JP2012210041A - Power generation system - Google Patents

Abstract

PROBLEM TO BE SOLVED: To solve the problem of the absence of an invention configured to combine a power generation system for generating power by using a temperature difference occurring between inner and outer surfaces of a Peltier element, and a power generation system in which cyclone is generated by a cyclone apparatus and power is generated by the cyclone.SOLUTION: A power generation system is configured as follows. A first heat exchanger and a high temperature heat collector are connected via first piping and fifth piping. A high temperature medium of a first hot water generation apparatus is supplied to the first heat exchanger. A low temperature medium whose action is terminated is returned to the high temperature heat collector. A Peltier element is disposed in the first heat exchanger. A low temperature medium is generated by cooling the high temperature medium via heat exchange means. The low temperature medium is fed to a cyclone apparatus via third piping. A fan installed in the cyclone apparatus is driven by the low temperature medium. Further, the low temperature medium discharged from the cyclone apparatus is connected to the first heat exchanger via fourth piping.

Description

  The present invention relates to a power generation system.

  In recent years, a waste heat power generation system that directly converts waste heat into electricity and a wind power generation system that uses natural energy have attracted attention as a countermeasure against global warming.

  Regarding the waste heat power generation system, for example, there is the following document (1).

  Document (1) is “Power generation method and power generation apparatus using exhaust heat” disclosed in JP-A-2009-268282. The content is that the Peltier element is attached to the exhaust heat path of the exhaust heat equipment, the side of the exhaust heat path of the Peltier element is heated by exhaust heat, the opposite side of the Peltier element is cooled, and the temperature difference generated on the inner and outer surfaces of the Peltier element This is a power generation method for generating electricity using the power.

  Regarding the wind power generation system, for example, there is the following document (2).

  Document (2) is “a wind power generation method and a wind power generation apparatus using midnight power” disclosed in Japanese Patent Application Laid-Open No. 11-122846. Its content is to generate and store a heating medium using midnight power, heat the air with this heating medium in the daytime, artificially generate a spiral updraft using the temperature difference of the air, A wind power generation method using late-night power, characterized in that power is generated by rotating a propeller with a spiral updraft.

  As for other power generation systems, for example, there is the following document (3).

  There exists Unexamined-Japanese-Patent No. 2009-185698 "high temperature thermal radiation object storage yard power generation apparatus" of literature (3). The content is that high-temperature heat radiation that installs a power generation turbine at the required location of the cylindrical part that extends upward and generates power with an updraft, and turns the power generation turbine by the updraft flowing through the cylindrical part to perform wind power generation. This is an object storage yard power generator.

JP2009-268282 JP-A-11-122846 JP 2009-185698 A

  The document (1) is a power generation method that uses only the temperature difference generated on the inner and outer surfaces of the Peltier element. Although the present invention has a simple and low-cost structure, at least it is not possible to stably generate electric power required at home, and there is room for improvement.

  Reference (2) is a wind power generation system that utilizes natural energy, so the number of rotations of the fan varies depending on the presence / absence, strength, or direction of the wind. As a result, stable power generation and securing of power generation are achieved. It is possible to leave a problem.

  Furthermore, document (3) is an invention in which wind power generation is performed by turning a power generation turbine by an updraft flowing through a cylindrical portion, and since the present invention is power generation by a turbine, It is possible that problems remain in stable power generation and securing the amount of power generation.

  In view of the above, the present invention is a structure for generating power by inserting a Peltier element between the Seebeck effect of a Peltier element (a function of performing heat exchange (high temperature part / low temperature part)). For example, a high temperature part / Peltier element / low temperature part・ Stable power generation by effectively using Peltier elements, high-temperature parts, Peltier elements, and other power generation using a structure similar to a sandwich of the Peltier element and cyclone device (fan rotation and generator) Securing power generation. In addition, the high-temperature heat collecting device is a solar heat collecting panel that can be installed on the rooftop, the ground, or on the veranda, roof tile, glass, etc., regardless of the size of the equipment, including its structure, mechanism, or installation location. , Or heat collectors installed in hot springs, geothermal, chimneys, steam generating parts, high temperature generating places (near firing kettles or blast furnaces), heat collecting parts by piping, heat pumps, commercially available Asahi Solar, Chofu Manufacturing, etc. The solar hot water supply system can be considered as a high-temperature part, and its field is endless, and it is simple, efficient and rationally collects heat through efficient, low-cost and use of existing facilities. In addition, the cooling section may be underground, under the floor, outside air, clean water (tap water), river, sea, inside a cold storage room, or the like, or a low temperature section of a solar water heating system such as the heat pump, Asahi Solar or Chofu Seisakusho. Can be considered. The field is endless, and simple, efficient and rational heat collection is achieved through efficient, low-cost, and use of existing facilities.

  According to the first and second aspects of the present invention, the power generation by the Seebeck effect of the Peltier element and the other power generation by the cyclone device are effectively used to achieve stable power generation and securing the power generation amount. In addition, the high-temperature heat collecting apparatus according to the first and second aspects of the invention is not limited by the size, size, or size of the facility, including its structure, mechanism, or installation location. By adopting the heat collecting device, the heat collecting part by piping, the high temperature part of the solar water heating system such as heat pump and commercially available Asahi Solar, the field is infinite, efficient, low cost and existing Simple, efficient and rational heat collection through the use of equipment. Furthermore, the cooling part of the invention of claims 1 and 2 employs a low temperature part of a solar water heating system such as underground, underfloor, outside air, etc., or a heat pump, Asahi Solar, Chofu Factory, etc. It is simple, efficient and rationally collects heat through infinite, efficient, low-cost and use of existing facilities.

According to the first aspect of the present invention, the first heat exchanger provided with the Peltier element is connected to a high-temperature heat collecting device that sends a high-temperature medium to the first heat exchanger and a heat-exchange means that sends the low-temperature medium. The first power generation system,
A second power generation system in which a cyclone device is installed in a route connecting the first heat exchanger and the heat exchange means;
The medium is a gas medium, and the electricity generated by the first and second power generation systems can be selected to be converted, consumed, sold, or stored, and the cyclone device, heat It is a power generation system configured to adjust the temperature of a medium by an exchanging unit or a high-temperature heat collecting device, and store the surplus heat generated by the cyclone device, the heat exchanging unit or the high-temperature heat collecting device and reuse it for power generation.

According to a second aspect of the present invention, the first heat exchanger and the high-temperature heat collector are connected via the first pipe and the fifth pipe, and the high-temperature medium of the high-temperature heat collector is the first heat. A system that supplies the exchanger and circulates the low-temperature medium that has finished the function of the first heat exchanger by returning to the high-temperature heat collector;
A first power generation system for generating electricity with a Peltier element provided in the first heat exchanger;
Further, the high-temperature medium is cooled through a heat exchange means, the low-temperature medium is generated, the low-temperature medium is guided to a cyclone device through a third pipe, and a fan provided in the cyclone device with the low-temperature medium. A second power generation system that generates power by the generator and
The fourth pipe for the medium exhausted from the cyclone device is connected to the first heat exchanger,
The medium is a gas medium, and the electricity generated by the first and second power generation systems can be selected to be converted, consumed, sold, or stored, and the cyclone device, heat It is a power generation system configured to adjust the temperature of a medium by an exchanging unit or a high-temperature heat collecting device, and store the surplus heat generated by the cyclone device, the heat exchanging unit or the high-temperature heat collecting device and reuse it for power generation.

  The invention of claim 3 achieves the same object as that of claims 1 and 2, and provides an optimum high-temperature heat collecting apparatus for achieving this object.

Claim 3 is the power generation system according to claim 1 or claim 2, wherein
In the power generation system, the high-temperature heat collector is configured as a heat collection panel, a roof structure in which a heat collection pipe circuit is arranged in a space between a tile and a roof field, a heat collection object, or a high heat medium.

  The invention of claim 4 achieves the same object as that of claims 1 and 2, and provides a first heat exchanger that is optimal for achieving this object.

Claim 4 is the power generation system according to claim 1 or claim 2, wherein
In the power generation system, the first heat exchanger is configured as a plate heat exchanger, a heat pump, or a hot water supply system.

  The invention of claim 5 achieves the same object as that of claim 2 and provides an optimum medium for achieving this object.

Claim 5 is the power generation system according to claim 2,
The medium is an inert gas, and the power generation system has a configuration in which a cylinder for the inert gas is attached to the fourth pipe.

According to the first aspect of the present invention, the first heat exchanger provided with the Peltier element is connected to a high-temperature heat collecting device for sending the high-temperature medium to the first heat exchanger and a heat-exchange means for sending the low-temperature medium, respectively. The first power generation system,
A second power generation system in which a cyclone device is installed in a route connecting the first heat exchanger and the heat exchange means;
The medium can be a gas medium, and the electricity generated by the first and second power generation systems can be selected to be converted, consumed, sold, or stored, and the cyclone device, heat exchange means, Alternatively, the power generation system is configured such that the temperature of the medium is adjusted by a high-temperature heat collection device, and the surplus heat generated by the cyclone device, the heat exchange means, or the high-temperature heat collection device is stored and reused for power generation.

The invention of claim 2 connects the first heat exchanger and the high-temperature heat collector via the first pipe and the fifth pipe, and the high-temperature medium of the high-temperature heat collector is the first heat. A system for supplying the exchanger and circulating the low-temperature medium that has finished the function of the first heat exchanger back to the high-temperature heat collector;
A first power generation system for generating electricity with a Peltier element provided in the first heat exchanger;
In addition, the high temperature medium is cooled via the heat exchange means, the low temperature medium is generated, the low temperature medium is guided to the cyclone device via the third pipe, and the fan provided in the cyclone device is driven with the low temperature medium, A second power generation system for generating electricity with a generator;
Connect the fourth pipe for the medium exhausted from the cyclone device to the first heat exchanger,
The medium can be a gas medium, and the electricity generated by the first and second power generation systems can be selected to be converted, consumed, sold, or stored, and the cyclone device, heat exchange means, Alternatively, the power generation system is configured such that the temperature of the medium is adjusted by a high-temperature heat collection device, and the surplus heat generated by the cyclone device, the heat exchange means, or the high-temperature heat collection device is stored and reused for power generation.

  Therefore, claims 1 and 2 can effectively use the power generation by the Seebeck effect of the Peltier element and other power generation by the cyclone device, and can achieve stable power generation and secure the power generation amount. In addition, the high-temperature heat collecting device according to claim 1 or 2 is provided in a solar heat collecting panel, a hot spring, a geothermal heat, a chimney, or the like, regardless of the size, size, etc. of the equipment, including its structure, mechanism or installation location. By adopting a high temperature section of a solar water heating system such as a heat collecting device, piping, or a heat pump or a commercially available Asahi Solar, the field is infinite, efficient, low cost, and existing equipment Through use, it is simple, efficient, and can collect heat rationally. Furthermore, the cooling section of claims 1 and 2 can be used in underground, under the floor, outside air, etc., or by using a low temperature section of a solar hot water supply system such as a heat pump, Asahi Solar, or Chofu Seisakusho. It is simple, efficient and rationally able to collect heat through efficient, low cost, and use of existing facilities.

Invention of Claim 3 is the electric power generation system of Claim 1 or Claim 2, Comprising:
This is a power generation system in which a high-temperature heat collector is configured as a heat collection panel, a roof structure in which a heat collection piping circuit is arranged in a space between a tile and a roof field, a heat collection object, or a high heat medium.

  Accordingly, the third aspect has the characteristics that the same object as that of the first and second aspects can be achieved, and an optimum high-temperature heat collecting apparatus can be provided to achieve the object.

Invention of Claim 4 is the electric power generation system of Claim 1 or Claim 2, Comprising:
In the power generation system, the first heat exchanger is a plate-type heat exchanger, a heat pump, or a hot water supply system.

  Accordingly, the fourth aspect has the characteristics that the same object as that of the first and second aspects can be achieved, and an optimum first heat exchanger can be provided to achieve the object.

Invention of Claim 5 is the electric power generation system of Claim 2, Comprising:
The medium is an inert gas, and the power generation system is configured to attach the inert gas cylinder to the fourth pipe.

  Accordingly, the fifth aspect has the characteristics that the same object as that of the second aspect can be achieved and an optimum medium can be provided to achieve the object.

It is the schematic of this invention. It is a principal part enlarged view of the schematic of FIG. It is another principal part enlarged view of the schematic of FIG. It is the other principal part enlarged view of the schematic of FIG. It is the figure which installed the high-temperature heat collecting device of this invention outdoors. It is a figure showing the flow of the wind in the cyclone apparatus of this invention. It is a disassembled perspective view of the 1st heat exchanger of this invention.

  The outline of the present invention will be described. The present invention uses helium gas as a medium, and this helium gas starts with the first heat exchanger A and the high-temperature heat collecting apparatus B, and piping (first piping) connecting these devices and the like. 11, the second pipe 12, the third pipe 13, etc.) are sequentially circulated. The thermal expansion / contraction, heat exchange with the heat source / cooling source, and efficient heat conduction are repeated, and power is generated in the first heat exchanger A and the cyclone device E, and this electricity is stored or consumed. Or a method of selling power. This helium gas is “high temperature heat collector B → first pipe 11 → first heat exchanger A → second pipe 12 → heat exchange means D → third pipe 13 → cyclone apparatus E → fourth pipe 14 → first. It circulates by the path | route of heat exchanger A-> 5th piping 15 ". The following is a description.

  The relationship between the high-temperature heat collector B and the first heat exchanger A [when the helium gas is hot] will be described. The discharge opening B1 of the high-temperature heat collector B and the introduction opening 200 of the first heat exchanger A are connected to the first pipe. 11 is provided continuously. For example, one side 11a of the first pipe 11 is connected to the discharge opening B1 of the high-temperature heat collecting apparatus B, and the other side 11b of the first pipe 11 is connected to the introduction opening 200 of the first heat exchanger A. .

  As the high-temperature heat collector B, for example, a solar heat collector that heats helium gas with solar heat, this solar heat collector includes a circulation pipe provided on the base, a pump that supplies helium gas to the pipe, or It is constituted by a liquid tank and is heated to a high temperature while circulating helium gas in this pipe. In addition, heat exchange system with heat sources such as hot springs, factory exhaust heat / pipe, high-temperature steam, other waste heat pipes, etc., using tile heat collectors with circulation piping on the back of roof tiles, or heat collectors For example, a structure in which helium gas is heated to a high temperature while circulating helium gas is employed. In addition, various heat pump devices and hot water supply systems are also possible.

  The first heat exchanger A has a structure in which a large number of plate-shaped heat exchangers (plates) are stacked, and a Peltier element C is interposed between the heat exchangers. Then, by interposing a Peltier element C between heat exchangers having a temperature difference in which one of the heat exchangers is high temperature and the other of the heat exchangers is low temperature, the Seebeck effect of the Peltier element C This is the first power generation system with a structure that generates electricity using

  Next, the flow of helium gas from the high temperature heat collector B to the first heat exchanger A will be described. The high temperature helium gas that has become high temperature in the high temperature heat collector B is discharged from the discharge opening B1 of the high temperature heat collector B. It passes through the first pipe 11 and is introduced into the first heat exchanger A from the introduction opening 200 of the first heat exchanger A. At this time, if the helium gas heated by the high-temperature heat collector B is about 100 ° C. or higher, the temperature of the helium gas is decreased by using the boiler 19 (described later) for a midnight power water heater or the like, It introduce | transduces into the heat exchanger A and protects the Peltier device C interposed in the 1st heat exchanger A weak to high temperature. At the same time, the Peltier element C alone is placed in the hot water storage tank of the boiler 19 to store the excess heat amount of helium gas at high temperature as hot water, and the high temperature heat collector B can be used as a heat source for power generation at night or at low temperatures. To do. The temperature of the helium gas described above is an example and is not limited.

  Explaining a preferable example of the configuration of the first heat exchanger A, the heat transfer plates 2 and 2 having a heat transfer surface on the frame 1 of the first heat exchanger A, etc. A plurality of the same) as in “2”. A gap 3, 3 or the like is provided between the stacked layers. A Peltier element C is provided in the gap 3. Two kinds of fluid flow channels that alternately flow are formed between the heat transfer plates 2, high temperature helium gas flows on one side, and low temperature helium gas flows on the other side. It is a flowing structure, and this high-low temperature helium gas is in contact with one side of the intervening Peltier element C and is in contact with the other side of the Peltier element C, thereby producing a Seebeck effect and generating electricity. This electricity is used for power storage, consumption, or power sale in a battery or power conditioner 6 or the like via a cord 5 connected to the Peltier element C. The heat transfer plate 2 includes a tube connected to an introduction opening 200 for receiving high-temperature helium gas and a discharge opening 201 for discharging high-temperature helium gas, an introduction opening 202 for receiving low-temperature helium gas, and a low-temperature helium gas. Are connected to the discharge opening 203 for discharging the gas. By this tube body, one heat transfer plate 2 is maintained in a high temperature state, and the other heat transfer plate 2 to be laminated is maintained in a low temperature state. Therefore, it is a structure in which the Seebeck effect of the Peltier elements C stacked between them is exhibited.

  Next, the relationship between the first heat exchanger A and the heat exchange means D (underground heat radiation exchange system) will be described. Between the discharge opening 201 of the first heat exchanger A and the suction port D1 of the heat exchange means D. Connects the first side 12a of the second pipe 12 and the other side 12b to connect the first heat exchanger A and the heat exchanging means D in series. Then, the helium gas flowing in the second pipe 12 is cooled and converted to a low temperature helium gas. Therefore, the flow of helium gas between the first heat exchanger A and the heat exchange means D will be described. From the discharge opening 201 of the first heat exchanger A through the second pipe 12, for example, about 15 ° C. Helium gas is introduced into the heat exchange means D from the suction port D1. And by the heat exchange means D, underground heat is dissipated (heat exchange) by using underground cold air, and converted into low-temperature helium gas. This low-temperature helium gas is introduced into a cyclone apparatus E described later. In addition, as another means for lowering the temperature, for example, when the outside air temperature is 15 ° C. or lower, there is a method in which the temperature is lowered at the outside air temperature and then introduced into a cyclone apparatus E described later. Further, helium gas can be flowed to the heat collecting device, and the temperature of the helium gas can be lowered to 15 ° C. or less using clean water (tap water), seawater, cooling water, or the like.

  The relationship between the heat exchanging means D and the cyclone apparatus E will be described. The air outlet D2 of the heat exchanging means D and the inlet H of the cyclone apparatus E are connected via the third pipe 13. For example, one side 13a of the third pipe 13 is connected to the outlet D2 of the heat exchanging means D, and the other side 13b is connected to the inlet H of the cyclone device E. The cyclone device E is composed of a main body E1 in which the upper portion of the cyclone device E is a converging body and a lower portion thereof is a cylindrical body, a fan F and a generator G provided below, and from the center of the main body E1. Slightly above and has an inlet H that opens in the tangential direction of the main body. In the illustrated example of the cyclone device E, a shielding plate E2 provided with a hole E3 at the center is provided above the cylindrical body of the main body E1 (substantially central portion of the main body E1). On the upper surface of the shielding plate E2, a cylindrical portion E4 that continues to the hole E3 is provided upright. The tube portion E4 has a structure that reaches the upper convergent portion. A gap E5 through which helium gas can flow is inclined between the distal end of the convergent portion and the tube portion E4, and the convergent portion and the tube. A swirl chamber E6 is formed between the portion E4. Accordingly, the helium gas from the inlet H in the tangential direction rises while swirling in the swirl chamber E6, vigorously descends the cylindrical portion E4 from the gap E5, and descends from the hole E3 toward the cylindrical body. The fan F is rotated by the lowered helium gas. In this structure, the generator G is rotated to generate power. That is, this is a system (second power generation system) that generates power by the cyclone phenomenon of helium gas generated in the main body E1. The cyclone phenomenon is intended to further lower the temperature or dehumidify the helium gas, and increase the temperature if necessary.

  Next, the relationship between the cyclone apparatus E and the first heat exchanger A will be described. The discharge port H2 of the cyclone apparatus E and the introduction opening 202 of the first heat exchanger A are connected via the fourth pipe 14. Therefore, the discharge port H2 of the cyclone apparatus E and the one side 14a of the fourth pipe 14 are connected, and the introduction opening 202 of the first heat exchanger A and the other side 14b of the fourth pipe 14 are connected. Accordingly, the flow of helium gas will be described. Low-temperature helium gas is introduced from the introduction opening 202 of the first heat exchanger A through the fourth pipe 14 from the outlet H2 of the cyclone apparatus E.

  The relationship between the first heat exchanger A and the high-temperature heat collector B [when the helium gas is cold] will be described. The discharge opening 203 of the first heat exchanger A and the inlet B2 of the high-temperature heat collector B are connected to the fifth pipe 15. It is connected continuously through. Specifically, the discharge opening 203 of the first heat exchanger A and one side 15a of the fifth pipe 15 are connected, and the inlet B2 of the high-temperature heat collector B and the other side 15b of the fifth pipe 15 are connected. The flow of the helium gas therein will be described. Low-temperature helium gas passes from the discharge opening 203 of the first heat exchanger A through the fifth pipe 15 to the high-temperature heat collector B from the inlet B2 of the high-temperature heat collector B. be introduced.

  A configuration in which helium gas is an inert gas and a cylinder J filled with the inert gas is attached to the fourth pipe 14 is also possible. The inert gas may be, for example, helium gas as described above, but may be any gas as long as the coefficient of thermal expansion and heat transfer are good.

In addition, when the helium gas flowing through the first pipe 11 is not at a high temperature, auxiliary means can be used. One example is a heat pump K. The temperature of the low-temperature helium gas in the fifth pipe 15 is raised through the heat exchanger K1 due to the high temperature of the heat pump K, and the first pipe 11 is passed through the sixth pipe 16. It is the method of supplying to. Further, the high-temperature helium gas in the eighth pipe 18 is lowered from the discharge opening 201 of the first heat exchanger A through the heat exchanger K2 at a low temperature of the heat pump K, and the This is a method of supplying the heat to the introduction opening 202 of the heat exchanger A. The structure for increasing the temperature of the helium gas via the heat exchangers K1 and K2 selects an example in which only one of the high and low temperature operations is performed and an example in which both are performed in consideration of the situation of the helium gas. .
When the helium gas heated by the high-temperature heat collector B is about 100 ° C. or higher, this helium gas pipe (not labeled) is connected to the boiler 19 used in a midnight power water heater or the like. By passing through, heat exchange can be performed and the temperature of the helium gas can be lowered to about 100 ° C. or less. Alternatively, the amount of excess heat of the helium gas at a high temperature is stored as hot water by being arranged alone in the hot water storage tank of the boiler 19 and used as a heating heat source of the helium gas at night or at a high temperature collector B or the like. This also enables effective use of thermal energy.

  As described above, helium gas is introduced from the high-temperature heat collector B through the first pipe 11 to the first heat exchanger A, and from the first heat exchanger A through the second pipe 12 to the heat exchange means D. Is introduced from the heat exchange means D through the third pipe 13 to the cyclone apparatus E, introduced from the cyclone apparatus E through the fourth pipe 14 to the first heat exchanger A, and from the first heat exchanger A It is a structure that is introduced into the high-temperature heat collector B through the fifth pipe 15, and the helium gas starts from the high-temperature heat collector B and circulates in the high-temperature heat collector B as described above. By effectively utilizing and assisting the helium gas, it is intended to improve the efficiency of the power generation system and to reliably generate power.

  In addition, electricity generated by the first and second power generation systems and surplus electricity are stored and charged in batteries such as lead batteries, lithium ion batteries, and liquid batteries, and used at home via a power conditioner. The method and the method of selling power can be considered.

  The embodiment described above shows a preferable example, and other structures having similar effects and features are within the scope of the present invention.

A 1st heat exchanger
B High temperature heat collector
B1 discharge opening
B2 introduction port
C Peltier element
D Heat exchange means
D1 inlet
D2 outlet
E Cyclone device
E1 body
E2 Shield plate
E3 hole
E4 tube
E5 gap
E6 swirl chamber
F Fan
G generator
H Inlet
H2 outlet
J cylinder
K heat pump
K1 heat exchanger
K2 heat exchanger
1 frame
2 Electric heating plate
3 Clearance
5 code
6 Battery or power conditioner
11 First piping
11a One side
11b The other side
12 Second piping
12a One side
12b The other side
13 Third piping
13a One side
13b The other side
14 Fourth piping
14a One side
14b The other side
15 Fifth piping
15a one side
15b The other side
16 Sixth piping
17 Seventh piping
18 Eighth piping
19 Boiler
200 Introduction opening
201 discharge opening
202 Introduction opening
203 Discharge opening

Claims (5)

In the first heat exchanger provided with a Peltier element, a first power generation unit is connected to a high-temperature heat collecting device that sends a high-temperature medium to the first heat exchanger and a heat-exchange unit that sends a low-temperature medium, respectively. System,
A second power generation system in which a cyclone device is installed in a route connecting the first heat exchanger and the heat exchange means;
The medium is a gas medium, and the electricity generated by the first and second power generation systems can be selected to be converted, consumed, sold or stored, and the cyclone device, heat exchange The temperature of the medium is adjusted by the means or the high-temperature heat collector, and the surplus heat generated by the cyclone device, the heat exchanging means, or the high-temperature heat collector is stored and reused for power generation. The first heat exchanger and the high-temperature heat collector are connected via the first pipe and the fifth pipe, and the high-temperature medium of the high-temperature heat collector is supplied to the first heat exchanger. In addition, a system that circulates the low-temperature medium that has finished the function of the first heat exchanger by returning to the high-temperature heat collector,
A first power generation system for generating electricity with a Peltier element provided in the first heat exchanger;
Further, the high-temperature medium is cooled through a heat exchange means, the low-temperature medium is generated, the low-temperature medium is guided to a cyclone device through a third pipe, and a fan provided in the cyclone device with the low-temperature medium. A second power generation system that generates power by the generator and
The fourth pipe for the medium exhausted from the cyclone device is connected to the first heat exchanger,
The medium is a gas medium, and the electricity generated by the first and second power generation systems can be selected to be converted, consumed, sold, or stored, and the cyclone device, heat A power generation system configured to adjust the temperature of a medium by an exchanging unit or a high-temperature heat collecting device, and to store excess heat generated by the cyclone device, the heat exchanging unit, or the high-temperature heat collecting device and reuse it for power generation. The power generation system according to claim 1 or claim 2,
A power generation system having a configuration in which the high-temperature heat collector is a heat collecting panel, a roof structure in which a heat collecting piping circuit is arranged in a space between a tile and a roof field, a heat collecting object, or a high heat medium. The power generation system according to claim 1 or claim 2,
A power generation system in which the first heat exchanger is configured as a plate heat exchanger, a heat pump, or a hot water supply system. The power generation system according to claim 2,
The power generation system is configured such that the medium is an inert gas, and a cylinder for the inert gas is attached to the fourth pipe.

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