Air pressure drainage and air pressure accelerated circulation hydroelectric generation device

Abstract

The invention discloses a flowing power generation device which is characterized in that the weight of water inclines downwards in a drainage pipe to generate water pressure and water power for water circulation, drainage pipe flowing, air pressure drainage and air pressure accelerated operation. Comprising a water storage tank, a supporting body, a pressurizing water pipe, a pressurizing bottle, an extraction opening, a water switch, a water switch, a water switch, a water drainage pipe, a water drainage pipe, a water drainage pipe, a water inlet, an exhaust pipe, a pool, a generator, a water drainage port, a water drainage port, a water feeding pipe, a funnel-shaped upper part, a cone-shaped lower part, a circulating water pipe, an air inlet and outlet pipe, a pool, a connecting point and a water switch. The generator is connected with a drain pipe which is connected with a pressurizing bottle and water in a pool. The hydraulic power generation device has the advantages that the weight of water inclines downwards in the drainage pipe to generate water pressure and hydraulic power, water circulation is conducted, drainage pipe flowability, air pressure drainage and air pressure accelerated operation flowability are conducted, and compared with a traditional hydraulic power generation device, the efficiency is higher, and the construction cost is lower.

Description

Technical Field

[0001] The present invention relates to the technical field of air pressure drainage and air pressure accelerated circulation hydroelectric power generation equipment, and specifically refers to a power generation device in which the weight of water tilts downward inside a drainage pipe to generate water pressure, hydraulic power, water circulation, drainage pipe fluidity, air pressure drainage, and air pressure accelerated fluidity. Background Art

[0002] As society continues to progress, the demand for energy is increasing. Hydropower generation is both clean and environmentally friendly. Hydropower generation equipment is a system that uses the kinetic energy of flowing water to generate electricity. People have been working hard to explore how to make good use of the energy of water. There are many existing hydroelectric power stations, and the existing hydroelectric power generation devices are complex in design, with low power generation efficiency and high construction costs. SUMMARY OF THE INVENTION The purpose of the present invention is to provide a power generation device that uses the weight of water to tilt downward inside a drain pipe to generate water pressure, hydraulics, water circulation, drain pipe fluidity, air pressure drainage, and air pressure to accelerate fluidity, so as to solve the problems raised in the above-mentioned background technology. Summary of the Invention

[0003] The purpose of the present invention is to provide a pneumatic drainage and pneumatic accelerated circulation hydroelectric power generation device to solve the problems raised in the above background technology.

[0004] In order to solve the above technical problems, the present invention provides the following technical solutions:

[0005] The present invention relates to an air pressure drainage and air pressure accelerated circulation hydroelectric power generation device, in which the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic force, water circulation, drain pipe fluidity, air pressure drainage, and air pressure accelerated operation fluidity power generation device, characterized in that it includes a water tank, a support body, a pressurized water pipe, a pressurized bottle, an air suction and discharge port, a water switch, a water switch, a water switch, a water switch, a drain pipe, a drain pipe, a drain pipe, a water inlet, an exhaust pipe, a pool, a pool, a generator, a drain outlet, a drain outlet, an upper water pipe, a funnel-shaped upper part, a conical lower part, a circulating water pipe, an air inlet and outlet pipe, a pool, a connecting point, a water switch, and a pool connection, and pools are provided at both ends of the pool, and the air supply and outlet pipes, the drain pipe, the connecting point, the funnel-shaped upper part, and the conical lower part are arranged in the pool, the water switch is connected to the upper water pipe, and the two ends of the circulating water pipe are connected to the pool and the upper water pipe.

[0006] As an improvement, the weight of the water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, drain pipe fluidity, air pressure drainage, and air pressure accelerated operation of the fluidity power generation device.

[0007] The present invention relates to the technical field of a power generation device in which the weight of water tilts downward inside a drain pipe to generate water pressure, water power, water circulation, drain pipe fluidity, air pressure drainage, and air pressure acceleration of fluidity. Specifically, it refers to a power generation device in which the weight of water tilts downward inside a drain pipe to generate water pressure, water power, water circulation, drain pipe fluidity, air pressure drainage, and air pressure acceleration of fluidity. Background technology As society continues to progress, the demand for energy is increasing. Hydropower generation is both clean and environmentally friendly. Hydropower generation equipment is a system that uses the kinetic energy of flowing water for power generation. People have been working hard to explore how to make good use of the energy of water power. There are many existing hydropower stations, and the existing hydropower generation equipment is complex in design, with low power generation efficiency and high construction cost. Summary of the invention The purpose of the present invention is to provide a power generation device in which the weight of water tilts downward inside a drain pipe to generate water pressure, water power, water circulation, drain pipe fluidity, air pressure drainage, and air pressure acceleration of fluidity, so as to solve the problems raised in the above background technology.

[0008] In order to solve the above technical problems, the present invention provides the following technical solutions: the weight of a water tilts downward inside the drain pipe to generate water pressure, hydraulic force, water circulation, drain pipe fluidity, air pressure drainage, air pressure accelerated fluidity operation power generation device, including a water storage tank, a support body, multiple groups of booster water pipes, multiple groups of booster bottles, multiple air extraction and discharge ports, multiple water switches, a water inlet, multiple water tanks, multiple drain pipes, multiple generators, a water supply pipe, an air supply and outlet pipe, multiple drain ports, a circulating water pipe, and a connection point , a funnel-shaped upper part, and a conical lower part; the water tank, air extraction and discharge port, the support body, the pressurized water pipe are connected to the upper water pipe, the water switch, the exhaust port, the generator are connected to the drain pipe one, the drain pipe one is connected to the booster bottle, the water pool one, and the water pool two, the two ends of the water pool one are provided with a water pool one, the air addition and discharge pipe, the drain pipe two, the support point, the funnel-shaped upper part, and the conical lower part are provided in the water pool two, the water switch is connected to the upper water pipe, and the two ends of the circulating water pipe are connected to the water pool one and the upper water pipe.

[0009] As an improvement, there are multiple water switches, and there are multiple drain pipes. The water outlet can be selected to discharge straightly according to the situation. The water supply pipe, drain pipe, water inlet, and circulating water pipe can be selected in size according to the situation. The advantages of the present invention over the existing technology are: the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, fluidity of the drain pipe, air pressure drainage, air pressure acceleration of fluidity to operate and generate electricity. It is more efficient than traditional hydropower generation devices and has lower construction costs. The corresponding technology and design can be applied in many fields, such as automobiles, ships, airplanes, etc. Borrowing the slope to bear the weight of the drain pipe, such as the sea, river, mountain, greatly reduces cost expenditure. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings listed below are only some structural schematic diagrams of the present invention, not all of them.

[0011] Figure 1 This is a schematic diagram of the various structures of the power generation device in which the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, drain pipe fluidity, air pressure drainage, and air pressure accelerated fluidity. Figure 1 .

[0012] Figure 2 This is a schematic diagram of the various structures of the power generation device in which the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, drain pipe fluidity, air pressure drainage, and air pressure accelerated fluidity. Figure 2 .

[0013] Figure 3 This is a schematic diagram of the two structures of the present invention: the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, drain pipe fluidity, air pressure drainage, and air pressure acceleration of fluidity to generate electricity. Figure 3 .

[0014] Figure 4 This is a schematic diagram of two structures of a power generation device in which the weight of water tilts downward inside the drain pipe to generate water pressure and hydraulic power, to circulate water, to improve the flow of the drain pipe, to drain water with air pressure, and to accelerate the flow of air pressure. Figure 4 .

[0015] Figure 5 This is a schematic diagram of the structure of the air pressure drainage power generation device in which the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic force, flow of the drain pipe, and air pressure drainage power generation device. Figure 5 .

[0016] Figure 6 This is a schematic diagram of the structure of the air pressure drainage power generation device in which the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic force, flow of the drain pipe, and air pressure drainage power generation device. Figure 6 .

[0017] Figure 7 This is a schematic diagram of the structure of the funnel-shaped upper part of the device in which the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, drain pipe fluidity, air pressure drainage, air pressure accelerated fluidity, power generation, and the like. Figure 7 .

[0018] Figure 8This is a schematic diagram of the structure of the conical lower part of the power generation device of the present invention, in which the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, drain pipe fluidity, air pressure drainage, and air pressure acceleration of fluidity. Figure 8 .

[0019] Reference numerals:

[0020] Water tank 1, support body 2, booster water pipe 3, booster bottle 4, air extraction port 5, water switch 6, water switch 7, water switch 8, water switch 9, drain pipe 10, drain pipe 11, drain pipe 12, drain pipe 13, water inlet 14, exhaust pipe 15, pool 16, pool 17, generator 18, drain outlet 19, drain outlet 20, water supply pipe 21, funnel-shaped upper part 22, conical lower part 23, circulating water pipe 24, air inlet and outlet pipes 25, pool 26, connection point 27, water switch 28. DETAILED DESCRIPTION

[0021] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0022] In the description of the embodiments of the present invention, it should be noted that if the terms "center", "up", "down", "left", "right", "vertical", "horizontal", "inside", "outside", etc. appear, the orientation or position relationship indicated is based on the orientation or position relationship shown in the accompanying drawings, or is the orientation or position relationship in which the product of the invention is usually placed when in use. It is only for the convenience of describing the present invention and simplifying the description, and does not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, it should not be understood as a limitation on the present invention.

[0023] Furthermore, the use of terms such as "first," "second," and "third" is intended solely to distinguish descriptions and should not be construed as indicating or implying relative importance. The use of terms such as "horizontal," "vertical," and "overhanging" does not necessarily imply that a component must be absolutely horizontal or overhanging; rather, a slight tilt is permitted. For example, "horizontal" simply refers to a direction that is more horizontal than "vertical," not to implying that the structure must be perfectly horizontal; rather, a slight tilt is permitted.

[0024] In the description of the embodiments of the present invention, if the terms "multiple" or "several" appear, they represent at least two.

[0025] In the description of the embodiments of the present invention, it should be noted that, unless otherwise expressly specified or limited, the terms "disposed," "installed," "connected," and "connected" should be understood in a broad sense. For example, they can refer to fixed connections, detachable connections, or integral connections; they can refer to mechanical connections or electrical connections; they can refer to direct connections or indirect connections through an intermediate medium; and they can refer to internal connections between two components. Those skilled in the art will understand the specific meanings of the above terms in the present invention based on specific circumstances.

[0026] This embodiment combines the attached Figures 1 to 8 , a pneumatic drainage and pneumatic accelerated circulation hydropower generation device is described in detail.

[0027] The present embodiment is a pneumatic drainage and pneumatic accelerated circulation hydroelectric power generation device, comprising a water storage tank 1, a support body 2, a pressurized water pipe 3, a pressurized bottle 4, an air extraction port 5, a water switch 6, a water switch 7, a water switch 8, a water switch 9, a drain pipe 10, a drain pipe 11, a drain pipe 12, a drain pipe 13, a water inlet 14, an exhaust pipe 15, a pool 16, a pool 17, a generator 18, a drain port 19, a drain port 20, a water supply pipe 21, an upper funnel-shaped part 22, a lower conical part 23, a circulating water pipe 24, an air inlet and outlet pipe 25, a pool 26, a connection point 27, a water switch 28, and the water storage tank 1, the air extraction and discharge port 5, the pressurized water Pipe 3 is connected to the water pipe 21, the water switch 6, the exhaust pipe 15, and the generator 18 are connected to the drain pipe 11 and the drain pipe 12. The drain pipe 12 is connected to the booster bottle 4, and the two water pools 26 are connected to the water pools 16 and 17 on the left and right. The water pools 16 and 17 are connected to the air adding and outlet pipes 25, the drain outlet 19, the drain outlet 20, the connection point 27, the funnel-shaped upper part 22, and the conical lower part 23 are provided in the water pool 17. The water switch 9 is connected to the water pipe 21, and both ends of the circulating water pipe 24 are connected to the water pools 16 and 17, the drain pipe 13, and the water inlet 14 are designed in the circulating water pipe 24 and connected to the water pipe 21.

[0028] In practice, the overall operating principle is as follows: The water supply pipe is designed with multiple sets of booster pipes, utilizing the principle of negative pressure suction, which leverages force to pull and release, thereby facilitating water supply speed. The water tank serves as a key starting point for pressure accumulation. The more water in the tank, the greater the pressure accumulation and the corresponding increase in water pressure at the bottom. The steeper the pipe slope, the greater the pressure accumulation and the corresponding increase in water pressure at the bottom. The longer the pipe slope, the greater the pressure accumulation and the corresponding increase in water pressure at the bottom. The wider the pipe width, the greater the pressure accumulation and the corresponding increase in water pressure at the bottom. When the water flow is fluid, the force of the flow increases. The pool is connected to the downward-sloping circulating water pipe, which is then connected to the water supply pipe. The pool is connected to the water supply pipe, forming a U-shaped trough. Under normal circumstances, no matter which side of the U-shaped trough is filled, a balance point will be reached when a certain amount of water is present. When the pool has a certain internal volume and a certain amount of air pressure is applied, the gravity of the water in the pool contributes to the speed of water supply through the water supply pipe. At this time, the proportion of the power generation equipment forms a triangular data, and the data is not restricted accordingly. At this time, the water depth is 35 meters, and the height of the water pipe reaches 30 meters (when the water pipe is vertical to the bottom of the water, the water pressure at the bottom of the water pipe is still 35 meters). The drainage pipe is tilted downward to more than 500 meters, with a width of more than 2 meters and a drainage outlet of 3 meters. The bottom drainage outlet only withstands 3 meters of water pressure and a water height of 35 meters (through the downward-tilted water weight, the water inside the water pipe is constantly superimposed. The larger and longer the water pipe is, the superimposed water pressure will also increase. When the drainage outlet is established in a space where the internal air pressure and the external water pressure are offset, the fluidity generated during operation is at least several times more than the internal air pressure drainage and external water pressure of the pool, meeting the power generation requirements). When air pressure is added to a 35-meter-deep water pool, the air pressure and the external water pressure are in conflict, and the water between the two is below the energy balance point. The density of water is greater than that of air, and the drain outlet is discharged at the energy balance point a little below the water surface. When the amount of water discharged from the drain outlet is discharged at the balance point of the air pressure and the external water pressure, the balance will fluctuate, which will compress the air pressure inside the pool. The drain outlet is kept a little below the water surface by adding air pressure through the inlet and outlet pipes. Adding air pressure helps drainage capacity and accelerates fluidity. When the drainage volume of the drain outlet is not very strong, it means that the drain pipe is not big enough, the water tank is not big enough, the drain pipe is not long enough, and the inclination of the drain pipe is not high. At this time, drainage equipment can be installed at the drain outlet to strengthen the power generation requirements of the power generation equipment.

[0029] The first type: The weight of the water tilts downward inside the drain pipe to generate water pressure, hydraulic force, water circulation, drain pipe fluidity, and air pressure drainage operation. "Operation Explanation": Figure 6The entire equipment is in the water, and can also be designed to be above the water surface. Pay attention to the requirements, there are no restrictions on the requirements. The upper water pipe 21 is larger than the drain pipe 12, the drain pipe 13 is larger than the drain pipe 12, the upper water pipe 21, the drain pipe 11 is larger than the upper water pipe 21, and the upper part of the booster bottle 4 is larger than the drain pipe 11. The discharge volume of the drain outlet 20 and the consumption of the drain pipe 13 produce fluctuations that cannot cause too much impact on the water level inside the pool 17. The discharge volume of the drain outlet 20 determines the size of the pool 17. The upper part of the drain outlet 20 is a funnel-shaped 22 design, and the middle is the drain outlet 20 design. It is also designed with a fixed connection point 27 between the upper and lower parts. The lower part is a cone plus a flat 23 design. The flat plate is larger than the funnel shape. The flat plate can be flat, tilted slightly downward, or bent slightly upward. If it is designed to bend slightly upward, the impact discharged from the drain outlet will exceed the water surface of the pool and fall back into the pool. The drain outlet 20 can also choose a straight mouth discharge, depending on the situation. "If Figure 6Operation Explanation: Step 1: Close all air extraction ports 5, water switch 28, and switch 6. Before closing them, ensure that there is no water in the water supply pipe 21 and the water tank 1. The water supply pipe 21 and the water tank require negative pressure suction. Turn off the water switch 7, close the air inlet and outlet pipes 25 (designed with switches), turn off the water switch 9, open the water switch 8, close the water inlet 14, and before closing the exhaust pipe 15, fill the drain pipe 11 and the water level inside the booster bottle. The booster bottle 4 bears the water pressure generated by the weight of the water inside the drain pipe 11, which will store some water pressure. When encountering fluidity, it will accelerate the flow of some water. Step 2: Use air pressure through the air inlet and outlet pipes 25 to maintain the water level inside pool 17 slightly above drain outlet 20. At this point, the internal air pressure in pool 17 and the external water pressure are counteracting each other, leaving the water below the energy equilibrium point. Water is denser than air, and drain outlet 20 is located below the water surface at this energy equilibrium point. When the amount of water discharged from drain outlet 20 reaches the equilibrium point between the internal and external water pressures, the balance fluctuates, compressing the air pressure inside the pool. Using air pressure through the air inlet and outlet pipes 25 to maintain the drain outlet slightly below the water surface improves drainage capacity. Step 3: Open a little water switch 28 and pump air from the exhaust port 5 of the first set of booster pipes 3 on the bottom floor. Simultaneously pump air vigorously from both exhaust ports 5 until the booster pipes 3 are filled. This strong pumping is intended to create a greater negative pressure in the booster pipes 3, essentially leveraging force to pull and release. Most of the negative pressure is inside the booster pipe 3, and at the downward cross connection point on the side of the drain pipe 21, water is supplied by utilizing the balance point where the booster pipe 3 crosses downward, reducing the pulling force of the water inside the upper water pipe 21 on the drain pipes 10, 11, 12, and the 1 water tank. The process runs from the first set of 3 booster pipes at the bottom to the 3 booster pipes at the top. After the booster pipe 3 is completed, it is then transferred to the air pump 5 above the water tank 1 and vigorously pumped until the water tank 1 is filled. The air pump 5 is then closed and the water valve 6 is fully opened. At this point, the discharge energy of the drain 20 is greater than the air pressure inside the pool 17 and greater than the external water pressure at a depth of 35 meters. At this point, the drain 20 can choose to discharge above the air pressure inside the pool 17. Water is denser than air. As long as the water is discharged above the air pressure inside the pool 17, it will fall from the drain 20 onto the surface of the pool 17. This situation will affect the speed at which the water is discharged from the drain 20. Slowly turn on the water valve 7. The water source drives multiple generators 18 (generators 18 must be designed to generate electricity in water) through the drain outlet 20. At this time, the air inlet and outlet pipes 25 are required to add air pressure to keep the drain outlet 20 slightly below the water surface in the pool 17. The water is discharged into the pool 17 and discharged from the drain pipe 13 by air pressure. The weight of the first type of water tilts downward inside the drain pipe, generating water pressure and hydraulic force, and the drain pipe operates fluidly, generating power and air pressure drainage.

[0030] The second type: The weight of the water tilts downward inside the drain pipe to generate water pressure, hydraulic force, water circulation, drain pipe fluidity, and air pressure drainage operation. "Operation Explanation": Figure 5 The entire equipment is designed in water, pay attention to the requirements, and do not limit the requirements. Drain pipe 13 is larger than drain pipe 12, drain pipe 11 is larger than drain pipe 13 and drain pipe 12, and the upper part of booster bottle 4 is larger than drain pipe 11. The discharge volume of drain outlet 20 and the consumption of drain pipe 13 produce fluctuations that cannot cause too much impact on the water level inside pool 17. The discharge volume of drain outlet 20 determines the size of pool 17. The upper part of drain outlet 20 is funnel-shaped 22 design, the middle is drain outlet 20 design, and a fixed connection point 27 between the upper and lower parts is also designed. The lower part is a cone plus a flat 23 design. The flat plate is larger than the funnel shape. The flat plate can be flat, tilted slightly downward, or bent slightly upward. If it is bent slightly upward, the impact discharged from the drain outlet will exceed the water surface of the pool and fall back into the pool. Drain outlet 20 can also choose straight discharge, depending on the situation. "If Figure 5Operation Explanation: Step 1: Before turning off the water valve 7, the water level inside the booster bottle 4 needs to be around 70%. The booster bottle 4 bears the water pressure generated by the weight of the water inside the drain pipe 11, which will store some water pressure. When encountering fluidity, it will accelerate the flow of some water. Close the inlet and outlet pipes 25 (designed with switches), turn off the water valve 9, open the water valve 8, and close the water inlet 14. Step 2: Use the inlet and outlet pipes 25 to increase air pressure to keep the water level inside the pool 17 slightly above the drain outlet 20. At this time, the air pressure inside the pool 17 and the external water pressure are colliding. The water between them is below the energy balance point. The density of water is greater than that of air, and the drain outlet 20 is discharged at the energy balance point below the water surface. When the amount of water discharged from the drain outlet 20 is discharged at the equilibrium point between the internal and external air pressures of the pool 17, the balance will fluctuate, compressing the air pressure inside the pool. Adding air pressure through the inlet and outlet pipes 25 keeps the drain outlet 20 slightly below the water surface. Adding air pressure improves drainage capacity. Step 3: Slowly turn on the water valve 7. The water source drives multiple generators 18 (generators 18 must be designed to generate electricity in water) and flows through the drain 20. At this time, the air pressure in the inlet and outlet pipes 25 is required to keep the drain 20 slightly below the water surface inside the pool 17. The water source passes through the pool 17 and is discharged from the drain pipe 13 due to the air pressure. When the discharge energy of the drain 20 is greater than the internal air pressure of the pool 17 and the external water pressure, it is possible to choose to discharge above the internal air pressure of the pool 17. The density of water is greater than that of air. As long as the water is discharged above the internal air pressure of the pool 17, it will fall from the drain 20 onto the water surface of the pool 17. This situation will affect the speed at which the water is discharged from the drain 20. (The whole equipment can be designed into a straight line, including drain pipe 11, drain pipe 12, generator 18, and drain outlet 20. The discharge is carried out at a position slightly below the water surface at the energy balance point at the drain outlet 20. The drain pipes 11 and 12 need to have sufficient water volume to support it. The energy of the drain pipe 11 itself is greater than the water inside the pool 17 at the balance point. The water volume discharged at the energy balance point inside the pool 17 is used, and the fluidity generated by the overall operation is used. Then, the air pressure drainage is used to achieve the power generation requirements.) The weight of the second type of water tilts downward inside the drain pipe to generate water pressure and hydraulic power. The drain pipe performs fluid operation to generate power, and the air pressure drainage is completed.

[0031] The third type: The weight of the water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, fluidity of the drain pipe, air pressure drainage, and air pressure acceleration of fluidity to generate electricity. Figure 3The entire equipment is submerged in water, and can also be designed to be above the water surface. Pay attention to the requirements, and do not limit them. The water supply pipe 21 is larger than the drain pipe 12, the drain pipe 13 is larger than the drain pipe 12 and the water supply pipe 21, the circulating water pipe 24 is larger than the water supply pipe 21 and the drain pipe 12, the upper part of the booster bottle 4 is larger than the drain pipe 11, and the proportion of the water inlet 14 is the same as that of the circulating water pipe 24. The discharge volume of the drain port 20 and the consumption of the drain pipe 13 or the circulating water pipe fluctuate and cannot have too much impact on the pool 17. The discharge volume of the drain port 20 determines the size of the pool 17. The upper part of the drain outlet 20 is designed in a funnel shape 22, with the drain outlet 20 in the middle. There is also a fixed connection point 27 between the upper and lower parts. The lower part is a cone with a flat plate 23. The flat plate is larger than the funnel shape. The flat plate can be flat, slightly tilted downward, or slightly curved upward. If the design is slightly curved upward, the impact of the drain outlet will exceed the water surface of the pool and fall back into the pool. The drain outlet 20 can also be designed as a straight outlet. The choice should be based on the situation. Figure 3Operation Explanation》: Step 1: Close all the air outlets 5, close the water inlet 14 (designed with a switch), close the water switch 6, and before closing the water switch 9, make sure that there is no water inside the water pipe 21 and the water tank 1. The water pipe 21 and the water tank require the principle of negative pressure suction. Close the water switch 7, close the air inlet and outlet pipes 25 (designed with a switch), open the water switch 8, and before closing the exhaust pipe 15, the drain pipe 11 must be filled, and the water level inside the booster bottle needs to be about 70%. The booster bottle 4 bears the water pressure generated by the weight of the water inside the drain pipe 11, and will store some water pressure. When encountering fluidity, it will accelerate the fluidity of some water. Step 2: Add air pressure through the air inlet and outlet pipes 25 to keep the water level inside the pool 17 above the drain outlet 20. Choose to add air or deflate through the air adding pipe 25 to ensure that the water level inside the pool 17 is above the drain outlet 20. At this time, the air pressure inside the pool 17 and the external water pressure are in conflict, and the water between them is below the energy balance point. The density of water is greater than that of air, and the drain outlet 20 is discharged at the energy balance point slightly below the water surface. When the amount of water discharged from the drain outlet 20 is discharged at the balance point between the air pressure inside the pool 17 and the external water pressure, the balance will fluctuate, which will compress the air pressure inside the pool. The air pressure is added by the inlet and outlet pipes 25 to keep the drain outlet slightly below the water surface. Adding air pressure helps the drainage capacity. Step 3: Turn on the water switch 9, and draw air from the air outlet 5 of the first group of boosting water pipes 3 on the bottom layer. The air outlets 5 are pumped vigorously at the same time until the boosting water pipes 3 are filled. The purpose of vigorously pumping water is to increase the negative pressure suction principle of the boosting water pipe 3, which means to use the force to pull and the force to release. Most of the negative pressure is inside the booster pipes 3 and crosses downward, using the balance point where the booster pipes 3 cross downward to supply water, reducing the pulling force of the water in the upper water pipe 21 on the drain pipes 10, 11, 12, and the water tank 1. The system runs from the first set of booster pipes 3 at the bottom to the booster pipes 3 at the top. After the booster pipes 3 are completed, the system goes to the air pump 5 on the top of the water tank 1 and vigorously pumps air until the water tank 1 is full. The air pump 5 is then closed, the water valve 9 is turned off, the water valve 6 is turned on, and the water inlet 14 is opened. At this point, the discharge energy from the drain 20 is greater than the air pressure inside the pool 17 and greater than the external water pressure at a depth of 35 meters. At this point, the drain 20 can be discharged above the internal air pressure of the pool 17. Water is denser than air. As long as the water is discharged above the air pressure of the pool 17, the water will fall from the drain 20 onto the surface of the pool 17. This situation will affect the speed at which the water is discharged from the drain 20.Slowly open the water valve 7 while keeping the position of the drain outlet 20 in mind. Water will drive multiple generators 18 (designed to generate electricity in water) through the drain outlet 20. Air pressure is then applied to the inlet and outlet pipes 25 to maintain the drain outlet 20 slightly below the water level inside the pool 17. The water then flows out through the drain outlet 13 and enters the water inlet 14. The weight of the water pushes downward inside the drain pipe, generating hydraulic pressure and hydraulic force, which maintains the fluidity of the drain pipe. This completes the pneumatic drainage process. Step 4: Connect the pool 17 directly to the circulating water pipe 24 to achieve normal operation. Once the required water volume reaches a balanced state, open the water valve 9, then close the water valve 8, and finally close the water inlet 14. The closure of the water inlet 14 is determined by the water level at the drain outlet 20. The water level at the drain outlet 20 determines whether the inlet and outlet pipes 25 should be filled or deflated. When the drain outlet 20 is slightly below the pool water level, close the water inlet 14. After normal operation, when the water volume in the entire system reaches the normal ratio, air is added through the inlet and outlet pipes 25 to accelerate flow. The required air pressure depends on the power generation equipment and the pressure limit within the water tank 17 at the drain outlet. The air pressure needs to be adjusted according to the power generation equipment during operation. A third method: The weight of the water tilts downward inside the drain pipe, generating water pressure and hydraulic power, which circulates the water, activates the flow of the drain pipe, and accelerates the air pressure to generate power.

[0032] explain Figure 3 The fourth type: when operating on land, the weight of the water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, flow operation of the drain pipe, and air pressure acceleration to generate flow power. Note the requirements, there are no restrictions. The upper water pipe 21 is larger than the drain pipe 12, and the drain pipe 13 is larger than the drain pipe 12 and the upper water pipe 21. The circulating water pipe 24 is larger than the drain port 13, the upper water pipe 21, and the drain pipe 12. The upper part of the booster bottle 4 is larger than the drain pipe 11. The discharge volume of the drain port 20 and the consumption of the circulating water pipe fluctuate and cannot cause excessive impact on the water level inside the pool 17. The discharge volume of the drain port 20 determines the size of the pool 17. The upper part of the drain outlet 20 is designed in a funnel shape 22, with the drain outlet 20 in the middle. There is also a fixed connection point 27 between the upper and lower parts. The lower part is a cone with a flat plate 23. The flat plate is larger than the funnel shape. The flat plate can be flat, slightly tilted downward, or slightly curved upward. If the design is slightly curved upward, the impact of the drain outlet 20 will exceed the water surface of the pool and fall back into the pool. The drain outlet 20 can also be a straight outlet. It should be selected according to the situation. Figure 3Operation Explanation》Step 1: Close all exhaust ports 5, turn off the water switch 6, turn off the water switch 7, close the water inlet 14, turn on the water switch 8, turn on the water switch 9, and open the air inlet and outlet pipes 25. Step 2: A continuous source of water is required from the pool 26 through the drain pipe 13 into the pool 17. When the 24 circulating water pipe is full, turn off the water switch 9, open the water switch 9 a little, and pump air from the exhaust port 5 of the first group of booster water pipes 3 on the bottom layer. Pump air vigorously from the exhaust port 5 on both sides at the same time until the booster water pipe 3 is filled. The purpose of vigorously pumping water is to increase the negative pressure suction principle of the booster water pipe 3, which means to use the force to pull and the force to release. 《Most of the negative pressure is inside the booster water pipe 3, and crosses downward. The water is supplied at the balance point where the booster water pipe 3 crosses downward, reducing the pulling force of the water in the water supply pipe 21 on the drain pipes 10, 11, 12 and the water tank 1》 It runs step by step from the first group of booster water pipes 3 at the bottom to the booster water pipe 3 on the top layer. After running the booster water pipe 3, it goes to the air suction port 5 on the water tank 1 to pump air vigorously until the water tank 1 and the drain pipe 10 are filled. The drain pipe 10 is a distance away from the water tank 1. This distance must have enough capacity to fill the drain pipe 11. At this moment, the water tank 1 has some negative pressure suction principles, which means using force to pull and use force to release, thereby reducing the pulling force of the drain pipe. The third step: fully open the water switch 9, open the water switch 6 a little, the gas inside the drain pipe 11 is discharged from the exhaust pipe 15 (designed with a switch), and also open the exhaust port 5 on the multiple sets of booster bottles 4. When the water reaches more than 70% of the booster bottle 4, the exhaust port 5 is closed until the drain pipe 11 is filled, and then the exhaust pipe 15 is closed, and the water switch 6 is fully opened. "At this time, the booster bottle 4 stores some water pressure. When it encounters fluidity, it will release some water pressure to accelerate fluidity." Step 4: At this time, the water level of the pool 17 needs to be lower than the drain port 20, which is conducive to discharge from the drain port 20. Turn on the water switch 7, and the water source passes through multiple sets of generators 18 and is discharged from the drain port 20 to the pool 17, and enters directly from the circulating water pipe 24. The weight of water generates water pressure and hydraulics inside the water pipe, and the water circulates and the drain pipe performs fluidity. The power generation equipment is completed. Step 5: Once normal operation is complete, connect the air pressure to accelerate fluidity generation. At this point, the bottom of the water supply pipe 21 forms a right triangle, with the water pressure at a depth of 35 meters x the pressure at a depth of 500 meters, resulting in a downward slope of the drain pipe 11. A U-shaped channel connects reservoirs 26 and 17. Add water from reservoir 26 until the water levels in both reservoirs 17 and 26 are slightly above drain outlet 20. Turn off the water valve 8 and close the air inlet and outlet pipes 25. Once the water level in the entire system reaches the required ratio, add air from the air inlet and outlet pipes 25 to accelerate fluidity.How much air pressure is needed depends on the situation of the power generation equipment. It is also necessary to know what the air pressure inside the pool 17 is to the maximum air pressure at the drain outlet. The air pressure needs to be adjusted according to the operation of the power generation equipment. When the power generation equipment is operated on land, the weight of the water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, and fluidity of the drain pipe. The air pressure accelerates the fluidity and power generation is completed.

[0033] The fifth type: The weight of the water tilts downward inside the drain pipe to generate water pressure and hydraulic power, which circulates water and makes the drain pipe fluid. Air pressure drainage and air pressure accelerates fluidity to generate electricity. Operation Explanation: Figure 4 The equipment operates with a bidirectional cross-connection. The entire system is submerged, but can also be above the water surface. Note the requirements, which are not restrictive. The water supply pipe 21 is larger than the drain pipe 12. The upper portion of the booster bottle 4 is larger than the drain pipe 11. The drain pipe 13 is larger than both the drain pipe 12 and the water supply pipe 21. The water inlet 14 is the same size as the water supply pipe 21. Fluctuations in the discharge volume of drains 19 and 20, combined with the consumption of drain pipe 13, must not significantly affect the water level in pool 17. The discharge volume of drain pipes 19 and 20 determines the size of pools 16 and 17. The upper part of the drain outlet 19 and the drain outlet 20 is designed in a funnel shape 22, and the middle part is designed with drain outlets 19 and 20. There is also a fixed connection point 27 between the upper water and the lower part. The lower part is a cone with a flat plate. The flat plate can be flat, larger than the funnel shape, slightly tilted downward, or slightly bent upward. If the design is slightly bent upward, the impact force discharged from the drain outlets 19 and 20 will exceed the water surface of the pool and fall back into the pool. Drain outlets 19 and 20 can also choose straight discharge, depending on the situation. Figure 4Operational Explanation: Step 1: Connect and operate the bidirectional equipment simultaneously. Before turning off water valve 9, closing water inlet 14, and closing water valve 6, ensure that there is no water in water supply pipe 21 and water tank 1. Water supply pipe 21 and water tank 1 require negative pressure suction. Turn off water valve 7, close the inlet and outlet air pipes 25 (designed with switches), open water valve 8, and before closing exhaust pipe 15, fill drain pipe 11 to approximately 70% of the water level in booster bottle 4. The booster bottle 4 withstands the water pressure generated by the weight of the water in drain pipe 11, which stores some water pressure. When encountering fluidity, this pressure accelerates the flow of water. Step 2: Add air pressure through the inlet and outlet air pipes 25 to maintain the water level in reservoirs 16 and 17 at outlets 19 and 20 above outlets 19 and 20. Use the air supply pipe 25 to either add or release air to ensure that the water level in reservoirs 16 and 17 is slightly above outlets 19 and 20. At this time, the air pressure in pools 16 and 17 is counteracting the external water pressure. The water between the two is below the energy balance point. The density of water is greater than that of air. Drains 19 and 20 are discharged at a point below the energy balance point, at the water surface. When the amount of water discharged from drains 19 and 20 is discharged at the balance point between the air pressure and the external water, the balance will fluctuate, which will compress the air pressure inside the pool. The air pressure is added through the inlet and outlet pipes 25 to keep drains 19 and 20 at a point below the water surface. Adding air pressure helps the drainage capacity. Step 3: Turn on the water switch 9, and draw air from the air outlet 5 of the first group of booster water pipes 3 on the bottom layer. Pump air vigorously from the air outlets 5 on both sides until the booster water pipes 3 are filled. The purpose of vigorously pumping water is to increase the negative pressure suction principle of the booster water pipe 3, which means to use the force to pull and the force to release. 《Most of the negative pressure is inside the 3 booster water pipes and crosses downward. The water is supplied at the balance point where the booster water pipes 3 cross downward, reducing the pulling force of the water inside the water supply pipe 21 on the drainage pipes 10, 11, 12 and the water tank 1》Run from the first group of booster water pipes 3 at the bottom to the booster water pipes 3 on the top layer step by step. After running the booster water pipes 3, go to the air pumping port 5 on the top of the water tank 1 and pump air vigorously until the water tank 1 is filled. Turn off the air pump 5, turn off the water switch 9, turn on the water switch 6, and open the water inlet 14. At this time, the discharge energy of drain outlet 19 and drain outlet 20 is also greater than the air pressure inside pool 16 and pool 17, and also greater than the water pressure at a depth of 35 meters outside. "At this time, drain outlet 19 and drain outlet 20 can choose to discharge above the air pressure inside pool 16 and pool 17. The density of water is greater than that of air. As long as the water is discharged at the air pressure of pool 16 and pool 17, the water source will fall from drain outlet 19 and drain outlet 20 into the water surface of pool 16 and pool 17. The situation at this time will affect the speed at which the water is discharged from drain outlet 19 and drain outlet 20."Slowly turn on the water switch 7, and the water source drives multiple sets of generators 18 (generators 18 that are designed to generate electricity in water) through the drain pipe 19 and the drain outlet 20. At this time, the inlet and outlet pipes 25 need to increase air pressure to keep the drain outlets 19 and 20 slightly below the water surface inside the pools 16 and 17, and then the water is discharged through the drain outlet 13, and the water source enters from the water inlet 14. It is inevitable that there will be deviations when the two sides are cross-connected and operated at the same time. At this time, the air pressure inside the pools 16 and 17 needs to be the same, and the amount of water discharged is controlled by the water switch 7, and the amount of water discharged needs to be the same. The weight of the water tilts downward inside the drain pipe to generate water pressure and hydraulic power, and the flow of the drain pipe is operated to generate electricity and the air pressure drainage is completed. Step 4: Accelerate the flow with air pressure. When normal operation is achieved, the amount of water required for the operation of the entire equipment is balanced. First, turn on the water tap 9, then turn off the water tap 8. Slowly close the water inlet 14. Before finally closing the water inlet 14, ensure that the drain outlets 19 and 20 are positioned below the water surface in the reservoirs 16 and 17. Use the inlet and outlet pipes 25 to increase or decrease air pressure to maintain the drain outlets 19 and 20 below the water surface. Close the water inlet 14. Once the system is operating normally, and the water volume in the entire system reaches a normal ratio, add air through the inlet and outlet pipes 25 to accelerate flow. The required air pressure depends on the power generation equipment and the pressure limits within the reservoirs 16 and 17. The air pressure should be adjusted according to the power generation equipment during operation. The weight of the water in the drain pipe creates water pressure and hydraulic force, which circulates the water and controls flow in the drain pipe. The air pressure accelerates flow, completing the power generation process.

[0034] explain Figure 4Equipment, the sixth type: is bidirectional cross-connected and operates on land. The weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation in and out, fluidity of the drain pipe, and air pressure acceleration to generate electricity. Pay attention to the requirements, there are no restrictions. The water supply pipe 21 is larger than the drain pipe 12, and the drain pipe 13 is larger than the drain pipe 12 and the water supply pipe 21. The ratio of the water inlet 14 needs to reach the ratio of the water supply pipe 21. The discharge of the drain outlet 19 and the drain outlet 20 and the consumption of the drain pipe 13 will not cause excessive fluctuations in the water levels of the pools 16 and 17. The discharge of the drain outlet 19 and the drain outlet 20 determines the size of the pools 16 and 17. The upper part of the drain outlet 19 and the drain outlet 20 is a funnel-shaped 22 design, and the middle is the drain outlet 19 and 20 design. There is also a fixed connection point 27 between the upper and lower parts. The lower part is a cone plus a flat plate 23 design. The flat plate is larger than the funnel shape. The design of the flat plate can be flat, or it can be tilted slightly downward, or it can be bent slightly upward. If the design is bent slightly upward, the impact force discharged from the drain outlet will exceed the water surface of the pool and then fall back into the pool. The drain outlet 19 and the drain outlet 20 can also choose straight discharge. Choose according to the situation. Figure 4Operation Explanation". Step 1: Both devices are running and operating at the same time, turn off all the air pumps 5, turn off the water switch 6, turn off the water switch 7, close the water inlet 14, turn on the water switch 8, turn off the water switch 9, and open the air inlet and outlet pipes 25. Step 2: There needs to be a constant source of water from the pool 26 through the drain pipe 13 into the pool 16 and the pool 17. Turn on the water switch 9 a little, and pump air from the air pump port 5 of the first group of booster water pipes 3 on the bottom layer. Pump air vigorously from the air pump port 5 at the same time until the booster water pipe 3 is filled. The purpose of pumping water vigorously is to increase the negative pressure suction principle of the booster water pipe 3, which means to use force to pull and use force to release. 《Most of the negative pressure is inside the booster water pipe 3, and crosses downward. The water is supplied at the balance point where the booster water pipe 3 crosses downward, reducing the pulling force of the water in the water supply pipe 21 on the drain pipes 10, 11, 12 and the water tank 1》 It runs step by step from the first group of booster water pipes 3 at the bottom to the booster water pipe 3 on the top layer. After running the booster water pipe 3, it goes to the air suction port 5 on the water tank 1 to pump air vigorously until the water tank 1 and the drain pipe 10 are filled. The drain pipe 10 is a distance away from the water tank 1. This distance must have enough capacity to fill the drain pipe 11. At this moment, the water tank 1 has some negative pressure suction principles, which means using force to pull and use force to release. Step 3: Fully open the water valve 9, slightly open the drain valve 6, and allow the gas inside the drain pipe 11 to be discharged from the exhaust pipe 15 (designed with a switch). Also, open the multiple booster bottles 4 to evacuate the air 5. When the water in the booster bottles 4 reaches more than 70%, close the exhaust port 5 until the drain pipe 11 is completely filled. Then close the exhaust pipe 15 and fully open the water valve 6. (At this point, the booster bottles 4 retain some water pressure, which will release some of the pressure when it encounters fluidity to accelerate fluidity.) Step 4: At this point, the water levels in the reservoirs 16 and 17 must be lower than the drain ports 19 and 20 to facilitate the discharge rate of the drain ports 19 and 20. Close the water valve 9, open the water inlet 14, and open the water valve 7. The water flows through the multiple generators 18, through the drain ports 19 and 20, and into the reservoirs 16 and 17. It then flows out of the drain pipe 13 and enters the water inlet 14. Since both sides are cross-connected and operating simultaneously, deviations are inevitable. The water valve 7 controls the discharge volume of the drain ports 19 and 20 to ensure the same level. The weight of the water creates hydraulic pressure and force inside the pipe, allowing water to circulate and flow through the drainpipe, completing the power generation device. Step 5: After normal operation, connect the air pressure to accelerate power generation. At this point, the bottom of the upper water pipe 21 forms a right triangle, equivalent to the water pressure at a height of 35 meters and a depth of 500 meters.Pool 26, pool 16, and pool 17 are equivalent to a U-shaped water pipe. Water is added from pool 26 until the water levels in pools 16, 17, and 26 are slightly above drains 19 and 20. Close the air inlet and outlet pipes 25, open the water tap 9, close the water inlet 14, and finally close the water tap 8. Before checking the water levels at drains 19 and 20, add water to pool 26 or add or reduce air through the air inlet and outlet pipes 25 to ensure that drains 19 and 20 are slightly below the water surface. When the water volume of the entire equipment reaches the normal ratio, air is added through the air inlet and outlet pipes 25 to accelerate fluidity. How much air pressure is needed depends on the situation of the power generation equipment. It is necessary to know the limit air pressure of drain outlets 19 and 20 caused by the air pressure inside pools 16 and 17. The air pressure needs to be adjusted according to the operation of the power generation equipment. When the power generation equipment is operated on land, the weight of the water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, drain pipe fluidity, and air pressure acceleration to complete the power generation.

[0035] The above description of the present invention and its embodiments is non-limiting, and the actual scope of protection is not limited to this description. Any changes or substitutions that can be easily conceived by a person skilled in the art within the technical scope disclosed by this invention should be included in the scope of protection of this invention. Therefore, the scope of protection of this invention should be based on the scope of protection of the claims.

Claims

1. A pneumatic drainage and pneumatic accelerated circulation hydroelectric power generation device, wherein the weight of water tilts downward inside the drain pipe to generate water pressure and hydraulic force, thereby performing water circulation, improving the fluidity of the drain pipe, pneumatic drainage, and pneumatic accelerated operation of the fluidity power generation device, characterized in that: The invention comprises a water storage tank (1), a support body (2), a pressurized water pipe (3), a pressurized bottle (4), an air extraction and discharge port (5), a water switch (6), a water switch (7), a water switch (8), a water switch (9), a drain pipe (10), a drain pipe (11), a drain pipe (12), a drain pipe (13), a water inlet (14), an exhaust pipe (15), a water pool (16), a water pool (17), a generator (18), a drain outlet (19), a drain outlet (20), a water supply pipe (21), a funnel-shaped upper portion (22), a conical lower portion (23), The circulating water pipe (24), the air inlet and outlet pipes (25), the pool (26), the connection point (27), the water switch 28, and the pool 26 (17) are connected. The pools (26) are provided at both ends of the pools (16) (17). The air inlet and outlet pipes (25), the drain pipe (12), the connection point (27), the funnel-shaped upper part (22), and the conical lower part (23) are provided in the pools (16) (17). The water switch (9) is connected to the upper water pipe (21). The two ends of the circulating water pipe (24) are connected to the pool (26) and the upper water pipe (21).

2. According to the air pressure drainage and air pressure accelerated circulation hydroelectric power generation device described in claim 1, the weight of water tilts downward inside the drain pipe to generate water pressure, hydraulic power, water circulation, drain pipe fluidity, air pressure drainage, and air pressure accelerated operation of the fluidity power generation device.

3. According to the air pressure drainage and air pressure accelerated circulation hydroelectric power generation device described in claim 1, a water discharge space is established in the water, the internal air pressure of the space and the external water pressure are in conflict, and an energy balance point will be generated between the two. The drain outlet is discharged at the energy balance point at a point below the water surface. When the water discharged from the drain outlet is discharged at the balance point of the air pressure and the external water pressure, the balance will fluctuate, which will compress the air pressure inside the pool. The drain outlet is kept at a point below the water surface by adding air pressure through the inlet and outlet pipes. Adding air pressure helps the drainage capacity. When the energy of the drain outlet is greater than the internal air pressure drainage and external water pressure of the space, the density of water is greater than that of air, and it can be selected to be discharged above the internal air pressure of the space.

4. According to the air pressure drainage and air pressure accelerated circulation hydroelectric power generation device described in claim 1, the power generation equipment is proportional to the data of a triangle, and the data is not limited. At this time, the water depth is 35 meters, and the vertical water pipe is 30 meters. The water pressure at the bottom of the water pipe is still 35 meters. The drainage pipe is inclined downward to more than 500 meters, the width is more than 2 meters, the drainage outlet is 3 meters, and the bottom only bears 3 meters of discharge water pressure. When the discharge outlet is established in a space where air pressure and water pressure are offset, the fluidity generated during operation is at least several times the internal air pressure drainage and external water pressure of the space, meeting the power generation requirements.

5. According to the air pressure drainage and air pressure accelerated circulation hydroelectric power generation device described in claim 1, the combination of the water pool, the water supply pipe, and the downward inclined circulation water pipe is equivalent to a U-shaped groove water pipe, the left side represents the water depth of the water supply pipe, and the right side represents the weight of the water in the water pool. Borrowing the weight of the water in the air pressure-boosted water pool is beneficial to accelerating the water supply speed of the water supply pipe and the overall fluidity.

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