JP2021143669A - Pumping-type hydraulic pressure power generation structure aimed at control of tropical cyclone such as typhoon and integrated operation method - Google Patents

Abstract

To control a tropical cyclone such as a typhoon, in which a pumping-type hydraulic pressure power generation structure configured by an underwater submarine type hydraulic pressure power generation body and an overwater ship type buoyant body introduces depth water area high pressure low-temperature water in the hydraulic pressure power generation body in a state of the reduced pressure, and the vicinity of a center of the tropical cyclone is cooled by the pumping using the electricity, and the injection and spraying of low-temperature water with a propulsion system in the navigation of the ship type buoyant body, and thereby development is inhibited by damping and weakening the cyclone and a major disaster is prevented.SOLUTION: A submarine type pumping hydraulic pressure power generation body is arranged in the ocean. Low temperature high-pressure water is taken from a water intake arranged in a depth water area, and is sucked up by a siphon system and introduced into a decompression space of the hydraulic pressure power generation body through multiple water intake inlet ports. Thereby, high electric power is obtained by multiple turbine power generation. The low-temperature water after the power generation is pumped up in an overwater ship type buoyant body. In navigation along with progress of the tropical cyclone, the low-temperature water is injected and released by an injection propulsion machine and a sea surface is cooled, and is sprayed to a space by a water discharge pump on the buoyant body and the space is cooled. A central part side of the tropical cyclone in progress is widely cooled by a combination of multiple buoyant bodies, and thereby the disaster is prevented by damping.SELECTED DRAWING: Figure 1

Description

In order to prevent the enormous tropical low pressure such as typhoons, the intake is arranged from the submersible pumped storage hydroelectric power generator to the deep ocean water area, and high pressure low temperature water is pumped to generate hydraulic power generation. It is a method of pumping water to the water and cooling the sea level above and below the center of the tropical low pressure by discharging and spraying low temperature water.

Stable low-temperature water of 5 to 9 degrees Celsius exists in the deep waters of the ocean, and it is inexhaustible for controlling tropical low pressure by mixing it with high-temperature water of 25 to 30 degrees Celsius or higher on the surface of the ocean to lower the temperature. Although it is effective to pump a large amount of deep sea water to the surface of the ocean and release it, there is no effective method in the existing technology due to problems of economic efficiency and practicality.

A pumping-type hydraulic power generation structure for low pressure control is placed in the advancing water area of the tropical low pressure, and an intake is placed in the deep ocean water area extending from the submersible hydraulic power generation body connected to the ship-type buoyancy body on the water. High-pressure low-temperature water is introduced, and a large amount of water is pumped onto the water by the generated power of hydraulic power generation. Cooling.

Since the amount of pumped water to cool a large part of the ocean surface is enormous, and the amount of power input required to pump deep-sea low-temperature water at the pumping facility is also enormous, local power generation using fossil fuels is problematic in terms of cost and environment. Therefore, cheap pumped storage energy of local natural energy is required.

Pumped-storage hydroelectric power generation technology is the most effective way to obtain a large amount of cheap and stable energy required for energy supply to various marine industries, development research activities, and field work in the ocean, and maintenance and operation of facilities and equipment. It is possible to control by cooling the sea surface temperature by spraying a large amount of low-temperature water after power generation on the sea surface before and around the center of the tropical cyclone, which is commonly known as a typhoon, by devising the operation.

Construction of pressure-resistant cavities for pumping and power generation is similar to ship construction, and existing technologies exist for pressure-resistant shells, power generation devices, pumps, water floats, and automatic solenoid valves, and artificial intelligence and robotization are in the process of practical evolution.

Japanese Patent Application Laid-Open No. 2009-2995777 Japanese Patent Application Laid-Open No. 2009-191851

Problems to be solved by the invention

Tropical cyclones such as typhoons and hurricanes occur over the sea in the south, develop rapidly, absorb energy from the warm ocean in the process of moving at an average speed of 20 to 40 km, move with strong winds and heavy rain, and supply energy from the sea after moving north. Disappears with a decrease in. The energy contained, the area affected, the distance traveled, the scale of damage, and the extent of damage are vast, and the conditions for the development, growth prevention, attenuation, and extinction of tropical cyclones are inevitably large, and large structures, equipment, and equipment. And a large number of equipment is a national project issue.

In the ocean, power generation methods such as tidal current, waves, tidal currents, wind power, temperature difference, and water pressure have been put into practical use, developed, and researched, but tropical cyclones such as typhoons move northward after they occur in the southern seas. Due to the rapid development in the process of movement, conventional sources of energy and power generation methods for control use the environment, stable supply, and economy due to fuel supply, power generation environment, uneven distribution of regions, and fluctuations in weather and sea conditions. Efficiency is a problem, and there are many problems in control effect and economic efficiency in combination with power energy supply during movement / navigation of large equipment, ships / structures, and maintenance / inspection at sea.

The most rational method for controlling tropical cyclones such as typhoons is to pump low-temperature water in the deep ocean region and cool the ocean surface to reduce the violence caused by enormous growth. In order to obtain the large amount of power required to pump the water to the surface of the water, it is an issue to move the hydraulic power generator and the pumping / spraying equipment that use the deep high-pressure low-temperature water that exists near infinity, and to construct a navigation method.

In order to control enormous energy phenomena such as tropical cyclones and typhoons, it is necessary to combine several or more facilities on a huge facility scale, or 10 or more facilities on a medium-sized class, according to the scale and situation of large, medium and small tropical cyclones. The issue is the coordination and interlocking of the structures of mobile pumping hydraulic power generation, which is constructed by connecting underwater and water.

Pumping-type hydraulic power generation requires a large amount of pumping to keep the air pressure in the space constant during power generation with the high-pressure water introduced into the internal space due to the pressure difference between the air pressure inside the fuselage and the external deep high-pressure water. The challenge is to build a mobile penstock power generation structure that uses electric power and pumping as power and propulsion.

Large tropical cyclones such as typhoons are mainly concentrated in several months a year when the temperature of ocean water becomes high, and due to idleness in the low temperature period of autumn, winter, and early spring, a pumping type hydraulic power generation structure dedicated to typhoons of large equipment etc. It is an issue to improve cost effectiveness and utilization effect by using it for other purposes such as ocean development and idle time, and to secure economic efficiency.

Tropical cyclones such as typhoons absorb heat energy from the ocean, move northward over the ocean, grow huge, and move long distances from the South Sea, but the eyes of typhoons move normally at an average diameter of 40 to 50 km and an average speed of 20 to 40 km / h. Therefore, it is necessary to continuously cool the sea surface in the direction of travel, and it is necessary to have propulsion equipment with navigation performance higher than the moving speed and an operation method of cooling means in a team configuration.

Means to solve problems

According to the present invention, abnormal weather caused by tropical cyclones such as typhoons that become huge and destructive year by year and temperature differences such as tornadoes that occur on the sea causes enormous damage to human lives and property all over the world. As an effective control method for global disasters, the most effective means is the construction and effective operation / operation method of a dedicated pumping type hydraulic power generation structure for controlling tropical cyclones such as typhoons.

In pumping type hydraulic power generation, an intake is placed in a deep high-pressure low-temperature water area, high-pressure low-pressure water is introduced inside a pressure-resistant air fuselage installed in water, and a siphon type is introduced from the water intake to the inside of a decompressed air fuselage. This is a method in which high-pressure water is sucked and introduced into the penstock of hydraulic power generation and hydraulic turbine power is generated by the pressure difference.

The pumped-storage hydroelectric power generation structure has a pressure-resistant air fuselage placed in the upper water area that is not affected by the sea conditions at sea, and has a submersible double-shell structure to reduce resistance during movement.・ Equipped with equipment such as water discharge spraying device, AI information processing adjustment, GPS function, jet injection propulsion device, etc., the water and water are connected by pumping pipes, pressure control pipes, and power lines, and the connection is maintained and maintained by cables.

Multiple submersible hydraulic power generators are placed underwater, the intake is lowered to a deep water area to utilize high pressure, and the pressure-resistant cavity is placed at the same depth and at the same level on the circumference at equal intervals according to the hydraulic principle. Introduced into pressure-resistant pipes with the same pressure and the same amount of water from the water intake inlet of the above, and high power generation efficiency is obtained by hydraulic power generation linked with multiple machines.

High-pressure high-speed water flow is introduced into the pressure-resistant pipe from multiple intakes of the pressure-resistant cavity, and stable large power is obtained by turbine hydraulic power generation linked with multiple generators with high-pressure jet water into the decompression space inside the air fuselage. The stored water after power generation is pumped up, and a large amount of low-temperature water is used to cool and control the area around the center of the tropical low pressure.

The pressure-resistant cavity is mainly equipped with piping, power generation equipment, pressure control pipes, transmission lines, valves, sensors, etc. in the upper structural space, and the entire lower part is used as a storage space to store the discharged water after power generation and then pump up the center of the air fuselage. It is pumped from a pipe through a zenith through hole by a pump on the water, and low-temperature water is used for cooling the sea and the atmosphere by injecting and discharging a propulsion injection engine for movement and navigation of a ship-type buoyant body on the water and spraying a high-pressure hose.

The stored water in the air fuselage is pumped up at the pump center in the offshore ship-type buoyancy body facility, and a part of the pump discharge water is ejected just below the water surface by the jet injection device of the buoyancy body on the water, and the GPS position function is measured. The speed with the submersible underwater is adjusted by adjusting the ejection, and the mobile navigation is carried out promptly.

When the ship-type buoyant body moves over the ocean, the underwater submersible-type pressure-resistant air fuselage is moored and coupled directly with the ship-type buoyant body by a towing device such as a cable, and sails integrally up and down, and is a support ship according to the movement speed of the typhoon. With the cooperation of, etc., it is possible to continue power generation and pumping work, and to cool continuously for a long time while moving and navigating over the sea.

If tropical cyclones such as typhoons develop and progress faster in the process of moving north, and the moving speed of offshore ship-type buoyants and underwater submersible-type pressure-resistant air fuselage is lower, electric unmanned injection equipment or screw-type assistance A propulsion engine is connected to continue cooling the front of the tropical cyclone and near the center of the typhoon to suppress the drop in pressure near the center of the tropical cyclone and prevent it from becoming huge due to heat absorption from the sea surface.

The main equipment of the internal and external structure and internal equipment of the main body pressure resistant structure is a generator, power generation equipment and pumping equipment, existing technology, equipment and construction method can be used, and because it is similar to ship construction, it is easy to manufacture and model and The mass production effect of continuous construction can be expected to contribute to the heavy industry, shipbuilding, heavy electric industry, etc.

In a pressure-resistant cavity submerged in water, a pump for buoyancy structure equipment is started with the power of the initial support ship on the water, the pump is reversed, and immediately after seawater injection, air is discharged with a vacuum pump to maintain internal decompression and water intake. The valve at the mouth is opened and hydraulic power generation is immediately started by the inflow of deep high-pressure water, and as a self-sufficient power source for the hydraulic power generation structure, the power of each engine of the structure such as pumping and water discharge, space spraying, and propulsion is supplied.

Tropical cyclones are a correction phenomenon of the Earth's atmosphere, and it is difficult to completely eliminate them with conventional technology. Since the center of a tropical cyclone moves with an average diameter of 40 km to 50 km, develops and becomes huge, deep low-temperature water is pumped up and released to reduce the energy absorption from the sea surface by lowering the sea surface temperature near the center, resulting in an updraft. The afferent force in the central part is dampened and relaxed by the decrease in water supply and the increase in atmospheric pressure to prevent enormous growth and facilitate damage reduction and damage countermeasures. In addition, complete extinction has problems due to water supply to land and climate change.

Underwater submersibles and underwater vessel-type buoyants connect the pumping pipe from the underwater pumping pipe to the water pump equipment, and moor the pressure control pipe with a built-in power transmission cable and the cable to protect and maintain it. It is possible to tow with new materials such as tough, flexible and lightweight carbon fiber for pipes, pipes, hoses, etc. in response to the traveling speed of tropical low pressure. Connect the unmanned electric propulsion device to the lower part of the water outlet, and connect it to the towing cable if necessary.

The ship-type buoyancy body is equipped with an intake / exhaust pump, storage battery, pumping water distribution chamber, various hoisting machines, and leder dome, and the outer shell of the submarine has a stern rudder and a bow / stern horizontal rudder. The elliptical spherical intake in the deep water area is equipped with a double grid cover at the inflow port to prevent the inflow of organisms and impurities, and under the GPS and AI processing functions on the water, each of the water and water through the power cable. Unify the equipment and continue navigation.

Tropical cyclones assumed growing grand a sphere of influence around sphere average 40～50Km ² and the cooling range due to diffusion of average speed 20~40km / h per boats to cool the center distance of traveling in the 4～5Km ² It can be covered by running 8 to 10 ships in parallel, but if several ships navigate in front of the central area and pre-cool to expand the cooling range and the navigation speed exceeds the average speed, use navigation such as meandering or crossing. The cooling range and effect can be increased.

The invention's effect

The amount of latent energy of water pressure existing in the ocean, which is about 70% of the earth's surface area, is enormous, and there are various power generation methods in the ocean that seems to be infinite with the amount of water, but pumping type hydraulic power generation produces a large amount of power and the most stable power. Even in natural disasters, it is possible to obtain energy that can control tropical cyclones such as typhoons and hurricanes that cause great damage and loss of human life in each country every year.

The pumping-type hydraulic power generation structure cools the surface of the sea and the surface of the sea with its pumping function, and the pumping capacity of a dedicated pumping-type hydraulic power generation structure for controlling tropical cyclones such as typhoons is on the path of tropical cyclones. And by cooling the sea surface near the front, the force near the center is dampened, the centripetal force is weakened, and the enormous growth is suppressed.

In the present invention, the internal and external structures and internal equipment other than the main body pressure-resistant structure are mainly equipped with a generator, power generation equipment and pumping equipment, existing technology can be used, and since it is similar to the construction of a ship / submarine, it is easy to manufacture. It is highly economical due to the mass production effect of the model and continuous construction.

Tropical cyclones such as typhoons are expected to grow enormous year by year and wind speeds of 60 m or more are expected, and a major disaster is expected along with heavy rain damage. By utilizing the physical phenomena of water pressure, water volume, and low temperature water, stable supply of local natural energy and large amount of power can be achieved with high economic efficiency and cost effectiveness.

Dedicated pumped-storage hydropower generators for tropical cyclone control are used as a proxy power source for periodic inspections of stationary industrial pumped-storage power generation structures due to their power generation capacity and mobile navigation performance outside the period of typhoon occurrence, and extratropical cyclones. It is possible to prevent abnormal weather due to atmospheric pressure and to temporarily arrange emergency power sources in the event of a large-scale disaster.

The pumped-storage hydroelectric power generation structure provides a stable and inexpensive supply of large amounts of electricity 24 hours a year, and puts temperature difference power generation into practical use by utilizing marine resource development, research, resource exploration, pelagic culture, seawater component separation, and mass pumping. It can also be applied to and diverted to the marine industry such as hydrogen and oxygen production by the electrolysis method using generated power.

Pumped-storage hydropower structure diagram Submersible-type pumped-storage hydropower generator and ship-type buoyancy body overall view. Submarine-type penstock power generation diagram A cross-sectional view of a pumped-storage hydroelectric power generation structure and a pressure-resistant air fuselage structure. Ship-type buoyancy body diagram Cross-sectional view of ship-type buoyancy body facility, water pumping equipment, and water discharge equipment. Submersible-type hydraulic power generation structure diagram Hydraulic power generator and deep sea water introduction pipe / intake structure Plan view of pressure-resistant cavity Internal space and simplified plan of pressure-resistant piping and power generation structure Water intake related diagram Lower part of penstock and water intake structure and electric auxiliary propulsion machine Water-coordinated navigation map Central tropical cyclone and ship-type buoyancy body arrangement and navigation

The best form for carrying out the invention

The pumped-storage hydroelectric power generation structure (Fig. 1) is composed of a submersible-type pumped-storage hydroelectric power generator (Fig. 2) in the underwater part and a ship-type buoyancy body diagram (Fig. 3) in the water part, and is a hydraulic power generation body (Fig. 2). A power generation device is built in, and a pump center (27) and an artificial intelligence / GPS position measurement center (36) are installed in the ship-type buoyant body (Fig. 3). The underwater penstock (Fig. 2) is connected by a suspension cable (30a-30b), the pumping introduction pipe (25) is connected to the pumping pump (27), and the power cable (16) is installed inside the pressure control pipe. , The ship-type buoyant body (3) is equipped with injection propulsion (34) and injects pumped water to use it as a propulsive force for navigation.

The submersible pumped-storage hydroelectric power generator (Fig. 2) has a spherical hydroelectric power generation pressure-resistant air fuselage (Fig. 2) inside the elliptical spherical submersible outer shell (1), and the upper part is a pumped-storage hydroelectric power generation structure (Fig. 4). Then, deep high-pressure low-temperature water is introduced from the intake (38) located in the deep water area, and the high pressure installed in the internal pressure-resistant pipe (5a-5d) from the intake inlet (14a-14d) of the submersible power generation inner shell (Fig. 4). After hydraulic power generation (8a-8d) with the injection nozzle (6a-6d), it is stored in the lower part of the air fuselage (24), and the pump (27a) on the water from the pumped storage pipe suction port (15) located near the bottom of the power generator (FIG. 2). The water is pumped by -27b), high-speed water is discharged by a plurality of water discharge nozzles (35a-35j) on the ship, and the sea surface is cooled by the low-temperature water of the jet injection (33) at the stern.

The superstructure (Fig. 4) is centrally equipped with an intake inlet (3a-3d), internal pressure-resistant pipe (5a-5d), power generation equipment (8a-8d), etc. in the space (23), and is slightly below the zenith of the superstructure. Intake inlets (14a-14d) are installed at equal intervals on the concentric circumferences of the same water level and level, and hydraulic power generation (8a-8d) is performed by jetting as a high-pressure high-speed water flow in deep water areas.

Based on the principle of water pressure, an automatic solenoid valve (14a-14d) equipped with an integrated water intake port is installed on the upper side of the water and connected to the internal pressure resistant pipe (5a-5d). High power generation efficiency and large amount of generated power are obtained by interlocking with multiple turbine generators (8a-8d) by the injection water of the direct injection nozzle (6a-6d) to the lower space with high-pressure high-speed water flow.

High-pressure water is introduced from the intake inlet (3a-3f) into the decompression space by pumping the stored water in the substructure space (24), and the storage amount and introduction amount are adjusted to 4 intake inlets & automatic solenoid valves (14a-). 14d) is synchronized to adjust the inflow and pumping amount to the same amount, and the pressure control automatic solenoid valve (17) integrated with the pressure control pipe (16) installed inside is maintained in a depressurized state for 24 hours a year. Stable and highly efficient power generation is possible.

The stored water in the lower space (24) is diverted as jet water for navigation movement of the ship-type buoyant body (Fig. 3) after pumping at the pumping pump facility (27), and is separated by a jet injector (34) installed under the water surface. It is made to spout, and it is used as a propulsion power when moving / navigating by adjusting the spout in conjunction with GPS and artificial intelligence (36).

In order to pump up the stored water in the lower space (24) and keep the space pressure constant in the decompressed state, the artificial intelligence center (36) processes the opening and closing of each intake port & automatic solenoid valve (14a-14d). , The injection nozzle (6a-6d) and the automatic solenoid valve (6a-6d) of the pressure-resistant pipe (5a-5d) of the pressure-resistant cavity (FIG. 2) by increasing or decreasing the pumped amount and the stored amount with the automatic solenoid valve (14) of the pumping pipe (4). By opening and closing 7a to 7d), the power generation output due to the increase or decrease in the jet water pressure and water volume is adjusted and managed under the integration of artificial intelligence (36).

A ship-type buoyant body on water (Fig. 3), a submersible-type pumped-storage hydroelectric power generator (Fig. 2), a pumped-storage introduction pipe (3), and pressure control installed by self-sinking in water of 50 m or more that is not affected by water weather or the environment. -The power transmission line combined pipe (28) is maintained and connected with a cable (30a-30b), the intake pipe is lowered into the deep water area, and the intake (38) is arranged in the deep water area of 500 m to 1 km and higher pressure. Deep high-pressure low-temperature water is sucked and introduced into the penstock (2) to generate turbine power (8a to 8d) by high-speed high-pressure injection.

The hydraulic power generator (Fig. 2) is placed in the upper water area, and the ship-type buoyant body (Fig. 3) on the water surface maintains the synchronized navigation of water and water navigation by measuring the position of the mobile navigation of the GPS / artificial intelligence center (36). Navigation control is integrated and adjusted by the stern rudder (20) of the submersible outer shell (1), the stern horizontal rudder (22), and the stern parallel rudder.

An underwater submersible hull (Fig. 2) and a ship-type buoyant body on the water (Fig. 3) are connected and interlocked to precede a tropical cyclone and cool for a long time by accompanying navigation. It is made of a high-performance material that is tough, flexible, and lightly hydraulically strong, and its vertical movement is suppressed by a cushion function and a cable.

The pumped-storage hydroelectric power generation structure (Fig. 1) has a double structure in water and a water intake is located in a deep water area in search of high pressure and low temperature. Raise.

The central part (47) of a huge tropical cyclone (45) is called an eye and has an average diameter of 40 to 50 km. , The centripetal force and centrifugal force of the eyes are weakened, and the enormous force is controlled by lowering the air pressure around the center and suppressing water vapor.

Move the pumped storage hydraulic power generation structure (Fig. 1) to the required depth point, reversely operate the pumping pump with the on-board storage battery (32), inject water on the water without the power generation cavity (Fig. 2), and place it in the upper water area. All valves except the pumping pipe valve (15) and the pressure control pipe automatic electromagnetic valve (17) are closed and the pump (27) is rotated in the normal direction. All electronic valves are opened at once, deep high-pressure water is sucked and introduced into the air fuselage, hydraulic power is generated, pumped with the generated power, and the internal pressure of the power generation air fuselage (Fig. 2) is adjusted by the pressure control tube valve (17) for initial operation. To start.

W Sea level Wh 50 to 100 m below sea level Upper water area Wi Deep high-pressure low-temperature water area Dw Seabed 1 Submersible outer shell 2 Hydraulic power generation pressure-resistant air fuselage shell 3 Intake introduction pipe 3a-3d
4 Pumping pipe 5 Pressure-resistant internal duct piping 5a-5d
6 High-pressure injection nozzle 6a-6d
7 Injection nozzle automatic solenoid valve 7a-7d
8 High-pressure turbine generator 8a-8d
9 Hydraulic power generation waterproof room 10 Discharged water skirt 10a-10d
11 Upper strut floor 12 Lower strut floor 13 Upper and lower ventilation part in the air fuselage 14 Water intake introduction pipe port Automatic solenoid valve 14a-14d
15 Pumping pipe mouth automatic solenoid valve 16 Atmospheric pressure adjusting pipe 17 Atmospheric pressure adjusting pipe mouth automatic solenoid valve 18 Deep water introduction distribution room 19 Submersible screw 20 Submersible stern rudder 21 Bow parallel rudder 21a-21b
22 Stern parallel rudder 22a-22b
23 Upper structure space 24 Lower structure storage water space 25 Pumping introduction pipe 26 Pumping distribution tank 27 Pumping pump center 28 Electric cable in pressure control pipe 29 Internal pressure control pump 30 Submersible / water connection cable 31 Cable winding adjuster 32 Power storage equipment 33 Submersible Ship electric screw propulsion device 34 Jet injection electric pump 35 High-pressure water discharge spray hose / nozzle 35a-35j
36 AI Information Processing / Control Room 37 Radar / Antenna Dome 38 Intake Port 39 Deep Water Introductory Pipe 40 Deep Water Introductory Pipe Maintenance Cable 41 Detachable Electric Auxiliary Propulsion Device 42 Intake Port Biological / Dust / Contamination Filter 43 Power Cable 44 Intake Port Parallel steering 44a-44b
45 Tropical Cyclone Power Zone 46 Navigation layout of ship-type buoyants within the power zone for cooling Figure 47 Tropical Cyclone Central Zone 48 Tropical Cyclone Center & Typhoon Eye Area Cooling of ship-type buoyants Navigation layout

Claims (8)

In order to control the tropical low pressure that is moving over the sea, a double structure consisting of a ship-type buoyant body on the water and a submersible-type pumping-type hydraulic power generator in the upper water area, and a pumping pipe and a cable are connected for navigation. A deep water introduction pipe is hung from the submersible-type penstock, and water is pumped up at the intake located in the deep high-pressure low-temperature water area. Introduce suction into the space, generate electricity with a hydraulic generator installed in the upper space, pump up the stored water in the lower space with the generated power, and cool the sea surface by discharging and spraying deep low temperature water from the injection propulsion engine of the ship type buoyant body. It is a pumping type hydraulic power generation structure. An injection nozzle equipped in the upper space via an automatic electromagnetic valve and an internal pressure-resistant pipe, introducing low-temperature high-pressure water in the deep water area from multiple intake inlets of the pumping-type hydraulic power generator located in the upper ocean water area. High-efficiency power generation by a turbine generator by high-pressure injection into the lower space, and a large amount of power generation by interlocking power generation of multiple units, supplying all energy to the equipment of a ship-type buoyant body on the water and the equipment of a submersible power generation structure underwater. It is a pumping type hydraulic power generation structure for controlling tropical low pressure. The power generated by hydraulic power generation is used as the power source for the pump, and deep-sea high-pressure low-temperature water is pumped, and as the propulsion force of the injection propulsion engine of the ship-type buoyancy body on the sea, low-temperature water is jet-injected and released to move above and below the sea surface. It is a pumped-storage hydroelectric power generation structure that features cooling and space cooling near the center of the tropical low pressure by spraying and spraying on the sea surface with multiple high-pressure water discharge pumps of a ship-type buoyancy body. The submersible pumping type hydraulic power generation has a built-in outer shell and hydraulic power generation structure suitable for underwater navigation of elliptical sphere and spindle shape, and it is possible to coordinate movement and work of multiple ships on and under water by a double structure with a ship type buoyant body. It is for tropical cyclone control, which is characterized by continuous long-term cooling in front of and near the center of tropical cyclones, with zigzag, crossing, preceding navigation methods, and relay-type navigation operation operations. Multiple penstocks are placed in the center of an advancing tropical cyclone or in front of the eye force zone of a typhoon, precooled by the ejection diffusion of pumped low-temperature water by high-speed injection of a propulsion engine, and multiple parallels outside the central area. It is a pumping-type hydraulic power generation structure for tropical cyclone control, which is characterized by a wide range of cooling in the center of the layout. The AI computer of the central course forecasting agency processes the information of the mobile pumping hydraulic power generation structure located in front of the traveling direction and near the center by predicting the course of the typhoon by the meteorological satellite and the meteorological prediction of the tropical low pressure on the ocean. And loading on water AI computer processes information on power generation equipment and navigation equipment and information on water pumping amount, power generation amount, and navigation speed, and centrally processes information on water and water ship functions to control tropical low pressure. It is a pumping type hydraulic power generation structure that is characteristic. The dedicated pumped-storage hydroelectric power generator utilizes its power generation capacity and ocean mobility to provide emergency power for work, medical care, hygiene, daily life, storage battery power supply, freshwater seawater, and power supply in the event of a large-scale disaster. It is a pumped-storage hydroelectric power generation structure characterized by a disaster support function from the sea. The pumping-type hydraulic power generation for control is used as an alternative power for maintenance / inspection and emergency repair of industrial pumping-type hydraulic power generation structures installed on the sea in various places in winter and spring outside the season when a tropical cyclone occurs. A pumping-type hydraulic power generation structure characterized by inexpensive and stable power supply to marine resource development and research and research, marine industry, activities, and business operations, and use for controlling abnormal weather due to a temperate cyclone peculiar to each region. Is.

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