Perpetual motion hydroelectric power generation system

Abstract

A perpetual motion hydroelectric power generation system can be installed in a building. The system includes at least: a water tank, a siphon pipe, a power generation layer, and a pressurization layer. The water tank contains a certain amount of water and is equipped with a first and a second valve body. The bottom end of the siphon pipe is connected to the first valve body to communicate with the water tank. The power generation layer and the pressurization layer are respectively located on the high and low floors of the building. The top end of the power generation pipe in the power generation layer is connected to the top end of the siphon pipe for water flow. The generators in the power generation layer are installed on the power generation pipes and can generate electricity by being driven by the water flow. The top end of the pressurization pipe in the pressurization layer is connected to the bottom end of the power generation pipe for water flow. The bottom end of the pressurization pipe is connected to the second valve body to communicate with the water tank. The pressurization pipe allows the water flow to accumulate potential energy through gravity. When the water flow in the pressurization pipe is injected into the water tank, the power generation pipe can generate a strong water flow, which causes the siphon pipe to generate vacuum pressure, siphoning the water in the water tank into the power generation pipe for circulation, thus providing a power generation system that is easy to use.

Description

Perpetual motion hydroelectric power generation system Technical Field

[0001] This work relates to a perpetual motion hydroelectric power generation system, specifically a system that can accumulate potential energy to generate vacuum pressure for siphoning, allowing water to circulate in a closed loop to generate electricity. Prior Technology

[0002] Among the many power generation methods, hydropower can be said to be a relatively cost-effective method. It mainly uses the potential energy of water to generate electricity, has a relatively high energy conversion efficiency, does not deplete water resources, and has a small impact on the environment. However, traditional hydropower devices are expensive due to the need to build dams or related facilities, making it difficult to popularize them on a large scale for every household.

[0003] Therefore, how to provide a hydroelectric power generation system or device that is easy to promote and popularize for use by every household is the direction that the creator of this work is eager to research and improve.

[0004] Therefore, in view of the above-mentioned deficiencies, the creator of this work collected relevant information, conducted extensive evaluations and considerations, and, based on years of experience accumulated in this industry, designed this new type of patent through continuous trial and modification. Summary of the Invention

[0005] The primary objective of this invention is to provide a perpetual motion hydroelectric power generation system, which can be installed in a building and comprises at least a water tank, a siphon pipe, a power generation layer, and a pressurization layer. The water tank contains a certain amount of water and is equipped with a first valve body and a second valve body. The bottom end of the siphon pipe is connected to the first valve body to communicate with the water tank. The power generation layer and the pressurization layer are respectively located on the upper and lower floors of the building. The power generation layer has multiple power generation pipes and multiple generators. The top end of the power generation pipes is connected to the top end of the siphon pipe for water supply. The generator, installed on the power generation pipeline, can generate electricity by being driven by water flow. The pressurization layer has multiple pressurization pipelines. The top end of the pressurization pipeline is connected to the bottom end of the power generation pipeline for water flow. The bottom end of the pressurization pipeline is connected to the second valve body to communicate with the water tank. The pressurization pipeline allows the water flow to accumulate potential energy through gravity. When the water flow from the pressurization pipeline is injected into the water tank, the power generation pipeline can generate a strong water flow, causing the siphon pipeline to generate vacuum pressure and siphon the water in the water tank into the power generation pipeline for circulation, thus providing a power generation system that is easy to use and widely applicable.

[0006] To achieve the above objectives, a third valve is provided between the power generation pipeline and the siphon pipeline. This third valve can control the connection or disconnection between the power generation pipeline and the siphon pipeline. The third valve is a three-way valve, allowing external water to enter the power generation pipeline while simultaneously blocking the connection between the power generation pipeline and the siphon pipeline. The power generation pipelines in the power generation layer are arranged in an S-shape corresponding to the floor plan for water supply. The pressurization pipelines in the pressurization layer are inclined at an angle, allowing the water flow in the pressurization pipeline to accumulate potential energy through gravity to provide pressure. When the first, second, and third valves are set to block, the water tank is completely sealed, and the power generation pipeline is disconnected from the siphon pipeline. The siphon pipes are mutually blocked, and the user can inject water from the outside into the power generation pipe through the third valve body. The water flows along the power generation pipe into the pressurization pipe. After the power generation pipe and the pressurization pipe are filled with water, the third valve body is first adjusted to connect the power generation pipe and the siphon pipe and block them from the outside. Then, the first valve body and the second valve body are set to be connected, so that the potential energy accumulated by the water flow in the pressurization pipe is injected into the water tank, and the power generation pipe generates a strong water flow. This causes the siphon pipe to generate vacuum pressure, which siphons the water in the water tank into the power generation pipe, so that the water in the system circulates in a closed loop, approaching / achieving the purpose of perpetual motion power generation. Simple Explanation of the Diagram

[0007]

[0008] The first image is a schematic diagram of the block structure of this work;

[0009] Figure 2 is a schematic diagram of a preferred embodiment of this invention;

[0010] Figure 3 is a schematic diagram of a preferred embodiment of this invention. Implementation

[0011] To achieve the above or other objectives and effects, the technical means and structures used in this invention are illustrated in detail below with reference to preferred embodiments of the invention, so as to facilitate a complete understanding.

[0012] Please refer to Figures 1 to 3, which are schematic diagrams of the block structure of this invention and schematic diagrams of preferred embodiments. As shown in these figures, this invention mainly provides a perpetual motion hydroelectric power generation system, which can be installed in a building W, the building W being at least divided into high floors and low floors, and the high floors and low floors each having multiple floor plans. The system includes at least:

[0013] A water tank 10 is located at the bottom of the building W. The water tank 10 is a closed structure and contains a certain amount of water. The water tank 10 is equipped with at least a first valve body 11 and a second valve body 12. The first valve body 11 and the second valve body 12 can be opened and closed simultaneously or separately to control the connection or blockage between the water tank 10 and the outside.

[0014] A siphon pipe 20 is provided on one side of the building W, and the bottom end of the siphon pipe 20 is connected to the first valve body 11 of the water tank 10 to communicate with the water tank 10;

[0015] A power generation layer 30 is located on a higher floor of the building W. This power generation layer 30 is equipped with multiple power generation pipes 31 and multiple generators 32. The power generation pipes 31 are arranged in an S-shape and connected in series to supply water to the higher floor. The top of each power generation pipe 31 is connected to the top of a siphon pipe 20. The generators 32 are respectively installed on the power generation pipes 31 and can be driven by water flow to generate electricity. A third valve 311 is provided between the power generation pipes 31 and the siphon pipe 20. The third valve 311 can control the connection or disconnection between the power generation pipes 31 and the siphon pipe 20. When the connection between the power generation pipes 31 and the siphon pipe 20 is blocked, the third valve 311 allows external water to enter the power generation pipes 31. A pressurization layer 40 is located on a higher floor of the building W. The lower floors of building W, the pressurized floor 40, are equipped with a plurality of pressurized pipes 41. These pressurized pipes 41 are connected in series and inclined at an angle, allowing the water flow to accumulate potential energy through gravity to provide pressure. The top end of each pressurized pipe 41 is connected to the bottom end of a power generation pipe 31, and the bottom end of each pressurized pipe 41 is connected to the second valve body 12 of the water tank 10 to communicate with the water tank 10. When the first valve body 11, the second valve body 12, and the third valve body 311 are configured to block, [the following is used]... Water can be injected into the third valve body 311, allowing the water flow to enter the pressurization pipe 41 along the power generation pipe 31. The third valve body 311 can then be adjusted to connect the power generation pipe 31 to the siphon pipe 20. The first valve body 11 and the second valve body 12 can be connected, allowing the accumulated potential energy of the water flow in the pressurization pipe 41 to be injected into the water tank 10. This causes the power generation pipe 31 to generate a strong water flow, creating a vacuum pressure in the siphon pipe 20 to siphon the water from the water tank 10 into the power generation pipe 41. In the electrical conduit 31, the water in the system is circulated in a closed loop; wherein, the power generation conduit 31 of the power generation layer 30 is disposed opposite to at least one floor plane of the building W; wherein, the power generation conduit 31 of the power generation layer 30 is disposed opposite to each floor plane of the building W; wherein, each power generation conduit 31 is disposed opposite to at least one generator 32; wherein, the pressurization conduit 41 of the pressurization layer 40 is disposed opposite to each other around the four walls of the building W.

[0016] The inclination angle of the pressurization pipeline 41 is 50 to 70 degrees.

[0017] The inclination angle of the pressurization pipeline 41 is 62.5 degrees;

[0018] The height of the lower floor of the building corresponding to the pressurized layer 40 is at least 10 meters.

[0019] The third valve body 311 is a three-way valve body. While blocking the power generation pipeline 31 from the siphon pipeline 20, the three-way valve body allows external water to enter the power generation pipeline 31. While connecting the power generation pipeline 31 to the siphon pipeline 20, the three-way valve body can also block the power generation pipeline 31 from the outside.

[0020] In use, this invention primarily involves first setting the first valve body 11 and the second valve body 12 of the water tank 10, as well as the third valve body 311 of the power generation pipeline 31, to block them. In the preferred embodiment, the third valve body 311 is a three-way valve, allowing external water to enter the power generation pipeline 31 while simultaneously blocking it from the siphon pipeline 20. Water then flows along the power generation pipeline 31 into the pressurization pipeline 41. Once both the pressurization pipeline 41 and the power generation pipeline 31 are full, the third valve body 311 is adjusted to connect the power generation pipeline 31 to the siphon pipeline 20 while simultaneously isolating it from the outside. The first valve body 11 and the second valve body 12 are then opened, allowing the water tank 10 to connect to the siphon pipeline 20. The system connects to the pressurization pipe 41, allowing the water in the pressurization pipe 41 to accumulate potential energy under gravity and be injected into the water tank 10. This causes the power generation pipe 31 to generate a strong water flow, which in turn causes the siphon pipe 20 to generate vacuum pressure, thus siphoning the water in the water tank 10 into the power generation pipe 31 of the power generation layer 30. The strong water flow in the power generation pipe 31 drives the generator 32 installed on the power generation pipe 31 to generate electricity. The water in the power generation pipe 31 then flows back into the pressurization pipe 41 of the pressurization layer 40, where it accumulates potential energy again and is injected into the water tank 10. This allows the water in the system to circulate in a closed loop, achieving the goal of providing easy-to-use and near-perpetual motion power generation.

[0021] In addition, in a preferred embodiment of this invention, the power generation pipes 31 of the power generation layer 30 are arranged in an S-shape and connected in series to supply water to at least one floor of the building W. However, the power generation pipes 31 can also be arranged in an S-shape and connected in series to supply water to each floor of the building W (as shown in Figures 2 and 3). The generators 32 of the power generation layer 30 are respectively installed on each floor of the building W (as shown in Figure 2). In the preferred embodiment of this invention, each power generation pipe 31 is provided with at least one generator 32 to provide the best power generation efficiency / power.

[0022] Furthermore, in a preferred embodiment of this invention, the pressurizing pipes 41 of the pressurizing layer 40 are connected in series and have an inclined angle (as shown in Figure 2) and are arranged around the perimeter of the lower floor of the building W (as shown in Figure 3). The inclined angle of the pressurizing pipes 41 can be 50 to 70 degrees. In the preferred embodiment of this invention, the inclined angle of the pressurizing pipes 41 is 62.5 degrees, and the height of the lower floor of the building W corresponding to the pressurizing layer 40 is at least 10 meters, thereby allowing the water flow in the pressurizing pipes 41 to fully utilize the gravitational acceleration to accumulate potential energy. However, the pressurizing pipes 41 can also be set to other inclined angles, and the lower floor of the building W corresponding to the pressurizing layer 40 can also be at other heights, but all must allow the water flow in the pressurizing pipes 41 to accumulate potential energy, so that the power generation pipe 31 generates a strong water flow, causing the siphon pipe 20 to generate vacuum pressure to siphon the water tank 10, as described here.

[0023] However, the above description is only a preferred embodiment of the present invention and does not limit the scope of the patent of the present invention. Therefore, any simple modifications and equivalent structural changes made using the contents of the present invention's specification and drawings should also be included within the scope of the patent of the present invention and are hereby stated.

[0024]

[0025] 10: Pool

[0026] 11: First valve body

[0027] 12: Second valve body

[0028] 20: Siphon Pipeline

[0029] 30: Power Generation Layer

[0030] 31: Power generation pipeline

[0031] 311: Third valve body

[0032] 32: Generator

[0033] 40: Pressure Layer

[0034] 41: Pressurization pipeline

[0035] W: Building

Claims

1. A perpetual motion hydroelectric power generation system, which can be installed in a building, the system comprising at least: a water tank located opposite the bottom of the building, the water tank being a closed structure and containing a certain amount of water, the water tank being provided with at least a first valve body and a second valve body, the first valve body and the second valve body being able to open and close simultaneously or separately to control the connection or blockage between the water tank and the outside; a siphon pipe located on one side of the building, the bottom end of the siphon pipe being connected to the first valve body of the water tank to communicate with the water tank; A power generation layer is located on a higher floor of the building. The power generation layer is equipped with multiple power generation pipes and multiple generators. The power generation pipes are connected in series in an S-shape to supply water flow to the floor plan of the higher floor. The top of the power generation pipes is connected to the top of the siphon pipe. The generators are respectively located on the power generation pipes and can be driven by water flow to generate electricity. A third valve is provided between the power generation pipes and the siphon pipe. The third valve can control the connection or disconnection between the power generation pipes and the siphon pipes. When the power generation pipes and the siphon pipes are disconnected, the third valve can allow external water to enter the power generation pipes. A pressurized layer, located on a lower floor of the building, is equipped with multiple pressurized pipes connected in series at an angle to allow the water flow to accumulate potential energy through gravity, thus providing pressure. The top end of each pressurized pipe is connected to the bottom end of a power generation pipe, and the bottom end of the pressurized pipe is connected to a second valve body of the water tank for communication with the water tank. When the first valve body, the second valve body, and the third valve body are set to block, the user can inject water into the third valve body, allowing the water flow to be injected into the pressurization pipeline along the power generation pipeline. Then, the third valve body is adjusted to connect the power generation pipeline with the siphon pipeline, and the first valve body and the second valve body are set to connect, allowing the potential energy accumulated by the water flow in the pressurization pipeline to be injected into the water tank, and causing the power generation pipeline to generate a strong water flow, causing the siphon pipeline to generate vacuum pressure to siphon the water in the water tank into the power generation pipeline, so that the water in the system undergoes a closed-loop circulation.

2. The perpetual motion hydroelectric power generation system as described in claim 1, wherein the power generation pipeline of the power generation layer is located on at least one floor plane of the upper floors of the building.

3. The perpetual motion hydroelectric power generation system as described in claim 1, wherein the power generation pipelines of the power generation layer are respectively located on the floor plans of the upper floors of the building.

4. The perpetual motion hydroelectric power generation system as described in claim 1, wherein each power generation pipeline system is provided with at least one generator opposite to it.

5. The perpetual motion hydroelectric power generation system as described in claim 1, wherein the pressurization pipelines of the pressurization layer are arranged in a ring around the perimeter of the lower floors of the building.

6. The perpetual motion hydroelectric power generation system as described in claim 1, wherein the inclination angle of the pressurization pipeline is 50 to 70 degrees.

7. The perpetual motion hydroelectric power generation system as described in claim 1, wherein the inclination angle of the pressurization pipeline is 62.5 degrees.

8. The perpetual motion hydroelectric power generation system as described in claim 1, wherein the height of the lower floors of the building corresponding to the pressurized layer is at least 10 meters.

9. The perpetual motion hydroelectric power generation system as described in claim 1, wherein the third valve system is a three-way valve body, which can block the power generation pipeline from the siphon pipeline while allowing external water to enter the power generation pipeline, and can block the power generation pipeline from the outside while connecting the power generation pipeline from the siphon pipeline.

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