USE OF BUOYANCY TYPE POWER GENERATION METHOD
20180156189 ยท 2018-06-07
Inventors
Cpc classification
B01D1/14
PERFORMING OPERATIONS; TRANSPORTING
B64D27/026
PERFORMING OPERATIONS; TRANSPORTING
B62D61/12
PERFORMING OPERATIONS; TRANSPORTING
B01D5/006
PERFORMING OPERATIONS; TRANSPORTING
B66F19/00
PERFORMING OPERATIONS; TRANSPORTING
Y02T50/60
GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
F03B17/04
MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
B62D61/04
PERFORMING OPERATIONS; TRANSPORTING
C02F1/10
CHEMISTRY; METALLURGY
F03B17/025
MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
B60K8/00
PERFORMING OPERATIONS; TRANSPORTING
Y02A40/81
GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
F05B2220/706
MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
B64C25/001
PERFORMING OPERATIONS; TRANSPORTING
Y02T50/40
GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
E04H5/02
FIXED CONSTRUCTIONS
Y02P60/60
GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
F04B9/105
MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
B60M7/003
PERFORMING OPERATIONS; TRANSPORTING
Y02T90/40
GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
International classification
F03B17/02
MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
F04B9/105
MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
B60K8/00
PERFORMING OPERATIONS; TRANSPORTING
B01D1/14
PERFORMING OPERATIONS; TRANSPORTING
B60M7/00
PERFORMING OPERATIONS; TRANSPORTING
C02F1/10
CHEMISTRY; METALLURGY
B62D61/12
PERFORMING OPERATIONS; TRANSPORTING
Abstract
To improve and use a buoyancy type power generation method. A method for harnessing buoyancy and a device therefor are described as prior art in Patent No. JP 5789231 B2 Buoyancy Type Power Generation Method. The present invention, adds self-supply of driving power as a new feature to the prior art. That is, the present invention is a self-contained power generation method and a device therefor, for driving itself by means of power produced by itself and for generating power that can be used industrially. Presented are: a gap operation type float and a rotary type float which have simple operating methods and configurations as novel power generation devices of the present invention; various devices such as a self-reliant electric-power plant, a bubble injection water maker, a wired electric aircraft, and a seismic isolator as utilization inventions that use the power generation device of the present invention; and various uses of the power generation device of the present invention, for the respective industrial fields.
Claims
1. A power generation method, comprising: a power generation device including a combination of an input, an output, and a driving power, wherein the input is a liquid pressure in the gravitational field, the output is a power of a kinetic energy of a float, and the driving power, for converting the input to the output, is a part of the output on the basis of realization of a relation of generated power>driving power for enabling self-supply of driving power; and a liquid pressure operation method which is a method for generating the power of the kinetic energy of the float by operating the liquid pressure, wherein the power generation method makes it possible to drive itself by a part of the power generated by itself, and generates industrially usable power, using the power generation device and the liquid pressure operation method, wherein the liquid pressure operation method comprises: 1. a liquid level increase-decrease method by which the float is moved up-and-down by increasing-decreasing the level of the liquid holding the float moving up-and-down; 2. a fluid specific gravity increase-decrease method by which the float is moved up-and-down by increasing-decreasing the specific gravity of the liquid holding the float moving up-and-down to increase-decrease the liquid pressure acting upward at the float bottom; 3. a liquid pressure interception method by which the float is moved up-and-down by intercepting intermittently the liquid pressure acting upward at the bottom of the float moving up-and-down; and 4. a liquid pressure imbalance method by which the float is rotated vertically by imbalancing the liquid pressure, acting upward at the bottom of the float rotating vertically, between the left-hand side of the bottom and the right-hand side of the bottom to generate a torque, the power generation device, corresponding to the four kinds of the liquid pressure operation method, comprises: a power generation device which uses the above 1st kind liquid level increase-decrease method in combination with the liquid, the float moving up-and-down, a container for storing the liquid and the float, and a device for carrying out the liquid level increase-decrease method, and generates a power by moving the float up-and-down in the liquid by carrying out the liquid level increase-decrease method; a power generation device which uses the above 2nd kind fluid specific gravity increase-decrease method in combination with the liquid, the float moving up-and-down, and a device for carrying out the fluid specific gravity increase-decrease method, and generates a power by moving the float up-and-down in the liquid by carrying out the fluid specific gravity increase-decrease method; a power generation device which uses the above 3rd kind liquid pressure interception method in combination with the liquid and a device for carrying out the liquid pressure interception method, and generates a power by moving the float up-and-down in the liquid by carrying out the liquid pressure interception method; and a power generation device which uses the above 4th kind liquid pressure imbalance method in combination with the liquid, the float rotating vertically, and a device for carrying out the liquid pressure imbalance method, and generates a power by rotating the float in the liquid by carrying out the liquid pressure imbalance method, wherein for the driving power, in the case where the self-supply of driving power is used, one or two-kinds is selected and used from a group comprising: a part of power which is generated by the power generation device; and a part of electric power generated using the power which is generated by the power generation device, or in the case where the self-supply of driving power is not used, one or a plurality of kinds is selected and used from a group comprising: a power supplied by a separate power generation device separate from the power generation device; an electric power received from a power network system to which the power generation device is connected; a running water; and a human power.
2. A control device of driving power, which selects a driving power for the power generation device according to claim 1 from two or more power sources, and adjusts the selected power to power suitable for driving the power generation device, for the purpose of driving the power generation device with the adjusted power, wherein the control device of driving power selects the power for driving the power generation device from a power source group comprising: a part of a power which is generated by the power generation device; a part of an electric power generated using a power which is generated by the power generation device; an electric power of a battery charged by the part of the electric power; a power generated by a power generation device separate from the power generation device; an electric power generated by an electricity generator separate from the power generation device; and an electric power received from a power network system to which the electric power, generated with the power generated by the power generation device, is connected, adjusts the selected power to power suitable for driving the power generation device, starts or stops the power generation device, and adjusts an output of the power generation device using the adjusted power.
3. (canceled)
4. A power generation device using the liquid level increase-decrease method described in claim 1, comprising: the liquid, the float moving up-and-down, the container for storing the liquid and the float moving up-and-down; a bellows-in-gap for the purpose of reducing the liquids existing in a gap below the bottom of the float moving up-and-down installed in the gap, which has one or a plurality of features: composed of one bellows or a plurality of bellows, having a unified form of rhombus shapes connected vertically in elevational view of the bellows, for the purpose of offsetting a liquid pressure acting on the bellows downward with a liquid pressure acting on the bellows upward, the topmost part of the bellows being fixed to the bottom of the float moving up-and-down with a space, the bottom of the bellows being fixed to the bottom of the gap, and whole of the bellows being sealed so that internal gas does not leak out, or the air inside the bellows communicating with the open air so that the air is discharged and inhaled according to the contraction and extension of the bellows, and moreover has more feature usable by arbitrarily selecting from a group: the bellows-in-qap being made in a rhombus shape by combining parts of umbrella shape having a hole in the center, for the purpose of easy fabrication of bellows, a plan view of the bellows-in-qap being a square or a rectangle suitable for clustering bellows and combining bellows, and arranging two or more bellows by combining adjacent mountain and valley of bellows; a liquid level increase-decrease device for the purpose of increasing or decreasing the liquid level of the liquid which executes one or a plurality of operations selected from an operation group: a operation draining the liquid from the container or pouring the liquid into the container, an operation inserting or pulling out an object in the liquid, an operation increasing or decreasing the volume of the float, and an operation expanding or contracting an expand-able-contract-able object in the liquid; and a device for changing an up-and-down motion into a rotational motion as an option, and a dynamo as an option, wherein the power generation device leads the float to an up-and-down motion by the liquid level increase-decrease device, or changes the up-and-down motion to a rotational motion by the optional device for changing an up-and-down motion into a rotational motion, drives the dynamo by the rotational motion, and generates electric power.
5. A power generation device using the running water in the liquid level increase-decrease method described in claim 1, comprising: the running water, the float moving up-and-down, a container for storing the running water and the float moving up-and-down; a bellows-in-qap for the purpose of reducing the liquids existing in a gap below the bottom of the float moving up-and-down installed in the gap, which has one or a plurality of features: composed of one bellows or a plurality of bellows, having a unified form of rhombus shapes connected vertically in elevational view of the bellows, for the purpose of offsetting a liquid pressure acting on the bellows downward with a liquid pressure acting on the bellows upward, the topmost part of the bellows being fixed to the bottom of the float moving up-and-down with a space, the bottom of the bellows being fixed to the bottom of the gap, and whole of the bellows being sealed so that internal gas does not leak out, or the air inside the bellows communicating with the open air so that the air is discharged and inhaled according to the contraction and extension of the bellows, and moreover has more feature usable by arbitrarily selecting from a group: the bellows-in-qap being made in a rhombus shape by combining parts of umbrella shape having a hole in the center, for the purpose of easy fabrication of bellows, a plan view of the bellows-in-qap being a square or a rectangle suitable for clustering bellows and combining bellows, and arranging two or more bellows by combining adjacent mountain and valley of bellows; a liquid level increase-decrease device for executing the pouring and draining of the running water using the up-and-down motion of the float, which executes one or a plurality of operations selected from an operation group: 1. an operation always pouring the running water into the container and intermittently draining the running water more than amount of the pouring, 2. an operation always draining the running water from the container and intermittently pouring the running water more than amount of the draining, and 3. an operation performing by turns the pouring of the running water into the container and the draining of the running water from the container; and a device for changing an up-and-down motion into a rotational motion as an option, and a dynamo as an option, wherein the power generation device leads the float to an up-and-down motion using the liquid level increase-decrease device which executes one operation selected from an operation group: in the above 1st operation, starting the draining more than amount of the pouring, using the float moved upward to a predetermined position, while always pouring the running water into the container, in the above 2nd operation, starting the pouring more than amount of the draining, using the float moved downward to a predetermined position, while always pouring the running water into the container, in the above 3rd operation, starting the draining after stopping the pouring, using the float moved upward to a predetermined position, and starting the pouring after stopping the draining, using the float moved downward to a predetermined position, and an operation, draining the water from the container, and pouring the drained water into the container; or changes the up-and-down motion to a rotational motion by the optional device for changing an up-and-down motion into a rotational motion, drives the dynamo by the rotational motion, and generates the electric power.
6. A power generation device using the fluid specific gravity increase-decrease method described in claim 1, comprising: the liquid and the float moving up-and-down; a bubble injection device injecting bubbles intermittently into the liquid for the purpose of making the liquid, which is wrapping the bottom of the float, into a liquid mass containing bubbles, for the purpose of increasing and decreasing the fluid specific gravity; an air injection device injecting air intermittently to the bottom of the float for the purpose of intercepting the bottom of the float to contact with the liquid; and a device for changing an up-and-down motion into a rotational motion as an option, and a dynamo as an option, wherein the power generation device leads the float to an up-and-down motion by executing one or two operations selected from an operation group: an operation intermittently injecting bubbles into the liquid wrapping the bottom of the float by driving the bubble injection device; and an operation intermittently injecting air to the bottom of the float by driving the air injection device, or changes the up-and-down motion to a rotational motion by the optional device for changing an up-and-down motion into a rotational motion, drives the dynamo by the rotational motion, and generates the electric power.
7. A gap operation type float being the power generation device using the liquid pressure interception method described in claim 1, comprising: the liquid; a float upper part moving up-and-down; a float lower part; a gap; an orifice; an orifice open-close device; a bellows-in-qap for the purpose of reducing the liquids existing in a gap below the bottom of the float moving up-and-down installed in the gap, which has one or a plurality of features: composed of one bellows or a plurality of bellows, having a unified form of rhombus shapes connected vertically in elevational view of the bellows, for the purpose of offsetting a liquid pressure acting on the bellows downward with a liquid pressure acting on the bellows upward, the topmost part of the bellows being fixed to the bottom of the float moving up-and-down with a space, the bottom of the bellows being fixed to the bottom of the gap, and whole of the bellows being sealed so that internal gas does not leak out, or the air inside the bellows communicating with the open air so that the air is discharged and inhaled according to the contraction and extension of the bellows, and moreover has more feature usable by arbitrarily selecting from a group: the bellows-in-gap being made in a rhombus shape by combining parts of umbrella shape having a hole in the center, for the purpose of easy fabrication of bellows, a plan view of the bellows-in-qap being a square or a rectangle suitable for clustering bellows and combining bellows, and arranging two or more bellows by combining adjacent mountain and valley of bellows; a liquid reservoir as an option; and a device for changing an up-and-down motion into a rotational motion as an option, and a dynamo as an option, wherein the gap operation type float is characterized in that: the float upper part generates a buoyancy in response to liquid pressure at the bottom, the float lower part has a gap filled with a liquid inside, expands and contracts with an expanding-contracting structure, and moves the float upper part upward and downward, the gap filled with the liquid conducts a pressure of the liquid, which wraps the gap operation type float, to the bottom of the float upper part, the orifice is prepared at the float lower part, transmits, when opened, the pressure of the liquid wrapping the gap operation type float to the gap, and intercepts the transmission, when closed, the orifice open-close device executes opening and closing of the orifice mechanically by executing one or a plurality of operations selected from an operation group: an operation mechanically opening the orifice by a climbing power of the float and mechanically closing the orifice by a downward power of the float; an operation opening and closing the orifice with electric power; and an operation mechanically opening and closing the orifice with a power generated by a separate power generation device separate from the gap operation type float, the bellows-in-gap is prepared in the gap and expands and contracts in phase with the upward and download movement of the float upper part, the optional liquid reservoir, other than the method using the bellows-in-gap, may be used, wherein the liquid reservoir is a device able to increase and decrease its volume, prepared by connecting to the float lower part, absorbs the liquid from the gap when the float moves downward, and pushes and moves the liquid into the gap when the float moves upward, two combined sets of the gap operation type float may be used to move the liquid in the gaps mutually between them, for the purpose of absorbing the liquid discharged from the gap when the float moves downward, and pushes and moves the liquid into the gap when the float moves upward, the liquid reservoir and the bellows-in-qap may be used together, the gap operation type float is installed in the liquid and leads the float to an up-and-down motion using the orifice open-close device by executing two operations: an operation moving the float upper part downward by closing the orifice; and an operation moving the float upper part upward by opening the orifice, or changes the up-and-down motion to a rotational motion by the optional device for changing an up-and-down motion into a rotational motion, drives the optional dynamo by the rotational motion, and generates the electric power.
8. A rotary type float being the power generation device using the liquid pressure imbalance method described in claim 1, comprising: the liquid, and the float rotating vertically; a device for executing the liquid pressure imbalance method for making liquid pressure, which is acting on a bottom right-hand side and a bottom left-hand side of the float, imbalance, for the purpose of generating a torque in the float, including: a bubble injection device aiming at covering a part of the float with a liquid mass containing bubbles, a gas injection device aiming at intercepting a part of the float to contact with the liquid, an object covering a part of float aiming at intercepting a part of the float to contact with the liquid, and a container storing the float and the liquid aiming at not dipping a part of the float in the liquid; and a dynamo as an option, wherein the rotary type float executes one or a plurality of operations by selecting the operation from an operation group: an operation driving the bubble injection device, injecting bubbles to an injection area at a lower part periphery of the float wherein the injection area is any one of a part of clock position right-hand side or the whole and a part of clock position left-hand side or the whole, and covering the injection area with the liquid mass containing bubbles; an operation driving the gas injection device using the control device of driving power, injecting gas to an injection area at a lower part periphery of the float wherein the injection area is any one of a part of clock position right-hand side or the whole and a part of clock position left-hand side or the whole, and intercepting the injection area to contact with the liquid; an operation covering an interception area at a lower part periphery of the float wherein the interception area is any one of a part of clock position right-hand side or the whole and a part of clock position left-hand side or the whole, with the object covering a part of float, and intercepting the interception area to contact with the liquid with the object; and an operation, using the container storing the float and the liquid, storing the liquid and the float into the container which is made to make a not-dipped-area at a lower part periphery of the float be in a state not dipped wherein the not-dipped-area is any one of a part of clock position right-hand side or the whole and a part of clock position left-hand side or the whole, and the rotary type float leads the float to a rotational motion by the execution of the selected operation, which makes the liquid pressure acting on the bottom right-hand side and the bottom left-hand side of the float imbalance, makes the weight of the right-hand side and the left-hand side of the float imbalance, and makes a torque in the float occur, or drives the optional dynamo by the rotational motion, and generates the electric power.
9. (canceled)
10. An electricity supply system having an electricity generation facility group for generating electric power with the power generation device using the power generation method according to claim 1 and an electricity transmission facility group for distributing the electric power generated by the electricity generation facility, wherein the electricity generation facility group comprises: a stationary type electricity generator being fixed and installed in a fixed place, and supplying electric power to a specific use; an electric-power plant being large-scale power generation device aiming at transmitting electricity to a general use; and a portable electricity generator being possible to be carried in a means of transportation and to move, and the electricity transmission facility group is a group of electricity transmission facilities characterized by transmitting an electric power generated with the electricity generation facility, or characterized by being used as a part of a power network system to which the electricity transmission facility is connected, comprises: a stationary type wire supported with an instrument for supporting the wire and installed in a fixed place; a floated type wire supported in air by an aircraft and installed in air in floating; a wire support aircraft having one or a plurality of functions in a group of a function for supporting the wire in air while flying and collecting electricity from the floated type wire, a function for laying the wire in air, and a function mending the wire; and a direct-current electricity supply device supplying electric power generated by the electricity generation facility to direct current driven electric appliances with the voltage that the electrical appliances use.
11. (canceled)
12. A buoyancy type pump or a buoyancy type press pump being the power generation device using the power generation method according to claim 1 to which a function of pump or press pump of reciprocation type is added, comprising: the power generation device, a piston, a cylinder, and a valve, wherein the piston is inserted in the cylinder, or the float of the power generation device is used as the piston and inserted in the cylinder, the power generation device is driven, and the piston is reciprocated in the cylinder, for the pump, a fluid is inhaled and exhaled by an operation of the valve, and for the press pump, a fluid is inhaled, compressed, and exhaled by an operation of the valve.
13. A moving type wired aircraft flying with the power generation device using the power generation method according to claim 1, comprising: a stationary type wire being fixed and installed in a fixed place, or a floated type wire supported in air by an aircraft; an electric power supply using the power generation method according to claim 1; a wired aircraft main body including an electric motor, a battery, a fixed wing, a rotor, an optional power generation device, and an internal-combustion engine as an option; and an electricity collecting device, wherein for the electricity collecting device, there are two types: a stationary type electricity collecting device; and a electricity collecting drone, wherein the stationary type electricity collecting device is fixed and installed on the wired aircraft main body, collects the electricity from the stationary type wire or the floated type wire, and supplies the collected electric power to the wired aircraft main body, and the electricity collecting drone is an aircraft aiming at collecting electricity and connected to the wired aircraft main body with a cable, collects the electricity from the stationary type wire or the floated type wire, and supplies the collected electric power to the wired aircraft main body, while flying, and the moving type wired aircraft flies by collecting electricity from the stationary type wire or the floated type wire connected to the electric power supply using the stationary type electricity collecting device or the electricity collecting drone, flies using the fixed wing, or the rotor, or both of the fixed wing and the rotor, and flies using electric power from one or plurality of devices selected from the battery, the optional power generation device, and the optional internal-combustion engine, on board, while not collecting electricity from the stationary type wire or the floated type wire.
14. A fixed-position type wired aircraft flying at rest or vertically in a certain area utilizing the power generation device using the power generation method according to claim 1, comprising: a stationary type wire being fixed and installed in a fixed place, or a floated type wire supported in air by an aircraft; an electric power supply using the power generation method according to claim 1; a fixed-position type wired aircraft main body including an electric motor, a rotor, and a fixed wing; a business-use device for business purpose; and an electricity collecting drone being an aircraft aiming at collecting electricity, wherein the fixed-position type wired aircraft flies, while hanging the floated type wire connected to the electric power supply and receiving electricity from the floated type wire, or flies, using the optional electricity collecting drone, while collecting electricity from the stationary type wire or the floated type wire, flies using the fixed wing, or the rotor, or both of the fixed wing and the rotor, and executes businesses using the business-use device for business purpose, while flying at fixed position at rest.
15. The fixed-position type wired aircraft according to claim 14, wherein the fixed-position type wired aircraft carries out one business in a group: a takeoff-and-landing auxiliary business, aiming at making an aircraft, which is characterized by horizontal takeoff-and-landing, perform takeoff and landing vertically, carried out by holding an aircraft for takeoff, going up with the aircraft, and releasing the aircraft to make it fly at a takeoff point, and by catching an aircraft for landing in air, and carrying the aircraft to a landing point while descending; a communication business carried out by staying at a fixed position in air, executing a communication business including a relay base business; and a forestry business including felling of trees, moving the trees cut-down, and afforestation, while flying certain fixed area over a forest.
16. A bubble injection type water maker making water with heated air with the power generation device using the power generation method according to claim 1, comprising: the power generation device; a container storing raw water; a device heating air and pressing out into the container; and a condenser, wherein the device heating air and pressing out into the container includes a press pump, a heater, and a pump, which use the power generation method according to claim 1, heats the air using selected one or two of the press pump and the heater, and presses out the heated air using selected one or two of the press pump and the pump, the bubble injection type water maker makes water by the operations: an operation driving the device heating air and pressing out into the container, heating the air, and pressing out the heated air as bubbles into the raw water in the container; and an operation condensing the water vapor discharged from the container using the condenser.
17. A buoyancy jack making a heavy load go up and down by buoyancy using the liquid level increase-decrease method described in claim 1, comprising: a float; a liquid; a container storing the float and the liquid; and a device for pouring and draining the liquid, wherein the buoyancy jack makes the heavy load go up and down by storing the float in the container, by driving the device for pouring and draining, and by executing two operations: an operation pouring the liquid into the container to make the float go up; and an operation draining the liquid from the container to make the float go down.
18. A business method of mining and manufacturing utilizing the power generation device using the power generation method according to claim 1, selected from a group comprising: a business method of chemicals manufacture utilizing the power generation device; a business method of aluminum refinement utilizing the power generation device; a business method of iron manufacture by an electric furnace utilizing the power generation device; a business method of carbon fiber manufacture utilizing the power generation device; a business method of hydrocarbon product manufacture which is manufactured by compounding carbon dioxide collected out of the atmosphere and hydrogen obtained by electrolyzing water, utilizing the power generation device; and a business method of marine-resources development executed using a submarine boat driven utilizing the power generation device.
19. (canceled)
20. A fishing implement or a fishing facility utilizing the power generation device using the power generation method according to claim 1, selected from a group comprising: a fishing boat using the power generation device; a submergible fishing boat able to cruise underwater and operated manned or unmanned using the power generation device; an aeration device using the power generation device; a fishing implement using the power generation device; a fishery information machine and device, for the purpose of detecting the information in a fishery, installed in the fishery, which detects desired information there and transmits the information to a fishery operator, using the power generation device; a fish finder being installed underwater regular position, or moving underwater, or being carried on a fishing boat, using the power generation device; a fish preserve using the power generation device; an artificial fish reef equipped with an aeration device and a fishes capture device, using the power generation device; and a marine ranch using the power generation device.
21. A building or a building facility utilizing the power generation device using the power generation method according to claim 1, selected from a group comprising: a building installed in the ground, water surface, underwater, or a sea bed which is using the power generation device as a private electricity generator; a factory installed in the ground, water surface, underwater, or a sea bed which is using the power generation device as a private electricity generator; a warehouse using the power generation device as a private electricity generator; a data center using the power generation device as a private electricity generator; and a snow melting system for a building using the power generation device as a private electric generator.
22. A hanging type seismic isolator using buoyancy used for the power generation device using the power generation method according to claim 1, or used for a building equipped with the power generation device, or used for a ground where the power generation device is installed, comprising: a container or an excavated hole; a quake-absorbing object structure being the power generation device, or the building equipped with the power generation device, or the ground where the power generation device is installed; a liquid, a column support for hanging, and a hanging device using an elastic body; a fixing device which fixes the quake-absorbing object structure and releases the fixing; a pouring-draining device as an option which pours or drains a liquid; a bubble injection device as an option which injects bubbles into the liquid stored in the container or the excavated hole; and a wind protection cover or a wind protection board as an option, wherein the hanging type seismic isolator is used by storing the liquid in the container or the excavated hole, making the quake-absorbing object structure float on the liquid, hanging the quake-absorbing object structure on the column support for hanging with the hanging device, and fixing the hung quake-absorbing object structure with the fixing device or releasing the fixing, by adjusting the weight of the quake-absorbing object structure using the optional pouring-draining device, by injecting bubbles into the liquid stored in the container or the excavated hole to make the liquid into a liquid mass containing bubbles using the optional bubble injection device, and by protecting the quake-absorbing object structure against wind using the optional wind protection cover or the wind protection board.
23. A transit system executed by the moving type wired aircraft described in claim 13, wherein the moving type wired aircraft flies by collecting the electricity from the stationary type wire or the floated type wire, or by using the battery or the optional electricity generation device or the optional internal-combustion engine loaded on the moving type wired aircraft, the moving type wired aircraft delivers a load directly from a shipping source to an address for delivery; or the moving type wired aircraft carries a load to a relay place of a shipping source from individual shipping source, and after the load is collected for each delivery destination in the relay place of the shipping source, the moving type wired aircraft carries the collected load to a relay place of a delivery destination, and after the collected load is personalized in the relay place of the delivery destination, the moving type wired aircraft delivers the personalized load to the delivery destination.
24. A means of transportation utilizing the power generation device using the power generation method according to claim 1, selected from a group comprising: a car driven using the power generation device; a train driven using the power generation device; a ship driven using the power generation device, or a barge towed by the ship; a submarine boat driven using the power generation device, or a barge towed by the submarine boat; an airplane driven using the power generation device; a flying boat driven using the power generation device which is able to water-landing under the weakened shock of the water-landing, by injecting bubbles, at the time of water landing, into the water area of water-landing using an injection machine installed in airport or an injection machine with which the flying boat is equipped; and a snow melting system spraying water heated by passing a pipe equipped with an insulated electrical heater wire, or emitting an air jet through the pipe heated.
25. A car with auxiliary wheels utilizing the power generation device using the power generation method according to claim 1, comprising run wheels; the auxiliary wheels the power generation device; and a battery, wherein the run wheels are arranged in series, the auxiliary wheels are provided on the left and right of the car body for the purpose of safety device against overturning, the car is driven with a combination of the power generation device loaded as an own power generator and the battery, or with a combination of an optional engine, the power generation device and the battery, the car comprises accelerator device and brake device characterized by: the accelerator device being a manual type; an accelerator operation being done by setting the speed arbitrarily by an manual operation and the car running at the set-up speed; the brake device being a manual type, or a traditional step type using a brake pedal, or a combined type of the manual type and the step type; a brake operation being done by the manual type or the step type brake operation; and the set-up speed being reduced and recovered to the set-up speed and the car body being stopped by the accelerator operation.
26. A hydrofoil train utilizing the power generation device using the power generation method according to claim 1, comprising: a waterway; a hydrofoil; a run wheel; and the power generation device, wherein the hydrofoil train runs using the electric power generated by the power generation device; the waterway is prepared in a rail track, the hydrofoil is inserted in the waterway, and a buoyancy is obtained by run; and the hydrofoil train runs by the run wheel.
27. A power generation device using the power generation method according to claim 1 or an electric product, characterized in that: the power generation device is installed in an electric product or used as an in-house power generator and connected to an electric product with a cable; or the electric product is driven by the power generation device as the in-house power generator.
Description
BRIEF DESCRIPTION OF THE DRAWINGS
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[0333]
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[0335]
[0336]
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[0338]
[0339]
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MODE FOR CARRYING OUT THE INVENTION
[0341] Hereafter, the embodiments of the present invention are explained based on
[0342] Self-Supply of Driving Power
[0343]
[0344] Gravity 1 is the downward force toward the center of the earth. In the power generation device 2, the liquid 3 and the float 5 are contained, and in the liquid 3 subjected to the action of the gravity 1, the pressure works in all directions. Since the pressure acts perpendicularly to the object surface, it acts as an upward force 4 at the bottom of the float 5. This is the buoyancy.
[0345] To start up the power generation device 2, electric power 15 of the battery 14 is used. The float 5 having the buoyancy is led to the up-and-down motion 6 by the liquid pressure operation method (0021), and the power 7 is generated. The dynamo 8 is driven by the power 7 to generate electricity, and a part of the generated electric power 9 is adjusted to electric power suitable for a drive, by a device (transformer, rectifier, charger, start, stop, or the like) 11 for controlling the driving power. The power generation device 2 is driven by the transformed and rectified electric power 12, or by the electric power 15 charged in the battery 14.
[0346] Driving power is not necessarily self-sufficient. The purpose is to be able to obtain an amount of power that exceeds the input driving power and still allows industrial use, and for this purpose, various power sources should be prepared and selected appropriately. The driving power control device that selects and controls the driving power is described in claim 2.
[0347] Power generation device using liquid level increase-decrease method
[0348] When a device; i.e., a float stored in a container is installed along a river and the running water of the river is poured in the container, the float will go up. When the pouring is stopped and the water is drained from the container, the float will descend. Although it is very simple structure, power generated. This depends, as an energy source, on natural running water, and belongs to renewable energy. However, with this composition, a big merit cannot necessarily be referred to, when compared with turbine type running water power generation.
[0349] The power generation device using the power generation method is configured to generate the power by an operation of the liquid as little as possible, i.e., the minimum fluid, as an ideal, and to realize the relation of generated power>driving power. The device for reducing the fluid is the bellows-in-gap 31 (0013).
[0350] In claim 4, the power generation device using the liquid level increase-decrease method is indicated. Since the liquid in the container is reduced by the bellows-in-gap 31, the liquid level is increased or decreased by slightly increasing or decreasing the amount of liquid. As a method of increasing or decreasing the liquid level, in addition to a circulation method in which liquid is injected 33, discharged 34, and the discharged liquid is injected again, a method, in which the liquid amount is increased or decreased in a pseudo manner, namely, an object is inserted into or removed from the liquid, is also effective. If composite bellows 26 is used, the amount of liquid is further reduced and the efficiency becomes high.
[0351] In claim 5, an electricity generator using running water is described. The electricity generator has one side of renewable energy. As in claim 4, the required amount of water has been drastically reduced, the float goes downward by the slight water draining 34, and the float goes upward by the slight water pouring 33. Even when the running water is depleted, the electricity generator can be driven by the circulation of water remaining in the container. Therefore, it does not depend on natural conditions, there are no constraints on installation place and operation time. The movement of the float up and down is regulated by a guide rail.
[0352] Fluid Specific Gravity Increase-Decrease Method and Liquid Pressure Reduction Operation
[0353]
[0354] In claim 6, the electricity generator using the fluid specific gravity increase-decrease method is described.
[0355] At the bottom of the float 38 moving up-and-down, the bubbles 40 are injected with the injection device 39. The liquid at the bottom becomes a liquid mass containing bubbles, the specific gravity decreases, the buoyancy generated in the float 38 decreases, and the float 38 goes downward 41. When the injection is stopped, bubbles are discharged, the buoyancy is restored, and the float 38 goes upward. In the case of the float moving up-and-down, the injection and the injection stop is repeated.
[0356] Instead of bubbles 40, air may be injected at the bottom of the float to intercept the contact between the float and the liquid. Combined use of bubble injection and air injection is effective.
[0357] In Claim 8, the power generation device using the liquid pressure reduction operation of the liquid pressure imbalance method is described. The bubbles 44 are injected using the injection device 43 to the float 42 to be rotated. In the case of a rotary type float, injection is performed continuously. Combined use of bubble injection and air injection is efficient.
[0358] The basic composition of the device according to claims 6 and 8 are a float and an injection device, and very simple, and can be installed not only inside a container but also in a lake or in a sea. Therefore, it is possible to increase the size. The larger the size, the larger the output compared with the driving power by the square cubic law (0015). In the sea, it is easy to install float of about 1 million cubic meters, and the generated buoyancy reaches about 1 million tons.
[0359] Gap Operation Type Float
[0360]
[0361] Buoyancy does not occur in the piers built in the river flow. As described The buoyancy can be defined as the upward force by the fluid which acts on the bottom of the object in the fluid in the gravitational field (0008), there is no bottom that receives the upward pressure of the liquid. Conversely, even if the bottom exists, if no upward pressure of liquid acts on the bottom, buoyancy also does not occur.
[0362] A Gap Operation Type Float is Described in Claim 7.
[0363] Where the orifice 56 is opened wide, upward liquid pressure acts on the bottom of the float upper part 49. That is, buoyancy has arisen. If the orifice 56 is closed, the liquid pressure conduction is intercepted, buoyancy will be extinguished, the float upper part 49 will go downward and the float lower part 50 will contract simultaneously.
[0364] At this time, if the bellows-in-gap 57 do not exist in the gap, the float lower part 50 cannot be contracted because the inside is filled with the liquid 51. However, since the float upper portion 49 pushes down the bellows-in-gap 57 and the bellows-in-gap 57 contracts while discharging 58 the air inside, the lower portion 50 of the float can contract without changing the amount of the liquid 51.
[0365] If the orifice 56 is opened, the float upper part 49 recovers buoyancy again, it goes upward while expanding the float lower part 50, and simultaneously the bellows-in-gap 57 also will be elongated while inhaling 58 air inside.
[0366] The float lower part 50 is expanded and contracted, by the bellows structure 52, or by the cylinder structure made of combination of the inner pipe 54 of the float lower part and the outer case 55 which forms a gap. The cylinder is equipped with the sealing mechanism 53.
[0367] The gap operation type float uses very simple operation method of opening and closing of an orifice, and driving power is very small. Therefore, it can be driven with mechanism (automatic machine) which closes the orifice in the final stage of the rise of the float upper part, and opens in the final stage of the descent of that, using a mechanical method like lever operation.
[0368] Rotary Type Float
[0369]
[0370] Should not be bound by the stereotype that a float floats. In the present invention, the float is a tool for capturing the fluid pressure in the upward direction.
[0371] The rotary type float is indicated to Claim 8.
[0372] The gas interception (0043) of the liquid pressure interception operation is a method injecting a air with an arc-shaped injection device (43) close to the rotary type float (42) to intercept contact between the rotary type float and the liquid, and is similar with the above liquid pressure reduction operation (
[0373] The imbalance immersion is a method that does not use driving power at all. The rotary type float 66 filled with the same liquid as the liquid 68 is installed in the container 67 aiming at imbalance immersion, and the liquid 68 is only filled in the predetermined portion. In the figure, the left-hand side of the float 66 is immersed, and left-hand side has no weight due to the buoyancy 69. On the other hand, the right-hand side of the float is not immersed, a torque 71 is generated by the weight 70, and a float rotates clockwise. The method 72 of combining two rotary type floats is also effective.
[0374] In this method leakage becomes a problem. A method to seal the gap between the float and the container is necessary. Using mercury for the liquid is extremely effective.
[0375] Wired Aircraft
[0376]
[0377] The electric power supply 75 (sic) uses the electricity generator of the present invention, the power network in which the electricity generator of the present invention is interconnected, and the stationary type wire. It is possible to transmit electric power from stationary type wire to stationary type wire 73 (sic) or floated type wire 76 (sic). The stationary type wire 73 (sic) connected to the electric power supply 75 (sic) is installed on the ground or a building by fixtures such as wire pillars 74 (sic). The moving type wired aircraft 79 (sic) flying at a relatively low speed flies with power from the stationary type wire 73 (sic) using the stationary type electricity collecting device 80 (sic) or the electricity collecting drone 81 (sic).
[0378] Since the electric power by the power generation device of the present invention, is low cost very much, the low-voltage power transmission with a large transmission loss is also admissible. Since it is low-voltage, it can install in a living area. By laying the low-voltage stationary type wires in various separate places, the moving type wired aircraft can move long distance as if frog jumping by repetition of flight by electricity collecting and self flight by battery.
[0379] The floated type wire 76 (sic) is constructed in air by the wire support aircraft 77 (sic), while supporting the wire which is linked to the electric power supply 75 (sic). The moving type wired aircraft 78 (sic) flies while collecting electricity form the floated type wire 76 (sic) using the electricity collecting drone 81 (sic).
[0380] The floated type wire 76 (sic) does not necessarily have to be continuous to the destination. The floated type wire is dotted in the flight path, and the moving type wired aircraft 78 (sic) can reach the destination while flying by the frog jumping.
[0381] The fixed-position type wired aircraft 82 (sic) is hanging the floated type wire 76 (sic) connected to the electric power supply 75 (sic), staying at a regular position, performs business. Or it is possible to fly within the wired area by collecting electricity from the hung floated type wire 76 (sic) using the electricity collecting device 81 (sic). When the wire is long, it can be supported by the wire support aircraft 77.
[0382] Even with fixed position type, it is possible to hang the electricity generator of the present invention and to move to the destination while collecting electricity from the electricity generator.
[0383] High Temperature Bubble Injection Type Water Maker
[0384]
[0385]
[0386] A structure 95 for storing the power generation device is floated on the water 96 in the container 94, and the structure is hung from the column support for hanging 97 by the hanging device 98 using an elastic body.
[0387] Normally, it is fixed with the fixing device 99. When the earthquake occurs, fixation of the fixing device 99 is canceled.
[0388] Alternatively, the portion, fixing the bottom portion of the structure, may be an elastic body and fixed at all times. The structure supported, with top and bottom, vertically by the hanging device and the bottom fixing device are highly stable.
[0389] The present seismic isolator can also be used for isolation of buildings. The configuration is the same, the container 94 is an excavation hole, and the structure 95 corresponds to a building.
[0390] Tandem Car
[0391]
[0392] It is a passenger car that is equipped with the power generation device of the present invention and can continue running without fuel. In order to reduce the burden on the electricity generator, it is a lightweight body. It combines the characteristics of a four-wheel passenger car and a motorcycle, making it compatible with comfort and lightness. The running wheels 100 and 101 are tandem two wheels, and the seat 102 is likewise tandem. In order to prevent falling, the auxiliary wheels 103 and 104 are provided on the left and right sides of the car body. The engine 105 is the electricity generator of the present invention and a battery, but may be a combination of a conventional engine, the electricity generator of the present invention and the battery.