Pressure booster

Abstract

To provide a pressurizing device capable of efficiently obtaining a pressurized liquid SOLUTION: The pressurizing device is equipped with a rotary tank side 30d for storing the liquid, a central shaft 15 arranged in an almost vertical direction to rotate the rotary tank and a jet part 29 for jetting the liquid to the outside and constituted so that the liquid jetted to the outside from the jet part is circulated to the rotary tank. With such a configuration, pressurized liquid can be efficiently obtained.SELECTED DRAWING: Figure 3

Description

[Technical Field]

[0001] The present invention relates to a pressure booster that boosts the pressure of a liquid (solution) and discharges it. While natural disasters caused by global climate change are said to be caused by global warming due to CO2, it is no exaggeration to say that they are man-made disasters. For humanity, which is used to enjoying a rich, electrified lifestyle, we are now in a critical situation where it is already too late to aim for a sustainable society. What should we look for in energy (especially electrical energy), the fundamental source of our lives, how should we devise ways to store it, and how should we use it? Now is the time to seriously address the SDGs and build a carbon-neutral (NC = No CO2 = hereafter referred to as "NC") society. In Japan, not only is there a need to completely withdraw from fossil fuels, but the reality is that we must not rely on them, and we are looking to renewable energy as an alternative energy source to fossil fuels. However, due to the low power generation efficiency caused by natural constraints such as sunlight hours and weather, there is an undeniable trend towards a return to nuclear power, and it is also true that the transition to and spread of representative renewable energy sources such as solar and wind power is progressing slowly. Various research and development efforts are being conducted to find ways to overcome these natural forces, both bountiful and constrained by nature, and to accelerate their widespread adoption. New power generation technologies, such as solar sheets made from new materials and plant-based electricity, are also being developed. The centrifugal pressure (hereafter referred to as Xg) caused by the centrifugal force (hereafter referred to as F) generated in the solution in a cylindrical solution tank that rotates at a uniform speed, coaxially integrated with the rotor, is generally disclosed technically in centrifuges, and there are many uses and applications of centrifugal force (F) in familiar items such as the spin-drying tub of a washing machine and blood testing equipment. However, there are no devices or new technologies that use centrifugal force (RCF = relative centrifugal force = F) as a power source to obtain new energy. This is because, in order to find F, the rotational force input required to rotate the rotating body is essential, and if you want to find a larger F, doubling the rotational speed will make F four times larger, which in turn requires a larger rotational input. The law that rotational input > rotational output has not been overturned since the dawn of history, and even if various technologies are utilized to improve output efficiency, there is currently no technology, both geometrically and scientifically, that can efficiently extract only the Xg present in F, convert this creative Xg that would exceed the rotational input, and use it as a power source. Furthermore, F varies depending on the conditions of the rotating body. There are few parameters, such as r (radius from the axis), ω (angular velocity), m (mass), v (rotational speed), and the specific gravity of the solution, that convert Xg of F into power pressure (pressure = Pa) and convert it into energy. There is also no ideal, rational device for selecting the volume of the three-dimensional structure on the rotating disk, i.e., the solution with the mass (m) that significantly affects Xg, maximizing the mass, and minimizing the high-speed rotational input. Furthermore, F exists only in rotational motion, and Xg is Xg due to the inertia of F. The energy generated only by F during rotation does not exist outside the rotational sphere. If Xg were to be removed from the rotating body, for example, it would instantly disappear, making it an impossible and troublesome energy. Furthermore, Xg does not exist in the centripetal force, as it is merely an apparent balance. This requires innovative technology for the apparent force on rotational inertia and reduction of absolute rotational input, such as some technical applications, new technologies, and loss mitigation measures for mechanical loss and fluid loss of solutions rotating on a plane, and there has been no fact or device in history that treats this apparent force (energy) as energy outside the rotational sphere, up to the present day.

[0002] Furthermore, there is currently no technology for a solution tank that necessarily increases pressure with F, nor technology that generates natural continuous pressure increase with a constant rotational force, and there is no technology for devices that can generate new energy from F. However, F and Xg are undoubtedly great hidden energy, and there is a need for technology that uses F and Xg as an energy source and for motorization. [Background technology]

[0003] As mentioned above, the intention behind converting the gravity expression of F (commonly known as Xg) into pressure (Pa) and thinking about motorization is to consider F due to rotational force, and the maximum Xg for centrifuges currently available with technology is Xg = 9.8 x 7 x 105 (MAX). According to joint research materials from the National Institute of Advanced Industrial Science and Technology and Shimadzu Corporation, this is equivalent to 700,000 times the gravity on Earth, and is an unimaginable amount of energy, which, if effectively utilized, could be said to be a completely new form of natural energy.

[0004] Furthermore, in the earth's gravitational field, if we calculate the output by substituting Xg for the effective head (h) in the hydroelectric power output equation mgh (disregarding flow rate t / s), and then substituting m = mass (pure water), g = 9.8 (gravitational acceleration), and h = effective head (Xg = MAX 6,860,000, 700,000 times earth gravity) into the mgh x efficiency equation, and substituting this for the effective head h (potential energy) in the hydroelectric power output equation, the equivalent output value (h) is 71,428m, which is impossible in this world, and is 10 times the height of Mt. Himalaya and 20 times the height of Mt. Fuji. This large amount of Xg exists inside a rotating body on flat land in nature, and if F is generated by the rotational input from a renewable energy source, then Xg can also be considered renewable energy.

[0005] Furthermore, if we calculate the power output of this Xg as an example, it is equivalent to 146 times the power output of Kurobe No. 4 Dam, which has the largest head (h) in Japan (500m) and an output of 1 billion kW / year. This Xg, which contains the centrifugal force (F), is an inexhaustible energy source for a rotating body, and this fundamental energy corresponds to the field of artificial renewable energy or an entirely new renewable energy. Depending on the input, it can contribute to the SDGs, and of course it can be said to be NC (No CO2) and completely environmentally friendly energy.

[0006] Furthermore, it does not require a large site, does not incur huge construction costs, and does not have an impact on the natural environment; it is a technology field that can be described as distributed urban hydropower generation (VPP), which can be generated in a small space on the ground.

[0007] However, there is almost no research and development into how to convert this apparent force, or inertial force, into power, and it cannot be denied that positioning it as a new renewable energy source is a difficult technical challenge.

[0008] On the other hand, if we take renewable energy electricity (solar) as an example, we can calculate the rated panel output as 1.5kW, average sunshine hours of 5.2 hours, effective solar radiation hours for power generation of 2.6 to 4 hours, average power generation time of 3.2 hours, and daily power generation of 4.8kW / day. However, in reality, due to heat loss from the panel, power loss from the power conditioner, etc., the power company publishes an average of 2.7kW / day, which means that the actual power generation is much lower than expected.

[0009] Therefore, for an average household, it is difficult to achieve sufficient self-sufficiency with solar power alone, and there is no choice but to consume it in combination with expensive electricity (mainly thermal power) from the power company, which is a far cry from achieving carbon neutrality (NC) by moving away from thermal power, and it cannot be denied that this is also a hindrance to the spread of renewable energy power generation. (NC=NoCO2) Carbon Neutral.

[0010] However, solar power generation technology is advancing and developing year by year, and the development of solar sheets made from the new material perovskite is remarkable. They generate power regardless of natural constraints, particularly light cloudiness, sunlight, or direction. Furthermore, lightweight sheets can be attached to curves and windows. Power generation efficiency has increased from the previous 20% range to the 40% range, and demand trends, which have renewed expectations for NC, are leading to a re-examination of solar power generation. However, the average operating time is less than one-third of a day, and the maximum power generation efficiency is in the 40% range, making it a naturally limited energy source. Further improvements in power generation efficiency, even with the use of storage batteries, are impossible to achieve, as it is the power of nature. If greater output is desired, the surface area of ​​the solar panels must be increased, i.e., the installed operating area must be enlarged. In suburban areas, this inevitably leads to environmental problems and unavoidable drawbacks such as high installation costs, resulting in undeniable high power generation costs. Furthermore, amid rising prices, interest in the fundamental energy source of daily life is growing, and while people are seeking "cheap NC electricity" such as EVs, stable, cheap, and reliable electricity is hard to find. Conserving electricity requires extraordinary mental effort, and while prayers for the revival of the natural environment continue to be fervent in our constant efforts to conserve, stable, reliable, and affordable electricity is a sincere wish, and we must hurry to discover, invent, and develop new technologies like perovskite to harness this natural bounty. "Perovskite" new material inventor, Tsutomu Miyasaka, specially appointed professor at Yokohama University [Prior art documents] [Patent documents]

[0011] [Patent Document 1] Patent No. 6130965 [Patent Document 2] Patent No. 6249543 [Patent Document 3] Patent No. 6671061 Summary of the Invention [Problem to be solved by the invention]

[0012] An object of the present invention is to provide a pressurizing device that can efficiently obtain pressurized liquid. [Means for solving the problem]

[0013] The pressurizing device of the present invention comprises a rotating tank for storing liquid, a central shaft arranged in a substantially vertical direction for rotating the rotating tank, and an injection unit for injecting the liquid to the outside, and is configured so that the liquid injected to the outside from the injection unit flows back into the rotating tank. [Effects of the Invention]

[0014] In the pressure intensifier of the present invention, the pressurized liquid is ejected to the outside from the ejection part as the rotating tank rotates around the central axis, so that the pressure intensifier of the present invention can efficiently obtain pressurized liquid. [Brief explanation of the drawings]

[0015] [Figure 1] FIG. 2 is a schematic diagram of a pressure intensifier; [Figure 2] FIG. 2(a) is a diagram showing the shape of the downflow spiral pipe, and FIG. 2(b) is a diagram showing the shape of the upflow spiral pipe. [Figure 3] FIG. 2 is an elevational perspective view of the pressure intensifier; [Figure 4] FIG. 4 is a cross-sectional view of the pressure intensifier of FIG. 3. [Figure 5] FIG. 1 is an elevational perspective view of a pressure intensifier equipped with two rotating tanks. [Figure 6] FIG. 6 is a diagram showing the arrangement of runners of the pressure intensifier of FIG. 5. [Figure 7] FIG. 6 is a plan view perspective view of the spiral pipe of the pressure booster of FIG. 5. [Figure 8] FIG. 2 is a schematic perspective elevation view of an injection type pressure intensifier. [Figure 9] 9 is a diagram showing the shape of a downward spiral pipe of the injection type pressure intensifier of FIG. 8. FIG. [Figure 10] FIG. 1 is a schematic elevational perspective view of a pressure intensifier with a two-axis rotor. [Figure 11] FIG. 1 is a plan view showing the layout of a two-axis rotor. [Figure 12] An enlarged view of the two-axis rotor. [Figure 13] FIG. 1 is an elevational perspective view of a multi-stage pressure intensifier. [Figure 14] 14(a) and 14(b) are diagrams showing examples of the configuration of the output portion of the pressure booster device of FIG. [Figure 15] FIG. 14 is a diagram showing the planar arrangement of the lower rotating tank of the pressure intensifier of FIG. 13. [Figure 16] FIG. 14 is a diagram showing a planar arrangement of runners of the pressure intensifier of FIG. 13. [Figure 17] FIG. 14 is a diagram showing a modification of the pressure booster device of FIG. [Figure 18] FIG. 18 is a plan view showing the arrangement of nozzles of the pressure booster of FIG. 17. [Figure 19] FIG. 10 is a diagram showing the arrangement of plain bearings. [Figure 20] FIG. 2 is a diagram showing the arrangement of nozzles of a pressure intensifier. [Figure 21] FIG. 21(a) is a diagram showing the arrangement of the biaxial rotor of the pressure intensifier of FIG. 13, and FIG. 21(b) is an enlarged view of the biaxial rotor. [Figure 22] FIG. 1 is a diagram showing the structure of a large cart-type magnetic disk. [Figure 23] FIG. 23(a) is a diagram showing the arrangement of the electromagnetic coils, and FIG. 23(b) is an enlarged view of the fixed electromagnetic coils. [Figure 24] FIG. 24 is a conceptual diagram of a pressure booster device mounted on an automobile. DETAILED DESCRIPTION OF THE INVENTION

[0016] Hereinafter, an embodiment of the present invention will be described with reference to the drawings. FIG. 1 is a diagram showing a schematic diagram of a pressure booster 101 according to a first embodiment of the present invention, FIG. 2(a) is a diagram showing the shape of a downflow spiral pipe 1b, and FIG. 2(b) is a diagram showing the shape of a water-lifting spiral pipe 1a. The pressure booster 101 includes a solution conduit vessel including a downward spiral tube 1b having a generally conical spiral shape, and a central shaft 15 for supporting the downward spiral tube 1b. The downward spiral pipe 1b rotates three-dimensionally as a single unit around the central axis 15, and is configured in a generally conical shape with a radius that gradually decreases from the top to the bottom of the downward spiral pipe 1b, so that the flow path of the downward spiral pipe 1b gradually narrows. As the liquid flows from the top to the bottom of the downward spiral pipe 1b, the liquid is pressurized by the gravity of the liquid, the mass pressure and centrifugal force caused by flowing through the generally conical pipe, and the centrifugal pressure generated when the liquid is pressed against the wall surface as the downward spiral pipe 1b rotates, and the liquid is then supplied to the outside.

[0017] A substantially cylindrical lower rotating cylindrical vessel 50 is provided below the spiral flow downpipe 1b, and a torus- or ring-shaped fixed vessel 49 is provided around its outer periphery. The lower rotating cylindrical vessel 50 rotates around the central axis 15, but the fixed vessel 49 does not rotate. A torus- or ring-shaped fixed torus vessel 27 is provided below the lower rotating cylindrical vessel 50.

[0018] The liquid that flows down from the downflow spiral tube 1b into the lower rotating cylindrical tank 50 flows into the fixed tank 49 from a discharge section such as a nozzle, flows into the biaxial rotating rotor 13 from the inlet 11 via the fixed torus tank 27, and is discharged from the outlet 12. The fixed opening / closing plate 49d opens and closes the inlet 11. The biaxial rotor 13 rotates the dynamo 18 via the connecting gear 14 to generate electricity.

[0019] As shown by the two-dot chain line in FIG. 1, the water-lifting conical spiral pipe 1a is arranged inside the downflow spiral pipe 1b in a spiral shape with the diameter decreasing from the bottom end to the top end. The rotary seal 2 seals the downward spiral pipe 1b to prevent liquid from leaking. The bearing 3 supports the rotating shaft 15 so that it can rotate. The air vent 5 releases the gas in the pipe into the atmosphere. One end of the water pumping pipe 6 is connected to the upper end of the downflow spiral pipe 1b, and the other end is disposed at a position below the free water surface 8 of the open-to-atmosphere tank . The forced lift pipe 6 e and the drainage pipe 9 return the liquid discharged from the biaxial rotor 13 to the open-to-atmosphere tank 7 . The automatic opening and closing cock 11d automatically opens and closes the pipe that supplies the liquid to the pressurizing device 101.

[0020] A motor 17 drives the central shaft 15 . The solar sheet 4 is an example of a device that converts sunlight into electricity and supplies power to the motor 17. The electricity generated by the solar sheet 4 is temporarily stored in a battery 19 and then supplied to the motor 17. The housing 16 supports the water-raising spiral pipe 1a and the water-flowing spiral pipe 1b, and also houses the two-shaft rotor 13, the motor 17, the dynamo 18, and the like inside.

[0021] FIG. 3 is an elevational perspective view of a direct injection type pressure booster 102 according to a second embodiment of the present invention, and FIG. 4 is a cross-sectional view of the pressure booster 102 taken along line AA (FIG. 3). The pressure booster 102 includes a substantially cylindrical rotating tank 30d. The rotating tank 30d rotates together with a shaft 15 driven by a motor 17. An open water channel 30w is provided around the rotating tank 30d. A piston ring 56 is inserted between the rotating tank 30d and the open water channel 30w. A plurality of high-pressure injection nozzles 29 are provided on the side of the rotating tank 30d, and the liquid ejected from these high-pressure injection nozzles 29 moves the runners 23, generating electricity through an iron-core coil 24 and a magnet 25 disposed adjacent to the runners 23. The rotating tank 30d is supported on a plate 22 via a plain bearing 33.

[0022] A water lifting pipe 6a is provided inside the central shaft 15, and the liquid ejected from the nozzle 29 flows back into the rotary tank 30d through the forced water lifting pipe 6e and the water lifting pipe 6a.

[0023] As the rotary tank 30b rotates at high speed, the liquid near the upper end of the central shaft 15 becomes negative pressure, creating a vortex flow vacuum region 5c.

[0024] FIG. 5 is an elevational perspective view of a direct injection type pressure intensifier 103 having a two-layer rotating tank according to a third embodiment of the present invention, FIG. 6 is a cross-sectional view (taken along line BB in FIG. 5) showing the arrangement of the runner 23 of the pressure intensifier 103, and FIG. 7 is a planar perspective view of the pressure intensifier 103. The pressure intensifier 103 is equipped with a downward spiral pipe 1c wound at a constant radius from the center of the shaft 15 inside the upper rotary tank 30a. The upper end of the downward spiral pipe 1c is connected to a water lift pipe 6a provided inside the shaft 15, and the lower end is connected to a high-pressure injection nozzle 29. An emperor 28 is provided near the lower end of the water lift pipe 6a. The liquid ejected from the high-pressure injection nozzle 29 rotates the runner 23 in the runner pipe 45, which activates the electromagnetic coil 24 to generate electricity, similar to the pressure intensifier 102. The area around the central shaft 15 is also equipped with an open-to-atmosphere tank 7. Reference numeral 46 denotes a runner pipe.

[0025] A lower rotating tank 30b is provided below the upper rotating tank 30a. A high-pressure injection nozzle 29 is provided on the outer periphery of the lower rotating tank 30b, and the liquid injected from this high-pressure injection nozzle 29 rotates a runner 23 in the torus-shaped water receiving tank 21. The liquid that rotates the runner 23 flows down into the torus-shaped water receiving tank 21 and is returned to the downward spiral pipe 1c and lower rotating tank 30b via the water pumping piping 20 and water pumping pipe 6a.

[0026] Below the lower rotating cylindrical solution tank 30b, a runner-integrated rotating disk 43 supported by a horizontal bearing 33 is provided. A vortex flow region 5z is generated around the central axis 15 of the lower tank 30b.

[0027] A flange 48 is provided on the bearing 3. Reference numeral 44 denotes a rotation auxiliary plate. Reference numeral 58 denotes a housing that accommodates the pressure booster device 103.

[0028] FIG. 8 is a schematic elevational perspective view of a jet-type pressure intensifier 104 according to a fourth embodiment of the present invention, and FIG. 9 is a diagram showing the shape of a downflow spiral pipe 1b of the pressure intensifier 104. The pressure booster 104 includes an upper rotating tank 30a, a shaft 15 with a pumping pipe 6 inside, a downward spiral pipe 1b arranged around the shaft 15, and a lower rotating tank 30b. The lower end of the downward spiral pipe 1b is connected to the lower rotating tank 30b, and the fluid inside flows down into the lower rotating tank 30b. A fixed tank 49 is provided around the lower rotating tank 30b.

[0029] The side surface of the lower rotating tank 30b is provided with multiple nozzle-type openings 51. Each nozzle-type opening 51 is a tubular member that is open at its tip and whose diameter decreases from its base to its tip, protruding forward from the side surface in the direction of rotation of the lower rotating tank 30b. Furthermore, the side surface of the lower rotating tank 30b is provided with entasheath-type vertically split convex portions 52 that protrude spherically toward the center, near each nozzle-type opening 51 and forward in the direction of rotation. Fluid in the lower rotating tank 30b is sprayed from the nozzle-type openings 51 into the fixed tank 49.

[0030] A plurality of jet nozzles 23p are provided in the fixed tank 49, and the liquid in the fixed tank 49 is jetted from the jet nozzles 23p to rotate the runner 23 provided in the fixed torus-shaped runner conduit 23r.

[0031] Within the upper rotary tank 30a, a substantially cylindrical vortex flow tank 5h with an inner diameter approximately one-third the inner diameter of the rotary cylindrical tank is provided around the upper part of the shaft 15. A vortex region 5z is generated within the vortex flow tank 5h. An air hole 5a is provided near the air vent 5. Motor 17 is fitted with a metal amplifier 17z.

[0032] FIG. 10 is a schematic perspective elevation view of an injection type pressure intensifier 105 according to a fifth embodiment of the present invention. The basic structure of the pressure intensifier 105 is similar to that of the pressure intensifier 104 shown in FIGS. 8 and 9, but differs in that a biaxial rotor 13 is used instead of the electromagnetic coil shown in FIG.

[0033] In the pressure intensifier 105, a fixed torus vessel 27 is provided around the outer periphery of the lower rotary vessel 30b, as in Fig. 1, and the biaxial rotor 13 is rotated by the liquid flowing down from this fixed torus vessel 27. The output of the biaxial rotor 13 is transmitted to, for example, a conditioner 59 for use.

[0034] Fig. 11 is a plan view showing the arrangement of the biaxial rotors 13 of the pressure intensifier 105 of Fig. 10. Eight biaxial rotors 13 are arranged at positions that divide the circumference of a circle whose center is the axis 15 in a plan view and whose radius is approximately halfway between the inner diameter and the outer diameter of the fixed torus vessel 27 into eight equal parts.

[0035] 12 is an enlarged view of the biaxial rotor 13. The biaxial rotor 13 has two inlets 12i for introducing liquid from the outside (for example, a fixed torus tank 27) and two outlets 12 for discharging fluid to the outside.

[0036] FIG. 13 is an elevational perspective view of a multi-stage pressure intensifier 106 according to a sixth embodiment of the present invention. The pressure booster 106 includes an upper rotating tank 30a located at the top, four lower rotating tanks 30b located below the upper rotating tank 30a, four lower fixed tanks 49b located around the lower rotating tank 30b, four lower rotating tanks 30c located below the lower rotating tank 30b, four lower fixed tanks 49c located around the outer periphery of the lower rotating tank, a central shaft 15a that rotates the upper rotating tank 30a, and four auxiliary shafts 15b that rotate the lower rotating tank 30b and the lower rotating tank 30c.

[0037] The upper rotating tank 30a is a container with a roughly cylindrical outer shape capable of containing a liquid. The upper rotating tank 30a is disposed above the center of the pressure booster 106 so that its top and bottom surfaces are roughly horizontal and its side surfaces are roughly vertical. The upper end of the central shaft 15a is fixed to the center of the bottom surface of the upper rotating tank 30a, and the upper rotating tank 30a is configured to rotate around the central shaft 15a. A balancer 55 is provided on the side of the upper rotating tank 30a to correct any weight imbalance and ensure smooth rotation.

[0038] An openable and closable injection port 11 is provided in the center of the top surface of the upper rotary tank 30a. As will be described later, the pressure booster 106 is designed to circulate the liquid inside, so a predetermined amount of liquid is injected through the injection port 11a before start-up, and the injection port 11a is closed and sealed during operation.

[0039] The four lower rotating tanks 30b have the same structure, are roughly cylindrical containers capable of holding liquids. The lower rotating tanks 30b are arranged below the upper rotating tank 30a so that their top and bottom surfaces are roughly horizontal and their sides are roughly vertical. In plan view, one lower rotating tank 30b is arranged at each of four positions that equally divide a circle (reference numeral 70 in FIG. 15) centered on the center of the central shaft 15a. The upper end of the auxiliary shaft 15b is fixed to the center of the bottom surface of the lower rotating tank 30b, and the lower rotating tank 30b is configured to rotate around the auxiliary shaft 15b.

[0040] A lower fixed tank 49b is provided on each of the four lower rotating tanks 30b at their outer peripheries. The lower fixed tank 49b has a ring-like outer shape formed by rotating a rectangle, the height of which is slightly smaller than that of the lower rotating tank 30b, around the auxiliary shaft 15b, and is a container capable of holding liquid. The outer periphery of the lower rotating tank 30b and the outer periphery of the lower fixed tank 49b are in contact with each other so that they can slide, or are arranged with a small gap between them. The lower fixed tank 49b rotates around the central shaft 15a together with the lower rotating tank 30b, but is fixed so as not to rotate around the auxiliary shaft 15b.

[0041] The four lower rotating tanks 30c have the same structure, are roughly cylindrical in shape, and are containers capable of holding liquid. The lower rotating tank 30c is positioned below the lower rotating tank 30b so that its top and bottom surfaces are roughly horizontal and its sides are roughly vertical. In plan view, the centers of the lower rotating tanks 30b and 30c are aligned. The lower end of the auxiliary shaft 15b is fixed to the center of the bottom of the lower rotating tank 30c, and the lower rotating tank 30b rotates around the auxiliary shaft 15b. A rotary seal 2 is positioned around the auxiliary shaft 15b at the center of the bottom of the lower rotating tank 30c to prevent liquid leakage.

[0042] A lower stationary tank 49c is provided around each of the four lower rotating tanks 30c. The lower stationary tank 49c has a ring-like outer shape formed by rotating a rectangle, the height of which is slightly smaller than that of the lower rotating tank 30c, around the auxiliary shaft 16c, and is a container capable of holding liquid. The outer surfaces of the lower rotating tank 30c and the lower stationary tank 49 are in sliding contact with each other or are arranged with a small gap between them. The lower stationary tank 49c rotates around the central shaft 15a together with the lower rotating tank 30c, but is fixed so as not to rotate around the auxiliary shaft 15b.

[0043] The central shaft 15a is disposed vertically in the center of the pressure booster 106 so that its center coincides with the center of the upper rotating tank 30a in a plan view. A water lift pipe 6a is provided above the central shaft 15a. The central shaft 15a is driven by a motor 17 via connecting gears 14a and 14b. The central shaft 15a is supported by bearings 3.

[0044] Each of the four auxiliary shafts 15b is vertically disposed so that its center coincides with the center of one lower rotating tank 30b in plan view. A water lifting pipe 6b is provided above the central shaft 15b, and a water lifting pipe 6c, which does not communicate with the water lifting pipe 6a, is provided below the central shaft 15b. The auxiliary shafts 15b are driven by the central shaft 15a via connecting gears 14c and 14d. In this embodiment, the gear ratio between gears 14c and 14d is 5:1. With this configuration, the lower rotating tank 30b and the lower rotating tank 30c rotate around the central shaft 15a while rotating around the auxiliary shafts 50.

[0045] A ring-shaped runner conduit 45, which is connected to the water lift pipe 6a, is provided around the upper part of the central axis 15a so that its vertical position is approximately the same as that of the lower rotary tank 30b. Multiple runners 23 are provided inside the runner conduit 45. Liquid ejected from the lower fixed tank 49b strikes the runners 23, causing them to rotate, and then falls freely into the runner conduit 45. As the upper rotary tank 30a rotates at high speed, negative pressure is created in the liquid in the center of the upper rotary tank 30a, creating a vortex flow vacuum region 5c. As a result, the liquid in the runner conduit 45 is sucked up, passes through the water lift pipe 6a, and circulates back into the upper rotary tank 30a.

[0046] A plurality of biaxial rotors 13 are disposed below the lower fixed tank 49. The liquid ejected from the lower fixed tank 49c rotates the biaxial rotors 13, and then flows back into the lower rotating tank 30c via the water pumping piping 6 and the water pumping pipe 6c.

[0047] The housing 16 is a box-shaped member that houses and supports the above-mentioned components.

[0048] The solar sheet 4 is a device that converts sunlight into electricity, and supplies the electricity to the motor 17 via wiring (not shown). Although other methods of supplying electricity to the motor 17 may be used, it is preferable to use alternative energy sources such as sunlight.

[0049] Figure 14(a) is a partial detailed view showing a different configuration example of the external injection section of the pressure booster 106 from that shown in Figure 13. A piston ring 56 and a stainless steel sliding ring 61 are arranged between the outer surface of the lower rotary tank 30b and the inner surface of the lower fixed tank 49b. The piston ring 56 is designed to be compatible with a speed of 12,000 rpm, achieving a zero-leak friction coefficient. This configuration reduces frictional resistance between the lower rotary tank 30b and the lower fixed tank 49b, allowing the lower rotary tank 30b to rotate smoothly.

[0050] A high-pressure injection nozzle 29 is attached to the outer periphery of the lower fixed tank 49b, facing upward at an angle of approximately 45 degrees relative to the bottom. The diameter of the opening at the tip of the high-pressure injection nozzle 29 determines the output, and therefore the total volume of circulation. The high-pressure injection nozzle 29 can stably eject a flow rate that matches the desired output. If the diameter of the opening is approximately 0.3 mm to 0.5 mm, it is possible to make the flow velocity of the ejected liquid approximately sonic. The liquid ejected from the high-pressure injection nozzle 29 rotates the rebound absorption bucket 23a, and the energy of the pressurized liquid can be converted into electrical energy, for example, by an iron core coil 24 and a magnet 25.

[0051] In this configuration example, a runner pipe 45 is provided on the outer periphery of the device, and the liquid in the runner pipe 45 is returned to the upper rotary tank 30 a via a water pumping pipe 6 .

[0052] Fig. 14(b) is a partial detailed view showing another example of the external injection part of the pressure booster 106, different from that shown in Fig. 13. A piston ring 56 similar to that in the example of Fig. 14(a) is arranged between the outer surfaces of the lower rotary tank 30b and the lower fixed tank 49b and the inner surface of the lower fixed tank 49b.

[0053] The outer peripheral surface of the lower rotating tank 30b is provided with an entasheath-type vertically split convex portion 52 that protrudes inward in a spherical shape. A pair of nozzle-type openings 51 is provided in this entasheath-type vertically split convex portion 52. The upper nozzle-type opening 51 is tilted downward, and the lower nozzle-type opening 51 is tilted upward.

[0054] As described above, the pressure booster 106 has a three-stage configuration consisting of the upper rotary tank 30b, four lower rotary tanks 30b, and four lower rotary tanks 30c, but it may also have a two-stage configuration by omitting the lower rotary tank 30c and its associated components. Conversely, it may also have a four-stage or more configuration by further disposing a set similar to the lower rotary tank 30c and lower fixed tank 49c below the lower rotary tank 30c.

[0055] In the pressure intensifier 106, the liquid pressurized by the rotation of the upper rotary tank 30a around the central axis 15a flows from the upper rotary tank 30a to the lower rotary tank 30b, and as the lower rotary tank 30b rotates around the auxiliary shaft 15b, the liquid is further pressurized and stored in the lower fixed tank 49b while maintaining a high pressure, and then sprayed out. Therefore, the pressure intensifier 106 allows the pressurized liquid to be efficiently removed to the outside.

[0056] The pressurized storage 106 further includes a lower rotary tank 30c, and as the lower rotary tank 30c rotates, the pressurized liquid is stored in the lower fixed tank 49b while maintaining high pressure, and then sprayed out. Therefore, the pressurized liquid can be efficiently removed to the outside by the pressure booster 106.

[0057] In the pressure intensifier 106, the liquid inside circulates through two routes: (1) upper rotary tank 30a → lower rotary tank 30b → lower fixed tank 49b → runner pipe 45 → upper rotary tank 30a, and (2) lower rotary tank 30c → lower fixed tank 49c → biaxial rotor 13 → lower rotary tank 30c. Therefore, the pressure intensifier 106 can continue to operate without replenishment of liquid.

[0058] 15 is a diagram showing the planar arrangement of the lower rotating tanks 30b of the pressure booster 106. The four lower rotating tanks 30b are arranged so that their centers divide a circle 70, which is coaxial with the central axis 15a, into four equal parts. The lower rotating tank 30c is arranged in a similar manner.

[0059] 16 is a diagram showing a planar arrangement of the rebound absorption buckets 23a in the configuration example of the pressure booster 106 shown in FIG. 14(a) A total of 12 rebound absorption buckets 23a are provided, one at each position that divides the runner pipe 45 into 12 equal parts in the circumferential direction.

[0060] 17 is a diagram showing a modified example of the pressure booster 106. Instead of the upper rotary tank 30, a downward spiral pipe 1b and a torus 30 are arranged.

[0061] Fig. 18 is a plan view showing the arrangement of nozzles in the pressure booster of Fig. 17. Eight high-injection nozzles 29 are arranged in the torus 30 at positions that divide the torus 30 into eight equal parts in the circumferential direction.

[0062] 19 is a diagram showing the arrangement of the plain bearings. Four flat seals 33 are provided near the outer edge of the block rotary stationary stand 34, at positions that divide the circumference into four equal parts.

[0063] Figure 20 shows the nozzle arrangement of the pressure booster. Eight high-pressure injection nozzles 29 are provided between the outer edges of the two slide platen seals, at positions that divide the circumference into eight equal parts. The pressure flow chambers 10 are ring-shaped containers provided around each rotary chamber.

[0064] 21 is a diagram showing an example of the arrangement of biaxial rotors. Eight biaxial rotors 13 are arranged in the same manner as in the arrangement shown in FIG.

[0065] Figure 22 shows the structure of a cart-shaped magnet plate 32. The cart-shaped magnet plate 32 is an example of a mechanism that converts the energy contained in the liquid ejected from the pressure device into electricity, and has 12 magnets 25 arranged on the outer edge of the disk with alternating south and north poles.

[0066] Fig. 23(a) is a diagram showing the arrangement of the electromagnetic coils 24, and Fig. 23(b) is an enlarged view of the fixed electromagnetic coil 24. Eight electromagnetic coils 24 are arranged at positions that divide the magnetic force orbit 36 ​​of the fixed electrode doughnut case 35 into eight equal parts in the circumferential direction. An iron core 24f is arranged inside the electromagnetic coil 24.

[0067] FIG. 24 is a conceptual diagram of a pressure intensifier mounted on an automobile. Pressure intensifier 110, which includes a rotating tub 30d and has a similar configuration to pressure intensifier 102 in FIG. 3, is driven by a shaft 15c connected to a rotation device 39 (e.g., a wheel) of the automobile instead of a motor, via connecting gears 14e and 14f. A horizontal-holding vibration-isolating device 38 is disposed between the lower end of pressure device 11 and shaft 14c. A grease port 40 is provided on shaft 14c. A vehicle body 63 is supported above rotation device 39 by a suspension device (not shown). Mounting the pressure intensifier on an automobile can utilize part of the power of the rotation device to generate electricity, replacing or supplementing the generator normally provided on the automobile.

[0068] The infinite centrifugal pressure energy (Xg) present in the approximately cylindrical solution bath integrated with the rotor is the "apparent" pressure energy generated in the centrifugal force (F) of rotational inertia, and the input of a rotational power source to generate F is essential. Furthermore, to generate a large amount of energy, a large solution bath and the mass of the solution integrated with the rotor are required, and depending on the rotation speed and the distance (r) from the rotor axis, if a single cylindrical solution bath rotating integrally with the rotor shaft is placed on the plane of the axis center, the mass of the solution related to Xg must be large, which inevitably requires a rotational input proportional to the volume of the rotor, and technology to reduce the rotational input and improve efficiency is a major challenge.

[0069] Furthermore, a cylindrical solution tank on a single plane rotor is no different from a centrifuge even when subjected to the force of gravity in the natural world; in order to turn Xg into energy, Xg is a pressurized liquid, and it is impossible to do so unless it is extracted from the rotor as a condensed pressurized substance in the form of a pressurized liquid. For example, if Xg on the rotor is pressurized and flowed outside and released to the atmosphere, the pressure will instantly disappear, the solution pressure in the rotor's solution tank will also be reduced, and the effect of F will be lost. There will be an unavoidable loss or decrease in the mass of Xg present, and the solution will need to be constantly replenished, and if the solution is tap water, there will be an unlimited loss of tap water.

[0070] Furthermore, in the cylindrical solution tank on the plane, gravity (g) acts on a certain amount of solution while it is rotating, inevitably creating a flow in the tangential direction and producing a flow rate proportional to the rotation speed, and the effect of F increasing Xg in this fluid is that if the rotation speed is doubled, F will quadruple, so the rotational input can be said to be a source of energy, and based on the theory that if the rotation radius is halved, the rotational speed will double, a wide range of technologies are required to reduce input using multiple means and to reduce the various losses that affect output. However, while the appeal of the rotational input increasing rotational speed output with F and Xg squared is undeniable, it requires an issue of requiring an infinitely large input.

[0071] Furthermore, the solution in the single solution tank is subjected to a large force of gravity in the natural world due to the rotational force, and the relative energy of F, which overwhelms the absolute potential energy of gravity on flat ground, means that ingenious techniques to further increase output on a single rotating disk will lead to a proportional increase in rotational input, even if the mass and rotational speed are increased, and under the law of conservation of input > output, achieving infinitely high efficiency is a major challenge. While the effectiveness of utilizing multiple technologies to achieve high efficiency on a disk cannot be denied, each individual technology has its own technical challenges, and the convergence of single technologies in line with the law of conservation of energy may contribute to improved efficiency, there is also the issue of the lack of such devices yet to be addressed.

[0072] Furthermore, when considering Xg of the solution rotor F, a material with the appropriate strength to withstand the large pressure is required, and a lightweight yet sturdy container is required, and of course, the manufacturing technology requires innovative materials, processing techniques, and new system technologies.

[0073] Furthermore, in order to minimize rotational input, it is essential to construct a stable rotating device that maintains the balance of rotational inertia. Stability of Xg during rotation affects output, and mechanical countermeasures are required to reduce vibration, balance, rotation loss, and unevenness caused by the total weight of the rotating body including the solution, as well as noise, and stable, constant speed rotation is required in response to increases and decreases in the total weight of the device. (Development of an input power base)

[0074] Furthermore, the aforementioned rotating input uses renewable energy, and the Xg output is added to the renewable energy output through technological innovation. Unless this Xg is a new secondary energy invention or new technology, it will not be possible to overcome the low efficiency caused by the natural constraints of renewable energy power and improve output. It is undeniable that technology that achieves a synergistic effect on efficiency through multiple output-effect technologies within a single unit is an essential technical challenge. The need for high efficiency that is worthy of supplementing the operating efficiency of renewable energy power under natural constraints, such as solar and wind power, is a major technical challenge.

[0075] Furthermore, technological innovation is required to reduce rotational input and improve output by skillfully incorporating and applying solar, wind, atmospheric pressure, and mechanical dynamics (levers, balancers, floating resistance, thermal resistance).The mental struggle of how to turn the ideal idea imagined into a realistic one is essential, and the mental strength required for development can be said to be the greatest challenge.

[0076] There are undeniable challenges arising from the application of these mechanical dynamics and existing patents, and there are issues that require careful consideration and careful thought to prevent patent infringement, etc., so the human challenge of carefully examining the books cannot be ignored.

[0077] Another issue is the limitations of the applicant's attitude and thinking, such as whether the applicant has gone beyond the scope that other inventors could easily consider, such as the application of atmospheric pressure and vortex vacuum effects, which are already patented.

[0078] F and Xg exist only within the rotating body, and the secondary / tertiary energy conversion of Xg within that rotating body significantly reduces the rotational input, thereby increasing the output efficiency. This is also a technical challenge.

[0079] The pressure intensifier 101 according to the present invention is a pressure intensifier that intensifies the fluid pressure of a fluid, and includes a solution conduit vessel including a conduit (flow-down spiral conduit 1b in FIG. 1) having a generally conical spiral shape, and a rotating shaft (shaft 15 in FIG. 1) for supporting the conduit. The conduit rotates as a single unit three-dimensionally around the rotating shaft, and the radius of the conduit gradually decreases from the top to the bottom, thereby gradually narrowing the flow path of the conduit. As the fluid flows from the top to the bottom of the conduit, the fluid is intensified by gravity, the centrifugal force caused by flowing through the conical conduit, and the centrifugal pressure generated when the fluid is pressed against the wall surface as the conduit rotates, and the fluid is then supplied to the outside.

[0080] The pressure booster according to the present invention comprises a solution conduit vessel containing a conduit having a generally conical spiral shape, and a rotating shaft for supporting the conduit. The conduit rotates as a single unit in three dimensions around the rotating shaft, and the radius of the conduit gradually decreases from the top to the bottom, thereby gradually narrowing the flow path of the conduit, thereby ensuring the production of pressurized fluid.

[0081] Furthermore, the inner wall of the conical spiral duct narrows downwards due to the conical ratio, and this configuration allows the flow velocity and rotational tangential velocity to generate natural pressure. The pressure increase rate at the narrowness ratio increases proportionally to the pressure increase factor, and the torus tube at the end of the flow (fixed torus vessel 27 in Figure 1) or the approximately cylindrical duct is filled with pressure fluid from the start, and when this high-pressure fluid is further rotated, the normal pressure F, Xg, is added, generating a large pressure (Xg). (Figure 1)(Figure 2)(Figure 5)(Figure 6)(Figure 7)(Figure 8) Natural pressure boosting function in narrowing ratio - B

[0082] In addition, the inclined flow pipe of the conical spiral pipe generates a head, rotational inertia velocity, mass pressure, and spiral inertia in the tangential direction, increasing the compression density of the mass affected by gravitational acceleration and Xg, and increasing the pressure inside the conical spiral pipe (B).In addition, the rotational inertia caused by the inertial flow down of the spiral flow and the tangential acceleration inside the pipe increases the effect of the rotational output (pressure increase). (Fig. 5) (Fig. 6) (Fig. 7) Rotational acceleration increase / pressure increase - C

[0083] Furthermore, the natural force that causes the solution in the rotating body to generate a vortex flow, and the vacuum suction effect that creates a vacuum around the rotating shaft, play a part in the pumped water circulation, making it possible to continuously drive the device with a constant amount of solution. (Fig. 5) (Fig. 7) Fixed volume circulation function by vacuum suction effect - D

[0084] Furthermore, fluid losses such as fluid friction loss of the solution in the conical spiral pipeline are reduced by the sealed pipeline integrated with the rotor, and the spiral conical spiral pipeline section has a flow-rectifying structure, which suppresses the effects of turbulent waves and has a pipeline structure effect that reduces fluid losses in the pipeline such as cavitation. (Fig. 3) (Fig. 5) (Fig. 7) Fluid loss reduction-E

[0085] Furthermore, in terms of fluid dynamics, output is calculated as gh = Xg in the basic formula mgh = W. Therefore, the larger m is, the greater the output. The theory behind this is that a configuration that allows for an increase in volume by using a torus pipe at the bottom of the flow or a rotating cylindrical vessel will produce a larger Xg even at a constant speed of rotation, and a rotating vessel with increased mass will result in improved output. This mass is also related to Xg, and is a problem-solving configuration that produces an output effect related to the relative energy Xg due to F. (Fig. 5) (Fig. 6) (Fig. 7) (Fig. 8) Combination effect with a cylindrical tank that increases mass - F

[0086] Furthermore, a fixed torus-shaped pressure reservoir solution tank (fixed tank 49) is provided in close contact with the outer periphery of the rotor in the lowest cylindrical pipe line, and the rotating cylindrical pipe line and storage tank (pressure tank) have multiple openings that allow Xg pressure propagation and a constant amount of pressure fluid to flow out, and furthermore, a flow rate caused by the cylindrical rotating pipe line is generated, and the configuration in which a rotating fluid is created in the fixed pressure tank is a structure and configuration that makes it possible for F due to the rotating fluid to act also on the fixed storage tank (pressure tank) and generate Xg. (Figure 5) (Figure 6) (Figure 7) (Figure 8) Maintaining Xg of the fixed storage tank and maintaining the rotational flow rate - G

[0087] In addition, multiple protrusions (entasheath type vertically split protrusions 52 in Figures 6, 7, 8, and 13) are provided on the inner surface of the lowest rotating cylindrical pipe, causing momentary stagnation in the flow of the rotating fluid, giving momentary resistance to the flow velocity, and when the flow velocity is instantaneously slowed, momentary pressure is generated (according to the theorem of fluid velocity and pressure change), causing a change in the pressure of the normal pressure fluid, and the configuration that makes use of the original internal pressure of the fluid is such that a nozzle-type pressure propagation and pressure fluid outflow hole (Figure 7) are formed just before the protrusions in the tangential direction of the flow velocity, The configuration is such that it can be jetted in the tangential direction of rotation, and generates the same rotational flow rate in a fixed pressure vessel (pressure tank) as in a rotating cylindrical pipeline. The F / Xg that is generated only by rotational inertia generates the same energy in a fixed pressure tank as in a rotating cylindrical vessel. The characteristic of this configuration is that by maintaining and maintaining F·Xg in a non-rotating fixed pressure tank, it is possible to store the rotational energy of F and Xg outside the rotating body, and it also makes it possible to effectively utilize Xg of F outside the rotating body. (Fig. 5) (Fig. 6) (Fig. 7) (Fig. 8) etc. It is possible to store and use Xg of F outside the rotating body. -H

[0088] Furthermore, the configuration that allows the pressure fluid to be placed outside the rotor allows the F·Xg energy that exists only in the rotation to be extracted outside the rotor, making it possible to utilize and use it as secondary or tertiary energy. This configuration allows for multiple rotational auxiliary functions to be assumed within a single uniform rotor, and innovative measures to reduce the technical rotational input and improve output by utilizing Xg, making it possible to widely apply new technological innovations in technical methods and inventions. (Fig. 6) (Fig. 7) (Fig. 8) F·Xg is the secondary energy outside the rotating body.

[0089] Furthermore, the provision of multiple convex portions in the lowest rotating cylindrical duct causes stagnation in the flow of the rotating fluid, creating a fluid pressure effect due to the instantaneous slowdown caused by slight resistance to the flow rate, and the tangential acceleration due to F promotes the rotational speed of the rotor; this emperor-like function of the convex portions lies in their shape, which makes the most of the fluid characteristics and the theory of the relationship between flow rate and pressure; the convex portions have an entasheath-type, vertically split, one-sided convex structure, and the upper and lower parts of the convex portions have almost no effect on the rotational flow rate, while the central convex portion experiences momentary slight resistance and instantaneous deceleration, which causes little damage to the rotational flow rate of the solution; and while Xg is generated without changing F, the instantaneous slight deceleration of the fluid provides a rotational force pushing tangentially on the rotor, resulting in a configuration that reduces the large rotational input. This means that, compared to a flat fluid wall, slight fluid friction and loss occurs due to the unevenness, but this loss is relative to the internal flow velocity of the rotor, and the change within the rotor does not result in a loss that impairs the rotational function, and the effect of the protruding obstacles on the rotational thrust of the rotor accounts for part of the rotational input. (Fig. 6) (Fig. 7) (Fig. 8) The convex part function that promotes the rotation speed of the rotating body reduces the input power -J

[0090] Furthermore, the slight stagnation of the flow caused by the instantaneous slowdown of the flow velocity creates an instantaneous stagnation of the fluid, which has the effect of increasing the pressure. The configuration in which a stagnation convex is arranged even in a flat, large-capacity cylindrical pipe increases the flow velocity of the fluid passing through the convex, and the effect of creating a new rapid-flow change in the flow velocity proportional to the tangential acceleration and uniform rotational speed is that Xg of F becomes a large Xg pressure fluid in accordance with the mass increment equation, and it is also a configuration that reduces the rotational input and maintains a stable Xg pressure. (Fig. 6) (Fig. 7) (Fig. 8) Pressure stabilization effect of Xg when passing through a convex part -K

[0091] The volume of the rotating cylindrical vessel integrated into the end of the conical spiral spiral duct is based on the principle that F and Xg, which are closely related to mass, increase. This configuration obtains the natural pressure (gravity) proportional to the vessel height, and by making the vessel into a three-dimensional conical spiral duct, the pressure increase generation ratio is Xg3, which is increased in proportion to the narrowness of the cone. Furthermore, the pressure fluid in the rotating cylindrical vessel, which pressure-propagates Xg3 to the large mass inside the end cylindrical rotating vessel, is pressurized by the normal Xg of F due to uniform rotation, and a large Xg5 is generated in the rotating cylindrical vessel at the end of the conical spiral duct. This configuration allows one uniform rotating body to have multiple pressure increase functions and generate an infinitely large amount of Xg energy, making it possible to create secondary and tertiary energy. (Fig. 6) (Fig. 7) (Fig. 8) (Fig. 11) Potential for secondary and tertiary energy use -L

[0092] Furthermore, the output of a 3D configuration with a cylindrical tank at the end of a single-axis spiral vortex pipeline (Figure 13)—which has multiple rotating solution tanks arranged in multiple stages on a single-axis rotor—makes the aforementioned problem-solving measures more effective, significantly improving output, accelerating the reduction of rotational input, and enabling significant secondary and tertiary energy savings. Furthermore, by enabling multiple rotating layers on a single axis on a single rotor, the total volume of solution commensurate with the output can be repeatedly and continuously generated, enabling the synthesis of multiple Xg (Xg + Xg) in a single vessel. By circulating a fixed amount of solution, a compact, standalone unit replaces the conventional fossil fuel-based, large-scale equipment, and the use of this synthesized Xg power as a power source can produce widespread effects. (Fig. 14) (Fig. 15) (Fig. 16) (Fig. 17) High pressure multi-stage solution tank -M

[0093] Furthermore, the rotor, which is configured by integrating multiple rotating solution tanks such as a single-axis spiral cone pipe with a rotor, is made lighter by using 3D printed resin and lightweight metal blocks, and is an energy-saving structure with reduced rotational input. This reduces the manufacturing cost of the integrated device, which in turn significantly reduces power generation costs, contributes to reducing rotational input and improving efficiency, and allows for high efficiency where input is as close to output as possible. This configuration aims to create an ultra-energy-saving device that allows for extremely small input, which can be achieved by combining various rotational input reduction technologies. (Fig. 5) (Fig. 6) (Fig. 8) Convergence of multiple technologies worth energy saving - M2

[0094] Furthermore, the various ideas and technologies for reducing rotational input as much as possible and improving output are a collection of technologies described in the following items (a) to (m) and (z), which are essential solutions to the problems involved in powering Xg. These include (a) the control base technology for the initial starting input, (b) energy-saving input control in the current control base that makes the most of the rotational inertia of the rotor, and (d) a motor that rotates at a stable, constant speed according to the set output and controls input and output. In addition, measures to reduce seals and resistance (e), measures to balance the rotor and prevent uneven rotation (f), measures to prevent rotation loss (g), and the effect of reducing vibration loss through stable rotation (h), the effect of amplifying rotational inertia with balancers, etc. (i), the introduction of metal contact bearings (j) to reduce mechanical loss, and new technology for stable rotation metal rollers (k) have increased the total volume of the uniform rotor (z), which increases the amount of centrifugal force solution, making it possible to improve output by Xg, and has made it possible to integrate a new rotation auxiliary power source mechanism (m) and secondary energy configuration (n) into the same rotor, and by concentrating various efficiency-improving ideas and various technologies into one container, it has become possible to improve output. (Fig. 5) (Fig. 6) (Fig. 8) (Fig. 11) Integration of focusing technology is an efficiency improvement measure. -N

[0095] Furthermore, circumventing the limitations on power generation efficiency imposed by natural constraints on renewable energy sources like solar and wind power leads to the denial of renewable energy, and this cannot be avoided except by technology that improves efficiency within natural constraints, such as the invention of new materials (perovskite), such as solar power. When used in conjunction with the tentatively named Xg-D machine of the present invention, if the rotational speed of the rotor is doubled with the rotational input of this machine, F will be quadrupled, and if the rotational speed is quadrupled, F will be 16 times greater. The law of centrifugal force is a characteristic of F, and whether it is a conventional flat or three-dimensional rotating disk, there are no limitations imposed by the shape or form of the rotor that generates F. The rotational load is determined by the difference in the total weight of the rotor, and the magnitude of the rotational input also varies, but this machine is also capable of freely generating F by controlling the rotational speed of the rotor. The features of this machine are as follows: (1) The structure of the rotor is a three-dimensional structure, with a difference in the radius from the axis of rotation between long and short, and in accordance with the theorem that the longer the radius, the faster the rotation, and the longer the rotation, the slower the rotation. The mass in the pipe and the rotation speed are inversely proportional, increasing the compressive force; (2) The spiral conical spiral pipe increases the narrowness ratio as the rotation speed increases, and (3) Multiple stages are arranged downward around the axis in a spiral shape; (4) The lowest stage rotating cylindrical tank is integrated into a rotating cylindrical tank with a freely enlarged volume; and (1) and (2) are theoretically designed to further increase the pressure of the naturally pressurized solution with a large mass, resulting in a three-stage compression of the natural solution. The function that makes this possible is that from the start of the initial rotation start, before dp (micro pressure) reaches the set constant speed rotation, a certain amount of pressure fluid is generated with a small rotation input, and the set pressure Xg can be easily generated. The configuration does not require a large rotation input to increase the rotation speed, and the large output Xg set by this unit covers the output shortage due to the natural constraints of renewable energy. The rotation input control of this unit makes it possible to operate 24 hours a day, 365 days a year, with stable output in line with the output of renewable energy, and output that is not affected by natural constraints, even at night, in the rain or on cloudy days. This stabilizes the low efficiency of renewable energy, promotes the spread of renewable energy, and contributes to the SDGs through NC. (Fig. 5) (Fig. 6) (Fig. 7) etc. Stable output of renewable energy boosted by the three natural principles contributes to the SDGs.

[0096] Regarding the natural constraints of renewable energy, despite its low efficiency, it has attracted attention as an environmentally friendly energy source. While efforts are underway to move away from fossil fuels and utilize all renewable energy, the gap between power generation costs and output remains unbridged. Maintaining stable output has long been a challenge for renewable energy. There is a global consensus that renewable energy is an essential energy source for humanity to seriously address the SDGs. However, natural forces and constraints pose a major obstacle to choosing renewable energy. Humans, who are dependent on nature, cannot circumvent these constraints. Rather than rebelling against nature, we must find ways to coexist with it. The trio-energy system of renewable energy, energy storage devices, and this device (Xg-D) solves these challenges and represents a major breakthrough in the development of innovative new renewable energy. This new renewable energy (trio-energy) will lead to technological innovations that enable the combination of various natural energy sources, providing further challenges and solutions for achieving the SDGs. Furthermore, all of the technology used in this machine utilizes natural forces. The Trio Energy Development Race will lead to the salvation of humanity. -P

[0097] The characteristics of the two-axis rotor, which is configured to convert pressure fluid energy and Xg into power, are that when it comes into close contact with the pressure fluid, it automatically rotates continuously, alternating between intake and discharge (Fig. 9) (Fig. 10), and is characterized by its great function of converting Xg of pressure fluid into secondary energy.In addition, a portion (0.05%) of the output from this two-axis rotor is used as discharge pumping power, and is pushed and discharged up to the corresponding water level ρgh-1 in the atmospheric release tank, requiring no input at all.This configuration, which complements the ultra-energy-saving circulation device, is an example of a solution to the problem, and is also a published patent (No. 6249543) already obtained by the applicant. (Figure 1) This two-axis rotating rotor is driven by Xg pressure fluid, and what makes it a pressure pump is that the two-axis rotating rotor is closely attached to a fixed pressure fluid storage tank that is closely attached to a rotating cylindrical solution tank that rotates at a constant speed with a conical spiral piping, and has an automatic intake and exhaust valve. This function is a major feature, and the completely powerless opening and closing valve configuration also contributes to significant cost reductions by reducing input and improving output, and the configuration also functions as a mechanical effect that significantly reduces rotational input. (Fig. 1) (Fig. 7) (Fig. 8) (Fig. 9) Unloaded input -Q

[0098] Furthermore, when two buckets are placed with inverted U-shaped pipes at equal ρgh (open water surface), when one bucket is lowered, the solution in the inverted U-shaped pipe naturally moves to the side with the lower ρgh due to the difference in height. When this state is maintained, the force of natural atmospheric pressure acts to create a flow that continuously circulates. This structural principle (siphon) contributes to reducing input and improving output, and is a means of solving the problem. (Fig. 1) (Fig. 2) Siphon Management Theory Atmospheric Pressure Pumping Circulation -R

[0099] In addition, the conical spiral volute pipes integrated into the uniform rotor are arranged at different distances from the axis and are arranged in multiple stages in a spiral shape around the axis, and as a result of this configuration, the solution in the uppermost volute tank inevitably undergoes a vortex phenomenon, and a vacuum area is created around the axis.This configuration also uses the principle of absorbing the solution from the natural lift pipe arranged on the axis, and is a means of solving the problem by reducing indirect input. Volute suction pumping -S

[0100] The mass of the various rotating pipes and solution tanks is naturally compressed in the direction tangent to the rotation due to the rotational force, 2. the conical pipes further compress and increase the pressure by the amount of narrowness ratio as they flow downward, and 3. the pressure is transmitted to the large mass at the bottom of the flow end, and this large mass further increases the Xg pressure of 1.2 by Xg due to the centrifugal force F caused by this large mass. This three-stage pressure increase function does not require rotational speed due to a large rotational input, and is a means of solving the problem with a configuration that reduces the rotational input. (Fig. 3) (Fig. 13) and other features, the three-stage pressure boost function reduces rotational input. -T

[0101] The large Xg of F achieved by the above-mentioned three-stage high-pressure boosting technology is a configuration that makes it possible to motorize high-pressure Xg through a high-pressure effect function that far exceeds the Xg of a normal flat turntable tank. Pressure propagation to the fixed pressure tank, which is closely attached to this end-of-flow rotating cylindrical tank, and the advection of the pressure fluid are achieved through multiple jet nozzles installed tangentially to the convex instantaneous pressure reservoirs on the rotating inner surface of this end-of-flow rotating cylindrical tank. The solution in the fixed pressure tank forms a rotational flow with a flow rate due to the jet flow from these nozzles, and the inside of the fixed tank maintains the same environment as the rotating solution, allowing Xg of F to be continuously generated, which is a means of solving the problem. (Fig. 5) (Fig. 6) Xg -U of fixed pressure tank

[0102] This high pressure Xg is converted to power outside the rotor, or so-called secondary energy, by spraying high-pressure fluid from multiple nozzles attached to the fixed pressure tank. When the Xg in the earth's gravity field is 5 MPa, the spray speed of the pressurized fluid is calculated from Torricelli's theorem as follows: v=(2gh) 1 / 2 =99m / s, and this high pressure Xg inside the tank is an inexhaustible energy with a power of 50-300MPa, making it possible to achieve flow velocities exceeding the speed of sound.The functional configuration allows for a variety of uses, such as motorizing the rotation of multiple runners attached to the jet tip or motorizing the rotation of a two-axis rotor, and is a technology worthy of being used as a means of solving problems.It has greatly contributed to improving output efficiency, significantly reduced rotational input, and made it possible to motorize outside the rotating body. (Fig. 5) (Fig. 6) (Fig. 7) (Fig. 8) etc. High pressure injection force effect -V

[0103] This revolutionary invention, which is the first in the world to make it possible to convert Xg of F, which exists only in the rotor, into energy outside the rotor, not only reduces the rotational input to the rotor by converting it into secondary energy and is a means of improving output efficiency, but also enables power generation using tertiary energy from surplus Xg. In addition to using it for power generation, the high-pressure injection function from the fixed / rotating pressure tank will innovate various industrial equipment that previously required large-scale facilities, fossil fuels, and large electricity consumption, making it possible to create simplified, portable, compact stand-alone models, and contributing to the SDGs with NC is a technological means that will create new economic ripple effects. (Figure 5) (Figure 6) (Figure 7) (Figure 8) Environmentally friendly equipment stimulates the economy - W

[0104] These numerous applied technologies and inventions of natural principles will be the first step towards the new energy generation of Xg. The efficiency of each invention and technology follows the law of conservation of energy, and although there is no reversal, each technology and invention will greatly improve efficiency and reduce the rotational input for a single shaft. If the output of the Xg-D device, which combines multiple such discoveries, inventions, and technologies, approaches the rotational input even by 0.0001%, when used in conjunction with renewable energy, it will largely overcome the natural constraints of renewable energy, and renewable energy will be reconsidered as the natural energy it is originally. This combined effect will improve the output of renewable energy, leading to the birth of an entirely new renewable energy source. A device that can greatly contribute to the promotion of renewable energy and the achievement of the SDGs has the potential to truly become a device that saves humanity. Furthermore, this harmless and inexhaustible energy of Xg does not require an absolute value such as potential energy, and a standalone device that can be installed in a small space on flat ground or anywhere on the earth will not only achieve carbon neutrality and contribute to the SDGs, but with the emergence of low-cost energy, it can also be said to be a major revolution in the fundamental energy source of life, and the characteristics of the device, which have great potential to generate economic ripple effects such as a source of vitality for personal consumption and economic revitalization, also affect the effectiveness of its implementation.

[0105] The Xg of F generated in the solutions of various rotating solution tanks, which are integrated into the uniform rotation body of the present invention as shown in Figures 1 to 24, is equipped with a solution tank for a method of reducing rotational input, a solution tank for technical measures to improve output, and a torus-shaped solution tank, and is integrated into a single rotor.Unlike the normal generation value of Xg of F in a normal planar rotor solution tank, the pressure of Xg generated and synthesized simultaneously in a series of multiple solution tanks is created, and the integrated configuration, which rotates at a uniform speed while carrying each invention, method, and technical measure, is characterized as a single rotor device (Xg-D) that can be powered.

[0106] This invention, a "Centrifugal Pressure Power Unit" (Xg-D), is an innovative technology that makes it possible to utilize the unstable efficiency of renewable energy, which is subject to natural constraints such as day and night, rain or shine, and direction, 24 hours a day, 365 days a year, to achieve stable output when used in combination with renewable energy (especially solar power generation). This technology will play a part in promoting the spread of renewable energy, and promoting the use of various natural energy sources will realize NC and contribute to the SDGs. The rotational input required to generate energy for F and Xg on F is usually "large," and development was almost abandoned. However, the technology that uses multiple types of solution tanks, such as conical and spiral ducts, cylindrical solution tanks, and torus tanks, enables the double high-pressure effect of natural gravity (g) and artificial gravity (Xg of F), making it possible to easily generate large F and Xg even with small inputs.

[0107] This conical spiral duct vessel rotates with a drop in height, and the internal shape of the cone spiral gradually narrows towards the bottom, creating a natural pressure boosting effect proportional to the narrowness ratio. Also, the difference in mass (m) caused by the rotation distance (r) from the axis gradually increasing towards the bottom generates stable pressure according to theoretical theorem (mg). The spiral duct with a drop in height promotes tangential acceleration due to rotation, and compared to a normal flat disk vessel, this functional configuration, which also includes the theoretical effect of amplifying the steric potential energy (h) to (gh), dramatically increases Xg and at the same time enhances the 3W pressure boosting effect.

[0108] Furthermore, a series of rotating cylindrical solution tanks installed at the end of the conical spiral pipeline is a method for further increasing Xg generated in the spiral pipeline, with a large mass in line with the principle equation generating Xg2, and the effect of further increasing it is that the excess pressure due to the large Xg3 has the effect of adding to the rotational input and reducing the input.

[0109] Furthermore, the simplification of the device has the effect of supporting the input to the rotating shaft through secondary energy generation using the large excess pressure of Xg2 (Fig. 1) (Fig. 8), which further accelerates the reduction of rotational input, realizing an ultra-energy-saving rotor, and the improved efficiency of Xg makes it possible to produce stable renewable energy output.

[0110] Furthermore, the technique for accelerating ultra-energy-saving input power is to provide a slight protrusion in the form of a vertical split of the entasis on the outer periphery of the cylindrical rotating tank, and the tangential acceleration to the rotational speed of the solution generated by the rotational force becomes a rotational force that also takes into account the increase in the mass of the solution, which has the effect of increasing the rotational propulsion force. This usually promotes the rotational force, and also has the effect / function of promoting further reduction in rotational input power, and is a configuration that reduces large rotational input power.

[0111] In addition to these various input reduction techniques, a major technical feature is the configuration that eliminates various losses that hinder efficiency improvement, in particular the integrated configuration that requires almost no fluid characteristic seal structure related to pressure fluid, various solution tanks, fluid joints, etc., which eliminates seal friction loss and contributes to reducing rotational input. Furthermore, the conical spiral volute with a drop is formed into a positive flow piping, which prevents fluid friction loss and reduces mechanical loss related to rotational resistance, resulting in a configuration that significantly reduces rotational input and makes ultra-energy-saving rotational input possible.

[0112] Another major feature is that the vacuum area generated around the axis of the conical spiral volute pipe performs a powerless pumping circulation based on the natural principle of sucking in the injected liquid from outside, allowing a certain amount of solution to be circulated by pumping and flowing down, and the large Xg2 pressure makes it possible to continuously continue the external injection discharge function, making it an integrated single device with a circulation system that enables decentralized urban power generation of local production and consumption, without the need to secure solution from rivers for discharging the injected liquid to the outside or from new rivers for taking in the solution.

[0113] Furthermore, the key to powering the Xg2 of this invention is the aforementioned methods and technologies, which ingeniously incorporate additional natural principles, such as natural circulation through the application of atmospheric pressure, fluid return, levers, and kinetic inertia based on siphon theory. This device can be called Xg-D renewable energy power generation, truly rejecting fossil fuels. In particular, when used in conjunction with renewable energy sources such as solar power, it contributes to stable and highly efficient renewable energy generation, making it a revolutionary invention worthy of new renewable energy generation. This harmless and inexhaustible energy of Xg does not require absolute energy such as potential energy. A standalone device that can be installed on flat ground or anywhere in a small space not only achieves carbon neutrality and contributes to the SDGs, but also has the potential to revolutionize the fundamental energy source of our lives, spurring personal consumption, and generating economic ripple effects such as economic revitalization. The device's characteristics are also related to the embodiments. [Explanation of symbols]

[0114] 1a Pumping spiral pipe 1b, 1c Downward spiral tube 2 Rotating Seal 3 bearings 4. Solar Sheet 5 Air Vent 5c Vortex flow vacuum region 5h vortex flow tank 5z Spiral Basin 6. Pumping piping 6a Lifting pipe 6b Lifting pipe (first pipeline) 6c. Riser pipe (second pipeline) 6e forced lift pipe 7. Atmospheric release tank 8 Free water surface 9 Drainage piping 10 Pressure distillation tank 11 Inlet 11a Inlet 11d Automatic opening and closing cock 12 Outlet 12i inlet 13 Two-axis rotor 14, 14a, 14b, 14c, 14d, 14e, 14f Connecting gear 15 axes 15a Center axis 15b Auxiliary axis 15c axis 16 Case 17 Motor 17z Metal Amplifier 18 Dynamo 19 Battery 20 Water pumping piping 21 Torus-shaped water tank 22 Plate 23 Runner 23a Rebound Absorption Bucket 23r Fixed torus type runner pipe 23p Injection nozzle 24 Iron core coil 24f iron core 25 Magnet 27 Fixed Torus Tank 28 Emperor 29 High-pressure spray nozzle 30 Torus 30a Upper rotating tank 30b Lower rotating tank 30c Lower rotating tank 30d rotating tank 30w open waterway 32 Large cart-shaped magnetic plate 33 Flat bearing 34 Rotating and fixed block stand 35 Fixed electrode donut case 36 Magnetic orbital lines 38 Horizontal holding vibration isolation device 39 Rotating Device 40 Grease port 43 Runner-integrated turntable 44 Rotation Auxiliary Plate 45 Runner Pipe 46 Convex conduit 48 flange 49 Fixed tank 49b Lower fixed tank 49c Lower fixed tank 49d Fixed opening / closing version 50 Lower rotating cylindrical tank 51B Sealed steel plate 52 Entasheath type vertically split convex part 55 Balancer 56 Piston ring 58 Housing 59 Conditioner 61 Sliding ring 63 Body 70 yen 101~106, 110 Pressure booster

Claims

[Claim 1] a rotating tank for storing a liquid; a central shaft that is disposed in a substantially vertical direction and rotates the rotary tub; an ejection unit that ejects the liquid to the outside, a pressure booster configured so that the liquid sprayed outward from the spray portion flows back into the rotary tank;

Images