heating pipe 4a is brought into contact with the outer surface of the warm air generating section 1b in a means for heating air flowing in the warming section 1b. Heat medium circulating in the air heating pipe 10 or the heating pipe 4a instead of having the structure for contacting the air heating pipe 10 or the heating pipe 4a with the outer surface of the heat generating portion 1b. Convective wind power generation that generates electricity by inducing temperature differences of air with solar heat, which has a structure in which the thermal medium circulation pipe 16 is configured in the warm air generating unit 1b so that the inside of the warm air generating unit 1b can flow directly. system. 5. The air heating pipe (10) and the heating pipe (4a) are made of a heat medium according to any one of claims 3 to 4; The heat medium is characterized in that the heat-heating pipe circulator 15 and the heating pipe circulator 18 is continuously heat exchanged and serves to heat the air by supplying heat energy to the warmth generating unit (1b); The heat medium flowing in the air heating pipe 10, which is one of the means for heating the air flowing in the warmth generating unit 1b, passes through the heat storage tank 7 configured in the heat exchanger 6, and the air heating pipe circulator 15 It is characterized in that it has a configuration to continuously supply thermal energy to the warmth generating unit (1b) by; Means for supplying heat energy to the heat medium flowing in the air heating pipe (10) is characterized in that the heat storage tank (7) configured in the heat exchanger (6); As a means for supplying solar energy to the heat storage tank (7) characterized in that it has a configuration that the heating pipe (4a) is used; The heating medium in the heating pipe 4a causes the temperature difference of air with solar heat, which is characterized in that solar heat energy collected in the collector 4 is continuously stored in the heat storage tank 7 through the heating pipe circulator 18. Convection wind power generation system that produces electricity. The air conditioner (2) of claim 1, wherein the air conditioner (2) includes a cooling / heating wind selector switch (2a), a wind speed control switch (2b), a primary air purifying filter (1), a cold air blowing fan (2c2), and a secondary air purifying filter (2c3). ) And an air-conditioning air discharge outlet 2d; The air conditioner (2) has a configuration that is connected to the hot air absorption pipe (1b1a) in order to heat the natural warm air into the room in the warm air intake (1b1) near the upper end of the warmth generating unit (1b) in winter Characterized by; The air conditioner (2) is connected to the cold air intake pipe (1a1a) in order to cool the air flow into the room from the cold air intake (1a1) near the upper end of the cold air generating unit (1a) in the summer Convective wind power generation system that produces electricity by inducing temperature difference of air with solar heat which is characterized by having. According to claim 1, wherein the wind turbine (5) is characterized in that it has a configuration that is connected to the electrical control box (9) capable of supplying electricity directly to the electrical appliance or even to store electricity in climatic conditions impossible for power generation It is characterized in that it has a configuration that is connected to the charger (5a) so that the charger (5a) is used in the building and connected to the surplus current vending machine (5a1) to sell the surplus surplus current to the power company Convection wind power generation system to produce electricity by causing the temperature difference of air with solar heat characterized by having. The method of claim 1, wherein the collector (4) is characterized in that it has a configuration including a heating pipe (4a) and a light collector (4b); After providing the heat energy to the heat storage tank (7) in the heating pipe (4a) or the heat energy directly to the warmth generating unit (1b), the temperature is lowered to the heat collector (4) and the solar heat energy (3) Convection wind power generation system that generates electricity by causing a temperature difference of air with solar heat, which is characterized in that the heating pipe circulator 18 is configured to continuously circulate. The heat exchanger (6) according to claim 1, wherein the heat exchanger (6) includes a heating pipe (4a), an air heating pipe (10), a heating hot water heating pipe (8a), and a hot water heating pipe (8b) for living. Convective wind power generation system that produces electricity by causing temperature difference of air with solar heat, which is characterized by having a cross configuration.

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