Liquid circulator, and water turbine and water turbine generator using liquid circulator

Abstract

The present invention relates to: a liquid circulator that moves a liquid to a certain height and continuously circulates the liquid rather than utilizing power converted from a dam, water flowing due to a water head drop, or tidal fluctuations as in the prior art; a liquid-circulating water turbine which is configured to continuously circulate the liquid by fixing a liquid inlet and a liquid outlet at a certain height in order to move the liquid to a position at a certain height and continuously circulate the liquid downward, and in which a continuous head of the liquid is generated and the turbine is rotated using the head of the discharged liquid; and a liquid-circulating water turbine generator that utilizes the rotational force of the turbine to drive a generator and generate electricity from the generator. The purpose of the present invention is to use a liquid by continuously circulating the liquid to a position at a certain height, utilize the rotational force of the water turbine using the head of the liquid raised to the required height, generate electricity by rotating the generator using the rotational force of the water turbine, and supply the electricity generated by the generator to locations on land, at sea, or in the air that require the electricity generated by the generator.

Description

Liquid circulator and water turbine using a liquid circulator and water turbine generator

[0001] The present invention relates to a technology for water resource management, a liquid circulator, a water turbine utilizing a liquid circulator, and a water turbine generator, wherein the invention generates rotational force of a water turbine by utilizing the flow rate and drop force of a liquid resulting from the continuous circulation of a liquid moving to a certain height, and rotates the rotor of a generator using the rotational force of the water turbine to produce electricity necessary for daily life and industry as a whole.

[0002] A lower liquid reservoir is configured to contain liquid of a certain size, such as a sea, river, or reservoir, without being restricted to the reservoir; an inlet pump is configured including a drive motor that allows liquid from the lower liquid reservoir to flow upward through a liquid inlet pipe; an internal air outlet is configured at the top of the liquid inlet pipe, which includes an air shut-off valve capable of expelling internal air from the liquid circulator and blocking its inflow, thereby configuring a liquid inlet to allow liquid from the lower liquid reservoir to flow in; an outlet tank is configured connected to the liquid inlet and sized to hold a larger liquid flow rate than the liquid inlet; the outlet tank is configured to be assembled by an outlet tank assembly; a variable speed rotation connection is configured so that a screw is embedded inside the outlet tank, and the rotational force of the screw generated as the liquid flows in is used to rotate the liquid inlet pump through a screw shaft including a waterproofing device; an air backflow prevention unit is configured with a U-trap structure, which is an internal cross-section for preventing air backflow, to prevent air from entering the outlet tank; and a device for controlling the flow of liquid is located below the air backflow prevention unit. This is a technology for completing a basic liquid circulator configured to enable continuous circulation of liquid in a lower liquid reservoir by configuring a liquid outlet valve to create a liquid outlet section that generates rotational force through the flow of liquid, fixing the liquid inlet and outlet sections at the height required for flow, and configuring a liquid outlet section that allows liquid discharged through the liquid outlet piping to move to the lower liquid reservoir.

[0003] Furthermore, to prevent the liquid introduced into the liquid inlet of the liquid circulator from flowing back into the lower liquid reservoir, a liquid backflow prevention valve is installed at the bottom of the liquid inlet. Additionally, an initial liquid injection section is configured to include an initial liquid injection pump capable of introducing liquid into the liquid inlet before operating the inlet pump, an initial liquid inlet pipe, and an initial liquid inlet port, which include a backflow prevention function. By further configuring the liquid circulator to allow liquid to be introduced into the interior of the liquid circulator, the liquid inlet and liquid outlet are fixed at a certain height to configure the liquid flow to circulate continuously, thereby completing a liquid circulator that moves and circulates the liquid to a certain height and allows liquid to be introduced and discharged.

[0004] In order to increase the flow rate when the inlet pump of the liquid inlet section of the liquid circulator is driven, when the drive motor is driven and the liquid flow rate is generated through the impeller of the inlet pump, the liquid flow rate is drawn into the inlet and moved to the outlet by the force of the liquid flow rate, thereby forming a pump flow rate increase passage so that the liquid flow rate can be moved to the outlet without passing through the impeller of the inlet pump. By configuring an inlet pump that incorporates a pump flow rate increase passage so that the liquid flow rate can be moved not only through the pump impeller, the efficiency of the drive motor is maximized, and as the volume of the outlet tank section is increased, the flow rate discharged from the liquid outlet section is increased through the liquid flow rate through the pump flow rate increase passage.

[0005] Next, regarding the first step, a method for generating rotational force from the flow of liquid within the outlet tank of the liquid outlet of the liquid circulator, the outlet tank connected to the liquid inlet is configured to house an internal interlocking water turbine capable of continuous rotation. The interlocking water turbine is configured such that multiple interlocking water turbine blades, formed to hold a larger liquid flow rate than the liquid inlet, are connected to a rotating connection. The rotating connection to which the interlocking water turbine is connected is formed to rotate continuously using an upper rotating body and a lower rotating body as pivot points. The horizontal length of the interlocking water turbine blades is made long to a certain size, and multiple vertical blades are configured to form a rotating connection that allows the liquid flow rate to flow from the inlet to the upper and lower parts of the outlet tank. The rotational force generated by the weight of the liquid flow rate rotates the interlocking water turbine shaft. A variable-speed rotating connection connected to a transmission that is connected to the inlet pump shaft via the interlocking water turbine shaft is configured to rotate the liquid inlet pump. Finally, a liquid outlet valve is additionally formed in the outlet tank to control the flow of liquid, thereby configuring the liquid outlet and the liquid inlet to the required height for the flow of liquid. This is a technology for completing a liquid circulator that configures a liquid outlet so that liquid discharged through a fixed liquid outlet pipe can move to a lower liquid reservoir, thereby enabling the continuous circulation of liquid in the lower reservoir.

[0006] The function of the screw and interlocking water turbine configured inside the outlet tank of the liquid circulator is a technology that recovers the liquid flow rate and the downward force of the flow generated by the inlet pump using electric energy as rotational force, and utilizes this rotational force to drive the inlet pump.

[0007] Furthermore, the rotational force generated by the screw and interlocking water wheel in the discharge tank section increases the rotational force that rotates the inlet pump. This increase occurs as the flow rate corresponding to the volume of the discharge tank section of the liquid outlet section becomes greater than the flow rate of the liquid inlet section; consequently, the drop movement caused by the flow increases the rotational force rotating the screw and interlocking water wheel, thereby becoming the rotational force that rotates the inlet pump.

[0008] This is a technology that generates electricity by rotating a generator through a liquid circulation turbine, utilizing the flow rate and downward force of the liquid discharged from a liquid circulator, and a liquid circulation turbine generator, which connects a generator to the turbine of the liquid circulation turbine to utilize the rotational force of the turbine.

[0009] Unlike conventional hydroelectric power generation using a dam, a location, river flow, and tidal difference, this is a technology that introduces liquid into an inlet and, as the liquid passes through an outlet, causes the liquid flow rate between the inlet and outlet to continuously circulate to a height, thereby generating a downward force of the liquid flow rate.

[0010] This is a technology for completing a liquid circulation turbine generator that increases the rotational force of a turbine by providing multiple liquid circulation turbines, including a multi-stage discharge tank, a liquid vortex preventer, and multiple liquid circulation turbines to increase the flow rate according to the intended use of the liquid circulation turbine generator, liquid circulation turbine generator, and liquid circulation turbine generator, thereby increasing the flow rate in the upper reservoir and rotating the turbine with the increased flow rate and the downward force of the flow rate, and rotating the generator by providing multiple liquid circulation turbine generators that include the completed turbines equipped with multiple liquid circulation turbines according to the power generation capacity.

[0011] As described above, this is a technology that designs and manufactures liquid circulators, liquid circulating turbines, and liquid circulating turbine generators so that the functions of each component can be linked and operate smoothly through organic interaction, thereby appropriately completing each component for use in water resource management, small-scale generators, and large-capacity generators.

[0012] In addition, the technology comprises configuring a battery that charges electricity produced by a liquid-circulating hydroelectric generator, charging the battery with electricity produced by the liquid-circulating hydroelectric generator, and utilizing the charged electricity from the battery and the electricity produced by the liquid-circulating hydroelectric generator to power a driving system that uses electric power on land, such as for mobile vehicles, automobiles, trains, etc., driven by power generated using electricity, and driving wheels and using a steering device, and

[0013] Technology for utilizing the power generated from electricity in marine-powered vessels, ships, submarines, offshore plants, etc., to drive propellers, screws, etc. for operation and as the necessary power source, and

[0014] This is a technology that configures liquid-circulating hydroelectric generators and batteries to be mutually compatible and designs and applies them to suit each component, such as in applications like drones and manned / unmanned airships that use electric power to drive propellers for propulsion and operation.

[0015] In the case of configuring and using a battery to charge the electricity produced by the above-mentioned liquid-circulating water turbine generator, conventional technology limits the usage time of the charged electricity due to the limitations of the battery's charging capacity when using only the power from the charged battery.

[0016] However, unlike conventional technology, using the electricity produced by the liquid-circulating hydroelectric generator together with the charged electricity from the battery creates conditions that can extend the usage time of the electricity in a product containing the liquid-circulating hydroelectric generator and the battery.

[0017] Accordingly, by designing and manufacturing the components of the liquid circulator, liquid circulating turbine, and liquid circulating turbine generator of the present invention in a mutually compatible manner, and by driving the inflow motor by inputting 100 units of energy to drive the inflow motor when driving the inflow pump, a flow of water is created in the outflow tank, and at this time, the rotational force of the screw or interlocking turbine inherent in the outflow tank is configured to drive the inflow motor using a variable speed rotation connection to recover more than 80 units of energy and supply it back to the inflow pump, thereby making the input energy of the inflow motor 20 units or less during continuous operation of the pump.

[0018] At this time, the flow rate of the liquid passing through the discharge tank and the energy of the flow rate drive a turbine and a generator through the turbine to generate electrical energy, thereby enabling the generation of more than 80% energy. This technology produces carbon-free, eco-friendly electricity without restrictions on installation and usage locations.

[0019] It is a universal conventional technology to produce electricity by having a liquid move downward from a certain height to rotate a water wheel, and then using the rotational force of the rotating water wheel to rotate a generator.

[0020] If a liquid is moved to an upper position using a pump, the energy generated is less than the energy required, which is contrary to effectiveness.

[0021] Conventional technology has been concluded as a technology that obtains 1 unit of energy using 1 unit of energy, or continuously generates 1 unit of energy using less than 1 unit of energy, as such technology violates the laws of thermodynamics.

[0022] The present invention is a technology for implementing the generation of energy of 1 or more than 1 by using an inlet motor utilizing 1 energy to continuously circulate liquid located at the bottom to the top, recovering the flow of the liquid—which is the potential energy of the liquid flow rate—as rotational energy. It is a technology that enables smooth organic interaction in which the functions of each component can be linked and operate, by appropriately configuring and designing the components mentioned in the problem to be solved, the means to solve the problem, and the specific details for implementing the invention described below, so that a liquid circulator, a liquid circulating water turbine, and a liquid circulating water turbine generator are completed.

[0023] The present invention aims to create a flow of liquid capable of generating artificial potential energy, rather than utilizing dams, rivers, tidal differences, etc.

[0024] The objective is to construct a liquid circulator by applying the components discussed in this invention to fix the liquid at a certain height and to continuously circulate the liquid flow, and to create a component that moves and continuously circulates the liquid to a certain height position, in which the liquid is introduced and discharged, rotates a water turbine using the flow rate of the discharged liquid and the downward force of the flow rate, and rotates a generator using the rotational force of the water turbine to generate electricity from the generator.

[0025] The liquid circulator, liquid circulating turbine, and liquid circulating turbine generator must be designed and manufactured to ensure smooth organic interaction, allowing the functions of each component to be linked and operate together.

[0026] Unlike conventional technology, which involves a dam and a position, a dam capable of creating a flow of liquid, a river flow, and a water turbine utilizing the difference in tides, this method is designed so that the liquid flowing into the lower liquid inlet passes through the liquid outlet, creating a position with height between the liquid inlet and the liquid outlet, thereby generating a liquid flow rate and a downward force of the flow rate.

[0027] In addition, the screw and interlocking water turbine configured inside the outlet tank of the liquid circulator must be designed to recover the flow rate and the downward force of the liquid flow generated by the inlet pump using electric energy as rotational force, and use this rotational force to drive the inlet pump.

[0028] Accordingly, by designing and manufacturing the components of the liquid circulator, liquid circulating turbine, and liquid circulating turbine generator of the present invention in a mutually compatible manner, the inflow motor is driven using 1 unit of energy during initial startup, but after the inflow motor is driven, less than 1 unit of energy is used. By using the rotational force of the screw or interlocking turbine inherent in the outflow tank as the energy to drive the inflow motor using a variable speed rotation connection, less than 1 unit of energy is used, and the generation of energy using the force of the drop of the flow rate is realized to obtain 1 unit or more of energy, thereby enabling the production and use of carbon-free, eco-friendly electricity without restrictions on installation and usage locations.

[0029] The present invention is based on a liquid circulator capable of moving and continuously circulating a liquid to a position of a certain height, and in order to move the liquid to a position having a height and continuously circulate it downward, rotate a water turbine, and implement a water turbine generator,

[0030] A lower liquid reservoir is formed at the bottom, capable of holding liquid in a certain size such as a sea, river, or reservoir, and an inlet pump is formed that includes a drive motor to allow liquid from the lower liquid reservoir to flow upward through a liquid inlet piping. An internal air outlet, which includes an air shut-off valve capable of releasing internal air from the liquid circulator, is further formed above the liquid inlet piping to configure a liquid inlet to allow liquid from the lower liquid reservoir to flow in. An outlet tank is configured to be connected to the liquid inlet and has a size capable of holding a larger liquid flow rate than the liquid inlet. The outlet tank is configured to be assembled by an outlet tank assembly. A variable-speed rotation connection is configured so that a screw is embedded inside the outlet tank, and the rotational force of the screw generated as the liquid flows in is used to rotate the liquid inlet pump through the screw shaft. An air backflow prevention unit is configured with a U-trap structure, which is an internal cross-section for preventing air backflow, to prevent air from entering the outlet tank. A liquid outlet valve that controls the flow of liquid is formed at the bottom of the air backflow prevention unit. A basic liquid circulator is completed by further forming a liquid outlet, fixing the liquid inlet and liquid outlet at the height required for flow, and configuring a liquid outlet that allows the liquid discharged through the liquid outlet pipe to move to the lower liquid reservoir, thereby enabling the liquid in the lower liquid reservoir to circulate continuously.

[0031] To prevent the liquid introduced into the liquid inlet of the liquid circulator from flowing back into the lower liquid reservoir, a liquid backflow prevention valve is installed at the bottom of the liquid inlet. Additionally, an initial liquid injection unit is configured to include an initial liquid injection pump with a liquid backflow prevention function that allows liquid to be introduced into the liquid inlet before the inlet pump is driven, an initial liquid inlet pipe, and an initial liquid inlet port, thereby enabling liquid to be introduced into the interior of the liquid circulator and completing the liquid circulator.

[0032] In the first stage, a method for generating rotational force from the flow of liquid within the outlet tank of the liquid outlet of the liquid circulator is configured such that the outlet tank, connected to the liquid inlet, incorporates an interlocking turbine capable of continuous rotation. The interlocking turbine is configured such that multiple turbine blades, formed to hold a larger volume of liquid than the liquid inlet, are connected to a rotating connection. The rotating connection to which the interlocking turbine is connected is configured to rotate continuously using an upper rotating body and a lower rotating body as pivot points. The horizontal length of the turbine blades is made long to a certain size, and multiple blades are configured vertically to allow liquid flowing from the liquid inlet to move from the upper to the lower side of the outlet tank. The rotational force generated by the weight of the liquid flow causes the interlocking turbine shaft to rotate. A variable-speed rotating connection, connected to a transmission that connects to the inlet pump shaft via the interlocking turbine shaft, is configured to rotate the liquid inlet pump. A liquid outlet valve is further configured in the outlet tank to control the flow of liquid, thereby forming the liquid outlet. The liquid inlet and liquid outlet are fixed at the height required for the flow of liquid, and the liquid outlet A liquid circulator is completed by configuring a liquid outlet that allows liquid discharged through the piping to move to the lower liquid reservoir, thereby enabling the liquid in the lower liquid reservoir to circulate continuously.

[0033] The task is to complete a liquid circulator, a liquid circulating turbine, and a liquid circulating turbine generator, which are configured to allow the liquid flow to circulate continuously by fixing the liquid inlet and outlet at a certain height, move the liquid to a certain height to introduce and discharge the liquid, rotate a water turbine using the flow rate and the downward force of the discharged liquid, and rotate the rotor of a generator using the rotational force of the water turbine to generate electricity in the generator.

[0034] Unlike conventional hydroelectric power generation using a dam, a location, river flow, and tidal difference, liquid is introduced into the inlet and passed through the outlet to position the outgoing liquid at a height, thereby generating a downward force between the outgoing liquid and the flow rate in the liquid circulator.

[0035] In order to convert the small flow rate and small power of the turbine generated in the liquid circulator, liquid circulator turbine, and liquid circulator turbine generator into a large flow rate and large power of the turbine and apply it according to the intended use, multiple liquid circulators are provided, and multiple liquid circulator turbines are provided, each equipped with a multi-stage discharge tank, liquid vortex preventer, turbine, speed increaser, etc., according to the respective use, so that the rotational force of the turbine is increased to ensure that the generator and large-capacity generator operate normally. Each component is appropriately designed to ensure that the liquid circulator, liquid circulator turbine, and liquid circulator turbine generator are completed, and the functions of each component can be linked and operate smoothly through organic interaction.

[0036] The liquid circulator, liquid circulating turbine, and liquid circulating turbine generator of the present invention are structurally different from conventional methods of utilizing liquid (water) to move and circulate the liquid to a certain height. By introducing and discharging liquid and moving the flow rate of the discharged liquid to a height, the liquid circulator can be utilized for various water resource management purposes. Furthermore, by configuring the liquid circulating turbine and the liquid circulating turbine generator to continuously circulate the discharged liquid flow rate to a height, the discharged flow rate and the difference in gravity are utilized to rotate a turbine. This rotational force of the turbine then rotates a generator, thereby producing carbon-free, eco-friendly electricity. The system has minimal restrictions on installation locations and can generate and use electricity in daily life, industrial settings, large power plants, and other places requiring electricity. Additionally, by incorporating a battery to be used in conjunction with the electricity generated by the liquid circulating turbine generator, the usage time can be extended. Consequently, it can be used as a power source for various products that operate and start using electricity on land, sea, or in the air, and in particular, it provides the effect of producing and using carbon-free, eco-friendly electricity.

[0037] The drawings illustrating the liquid circulation device, liquid circulation turbine, and liquid circulation turbine generator are described as follows: the liquid of the present invention is intended to utilize the flow rate and the force of the drop of the flow rate by circulating the liquid to move it to a certain height position, and the liquid circulation device for receiving and discharging the liquid, the liquid circulation device for rotating a water turbine using the discharged liquid, and the water turbine for rotating a generator using the rotational force of the water turbine to generate electricity produced by the generator.

[0038] FIG. 1 is an assembly drawing applying a partial cross-section of a liquid circulator,

[0039] This is an assembly drawing illustrating an example of a liquid circulator designed to demonstrate continuous liquid circulation, represented by a partial cross-section in which the components of the liquid circulator are assembled, a screw is embedded inside the discharge tank of the liquid outlet, and an air backflow prevention unit connected to the liquid tank is applied.

[0040] FIG. 2 is a partial cross-sectional assembly drawing in which an interlocking water turbine is applied to the outflow tank of a liquid circulator,

[0041] This is an assembly drawing illustrating an example of a liquid circulator, in which the components of the liquid circulator are assembled and a partial cross-section is represented by applying a perforated water wheel inside the liquid tank of the liquid outlet to derive continuous liquid circulation.

[0042] FIG. 3 is an assembly drawing applying a composite liquid circulator,

[0043] This is an assembly drawing of a composite liquid circulator, illustrated by the application of a screw and an air backflow prevention device inside the discharge tank of the liquid outlet, as a liquid circulator equipped with multiple liquid circulators to increase the liquid flow rate.

[0044] FIG. 4 is an assembly drawing applying a combined liquid circulation interlocking water turbine,

[0045] This is an assembly drawing of an example composite liquid circulation system that incorporates multiple liquid circulation units to increase the liquid flow rate, with a permeable water turbine applied inside the outlet tank of the liquid outlet.

[0046] FIG. 5 is an upper assembly drawing of the liquid inlet and liquid outlet,

[0047] This is an assembly drawing illustrating the upper part of the liquid inlet and outlet sections, depicting the components of the upper part of the inlet and outlet sections of a liquid circulator.

[0048] FIG. 6 is an assembly drawing with an inlet pump and a variable speed rotary connection applied,

[0049] This is a drawing illustrating the application of a variable speed rotary connection, wherein the rotational force of the screw shaft resulting from the rotation of a screw embedded inside the inlet pump and outlet tank sections at the liquid inlet and outlet sections of a liquid circulator is connected to the inlet pump shaft of the liquid inlet section via a transmission and a rotary connection, thereby transmitting the force as the driving force of the inlet pump.

[0050] FIG. 7 is an assembly drawing showing a screw applied inside a multi-stage discharge tank,

[0051] This is an assembly drawing illustrating a cross-section of a multi-stage discharge tank and a screw applied inside the multi-stage discharge tank of a liquid circulator.

[0052] FIG. 8 is a screw assembly drawing,

[0053] This is a drawing illustrating a screw embedded inside the discharge tank of a liquid circulator.

[0054] FIG. 9 is a drawing of a liquid vortex preventer,

[0055] This is an assembly drawing illustrating a liquid vortex preventer derived to prevent rotational vortex of the liquid caused by the twist angle of the screw when the liquid flows through the screw embedded inside the outlet tank of a liquid circulator.

[0056] FIG. 10 is an assembly drawing showing the cross-sectional application of an interlocking water turbine inherent in the outflow tank section,

[0057] This is an assembly drawing illustrating a cross-section in which a perforated water turbine is applied inside the outflow tank of a liquid circulator.

[0058] FIG. 11 is an application cross-sectional view of an inlet pump configured with a pump flow rate increase passage,

[0059] This is a drawing illustrating a cross-sectional view of a single-suction pump and a double-suction pump designed to maximize the efficiency of the driving motor by configuring a pump flow rate increasing passage so that, when the driving motor drives the inlet pump, the liquid flow rate is increased so that when the liquid flow rate is generated through the impeller of the inlet pump, the liquid flow rate is drawn into the inlet port and moved to the outlet port by the force of the liquid flow rate, thereby increasing the flow rate when the inlet pump is driven, the liquid flow rate can be moved not only through the pump impeller but also by configuring the pump flow rate increasing passage so that the liquid flow rate can be moved.

[0060] FIG. 12 is an assembly drawing of a multi-stage outflow tank application for an outflow tank section,

[0061] This is an assembly drawing illustrating the application of a multi-stage discharge tank assembly, which is configured to increase the liquid flow and volume of a liquid circulator by providing multiple multi-stage discharge tanks to increase the flow rate flowing in the discharge tank section of the liquid circulator.

[0062] FIG. 13 is an assembly drawing of a liquid circulation water wheel application,

[0063] This is an assembly drawing illustrating an example of a liquid circulation turbine designed to derive rotational force by configuring a turbine using the flow rate and head difference of the liquid flowing out of the circulator.

[0064] FIG. 14 is an assembly drawing of a liquid-circulating water turbine generator application,

[0065] This is an assembly drawing illustrating an example of a liquid-circulating turbine generator designed to generate electricity by configuring a generator on the turbine of a liquid-circulating turbine, utilizing the flow rate of the outflowing liquid and the downward force of the flow to rotate the turbine, and using the rotation of the turbine to rotate the generator.

[0066] FIG. 15 is an assembly drawing of a liquid-circulating water turbine generator transmission application,

[0067] This is an assembly drawing illustrating an example of a liquid-circulating water turbine generator, in which a transmission is connected to the turbine to increase the generator's rotation speed by varying the turbine's rotation when the rotation is at a low speed.

[0068] FIG. 16 is an assembly drawing of a liquid circulation turbine generator in which a turbine is applied to a plurality of liquid circulators,

[0069] This is an assembly drawing illustrating an example of a liquid-circulating water turbine generator equipped with multiple liquid circulators. The generator is configured to increase the outflow rate by equipping multiple liquid circulators to increase the power generation capacity, thereby increasing the rotational force of the turbine and ultimately increasing the generator's power generation capacity.

[0070] FIG. 17 is an assembly drawing of a liquid-circulating water turbine generator with a transmission applied to a water turbine with multiple liquid circulators,

[0071] This is an assembly drawing illustrating an example of a liquid-circulating water turbine generator with multiple liquid-circulating water turbines equipped with multiple liquid circulators to increase the power generation capacity, wherein a transmission is connected to the turbine of the liquid-circulating water turbine generator to increase the rotational force of the turbine, thereby deriving an increase in the rotational force of the generator.

[0072] FIG. 18 is an assembly drawing of a large generator with multiple liquid-circulating turbines,

[0073] This is an assembly drawing illustrating a large generator equipped with a composite liquid circulation turbine generator, wherein a liquid circulation turbine is provided with multiple liquid circulation turbines to increase the liquid flow rate of the liquid circulation turbine, and a turbine shaft equipped with multiple liquid circulation turbines is connected to the long shaft of a large generator to increase the rotational force of the large generator.

[0074] FIG. 19 is an assembly drawing of a large generator with a transmission applied to a plurality of liquid-circulating water turbines,

[0075] This is an assembly drawing illustrating a large generator that applies a composite liquid circulation turbine generator, wherein a transmission is configured to be connected to the turbine to increase the rotation of the turbine of the liquid circulation turbine of Fig. 18, thereby increasing the rotation of the liquid circulation turbine, and a plurality of liquid circulation turbines are provided, and the rotation shaft of the transmission connected to the turbine shaft is connected to the long shaft of the large generator to increase the rotation of the large generator.

[0076] The content of the best mode for carrying out the invention is described as in the content of the mode for carrying out the invention item.

[0077] To specifically explain the best mode for carrying out the invention and the contents of the components of the mode for carrying out the invention,

[0078] A liquid circulator configured to continuously move and circulate a liquid to a position having a certain height, a liquid circulation turbine configured by applying the liquid circulator, and an embodiment configured to suit the application of a liquid circulation turbine generator configured by applying the liquid circulation turbine,

[0079] As the first step of the present invention, the liquid circulator is configured to move and circulate liquid to a certain height, and the liquid from the sea, river, reservoir, etc. is configured such that the lower liquid reservoir (10) is not confined to a certain size reservoir or is confined to a certain size reservoir, and the liquid is introduced through the liquid inlet pipe (12) by the suction force of the inlet pump (15) by the driving motor (16), and the internal air outlet (14) is configured with an air shut-off valve that can discharge internal air and block the inflow of external air at the top of the liquid inlet (A), so that when the liquid is injected, the internal air of the liquid inlet (A) and the liquid outlet (B) is discharged.

[0080] In the further configuration of the liquid inlet section (A) of the liquid circulator, when the flow rate is small, the liquid inflow is smooth with only the function of the inlet pump (15), but when the flow rate of the liquid circulator is large and the height of the inlet pump (15) is high, an initial liquid inflow function is required by configuring an initial liquid injection section (13) which includes an initial inlet pipe configured separately from the liquid inlet section pipe (12), an initial inlet pump (18) that includes a liquid backflow prevention function, and an initial liquid inlet port.

[0081] Next, a liquid backflow prevention valve (11) is configured at the bottom of the liquid inlet (A) to prevent the liquid injected into the liquid inlet (A) from flowing back into the lower liquid reservoir (10) when the liquid is injected into the initial liquid injection part (13).

[0082] Thus, the liquid inlet (A) is configured with a basic liquid inlet (A) and an initial liquid injection part (13) further included.

[0083] The liquid outlet (B) connected to the liquid inlet (A) is configured with an outlet tank assembly (22), an outlet tank (30), an outlet tank assembly (22), and an air backflow prevention part (34), and is assembled with a liquid outlet valve (21) and a liquid outlet pipe (20) to form a liquid outlet (B) that circulates to the lower liquid reservoir (10).

[0084] When the liquid introduced from the liquid inlet section (A) flows through the outlet tank section (30), it passes through the screw (33) and creates a force that rotates the screw (33). The rotational force of the screw (33) within the outlet tank section (30) is configured to be used as a force that rotates the liquid inlet pump (15) through a rotational connection section (17) in which a transmission connected to the shaft of the inlet pump (15) is combined with a rotational connection section (17) that includes a screw shaft (36) containing a waterproofing device.

[0085] The liquid flow in the liquid outlet section (B) is configured such that the liquid flow is formed by assembling the liquid outlet section assembly (22), the liquid outlet section (30), the liquid outlet section assembly (22), the air backflow prevention section (34), the liquid outlet valve (21), and the liquid outlet pipe (20), and the liquid is circulated through the liquid outlet pipe (20) to the lower liquid reservoir (10) to enable continuous circulation of the liquid, and the liquid outlet valve (21) controls the flow of the liquid flowing in the liquid outlet section (B).

[0086] The lower part of the outflow tank section (30) is configured to form an air inflow prevention section (34), and a U-trap structure is formed as shown in the cross-sectional drawing (35) of the air inflow prevention section to block air from entering the outflow tank section (30).

[0087] In order to increase the flow rate of the liquid circulating to the liquid inlet (A) and the liquid outlet (B), the liquid inlet (A) and the liquid outlet (B) are fixed at a certain height required for the liquid flow rate, and the liquid outlet is configured to perform the liquid outlet function.

[0088] The discharge tank section (30) is configured by incorporating a screw (33) to match the volume of the discharge tank section (30), and to facilitate the assembly of the discharge tank section (30) and increase the flow rate of the liquid, a multi-stage discharge tank (31) is configured with a screw (33) connected in a single axis, and a liquid vortex preventer (32) is configured to fix the discharge tank section (30) as a multi-stage discharge tank assembly (37).

[0089] As the liquid flowing through the discharge tank (30) passes through the screw (33), a rotational vortex is generated, and the rotational force of the screw (33) is reduced due to the rotational vortex.

[0090] At this time, in order to prevent the liquid rotational vortex that occurs, the multi-stage discharge tank (31) and the liquid vortex preventer (32) are fixed to the multi-stage discharge tank assembly (37) to reduce the rotational vortex of the discharged liquid and to configure the liquid to increase the rotational force, flow rate, and vertical drop force of the screw (33).

[0091] The first stage, the liquid circulator, is configured with the above configuration.

[0092] In order to increase the flow rate when the inlet pump (15) of the liquid inlet section (A) of the liquid circulator is driven, when the drive motor (16) is driven and the liquid flow rate is generated through the impeller of the inlet pump (15), the liquid flow rate is drawn into the inlet and moved to the outlet by the force of the liquid flow rate, thereby forming a pump flow rate increase passage (19) so that the liquid flow rate can be moved to the outlet without passing through the impeller of the inlet pump (15), thereby configuring the inlet pump (15) that has a pump flow rate increase passage (19) so that the liquid flow rate can be moved not only through the pump impeller, but also by maximizing the efficiency of the drive motor and increasing the volume of the outlet tank section (30) so that the flow rate of the liquid flowing through the pump flow rate increase passage (19) is increased.

[0093] Next, the liquid movement action by the screw (33) contained within the discharge tank (30) creates rotational force, and the function of the twisting blades installed in an even distribution on the screw (33) causes the liquid flowing into the discharge tank (30) to move evenly from the top to the bottom. Unlike when there is no screw (33) and the internal liquid movement of the discharge tank (30) moves vertically in a partial cross-sectional volume, the liquid inside the discharge tank (30) containing the screw (33) causes the physical action of the liquid to move evenly downward in rotation and the entire volume.

[0094] Next, the first step involves creating rotational force from the flow of liquid flowing in from the liquid inlet (A) inside the outlet tank (30) of the liquid outlet (B) of the liquid circulator. The outlet tank (30) of the liquid outlet (B), which is connected to the liquid inlet (A), is configured to contain an interlocking water wheel (42) capable of continuous rotation. The interlocking water wheel (42) is configured such that a plurality of interlocking water wheel blades (43), formed to hold more liquid than the liquid inlet (A), are connected to a rotational connection part (44). The rotational connection part (44) to which the interlocking water wheel (42) is connected is configured to rotate continuously using the upper rotating body (45) and the lower rotating body (46) as rotation points. The horizontal length of the interlocking water wheel blades (43) is made long to a certain size, and the vertical length is configured in multiples so that the liquid flows in from the liquid inlet (A) and moves from the upper side to the lower side of the outlet tank (30). A liquid circulator is configured such that a connecting part (44) is formed to rotate the inlet pump (15) through the inlet pump shaft (47) using the rotational force of the liquid flow rate to rotate the inlet pump shaft (47), and a transmission rotation connecting part (17) connected to the inlet pump shaft (15) is configured to rotate the liquid inlet pump (15). A liquid outlet valve (21) is further formed to control the flow of liquid in the outlet tank (30) to form a liquid outlet part (B). The liquid inlet part (A) and the liquid outlet part (B) are fixed at a height where the flow rate is required, and the liquid outlet part (B) is configured such that the liquid discharged through the liquid outlet pipe (20) can move to the lower liquid reservoir (10), thereby allowing the liquid in the lower liquid reservoir (10) to circulate continuously.

[0095] The screw (33) and the interlocking water wheel (42) configured inside the discharge tank (30) of the liquid circulator are designed and configured to maximize the recovery of the liquid flow rate and the drop force of the flow rate generated by the inlet pump (15) using electric energy, and to use this as rotational force to drive the inlet pump (15).

[0096] Additionally, the rotational force generated by the screw (33) and the interlocking water wheel (42) of the discharge tank section (30) increases the rotational force that rotates the inlet pump (15). This increase in rotational force is achieved by increasing the flow rate according to the volume of the discharge tank section (30) of the liquid discharge section (B) compared to the flow rate of the liquid inlet section (A). Consequently, the rotational force that rotates the screw (33) and the interlocking water wheel (42) increases due to the drop movement caused by the flow of the liquid, thereby becoming the rotational force that rotates the inlet pump (15).

[0097] In the next step, the liquid inlet (A) and the liquid outlet (B) are fixed at a required height, and a water wheel (40) is configured at the bottom of the liquid outlet pipe (20) of the liquid outlet (B) of the liquid circulator, and a liquid circulation water wheel is configured with a water wheel liquid transfer pipe (25) and a lower liquid reservoir (10).

[0098] Thus, a liquid circulation water wheel is configured such that the liquid flowing out through the liquid outlet pipe (20) of the liquid outlet section (B) is used as a force to rotate the water wheel (40), and the liquid passing through the water wheel (40) is discharged to the lower liquid reservoir (10) through the water wheel liquid transfer pipe (25).

[0099] In order to increase the outflow rate of the liquid in the liquid circulator, an upper liquid tank (23) is configured at the bottom of the liquid outlet pipe (20) of the liquid outlet section (B), and a plurality of liquid inlet section (A), liquid outlet section (B), and liquid outlet pipe (20) are provided so that the liquid discharged from the liquid outlet pipe (20) can be stored in the upper liquid tank (23), thereby increasing the flow rate in the upper liquid tank (23) and allowing it to be discharged to the lower liquid reservoir (10) through the tank liquid outlet pipe (24), thus increasing the outflow rate of the liquid circulator.

[0100] In the next step, a liquid circulation turbine generator capable of producing electricity is configured by configuring a generator (50) connected to a shaft and a turbine (40) of the liquid circulation turbine.

[0101] The liquid flowing out of the liquid outlet pipe (20) of the liquid outlet section (B) rotates the water turbine (40), and the rotational force of the water turbine (40) rotates the generator (50) to produce electricity, and the produced electricity is used for necessary elements.

[0102] In the next step, when the rotation of the generator (50) of the liquid circulation water turbine generator is at a low speed, a water turbine transmission (41) is configured to be connected to the water turbine (40) to increase the rotation of the generator (50).

[0103] In the next step, a battery (51) is configured to store electricity produced by a liquid-circulating water turbine generator, and the electricity stored in the battery (51) and the electricity produced by the liquid-circulating water turbine generator are configured to be used as power required to drive and start the power system.

[0104] In order to increase the power generation capacity of the liquid circulation turbine generator, a plurality of liquid inlet (A), liquid outlet (B), and liquid outlet pipes (20) of the liquid circulation generator are provided so that the liquid discharged from the liquid outlet pipes (20) can be stored in the upper liquid tank (23), and a plurality of composite liquid circulation turbine generators (60) are provided so that the flow rate of the upper liquid tank (23) is increased and the flow rate discharged to the tank liquid outlet pipes (24) is configured to rotate the turbine (40), and the rotational force of the turbine (40) shafts of the plurality of composite liquid circulation turbine generators (60) is individually connected to the large generator shaft (53) connected to the large generator (52), thereby increasing the rotational force of the large generator shaft (53) and increasing the electricity produced by the large generator (52), so that the power generation equipment of the large power plant is configured to increase the power generation capacity of the liquid circulation turbine generator.

[0105] In order to increase the low-speed rotation of the turbine (40) when the rotation of the turbine (40) installed in the liquid circulation turbine generator and liquid circulation turbine generator is low speed, a transmission (41) is configured on the shaft of the turbine (40) to increase the low-speed rotation of the turbine (40) of the liquid circulation turbine generator and liquid circulation turbine generator.

[0106] In the next step, a battery (51) is configured to charge electricity produced by a liquid circulation water turbine generator, and the battery (51) is charged with electricity produced by the liquid circulation water turbine generator. The charged electricity of the battery (51) and the electricity produced by the liquid circulation water turbine generator are used to power a means of transportation that is driven by electricity, such as a vehicle, train, etc., which is used as electric power on land, and which drives wheels and has a steering device.

[0107] It is configured to be used as the power required for operation, such as for WIG ships, ships, submarines, offshore plants, etc., which are used with electric power in the sea, by driving propellers and screws with power generated using electricity.

[0108] A liquid-circulating water turbine generator is configured to drive propellers using power generated by electricity, such as in manned and unmanned aircraft used in the sky, and to be used as the power required for operation, and is designed to be suitable for each component.

[0109] In a configuration where a battery is used to charge the electricity produced by the above-mentioned liquid-circulating water turbine generator, if only the power from the charged battery is used, the usage time of the charged electricity is limited due to the battery's charging capacity.

[0110] In this case, if the electricity produced by the liquid-circulating hydroelectric generator and the charging electricity from the battery are used together, conditions are created to extend the usage time of the electricity in the product containing the liquid-circulating hydroelectric generator and the battery.

[0111] As described in the specific description for implementing the above invention, the components of the liquid circulator, liquid circulating turbine, and liquid circulating turbine generator are linked to be mutually compatible and designed and manufactured to suit each component, thereby creating a flow of water within the discharge tank by inputting 100 units of energy when driving the initial inflow motor that drives the inflow pump, and at this time, the rotational force of the screw or interlocking turbine inherent in the discharge tank is configured to drive the inflow motor using a variable speed rotation connection to recover 80 units or more of energy and supply it back to the inflow pump, so that the input energy of the inflow motor becomes 20 units or less during continuous operation of the pump.

[0112] At this time, the flow rate of the liquid passing through the discharge tank and the energy of the flow rate drive a turbine and a generator through the turbine to generate electrical energy, thereby enabling the generation of more than 80% energy. This technology produces carbon-free, eco-friendly electricity without restrictions on installation and usage locations.

[0113] In the specific details for implementing the present invention, while describing the liquid circulator, liquid circulating turbine, and liquid circulating turbine generator, the attached drawings are provided as examples, and the description of the basic materials and parts required and imposed, such as the physical action phenomena of the liquid, the coupling parts, waterproofing parts, flow meters, generator-related materials, measuring instruments, etc., necessary for the liquid piping and power generation facilities, has been omitted.

[0114] The liquid circulator, liquid circulating turbine, and liquid circulating turbine generator of the present invention are structurally different from conventional methods of utilizing liquid (water) to move and circulate the liquid to a certain height. By introducing and discharging liquid and moving the flow rate of the discharged liquid to a height, the liquid circulator can be utilized for various water resource management purposes. Furthermore, by configuring the liquid circulating turbine and the liquid circulating turbine generator to continuously circulate the discharged liquid flow rate to a height, the discharged flow rate and the difference in head are utilized to rotate a turbine. This rotational force of the turbine then rotates a generator, thereby producing carbon-free, eco-friendly electricity. The system has minimal restrictions on installation locations and can generate and use electricity in daily life, industrial settings, large power plants, and other places requiring electricity. Additionally, by incorporating a battery to be used in conjunction with the electricity generated by the liquid circulating turbine generator, the usage time can be extended. Consequently, it can be used as a power source for various products that operate and start using electricity on land, sea, or in the air. In particular, it possesses industrial applicability by enabling the production and use of carbon-free, eco-friendly electricity.

[0115] Explaining the symbols in the drawing of the present invention, which describes a liquid that moves and circulates a liquid to a certain height position, the liquid circulator that receives and discharges the liquid, the liquid circulating turbine that rotates a water turbine using the discharged liquid, and the liquid circulating turbine generator that rotates a generator using the rotational force of the turbine of the liquid circulating turbine to produce electricity from the generator,

[0116] A: Liquid inlet. B: Liquid outlet. 10: Lower liquid reservoir. 11: Liquid backflow prevention valve. 12: Liquid inlet piping. 13: Initial liquid injection section. 14: Internal air outlet. 15: Inlet pump. 16: Drive motor. 17: Variable speed rotary connection. 18: Initial liquid inlet pump. 19: Pump flow rate increase passage. 20: Liquid outlet piping. 21: Liquid outlet valve. 22: Outlet tank assembly. 23: Upper liquid tank. 24: Tank liquid outlet piping. 25: Water turbine liquid transfer piping. 30: Outlet tank section. 31: Multi-stage outlet tank. 32: Liquid vortex preventer. 33: Screw. 34: Air backflow prevention section. 35: Air backflow prevention internal cross-section. 36: Screw shaft. 37: Multi-stage outlet tank assembly. 40: Water turbine. 41: Turbine gearbox. 42: Interlocking turbine, 43: Interlocking turbine blades, 44: Rotating connection, 45: Upper rotor, 46: Lower rotor, 47: Interlocking turbine shaft, 50: Generator. 51: Battery 52: Large generator 53: Large generator shaft 60: Combined liquid-circulating turbine

Claims

1. In raising the lower liquid to an upper position having height and continuously circulating the liquid, Classified into lower liquid reservoir (10), liquid inlet (A), and liquid outlet (B) stages, The lower liquid reservoir (10) stage is configured such that the liquid is not limited to a certain size, such as a sea, river, reservoir, etc., or the lower liquid reservoir (10) is configured to hold liquid, and The liquid inlet section (A) stage is configured such that the liquid in the lower liquid reservoir (10) can be introduced to the upper part through the liquid inlet section pipe (12) by an inlet pump (15) including a drive motor (16), and the internal air outlet section (14) including an air shut-off valve that can discharge internal air and block the inflow of external air is configured in the liquid inlet section pipe (12) at the upper part of the circulator, thereby enabling the liquid inlet section (A) to be introduced from the lower liquid reservoir (10). The liquid outflow section (B) stage is as follows: An outflow tank section (30) is configured to be connected to a liquid inlet section (A) and capable of holding a larger volume of liquid than the liquid inlet section (A). A screw (33) is configured so that a screw shaft (36) can rotate up and down inside the outflow tank section (30). A transmission rotation connection section (17) is configured to rotate the liquid inlet pump (15) by connecting the rotational force of the screw (33), which is created as liquid flows through the screw (33) embedded in the outflow tank section (30), to a transmission connected to the inlet pump (15) shaft via a screw shaft (36) including a waterproofing device and a rotation connection section. An air backflow prevention section (34) is configured to have a U-trap structure, which is an internal cross-section (35) for preventing air backflow, so that air does not enter the outflow tank section (30). A liquid outlet valve (21) is configured at the bottom of the air backflow prevention section (34) to control the flow of liquid, so that the liquid discharged through the liquid outlet pipe (20) is lower liquid A liquid outlet (B) configured to be able to move to a reservoir (10). A liquid circulator characterized by the fact that the height of the liquid inlet (A) and the liquid outlet (B) can create a drop force that rotates a screw (33) that creates rotational force, and the liquid flowing out forms a liquid outlet pipe (20) so that the liquid in the lower liquid reservoir (10) can continuously circulate through the function of the components of the liquid inlet (A) and the liquid outlet (B).

2. In the liquid outflow portion (B) of paragraph 1, The configuration of the discharge tank section (30) of the liquid outlet section (B) connected to the liquid inlet section (A); The interior of the outflow tank (30) is configured with a connected water wheel (42) capable of continuous rotational action by the weight of the inflowing liquid, and The configuration of the interlocking water wheel (42) is such that the interlocking water wheel blades (43), which have a structure shape capable of holding liquid and are formed with a horizontal length of a certain size, are configured in multiple vertically on the rotating connection part (44) to allow for holding more liquid flow than the liquid inlet part (A). The rotating connection part (44) to which the interlocking water wheel (42) is connected is configured to continuously rotate the upper rotating body (45) and the lower rotating body (46) around the axis of rotation, and the rotational force generated by the rotation of the rotating connection part (44) due to the weight force of the flow rate moving from the upper side to the lower side of the discharge tank part (30) as liquid flows in is configured to rotate the interlocking water wheel axis (47). A liquid circulation device characterized by the liquid outlet section (B) having an outlet tank section (30) configured such that liquid is introduced into the liquid outlet section (B), and the rotational force generated by the rotation of the rotational connection section (44) by the weight force of the flow rate moving from the upper side to the lower side of the outlet tank section (30) causes the interlocking water wheel shaft (47) to rotate, thereby transmitting the rotational force to the inlet pump (15) of the liquid inlet section through the transmission rotational connection section (17) connected to the transmission connected to the inlet pump (15) shaft.

3. In Paragraphs 1 and 2, In order to prevent liquid flowing into the liquid inlet (A) of the liquid circulator from flowing back into the lower liquid reservoir (10), a liquid backflow prevention valve (11) is configured at the bottom of the liquid inlet (A). An initial liquid injection pump (18) including a liquid backflow prevention function that can introduce liquid into the liquid inlet section (A) before driving the inflow pump (15), and an initial liquid injection section (13) including an initial liquid inlet pipe and an initial liquid inlet port are configured. A liquid circulator characterized by being configured to allow liquid to flow into the interior of the liquid circulator.

4. In Paragraph 1, A multi-stage discharge tank (31) is configured with a screw (33) that is connected along a single axis to increase the liquid flow rate and velocity of the liquid discharge tank (30) of the liquid circulator discharge tank (B) and to facilitate the manufacturing and assembly of the discharge tank (30). In order to prevent a rotating vortex, which is the flow of internal liquid in the discharge tank section (30), a screw (33) and a liquid vortex preventer (32) with a different rotation angle are configured between the multi-stage discharge tanks (31) of the discharge tank section (30), and The multi-stage discharge tank assembly (37) is configured such that multiple individual multi-stage discharge tanks (31) are assembled to meet the required flow rate and velocity. A liquid circulator characterized by the liquid in the discharge tank (30) being configured to increase the rotational force of the screw (33), the flow rate of the liquid, and the drop force of the flow rate.

5. A liquid circulator characterized by configuring an inlet pump (15) having a pump flow rate increasing passage (19) such that, when the drive motor (16) is driven, the liquid flow rate of the liquid flow rate is increased by the drive of the inlet pump (15) and the liquid flow rate of the liquid flow rate is increased by the force of the liquid flow rate, so that the liquid flow rate is sucked into the inlet and moved to the outlet without passing through the impeller of the inlet pump (15).

6. In order to increase the flow rate of the liquid flowing out from the liquid outlet (B) of the liquid circulator; an upper liquid tank (23) is configured at the lower part of the liquid outlet pipe (20) of the liquid outlet (B), and A plurality of liquid circulators are provided, each consisting of a liquid inlet (A), a liquid outlet (B), and a liquid outlet pipe (20), and an upper liquid tank (23) is configured to store the liquid discharged from the liquid outlet pipe (20). A liquid circulation device characterized by the upper liquid tank (23) being configured to have a height at which a large drop force is generated at a position higher than the water wheel (40), thereby increasing the flow rate and drop height so that the liquid flows out to the lower liquid reservoir (10) through the liquid tank outflow pipe (24).

7. In order to utilize the flow rate and the force of the drop in flow rate flowing out of the liquid circulator as rotational force; a water wheel (40) is configured at the lower part of the liquid outlet pipe (20) of the liquid circulator, and A liquid circulation water wheel characterized by being configured to rotate the water wheel (40) using the flow rate and the downward force of the flow rate, so that the liquid that rotates the water wheel (40) flows out to the lower liquid reservoir (10) through the water wheel liquid transfer pipe (25).

8. In order to increase the flow rate and rotational force of the water turbine (40) required for the rotation of the water turbine (40) of the liquid circulation water turbine; an upper liquid tank (23) is configured above the flow rate inlet of the water turbine (40) of the liquid circulation water turbine, and A plurality of liquid circulators are provided, each consisting of a liquid inlet (A), a liquid outlet (B), and a liquid outlet pipe (20), and an upper liquid tank (23) is configured to store the liquid discharged from the liquid outlet pipe (20). A water wheel (40) is configured to increase the flow rate in the upper liquid tank (23) and rotate the flow rate to the liquid tank outlet pipe (24). A liquid circulation water wheel characterized by the fact that the liquid that causes the water wheel (40) to rotate flows out to the lower liquid reservoir (10) through the water wheel liquid transfer pipe (25) to increase the rotational force of the water wheel (40).

9. In order to produce electricity using the rotational force of the turbine (40) of the liquid circulation turbine; a generator (50) is configured to rotate the internal rotor of the generator by connecting it to the turbine (40) of the liquid circulation turbine, A liquid circulation water turbine generator characterized by using the rotational force of the water turbine (40) of the liquid circulation water turbine to rotate the internal rotor of the generator (50) to generate electricity.

10. In order to increase the electricity produced by the liquid circulation turbine generator; a plurality of liquid circulators are provided, each consisting of a liquid inlet (A), a liquid outlet (B), and a liquid outlet pipe (20), and a liquid tank (23) is configured above the flow rate inlet of the turbine (40) so that the liquid discharged from the liquid outlet pipe (20) can be stored. A generator (50) is configured to increase the rotational force of a water turbine (40) by increasing the flow rate in the upper liquid tank (23) and using the flow rate flowing out through the tank liquid outflow pipe (24), thereby increasing the rotational force of the internal rotor of the generator. A liquid circulation turbine generator characterized by a lower liquid reservoir (10) through which the liquid that rotates the turbine (40) is moved through the turbine liquid transfer pipe (25), thereby increasing the electricity produced by the liquid circulation turbine generator.

11. In order to increase the low-speed rotation of the turbine (40) in the liquid-circulating water turbine generator; a transmission (41) is configured to be connected to the turbine of the liquid-circulating water turbine generator and the internal rotor of the generator, A liquid circulation water turbine generator characterized by being configured to increase the rotation of the internal rotor of the generator (50) of the liquid circulation water turbine generator.

12. In order to increase the power generation capacity of a liquid-circulating water turbine generator; a plurality of liquid circulators are provided, each consisting of a liquid inlet (A), a liquid outlet (B), and a liquid outlet pipe (20), and an upper liquid tank (23) is configured so that the liquid discharged from the liquid outlet pipe (20) can be stored, and A composite liquid circulation water wheel (60) is configured with a plurality of units having a structure that increases the flow rate of the upper liquid tank (23) to cause the water wheel (40) to rotate the flow rate flowing out through the tank liquid outflow pipe (24). A large generator (52) is configured such that the turbine shaft is individually connected to the large generator shaft (53) to transmit the rotational force of the turbine (40) of the complex liquid circulation turbine (60). A liquid-circulating water turbine generator characterized by being configured to increase the rotational force of the large generator shaft (53) to increase the electricity produced by the large generator (52), and configured as a power generation facility of a large power plant.

13. In order to increase the low-speed rotation of the turbine (60) of the composite liquid circulation turbine of claim 12; a transmission (41) is configured on the shaft of the turbine (40) of the composite liquid circulation turbine (60), A liquid circulation turbine generator characterized by the rotational force of the turbine (40) of the complex liquid circulation turbine (60) being connected to the large generator shaft (53) to increase the rotation of the large generator shaft (53) and thereby increase the rotation of the large generator (52).

14. In use as electric power on land; a battery (51) for charging electricity produced by a liquid-circulating water turbine generator is configured, A liquid circulation water turbine generator characterized by being configured to be used as power for a means of transportation that has a driving system using electricity, such as a vehicle, train, etc., which uses the charged electricity from the liquid circulation water turbine generator to charge a battery (51) and the electricity produced from the liquid circulation water turbine generator, and which drives the wheels and has a steering device using the power generated by the electricity.

15. In the case of using electric power in the sea; a battery (51) for charging electricity produced by a liquid-circulating water turbine generator is configured, A liquid circulation water turbine generator characterized by being configured to charge a battery (51) with electricity produced by the liquid circulation water turbine generator, and to drive a propeller and screw using the power generated by electricity, such as in a wing-in-ground effect vehicle, ship, submarine, or offshore plant, which uses the electricity charged in the battery (51) and the electricity produced by the liquid circulation water turbine generator, and to be used as the power required for operation power.

16. From the use of electric power from the sky; a battery (51) for charging electricity produced by a liquid-circulating water turbine generator is configured, A liquid circulation water turbine generator characterized by being configured to charge a battery (51) with electricity produced by the liquid circulation water turbine generator, and to drive a propeller using the power generated by electricity, such as in a manned or unmanned aircraft that uses the charged electricity from the battery (51) and the electricity produced by the liquid circulation water turbine generator, and to be used as the power required for operation power.

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