Hydraulic rotary device
By utilizing a rotor design that harnesses the weight of water for downward motion and gravitational discharge for upward motion, the device achieves efficient rotational energy generation without additional energy inputs.
Patent Information
- Application Number
- JP2024007211
- Authority / Receiving Office
- JP · JP
- Patent Type
- Patents
- Current Assignee / Owner
- Priority Date
- 2023-10-27
- Filing Date
- 2024-01-22
- Publication Date
- 2025-06-18
- Estimated Expiration
- 2044-01-22
AI Technical Summary
Existing water utilization rotating devices require additional energy to generate bubbles for rotational motion, leading to decreased efficiency.
The device incorporates a rotor with an internal structure that allows water to be supplied from the top, causing the rotor to descend due to water weight, and then discharge water upward through a hinge mechanism, facilitating rotational motion without the need for additional energy.
This configuration enables efficient rotational movement by leveraging the weight of water and gravitational forces, reducing energy consumption and enhancing operational efficiency.
Smart Images

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Abstract
Description
Technical Field
[0001] The present invention relates to a water utilization rotating device that can circulate and reuse a small amount of water, make the rotor perform circular motion through water weight reuse, and extract rotational energy.
Background Art
[0002] There are various utilization methods for natural motion energy, such as hydraulic power, wind power, and wave power of seawater used for power generation. However, all of these are large-scale facilities, and a method of performing rotational motion with a small facility is devised and utilized.
Prior Art Documents
Patent Documents
[0003]
Patent Document 1
Summary of the Invention
Problems to be Solved by the Invention
[0004] According to the disclosed technology of Patent Document 1, it is a power generation device that rotates by the force of the gravity of water and the buoyancy of bubbles, and other power is required to generate bubbles, resulting in a decrease in efficiency.
Means for Solving the Problems
[0005] As another method of the previous application, the rotational force is increased by changing the internal structure of the rotor, etc. The upper and lower parts of the rotor (using a pipe) are both open. One side is used as the bottom, and a hinge-shaped opening and closing member with a shock-absorbing material (for waterproofing) is provided to open and close the bottom. Water is supplied to the rotor located at the upper position from a water inlet provided at the upper part of the main body, and further water is supplied in the water inlet container. Each connected rotor receives water. The connected rotors use a thin pipe at the upper part (sized to allow the rotor to pass through) and a thicker pipe at the lower part. The rotor that has received water reaches the rotating part in the lower container due to the weight of the water, etc. The hinge of the opening and closing member in the rotor opens, and while discharging the water in the rotor, it heads towards the upper rotating part via the lower pulley. The water discharged into the container is sent to the external next set via the lower pipe and is also rotated back to the next set.
Effects of the Invention
[0006] According to the present invention having the above-described configuration, due to the downward movement of the rotor series having the weight of water, etc., and the release of water in the rotor heading upward, the upward movement becomes easier by the gravitational opening of the rotor, and the rotational movement is performed.
Brief Description of the Drawings
[0007]
Figure 1
Figure 2
Figure 3
Figure 4
Figure 5
Modes for Carrying Out the Invention
[0008] Figure 1 is a perspective view showing the overall shape, which is the main body structure 1, representing the connection of the rotor 2. The upper pipe mouth 3AB for receiving water supply from the outside 14 to the rotor located at the upper position is widened, and it has a shape that facilitates the insertion of the rotor and water supply. Further, a hole 8 is provided in the pipe 3A passing through the upper water container 7. Moreover, the thin upper pipe 3A that retains water in the rotor has an inner diameter thicker than the outer diameter of the rotor, and it has a size that allows the rotor to pass through smoothly. The rotor is filled with water from the upper end of the pipe and the water container 7 pipe and descends. The pipe 3 becomes thicker than the pipe 3A at the upper position. The pipe 3 is inserted into the lower part of the lower body and the water container 6. Inside the lower container 6, the opening and closing member 10 in the rotor opens, and water is discharged and connected to the generator from the upper pulley shaft 15 towards the upper pulley 5 via the lower pulley 12. The water discharged from the rotor 2 can be sent to the next set. The rotor 2 is a container with a bottom surface and is connected to the rotor connection wire 9 at a predetermined interval. Also, the rotor 2 is provided at a predetermined interval so as to form the bottom surface in the circulating movement direction of the rotor connection wire 9. That is, when the rotor 2 moves from above to below, the bottom surface of the rotor 2 is located below, so that water can be stored.
[0009] Figure 2 is a cross-sectional view showing the inside of the rotor 2, which is a state diagram of the drain port 11A inside the rotor being closed and waiting for water supply. The drain port 11A is blocked by the closing of the hinge 10 with a shock-proof material (waterproof), and the rotor is fixed by the connection wire and descends when water is supplied.
[0010] Figure 3 is a cross-sectional view showing the rotor 2, which is a drainage state diagram with the drain port inside the rotor opened when the hinge 10 is opened.
[0011] Figure 4 is a plan view showing the upper and lower parts of the rotor, on which a rotor connection wire fixing member 16 is provided, and the fixing member 16 shows a plan view of the water supply and drain ports 11B and 11A.
[0012] Figure 5 is a cross-sectional view of the inside of the water container 7 located at the upper part of the main body. The upper part of the long pipe 3A, which is the rotor insertion port, has a shape 3A that causes less interference in inserting water from the pipe 14 into the rotor, etc. An auxiliary water hole 8 is provided in the pipe at the lower part of the container.
[0013] Regarding the operation of the present invention, the problem is how to reduce energy (such as electricity) and water from the other party. In the present invention, the used water is circulated to the other rotary motion component of the present invention, and a method of reducing the used water by circulating it is adopted. A plurality of rotors are connected to a vertically long main body, configured to perform a vertically long motion and cause a rotational operation. The connected rotors rotate through thin and thick vertically long pipes and through rotary pulleys provided above and below the main body. Water is supplied to the rotors in the rotating pipes at the upper position, and auxiliary water supply is performed through rotor water supply holes provided in the pipes when passing through the upper water container. The holes at the bottom 11A of the rotor are blocked by the operation of a butterfly valve with a shock-absorbing material (urethane) provided inside the passing rotor, and water is supplied to all the descending rotors. The rotors descend due to their weight and other factors, and reach the rotary pulley provided at the lower part. At this position, the on-off butterfly valve in the rotor opens, and air also enters from the bottom of the rotor, so that the water is rapidly discharged. The water discharged upward after the rotor passes through the lower pulley is returned to the next set of equipment. The next set means a set of the above-described hydraulic rotary devices. That is, by installing a plurality of the hydraulic rotary devices of the present application in the vertical direction and sequentially supplying the water discharged from the upper hydraulic rotary device to the water supply pipe 14 of the lower hydraulic rotary device, water can be utilized efficiently. Also, by arranging this component (hydraulic rotary device) horizontally (connecting the shafts 15 of the upper pulleys to each other), the installation location and the like can be reduced efficiently.
Industrial Applicability
[0014] Utilize the rotational motion of the rotor of the present invention for power generation and the like.
Explanation of Reference Numerals
[0015] 1 Main body 2 Rotor, 3 Thick long pipe 3A Thin pipe 4 Short pipe (exit to the upper part of the rotor) 5 Upper pulley 6 Lower pulley container of the main body 7 Upper water container of the main body 8 Long pipe water supply port 9 Rotor connecting wire 10 Hinge with rotor inner stopper 11 11A, 11B, Rotor inner water supply and drainage ports 12 Lower pulley 13 Lower container inner drainage port, water supply to lower machine 14 Water supply pipe 15 Upper pulley shaft 16 3A Thin pipe upper end opening, wide mouth 3AB
Claims
1. A hydro-powered rotating device characterized by a rotor in which many rotors are connected in a ring shape with connecting wires passing through the center, the rotors are inserted from the ends of long vertical pipes connected together with thin and thick wires, and the bottom of the rotor is sealed with a hinge with impact material. Water is then poured into the rotor from the top, and further water is poured into the pipe hole in the upper water container as it descends. The hinge with impact material (urethane) installed inside the rotor seals and opens the bottom of the opening, and the rotor descends due to the weight of the water-supplied rotor, and the rotors connected to the water supply are connected in a row and pass through the lower pulley to the upper pulley section, repeating this process, and circulating used water to the lower rotating device engine.
2. A hydraulic rotating device comprising a connecting wire hung in a ring shape over a pair of pulleys arranged above and below, a number of containers arranged at predetermined intervals on the connecting wire so that they form the bottom surface in the direction of the circulating movement of the wire, a pipe for guiding at least the containers as they move from the upper pulley to the lower pulley, a means for supplying water to the containers at the top of the pipe, and a shaft for supporting the rotation of the upper pulley, from which power is extracted.
Citation Information
Patent Citations
Hydraulic power generation device
JP2010275992A
Fluid-based power generation device
JP2010540835A
原動機).(omitted
KR1020090111907A
Power generator
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