JP2020006795A - Wind power generator mounted type vessel - Google Patents

Abstract

To provide a new vessel technology capable of wind power generation having power generation ability capable of safe, highly efficient and stable power generation even under various environments from breeze to storms, and not only realizing sailing by using the generated power but also supplying agricultural products and marine products using natural energy.SOLUTION: A vessel 1 has at least one tornado type wind power generator 5 erected provided with a wind mill 50 with an odd number of blades with central angles at equal intervals around a rotational center with the blades for the wind mill which are blades for the wind mill exposed on a hull 10 on which an electric power driving source 30, a propeller 3, and an accumulator battery 2 are mounted, having a convex front side surface and a concave back side surface, with the front side surface including a front edge surface, an air flow low speed passing surface continuously formed behind the front edge surface, and an air flow high speed passing surface arranged on a distant side from a rotational center and continuously formed behind the front edge surface which is longer than the air flow low speed passing surface and installed with a control unit 8 capable of controlling the electric power driving source.SELECTED DRAWING: Figure 1

Description

    The present invention relates to a marine technology that makes it possible to use wind energy that reduces or eliminates the use of fossil fuels as a driving source, and in particular, efficiently generates and generates electricity from wind blowing from various directions on the water surface. From the field of manufacturing and providing wind power generator-equipped ships that can store electricity and obtain propulsion, as well as the fields of providing and selling equipment and instruments necessary for their transport, storage, assembly and installation In the field of providing materials, machinery, and materials required for parts, such as wood, stone, various fibers, plastics, and various metal materials, electronic components incorporated in them, and control-related equipment that integrates them. , The fields of various measuring instruments, the field of power machinery that moves the equipment and instruments, the fields of electric power that is the energy, and the fields of electricity and oil that are energy sources. In addition to the fields that are collectively referred to as industrial machinery, furthermore, to test and research such equipment and instruments, to display, sell, import and export them, and to use them as a result of their use and to make them. Related to the collection and transportation of refuse generated from the operation of facilities and equipment, and the recycling field for efficiently reusing such refuse, as well as new fields that cannot be anticipated at the moment. There are no technical fields that do not.

(Points of interest)
Industries that require the use of ships, such as water transport and fishing, are susceptible to soaring crude oil prices.Furthermore, efforts to reduce fuel consumption due to various factors, such as demands for reduction and suppression of carbon dioxide emissions, have made efforts. It has become indispensable, and it is becoming increasingly difficult to navigate and transport on water using only conventional fossil fuels.

(Conventional technology)
Proposals that reflect this situation and offer a breakthrough are not uncommon.
For example, as typified by the following Patent Documents 1 (1) to 1 (4), a wind power generator having wings rotating around a vertical axis is erected on the hull of a ship. And a ship capable of navigating using the power generated by the wind power generator as a driving energy source, a wave power generator, a wind power generator, a solar cell, or the like as disclosed in Patent Document 1 (5). It is equipped with a marine power generation plant and a storage battery so that power generation and charging can be performed during navigation, or as described in Patent Documents 1 (6) to 1 (8), electric power obtained during navigation by wind power generation or the like. Utilizing technology to generate hydrogen, such as the one shown in Patent Document 1 (9), a wave-type power generator, a solar cell panel, a wind power generator, a fiber optic solar receiver, And vegetable growing planters It is, such as the production possible and the sea tethered vegetables growing apparatus vegetables such as sea is scattered.

However, a marine vessel equipped with a wind power generator having wings rotating around a vertical axis as shown in the former Patent Documents 1 (1) to 1 (4) is a vertical wind turbine using four blades. In the case of any one of the four blades, when any one of the blades receives a wind in one direction and obtains a rotational force, the blades arranged on the opposite side are rotated in the opposite direction to the rotation direction from the same one-direction wind. The efficiency of the wind power generator is low, such as the loss of rotational power and the loss of the rotational force from the wind to the four blades located on the leeward side. Was to leave.
(1) JP-A-54-151096 (2) JP-A-55-152697 (3) JP-A-5516321 (4) JP-T-2013-517404 (5) JP-A-2011-235677 (6) JP-A-2002-303454 (7) JP-A-2010-264969 (8) Patent No. 45312727 (9) JP-A-7-255280 (10) JP-A-2001-132617 (11) ) Patent No. 3905121

(Awareness of problems)
As mentioned above, the wind turbines with various wind generators that have been proposed up to now have low efficiency of wind power generation, and the blades stop rotating in the case of light winds, and the blades are subjected to an excessive load in strong winds. It is difficult to completely eliminate the need for fossil fuels because stable power generation is difficult, and it is indispensable to mount an engine for power generation and an engine for driving a propulsion unit. It is necessary to develop new ship technology that enables high-efficiency power generation in all natural environments and realizes safer and more efficient navigation, with the disadvantage that the weight increases and hinders fuel-efficient navigation. It is a thing that has led to a feeling of sex.

(Object of the invention)
Therefore, the present invention not only enables wind power generation having a power generation capacity capable of generating power stably with high efficiency and safety even in all kinds of environments from light winds to storms, and it is only necessary to navigate using the generated power. Judging that it is not possible to develop new marine technologies that can realize stable production and supply of agricultural and marine products using natural energy, we quickly started development and research, and conducted trial and error over a long period of time. As a result of repeating the trial production and experiment, we finally succeeded in realizing a wind generator-equipped ship with a new structure this time, and in the following, together with an embodiment representing the present invention shown in the drawings. The configuration will be described in detail.

(Structure of the invention)
As can be clearly understood from the embodiment of the present invention shown in the drawings, the ship equipped with a wind generator of the present invention basically has the following configuration.
That is, a storage battery is mounted above the bottom plate of a hull provided with a propulsion device having an electric drive source that is driven by supply of electric power, and a storage battery is provided above the full load line of the hull and receives wind power. A wind turbine blade that is disposed around a vertical rotation center and receives wind power with respect to the exposed position, and is curved in a convex shape toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. A front side surface, a rear side surface arranged rearward of the front side surface and curved concavely toward the rear side in the traveling direction, the front side surface is a front edge surface arranged forward in the traveling direction, An airflow low-speed passage surface that is arranged near the center of rotation and continuously formed from the leading edge toward the rear in the traveling direction, and an airflow low speed that is located farther from the center of rotation and backward from the leading edge toward the rear in the traveling direction Continuously formed with a curved surface that swells larger than the passing surface Equipped with a wind turbine blade configured to include an airflow high-speed passage surface having a length that is longer than the airflow low-speed passage surface when viewed from the vertical direction, and an odd number of windmills provided around the rotation center at equal center angles at equal intervals. At least one tornado-type wind power generator is erected in a vertical position, and the wind power generator and the storage battery are electrically connected so that the power generated by the wind power generator is stored in the storage battery, A control unit that is electrically connected to the electric drive source of the propulsion unit of the hull so that the storage battery can supply electric power and that can control the electric drive source of the propulsion unit of the hull; This is a ship equipped with a wind power generator having the above-described configuration.

    In other words, a wind power generator-equipped ship having this basic configuration is a storage battery that is larger than the bottom plate of a hull provided with a propulsion unit having an electric drive source that is driven by receiving power supply. A wind turbine blade that is disposed around a vertical rotation center and receives wind force at a position above the full load line of the hull and exposed to the outside so as to receive wind force. And a front side curved convexly toward the front in the traveling direction in the rotational direction as viewed from the vertical direction, and a rear side arranged on the back side of the front side and curved concavely toward the rear in the traveling direction. And the front side surface has a front edge surface arranged forward in the traveling direction, and an airflow low-speed passage surface continuously arranged rearward in the traveling direction from the front edge surface arranged near the center of rotation. , Located on the far side from the center of rotation and proceeding from the leading edge The wind turbine blades, which are formed continuously with a curved surface that bulges larger than the airflow low-speed passage surface toward the rear and include an airflow high-speed passage surface longer than the airflow low-speed passage surface when viewed from the vertical direction, At least one tornado-type wind power generator having an odd number of wind turbines provided at equal angular intervals around the rotation center is erected in a vertical position, and the wind power generator and the storage battery are connected to the wind power generator. The electric power generated by the aircraft is electrically connected to be stored in the storage battery, and electrically connected to the electric drive source of the propulsion device of the hull so that the storage battery can supply power. A control unit capable of controlling an electric drive source of the propulsion unit is provided, and the power generated by the wind power generator receiving the natural wind is stored in a storage battery, and the power supplied from the storage battery is used to electrically drive the propulsion unit. Drive the source and navigate the hull Consisting possible to as the configurations becomes the wind power generator on-board the ship.

    More specifically, a storage battery is mounted above the bottom plate of a hull provided with a propulsion device having an electric drive source that receives and drives electric power, and receives a wind force above a full load line of the hull. A blade for a windmill that is disposed around a vertical rotation center and receives wind power with respect to a position exposed to the outside, and is convex toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. And a rear side disposed on the back side of the front side and concavely curved toward the rear side in the traveling direction, and the front side is disposed before the front side in the traveling direction. An edge surface, an airflow low-speed passage surface that is arranged on the side near the rotation center and is continuously formed from the front edge surface toward the rear in the traveling direction, and a gas flow low-pass surface that is arranged on the side far from the rotation center and behind the front edge surface in the traveling direction. The curved surface is larger than the low-speed An odd number of blades for a windmill configured and including an airflow high-speed passage surface longer than the airflow low-speed passage surface when viewed from the vertical direction are provided around the rotation center at equal center angles. A first windmill and a second windmill having the same shape as the first windmill have a common rotation center and are arranged to rotate in opposite directions to each other, and cooperate with the rotation of the first windmill in the same direction as the first windmill. , And an armature coil rotating in the same direction as the second windmill in conjunction with the rotation of the second windmill, and a power generator disposed between the first windmill and the second windmill. At least one tornado-type wind power generator provided with the device is erected in a vertical position, and the wind power generator and the storage battery are electrically connected so that the power generated by the wind power generator is stored in the storage battery. Connected to the electric drive source of the propulsion unit of the hull, It can become as are electrically connected to, a wind power generator on-board a ship comprising a structure capable of controlling the control unit of the electric drive source for propeller of the hull was made provided.

    As described above, according to the wind turbine mounted ship of the present invention, unlike the conventional one, the wind turbine mounted on the conventional ship is different from the conventional one because of the unique feature of the wind generator as described above. A stall caused by a sudden change in wind direction (for example, a wind wind), which is regarded as a drawback, and a windmill of a vertical rotating shaft type (for example, see Patent Document 1 (10)) have a sufficient rotating force on a blade on one side of a vertical rotating shaft. However, the other blade on one side suffered the resistance of the headwind and stalled, but this problem was completely eliminated, and various winds from strong wind to light wind blowing from all directions were eliminated. As a result, the windmill rotates efficiently, and more stable power generation can be realized.Moreover, the sway of the hull due to wind pressure can be greatly reduced, and safer and more stable navigation can be realized. Outstanding feature of allowing for navigation, not those which can be obtained.

    In addition, according to the tornado-type wind turbine-equipped ship in which the first windmill and the second windmill having the same shape as the first windmill share a rotation center and are arranged to rotate in opposite directions to each other. It can eliminate stalls caused by differences in wind direction due to the difference in altitude between the top and bottom of the wind power generator, so that more efficient wind power generation can be realized, and the hull sway caused by wind pressure can be significantly reduced. Therefore, it is possible to realize safer and more stable navigation.

    According to the ship equipped with a wind power generator of the present invention, in which a fossil fuel type power generator provided with a fossil fuel tank is connected to a storage battery, a state of no wind on water continues for a long time. In case of shortage of power storage due to windup or wind power generator failure, it is possible to navigate using the power from these fossil fuel type generators and realize safer operation Becomes

    The hull is either a twin-hull type or a three-hull type, and a tornado-type wind power generator is installed on a deck straddling between the hulls in a vertical posture. Since the type vessels are efficiently arranged on the deck where the wind power generator is limited, a wider effective space is secured, and more efficient transportation and installation of facilities can be performed.

    A food production facility of at least one of a production facility for agricultural products and a cultivation facility for marine products is mounted in a hull in an electrically connected state so as to receive power supply from a storage battery. Vessels equipped with a wind generator can produce food while sailing on the water, can significantly reduce the amount of carbon dioxide generated in the process of producing food, and eliminate the need for a land-based production plant. It will be able to provide more fresh food than transporting goods from the city, and will be able to use it effectively for evacuation and rescue in the event of a disaster, as well as for food production factories by berthing.

    In addition, a tornado-type wind power generator is arranged such that the rotation centers of the first and second wind turbines are above the first wind turbine, between the first and second wind turbines (power generation device), and below the second wind turbine. Are arranged vertically so as to coincide between the centers of gravity of the upper, middle and lower horizontal frames of the flat equilateral triangle, and are outside the outer diameters of the first and second windmills of the upper, middle and lower horizontal frames. The upper and lower vertices of the crocodile are integrated by three vertical frames, and are supported by a skeleton frame that is framed to form a triangular prism-shaped outer shape, and a total of three tornado types Wind power generators face each other with a gap of a plane equilateral triangle therebetween, and a pair of vertices sandwiching one side of the plane equilateral triangle are adjacently integrated, or integrated by a common vertical frame One side of the plane triangle has a double-sided triangular prism shape The unit is replaced by an integrated group of wind generators, at least one of which is standing above the hull's full waterline and exposed to the outside to receive wind. The wind turbine-equipped ship of the present invention, which is provided, has three tornado-type wind power generators integrated into a wind power generator group, so that the skeleton frames of each other support and reinforce each other. Thus, the power generation and the power storage can be at least tripled, and can be mounted on a larger vessel with high space efficiency.

    Furthermore, the tornado-type wind power generators are replaced with a group of wind power generators in which a total of six tornado-type wind power generators are integrated into a flat hexagonal column-shaped shell, and at least one of the wind power generators Is erected at a position above the draft line of the hull and exposed to the outside so as to receive the wind, the wind turbine-equipped ship of the present invention has at least six times the amount of power generation and Since the amount of electricity can be stored, it can be mounted on a larger vessel to enable safe and efficient navigation.

    The hull is equipped with at least one of a fuel cell and an energy device that oxidizes and burns hydrogen, a seawater pump that pumps seawater by receiving power from the storage battery, and generates hydrogen from seawater by receiving power from the storage battery. The ship equipped with a wind power generator of the present invention, which is equipped with a hydrogen generator and a hydrogen tank for storing hydrogen, can use hydrogen in addition to the electric power of the storage battery. Emissions can be further reduced, and navigation that is much more environmentally friendly can be realized.

In carrying out the present invention having the above-described configuration, the best or desirable mode will be described.
The hull must function as a vehicle that travels on water with people and things on it, and must have the function of moving on water such as the sea, lake, river, etc. A propulsion unit having an electric drive source must be provided, and a battery must be mounted above the bottom plate. More specifically, monohulls, catamaran, trihull, hydrofoil, hovercraft Alternatively, it can be any one of a wave piercer and the like.

    The propulsion device exerts a function of applying a force to the water under the hull to make the hull floating on the water movable, and can specifically be a screw propeller, more specifically, a fixed pitch Any of propeller, variable pitch propeller, contra-rotating propeller, nozzle propeller, pod propulsion, Z drive, electric pod propulsion, Schneider propeller, water jet propulsion, outer wheel (outer vehicle), archimedian screw, etc. It is possible.

    The electric drive source of the propulsion unit receives power supply and shares the function of driving the propulsion unit. Specifically, the electric motor, the electric slider, the electric cylinder, and the electric motor are a synchronous motor, a commutator Motors, AC motors such as thyristor motors, or DC motors such as shunt-type DC motors, series-wound DC motors, compound-wound DC motors, and more specifically, three-phase induction motors. And three-phase induction motors such as single-phase induction motors, single-phase induction motors such as split-phase start type, capacitor start type, repulsion start type, and capacitor type, and more specifically, general-purpose motors, inverter-specific constant torque motors, It can be any of a variety of motors, such as a cage-type induction motor such as a high-efficiency motor, but in other words, three-phase squirrel-cage induction motor, three-phase Linear induction motor, eddy current motor, switched reluctance motor, single-phase induction motor, induction motor, hysteresis motor, reluctance motor, inductor motor, synchronous motor, commutator motor, AC / DC motor, AC motor, electromagnetic motor , Permanent magnet field type motor, coreless motor, brushless motor, DC motor, superconducting motor, linear motor, superconducting non-induction motor, electrostatic motor, stepping motor, ultrasonic motor, and other special motors It is possible.

    The storage battery is a tornado-type wind power generator or a group of wind power generators consisting of a combination of multiple tornado-type wind power generators.The generated power is stored, and the electric drive source and control unit of the propulsion unit, as well as agricultural products Production facilities, food production facilities such as marine aquaculture facilities, and the like, and has the function of supplying power to equipment that requires power in the hull.Specifically, lead storage batteries, nickel-metal hydride batteries, lithium-ion batteries, It can be a NAS battery, a redox flow battery, a polymer electrolyte fuel cell, a phosphoric acid fuel cell, a molten carbonate fuel cell, a solid oxide fuel cell, and the like, and is also shown in Examples described later. Thus, a fossil fuel tank and a fossil fuel type generator driven by receiving fossil fuel from the fossil fuel tank are provided, and the power generated by the fossil fuel type generator is stored in the storage battery. Connected to it by as it is possible to those with said chemical fossil fuel electricity generator as such for emergency and auxiliary when the windless condition continued power is insufficient.

    The tornado-type wind power generator has a function of making it possible to generate power safely and efficiently by using natural wind energy blown from various directions toward the hull of a ship. This is a key component of an on-board type ship and utilizes the basic structure of a windmill blade, a windmill, and a wind generator described in Patent Document 1 (11). More specifically, based on 11), a position above the full load line of the hull and exposed to the outside so as to receive the wind force is disposed around the center of rotation in the vertical direction and receives the wind force. A blade for a windmill, which is located on the back side of the front side and the front side curved convexly toward the front in the traveling direction in the rotational direction when viewed from the vertical direction, and is concave toward the rear side in the traveling direction. Having a rear side curved to The side surface is a front edge surface arranged in front of the traveling direction, an air flow low-pass surface continuously formed from the leading edge surface toward the rear in the traveling direction arranged near the rotation center, and a side far from the rotation center. The airflow high-speed passage surface is formed continuously from the leading edge surface and bulges larger than the airflow low-speed passage surface toward the rear in the traveling direction, and has a length as viewed from the vertical direction longer than the airflow low-speed passage surface. At least one tornado-type wind power generator provided with an odd number of wind turbine blades provided with an odd number of wind turbine blades at equal angular intervals around the rotation center is set up in a vertical posture.

    The rear surface of the wind turbine blades should be in the form of an arc having a curvature smaller than the average curvature of the front surface, and, when viewed from the vertical direction, the arc formed by the rear surfaces of the wind turbine blades It is good that the rotation center is disposed on the extension of the wind turbine, and a wind tunnel through which the wind can pass can be provided between the wind turbine blade and the rotation center, and the wind turbine blade is It is preferable that a total of an odd number of sheets are arranged around the rotation center at equal angular intervals.

    Furthermore, when viewed from the vertical direction, the rear end in the traveling direction of the airflow high-speed passage surface of the wind turbine blade is arranged at a position farthest from the rotation center, and the rearmost end in the traveling direction of the airflow low-speed passage surface is most located at the rotation center. It is preferable that the first straight line passes through the rearmost end of the wind turbine blade in the advancing direction of the airflow low-speed passage surface and the rotation center when viewed from the vertical direction. Considering the second straight line passing through the foremost part of the traveling direction of the airflow and the rotation center, and the third straight line passing the rearmost end of the airflow high-speed passage surface in the traveling direction and the rotation center, the first straight line and the third straight line are considered. It can be said that it is desirable that the angle θ2 formed is set to be larger than the angle θ1 formed by the first straight line and the second straight line.

    The tornado-type wind power generator has a vertical rotation center with respect to a position above the full load line of the hull and exposed to the outside so as to receive the wind, as shown in an embodiment described later. A wind turbine blade that is disposed around and receives wind power, and is disposed on the rear side of the front side and the front side curved in a convex shape toward the front in the traveling direction in the rotational direction when viewed from the vertical direction, and travels forward. The rear surface has a rear surface curved concavely toward the rear side in the direction, and the front surface has a front edge surface arranged in front of the traveling direction, and a front edge surface arranged on the side near the center of rotation from the front edge surface in the traveling direction. The airflow low-speed passage surface continuously formed toward the rear of the airflow, and the curved surface that is located farther from the rotation center and bulges larger than the airflow low-speed passage surface from the front edge surface toward the rear in the traveling direction and is continuously formed from the vertical direction The length seen is longer than the airflow low-speed passage surface The first and second windmills are provided with an odd number of blades for a windmill including a flow high-speed passage surface and at an evenly spaced center angle around the rotation center, and a second windmill having the same shape as the first windmill. A field magnet that has a common rotation center and is arranged to rotate in opposite directions to each other and rotates in the same direction as the first wind turbine in conjunction with the rotation of the first wind turbine; At least one tornado-type wind power generator having an armature coil rotating in the same direction as the second wind turbine and having a power generating device disposed between the first wind turbine and the second wind turbine. Can be installed upright.

    It is preferable that the first windmill and the second windmill have the same shape and are arranged so as to rotate in opposite directions. However, the first windmill and the second windmill may have similar shapes, or may have the same shape in the rotation center direction (vertical direction). It is possible to use different lengths, or to provide an odd number of windmill blades having different numbers of blades.

    In addition, as shown in an embodiment described later, the tornado-type wind power generator is configured such that the rotation center of the windmill blade coincides with the center of gravity of the upper and lower horizontal frame of a plane regular triangle arranged above and below the windmill blade. The upper and lower vertices of the vertex arranged outside the outer diameter of the wind turbine blades of the upper and lower horizontal frames are integrated with three vertical frames to form a triangular prism-shaped outer shape. In addition, a total of three tornado-type wind power generators face each other so as to be spaced apart from each other with a gap of a plane equilateral triangle. A pair of vertices sandwiched are adjacent to each other, or one of those integrated by a common vertical frame, and one of the plane triangles is integrated into a triangular prism-shaped outer shape with one side being doubled. Wind turbine generator group, and at least one of the wind turbine generator groups has a full hull. To a position where the outer to receive a wind exposed crocodile A above the waterline, it is possible to made is erected in a vertical position.

    Furthermore, the tornado-type wind power generator is arranged vertically so that the rotation center of the wind turbine blades coincides with the center of gravity of the upper and lower horizontal frames of a plane equilateral triangle arranged above and below the wind turbine blades. The top and bottom of each vertex arranged on the outside of the horizontal frame windmill blades are integrated with three vertical frames into a skeletal frame that is framed to form a triangular prism shape. In addition to being pivotally supported, a total of six tornado-type wind power generators face each other with a plane regular hexagonal space therebetween, and a pair of vertices sandwiching one side of a plane regular triangle are adjacent to each other Or, it is one of those integrated with a common vertical frame, and a group of six wind turbine generators integrated in the outer shape of a planar six-pointed star column, the wind generator group At least one unit will receive wind power above the hull's waterline To outside is exposed crocodile position, it can be composed is erected in a vertical position.

    Then, as shown in an embodiment described later, the hull is provided with at least one of a fuel cell and an energy device that oxidizes and burns hydrogen, and receives seawater by receiving power from a storage battery. A seawater pump for pumping, a hydrogen generator for generating hydrogen from seawater by receiving power from a storage battery, and a hydrogen tank for storing hydrogen can be mounted.

    Furthermore, as shown in the embodiments described later, a marine product production facility that functions by receiving power supply from a storage battery or a marine product cultivation facility that functions by receiving power supply from a storage battery is provided in the hull. At least one of the food production facilities may be mounted in an electrically connected state so as to receive power supply from the storage battery, and the production facilities for agricultural products include a greenhouse and a plant for supplying seedlings. Seedling raising facilities, gravel cultivation facilities for vegetable cultivation, solution cultivation facilities, silkworm chambers for juvenile silkworms, silkworm chambers for silkworms, mounting cocoon rooms, egg facilities for livestock raising, livestock barn, ayu, que, trout, catfish, eels , Salmon, carp, tiger puffer, shrimp, squid, octopus, saury, sardine, horse mackerel, horse mackerel, flounder, yellowtail, bluefin tuna, suma, cod, herring, sardine, mackerel, yellowtail, red sea bream, amberjack, crab, oyster, scallops Turban, it is possible to mussels, abalone, sea urchins, sea squirts, sea cucumber, jellyfish, seaweed, kelp, seaweed, and the like aquaculture facilities and other.

The control unit is responsible for controlling the electric drive source of the propulsion device mounted on the hull, and controls the power generation of tornado-type wind power generators, wind power generators, storage batteries, and production facilities for agricultural products. Power supply control to marine aquaculture facilities, and more specifically, computers, microcomputers, sequencers, relay circuits, other control devices, or a combination thereof. And the like, and may have a storage device, software, or the like as needed, or be connected to a communication network.
In the following, the structure of the present invention will be described in detail together with the embodiment shown in the drawings.

The drawings show several representative embodiments that embody the technical concept of the ship equipped with a wind power generator of the present invention.
It is a side view which shows a wind power generator mounting type ship in section. It is a top view which shows a wind power generator mounted ship. It is a top view showing a wind power generator. It is a side view which shows a wind power generator. It is a top view which shows the wind power generator group in which three groups were integrated. It is a top view which shows the wind power generator group which six were integrated. It is a side view which shows in cross section the ship to which the fossil fuel type generator was added. It is a top view which shows a catamaran type ship. It is a front view which shows the blade for windmills incorporated in a wind power generator.

In the cases shown in FIGS. 1 to 6 and 9, the storage battery 2 is mounted on the bottom plate 11 of the hull 10 provided with the propulsion unit 3 having the electric drive source 30, and the storage battery 2 is located above the hull 10. On the other hand, a wind turbine blade 6 that is disposed around the vertical rotation center C and receives wind power, and has a front side surface 60 that is convexly curved toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. A rear side surface 64 disposed on the back side of the front side surface 60 and concavely curved toward the rear side in the traveling direction. The front side surface 60 has a front edge surface 61 disposed forward in the traveling direction. An airflow low-speed passage surface 63 which is arranged on the side closer to the rotation center C and is continuously formed from the front edge surface 61 toward the rear in the traveling direction, and which is arranged farther from the rotation center C and moves in the traveling direction from the front edge surface 61. The airflow bulges rearward more than the low-speed airflow surface 63 A wind turbine blade 6 including an airflow high-speed passage surface 62 longer than the airflow low-speed passage surface 63 when formed continuously with a curved surface and having a length as viewed from the vertical direction is provided at a center angle around the rotation center C at equal intervals. At least one tornado-type wind power generator 5 having an odd number of wind turbines 50 (51) is erected in a vertical position, the wind power generator 5 and the storage battery 2 are connected, and the electric drive source 30 FIG. 1 shows a representative embodiment of a wind turbine mounted ship equipped with a wind generator 5 of the present invention, which is provided with a control unit 8 connected to a storage battery 2 and capable of controlling an electric drive source 30. It is.
Since the tornado-type wind power generator 5 utilizes the basic structure of the wind turbine blade, the wind turbine, and the wind power generator described in Patent Document 1 (11), a detailed description thereof will be omitted. Only the main points are shown below.

    As can be clearly understood from these figures, the wind turbine-equipped ship equipped with the wind generator 5 of the present invention has a propulsion having an electric motor 30 as an electric drive source 30 driven by receiving electric power. The storage battery 2 is mounted on a reinforcement frame (not shown) of the hull 10 or more and not more than the deck 13 in the hull 10 provided with the screw 3 as the vessel 3, and a full load draft line of the hull 10 is provided. For example, on the deck 13, the wind turbine blades 6 that are arranged around the vertical rotation center C and receive the wind are located at positions higher than 12 and exposed to the outside to receive the wind. As shown in FIGS. 3 and 9, when viewed from the vertical direction, a front side surface 60 that is convexly curved toward the front side in the traveling direction in the rotational direction, and is disposed on the back side of the front side surface 60. Rear side The front side surface 60 has a rear side surface 64 that is concavely curved toward the front side. And a curved surface continuously formed toward the rear of the airflow, and a curved surface which is disposed farther from the rotation center C and bulges rearwardly from the front edge surface 61 in the traveling direction to a greater extent than the airflow low-speed passage surface 63. And three wind turbine blades 6 each including an airflow high-speed passage surface 62 that is longer than the airflow low-speed passage surface 63 when viewed from the vertical direction, are arranged around the rotation center C at equally spaced center angles. Have been.

    In the blade 6 for a windmill, the rear side surface 64 has an arc shape having a curvature smaller than the average curvature of the front side surface 60, and the rotation center C is disposed on an extension of the arc formed by the rear side surface 64 when viewed from the vertical direction. A wind tunnel through which wind can pass is formed between the wind turbine blade 6 and the rotation center C, and the wind turbine blade 6 is located at the end of the airflow high speed passage surface 62 in the traveling direction when viewed from the vertical direction. The end is located farthest from the center of rotation C, the rearmost end in the traveling direction of the airflow low-speed passage surface 63 is located at the position closest to the center of rotation C, and the wind turbine blades 6 A first straight line passing through the rearmost end of the surface 63 in the traveling direction and the rotation center C; a second straight line passing through the frontmost portion of the wind turbine blade 6 in the traveling direction and the rotation center C; Considering the third straight line passing through the rear end and the rotation center C, the first straight line Angle θ2 forming in the third straight line are assumed to have been set larger than the angle θ1 which forms between the first and second straight lines.

    As shown in FIGS. 3 and 4, in the tornado-type wind power generator 5, three wind turbine blades 6, 6, 6 are arranged at equal intervals (opening angle 120 °) around the rotation center C. A first windmill 50 integrated to be disposed and a second windmill 51 having the same shape as the first windmill 50 are arranged up and down so as to share a rotation center C and rotate in opposite directions to each other. A field magnet 70 that rotates in the same direction as the first windmill 50 in conjunction with the rotation of the windmill 50, and an armature coil 71 that rotates in the same direction as the second windmill 51 in conjunction with the rotation of the second windmill 51. And a power generation device 7 disposed between the first windmill 50 and the second windmill 51. The rotation center C of the first windmill 50 and the second windmill 51 is Above, between the first windmill 50 and the second windmill 51 (the power generator 7), and below the second windmill 51, respectively. The first windmill of the upper, middle, and lower horizontal frames F0, F0, F0 is arranged vertically so as to coincide between the centers of gravity of the upper, middle, and lower horizontal frames F0, F0, F0 of the plane equilateral triangle. The upper and lower portions of the vertexes 50 and the ridges arranged outside the outer diameter of the second windmill 51 are integrated by three vertical frames F1, F1, and F1 to form a triangular prism shape. It is assumed to be pivotally supported in the skeleton frame F.

    As shown in FIGS. 1 to 4, the tornado-type wind power generators 5, 5 erected on the front and rear sides of the hull 10 are wind turbine blades 6 of a first wind turbine 50 of the wind power generator 5 in front. 6, 6 and the rotation direction of the wind turbine blades 6, 6, 6 of the first wind turbine 50 of the rear wind generator 5 are arranged in opposite directions to each other. The rotation direction of the wind turbine blades 6, 6, 6 of the second wind turbine 51 and the rotation direction of the wind turbine blades 6, 6, 6 of the second wind turbine 51 of the rear wind generator 5 are arranged in opposite directions. It is possible that it was done.

    As shown in FIGS. 1 and 2, two tornado-type wind power generators 5, 5 are provided at the center of the width between the right and port sides of the hull 10 of the marine vessel 1 equipped with the wind power generator, and at the center between the bow and the stern. For example, the two wind power generators 5 and 5 and the storage battery 2 are installed in a vertical posture at positions before and after the center of gravity (not shown) of the hull 10, respectively. The electric power generated by the generators 5 and 5 is electrically connected to the storage battery 2 so as to be stored in the storage battery 2, and the electric power is supplied to the electric motor 30 as the electric drive source 30 of the screw 3 as the propulsion device 3 of the hull 10. A control unit 8 electrically connected to the storage battery 2 so as to be able to supply power and capable of controlling the electric motor 30 as the electric drive source 30 of the screw 3 as the propulsion unit 3 of the hull 10 is provided in the bridge 14. Have been.

    As shown in FIGS. 1, 2, and 5, in the tornado-type wind power generator 5, three wind turbine blades 6, 6, 6 are arranged at equal intervals around the rotation center C. The first windmill 50 integrated as described above and the second windmill 51 having the same shape as the first windmill 50 have a common rotation center C and are vertically arranged so as to rotate in opposite directions to each other. It has a field magnet 70 that rotates in the same direction as the first windmill 50 in conjunction with the rotation, and an armature coil 71 that rotates in the same direction as the second windmill 51 in conjunction with the rotation of the second windmill 51. , A power generator 7 disposed between the first windmill 50 and the second windmill 51, and the rotation center C of the first windmill 50 and the second windmill 51 Between the 1st windmill 50 and the 2nd windmill 51 (power generation device 7), the plane Shozo respectively arranged under the 2nd windmill 51 The first windmill 50 and the second windmill 50 of the upper, middle, and lower horizontal frames F0, F0, F0 are vertically arranged so as to coincide between the centers of gravity of the upper, middle, and lower horizontal frames F0, F0, F0. The upper and lower vertices of the vertexes arranged on the outer side of the outer diameter of the windmill 51 are integrated with three vertical frames F1, F1, F1 to form a triangular prism-shaped outer frame. F, a pair of tornado-type wind power generators 5,5,5, which are pivotally supported in F, face each other with a plane regular triangle gap therebetween, and sandwich one side of the plane regular triangle. Vertices are integrated adjacent to each other, or are integrated by common vertical frames F1, F1, F1, and the outer shape of a triangular prism whose one side of a plane triangle is doubled. Is replaced by a wind turbine group 4 in which three are integrated, for example, two wind turbines The group of electric motors 4 and 4 are erected in a vertical position, for example, at a position on the deck 13 above the full load line 12 of the hull 10 and exposed to the outside so as to receive wind. can do.

In addition, as shown in FIGS. 1, 2 and 6, a tornado-type wind power generator 5 has three wind turbine blades 6, 6, 6 arranged at equal intervals around a rotation center C. The first windmill 50 integrated as described above and a second windmill 51 having the same shape as the first windmill 50 are arranged up and down so as to share a center of rotation C and rotate in opposite directions to each other. A field magnet 70 that rotates in the same direction as the first windmill 50 in conjunction with the rotation of the first windmill 50, and an armature coil 71 that rotates in the same direction as the second windmill 51 in conjunction with the rotation of the second windmill 51. The power generation device 7 is provided between the first windmill 50 and the second windmill 51. The rotation center C of the first windmill 50 and the second windmill 51 is set above the first windmill 50, Planes respectively arranged between the first windmill 50 and the second windmill 51 (the power generating device 7) and below the second windmill 51 The first, second and third windmills 50 of the upper, middle, and lower horizontal frames F0, F0, F0 are vertically arranged so as to coincide between the centers of gravity of the triangular upper, middle, and lower horizontal frames F0, F0, F0. The upper and lower vertices of the apex arranged outside the outer diameter of the two windmills 51 are integrated by three vertical frames F1, F1 and F1 to form a triangular prism-shaped outer frame. , F, F, and a total of six tornado-type wind power generators 5, 5,... Oppose each other with a plane regular hexagonal space therebetween, forming one side of a plane regular triangle. The pair of vertices to be sandwiched are either integrated adjacent to each other or integrated by common vertical frames F1, F1,... Are replaced by an integrated wind power generator group 4, for example, two wind power generator groups 4 4, outside so that a higher than load line 12 of the hull 10 receiving the wind are exposed crocodile, for example a position on deck 13, can be made is erected in a vertical posture.
As shown by a two-dot chain line arrow in FIG. 6, the wind turbine group 4 in which the six units are integrated in the outer shape of the planar hexagram star column is provided with the first wind turbines 50 and 50 (or the second The windmills 51, 51) may be arranged so as to rotate in opposite directions to each other.

(Operation and Effect of First Embodiment)
As shown in FIGS. 1 to 4, the wind turbine mounted ship 1 equipped with the wind generator 5 of the present invention having the above-described configuration includes two tornado-type wind generators 5, 5. The hull on the water is provided at the center of the width between the right and port sides of the hull 10 and near the center between the bow and the stern, and at the positions before and after the center of gravity of the hull 10. The balance of 10 is good and safer navigation is realized.

    As shown in FIG. 5, each of the three skeleton frames F, F,... Of the three tornado-type wind power generators 5, 5, 5 has a triangular prism shape having a plane size twice as large. , Or as shown in FIG. 6, each of the skeleton frames F, F,... Of the six tornado-type wind power generators 5, 5,. One of the wind power generator groups 4 integrated with each other in the shape of a hexagonal column in the form of a plane has a vertical attitude at a position on the deck 13 of the hull 10 as shown in FIG. As shown in FIG. 2 and FIG. 2, the integrated strength with the hull 10 can be further increased as compared with the case where the wind power generator 5 is erected in a stand-alone state, and the amount of power generation Which can drive the propulsion unit 3 and the electric drive source 30 (see FIG. 1) of the larger vessel 1 It can be.

    Then, as shown by the two-dot chain line arrow in FIG. 6, the six units are integrated into the outer shape of a planar six-pointed star-shaped column, and the first windmills 50, 50 (or the second windmills 51, 51) adjacent around the circumference are integrated. The wind power generator group 4 arranged so that they rotate in opposite directions to each other has a uniform and uniform stress and vibration applied to the entire skeletal frames F, F,. It will be mounted on the hull 10.

    As shown in FIG. 7, in the wind turbine-equipped ship 1 equipped with the wind generator 5 of the present invention, the storage battery 2 supplies the fossil fuel tank 21 and the fossil fuel supply from the fossil fuel tank 21. A fossil fuel type power generator 20 that receives and drives is provided in the hull 10, and the power generated by the fossil fuel type power generator 20 is connected so as to be stored in the storage battery 2. The fossil fuel type power generator 20 is connected to the power generator 20 so as to be controllable.

    As shown in FIG. 8, the marine vessel 1 on which the wind power generator 5 of the present invention is mounted has a hull 10 which is a catamaran and a deck straddling between the hulls 10, 10. 13, a tornado-type wind power generator 5, 5 (or a wind power generator group 4, 4) is erected in a vertical position, a storage battery 2 is mounted in one hull 10, and a fuel cell 22 or , An energy device 23 for oxidizing and burning hydrogen, a seawater pump 24 receiving electric power from the storage battery 2 to pump seawater, a hydrogen generator 25 receiving electric power from the storage battery 2 to generate hydrogen from seawater, and hydrogen A hydrogen tank 26 for storing marine products is mounted, and the other hull 10 is provided with either a food production facility 9 for a production facility for agricultural products or a cultivation facility for marine products.

(Operation and Effect of Second Embodiment)
As shown in FIG. 7, the wind generator-equipped ship 1 of the present invention equipped with the wind generator 5 additionally provided with the fossil fuel tank 21 and the fossil fuel generator 20 has no wind. Even when the state is prolonged or when both the wind power generators 5 and 5 fail, power generation and charging are enabled, and safer and more reliable navigation can be realized.

    As shown in FIG. 8, a storage battery 2 is mounted in one hull 10 of a hull 10 which is a catamaran, and one of a production facility for agricultural products and a cultivation facility for marine products is provided in the other hull 10. According to the ship 1 equipped with the wind power generator 5 of the present invention provided with the food production facility 9 of the present invention, the installation space of the food production facility 9 can be widely secured, and furthermore, it is isolated from the storage battery 2. Therefore, the operational safety of food production can be further enhanced. Further, according to the ship 1 equipped with the fuel cell 22 or the energy device 23 for oxidizing and burning hydrogen, the storage battery 2 A part of the stored electric power can be stored as hydrogen energy, so that more various kinds of energy can be used.

(Conclusion)
As described above, the wind power generator-equipped ship of the present invention can achieve the intended purpose uniformly by its novel structure, is easy to manufacture, and has a conventional ship technology equipped with a wind power generator. Power generation efficiency, significantly increase the durability of wind power generators, reduce maintenance costs and make it much more economical. Since it is easy to adjust the number of generators and set the required amount of power generation, it is possible to emit carbon dioxide regardless of the type and size of the ship, regardless of the size of the ship. It is possible to secure farmland and aquaculture, as well as in the transportation industry, which is struggling with soaring oil prices and the restriction of carbon dioxide emissions, and the fishing industry, which wants to navigate the water with low fuel consumption. Difficult agricultural industry and cultivation / aquaculture fishing Is highly regarded in such field, use over a wide range, is expected to be those that continue to spread.

1 Ships equipped with a wind generator
10 Hull (monohull, catamaran, trimaran)
11 Same bottom plate
12 same load line
13 Same deck
14 Funabashi 2 storage battery
20 Fossil fuel generator
21 Fossil fuel tank
22 Same fuel cell
23 Energy devices that oxidize and burn hydrogen
24 Seawater pump
25 Hydrogen generator
26 Same hydrogen tank 3 thruster (screw)
30 Electric drive source (electric motor)
4 Wind generator group 5 Tornado-type wind generator
50 1st windmill
51 2nd windmill F frame frame
F0 Same horizontal frame
F1 Vertical frame C Center of rotation 6 Windmill blades
60 Front side
61 Front edge
62 High-speed airflow passage surface
63 Same airflow low-speed passage surface
64 Rear side 7 Power generator
70 Field magnet
71 Armature coil 8 Control unit 9 Food production facilities (production facilities for agricultural products, cultivation facilities for marine products)

However, a marine vessel equipped with a wind power generator having wings rotating around a vertical axis as shown in the former Patent Documents 1 (1) to 1 (4) is a vertical wind turbine using four blades. In the case of any one of the four blades, when any one of the blades receives a wind in one direction and obtains a rotational force, the blades arranged on the opposite side are rotated in the opposite direction to the rotation direction from the same one-direction wind. The efficiency of the wind power generator is low, such as the loss of rotational power and the loss of the rotational force from the wind to the four blades located on the leeward side. Was to leave.
(1) Japanese Utility Model Application Laid-Open No. 54-151096 (2) Japanese Patent Application Laid-Open No. 55-152697 (3) Japanese Patent No. 4551621 (4) Japanese Patent Application Laid-Open No. 2013-517404 (5) Japanese Patent Application Laid-Open No. 2011-235677 (6) JP-A-2002-303454 (7) JP-A-2010-264969 (8) Patent No. 45312727 (9) JP-A-7-255280 (10) JP-A-2001-132617 (11) ) Patent No. 3905121

    The present invention relates to a marine technology that makes it possible to use wind energy that reduces or eliminates the use of fossil fuels as a driving source, and in particular, efficiently generates and generates electricity from wind blowing from various directions on the water surface. From the field of manufacturing and providing wind power generator-equipped ships that can store electricity and obtain propulsion, as well as the fields of providing and selling equipment and instruments necessary for their transport, storage, assembly and installation In the field of providing materials, machinery, and materials required for parts, such as wood, stone, various fibers, plastics, and various metal materials, electronic components incorporated in them, and control-related equipment that integrates them. , The fields of various measuring instruments, the field of power machinery that moves the equipment and instruments, the fields of electric power that is the energy, and the fields of electricity and oil that are energy sources. In addition to the fields that are collectively referred to as industrial machinery, furthermore, to test and research such equipment and instruments, to display, sell, import and export them, and to use them as a result of their use and to make them. Related to the collection and transportation of refuse generated from the operation of facilities and equipment, and the recycling field for efficiently reusing such refuse, as well as new fields that cannot be anticipated at the moment. There are no technical fields that do not.

(Points of interest)
Industries that require the use of ships, such as water transport and fishing, are susceptible to soaring crude oil prices.Furthermore, efforts to reduce fuel consumption due to various factors, such as demands for reduction and suppression of carbon dioxide emissions, have made efforts. It has become indispensable, and it is becoming increasingly difficult to navigate and transport on water using only conventional fossil fuels.

(Conventional technology)
Proposals that reflect this situation and offer a breakthrough are not uncommon.
For example, as typified by the following Patent Documents 1 (1) to 1 (4), a wind power generator having wings rotating around a vertical axis is erected on the hull of a ship. And a ship capable of navigating using the power generated by the wind power generator as a driving energy source, a wave power generator, a wind power generator, a solar cell, or the like as disclosed in Patent Document 1 (5). It is equipped with a marine power generation plant and a storage battery so that power generation and charging can be performed during navigation, or as described in Patent Documents 1 (6) to 1 (8), electric power obtained during navigation by wind power generation or the like. Utilizing technology to generate hydrogen, such as the one shown in Patent Document 1 (9), a wave-type power generator, a solar cell panel, a wind power generator, a fiber optic solar receiver, And vegetable growing planters It is, such as the production possible and the sea tethered vegetables growing apparatus vegetables such as sea is scattered.

However, a marine vessel equipped with a wind power generator having wings rotating around a vertical axis as shown in the former Patent Documents 1 (1) to 1 (4) is a vertical wind turbine using four blades. In the case of any one of the four blades, when any one of the blades receives a wind in one direction and obtains a rotational force, the blades arranged on the opposite side are rotated in the opposite direction to the rotation direction from the same one-direction wind. The efficiency of the wind power generator is low, such as the loss of rotational power and the loss of the rotational force from the wind to the four blades located on the leeward side. Was to leave.
(1) JP-A-54-151096 (2) JP-A-55-152697 (3) JP-A-5516321 (4) JP-T-2013-517404 (5) JP-A-2011-235677 (6) JP-A-2002-303454 (7) JP-A-2010-264969 (8) Patent No. 45312727 (9) JP-A-7-255280 (10) JP-A-2001-132617 (11) ) Patent No. 3905121

(Awareness of problems)
As mentioned above, the wind turbines with various wind generators that have been proposed up to now have low efficiency of wind power generation, and the blades stop rotating in the case of light winds, and the blades are subjected to an excessive load in strong winds. It is difficult to completely eliminate the need for fossil fuels because stable power generation is difficult, and it is indispensable to mount an engine for power generation and an engine for driving a propulsion unit. It is necessary to develop new ship technology that enables high-efficiency power generation in all natural environments and realizes safer and more efficient navigation, with the disadvantage that the weight increases and hinders fuel-efficient navigation. It is a thing that has led to a feeling of sex.

(Object of the invention)
Therefore, the present invention not only enables wind power generation having a power generation capacity capable of generating power stably with high efficiency and safety even in all kinds of environments from light winds to storms, and it is only necessary to navigate using the generated power. Judging that it is not possible to develop new marine technologies that can realize stable production and supply of agricultural and marine products using natural energy, we quickly started development and research, and conducted trial and error over a long period of time. As a result of repeating the trial production and experiment, this time, we finally succeeded in realizing a ship equipped with a wind generator with a new structure, and in the following, together with an embodiment representing the present invention shown in the drawings, The configuration will be described in detail.

(Structure of the invention)
As can be clearly understood from the embodiment of the present invention shown in the drawings, the ship equipped with a wind generator of the present invention basically has the following configuration.
That is, a storage battery is mounted above the bottom plate of a hull provided with a propulsion device having an electric drive source that is driven by supply of electric power, and a storage battery is provided above the full load line of the hull and receives wind power. A wind turbine blade that is disposed around a vertical rotation center and receives wind power with respect to the exposed position, and is curved in a convex shape toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. A front side surface, a rear side surface arranged rearward of the front side surface and curved concavely toward the rear side in the traveling direction, the front side surface is a front edge surface arranged forward in the traveling direction, An airflow low-speed passage surface that is arranged near the center of rotation and continuously formed from the leading edge toward the rear in the traveling direction, and an airflow low speed that is located farther from the center of rotation and backward from the leading edge toward the rear in the traveling direction Continuously formed with a curved surface that swells larger than the passing surface Equipped with a wind turbine blade configured to include an airflow high-speed passage surface having a length that is longer than the airflow low-speed passage surface when viewed from the vertical direction, and an odd number of windmills provided around the rotation center at equal center angles at equal intervals. The tornado-type wind power generators are separated from each other before and after the center of gravity of the hull, and are located near the center of the width between the right and port sides of the hull and between the bow and stern. The rotation direction of the wind turbine blades of the front wind generator and the rotation direction of the wind turbine blades of the rear wind generator are arranged to be opposite to each other, and are erected vertically. And the storage battery are electrically connected so that the electric power generated by the wind power generator is stored in the storage battery, so that the storage battery can supply power to the electric drive source of the propulsion unit of the hull. Drive source for the propulsion unit of the hull The arrangement controllable control unit has shall become provided a wind power generator on-board the ship to subject matter.

In other words, a wind power generator-equipped ship having this basic configuration is a storage battery that is larger than the bottom plate of a hull provided with a propulsion unit having an electric drive source that is driven by receiving power supply. A wind turbine blade that is disposed around a vertical rotation center and receives wind force at a position above the full load line of the hull and exposed to the outside so as to receive wind force. And a front side curved convexly toward the front in the traveling direction in the rotational direction as viewed from the vertical direction, and a rear side arranged on the back side of the front side and curved concavely toward the rear in the traveling direction. And the front side surface has a front edge surface arranged forward in the traveling direction, and an airflow low-speed passage surface continuously arranged rearward in the traveling direction from the front edge surface arranged near the center of rotation. , Located on the far side from the center of rotation and proceeding from the leading edge The wind turbine blades, which are formed continuously with a curved surface that bulges larger than the airflow low-speed passage surface toward the rear and include an airflow high-speed passage surface longer than the airflow low-speed passage surface when viewed from the vertical direction, At least one tornado-type wind power generator provided with an odd number of wind turbines provided at evenly spaced center angles around the rotation center is a position separated from before and after sandwiching the center of gravity of the hull, It should be located near the center of the width between the starboard and port, and between the bow and stern, and the direction of rotation of the wind turbine blades of the wind turbine in front and the direction of the wind turbine blades of the rear wind generator. Are arranged so that they are opposite to each other, and are erected in a vertical position, and the wind power generator and the storage battery are electrically connected so that the power generated by the wind power generator is stored in the storage battery, As an electric drive source for the propulsion unit of the hull Then, the storage battery is electrically connected so as to be able to supply power, a control unit capable of controlling an electric drive source of the propulsion unit of the hull is provided, and the wind power generator receiving natural wind power generates power. The power is stored in the storage battery, and the power supplied from the storage battery drives the electric drive source of the propulsion device, thereby providing a ship equipped with a wind generator having a configuration that enables the hull to navigate.

More specifically, a storage battery is mounted above the bottom plate of a hull provided with a propulsion device having an electric drive source that receives and drives electric power, and receives a wind force above a full load line of the hull. A blade for a windmill that is disposed around a vertical rotation center and receives wind power with respect to a position exposed to the outside, and is convex toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. And a rear side disposed on the back side of the front side and concavely curved toward the rear side in the traveling direction, and the front side is disposed before the front side in the traveling direction. An edge surface, an airflow low-speed passage surface that is arranged on the side near the rotation center and is continuously formed from the front edge surface toward the rear in the traveling direction, and a gas flow low-speed passage surface that is arranged on the side far from the rotation center and behind the front edge surface in the traveling direction. The curved surface is larger than the low-speed An odd number of blades for a windmill configured and including an airflow high-speed passage surface longer than the airflow low-speed passage surface when viewed from the vertical direction are provided around the rotation center at equal center angles. A first windmill and a second windmill having the same shape as the first windmill have a common rotation center and are arranged to rotate in opposite directions to each other, and cooperate with the rotation of the first windmill in the same direction as the first windmill. , And an armature coil rotating in the same direction as the second windmill in conjunction with the rotation of the second windmill, and a power generator disposed between the first windmill and the second windmill. At least one tornado-type wind power generator equipped with the device is separated from the center of the hull before and after the center of gravity of the hull, and near the center between the bow and stern. And for the wind turbine of the first wind turbine of the wind generator ahead The rotation direction of the root and the rotation direction of the wind turbine blades of the first wind turbine of the rear wind generator are arranged in opposite directions, and the rotation direction of the wind turbine blade of the second wind turbine of the front wind generator is The wind turbine blades of the second wind turbine of the rear wind generator are arranged so that the directions of rotation of the wind turbine blades are opposite to each other, and are erected in a vertical posture, and the wind generator and the storage battery are The generated electric power is electrically connected to be stored in the storage battery, and is electrically connected to the electric drive source of the propulsion device of the hull so that the storage battery can supply power. A wind power generator-equipped ship having a configuration in which a control unit capable of controlling the electric drive source is provided.

    As described above, according to the wind turbine mounted ship of the present invention, unlike the conventional one, the wind turbine mounted on the conventional ship is different from the conventional one because of the unique feature of the wind generator as described above. A stall caused by a sudden change in wind direction (for example, a wind wind), which is regarded as a drawback, and a windmill of a vertical rotating shaft type (for example, see Patent Document 1 (10)) have a sufficient rotating force on a blade on one side of a vertical rotating shaft. However, the other blade on one side suffered the resistance of the headwind and stalled, but this problem was completely eliminated, and various winds from strong wind to light wind blowing from all directions were eliminated. As a result, the windmill rotates efficiently, and more stable power generation can be realized.Moreover, the sway of the hull due to wind pressure can be greatly reduced, and safer and more stable navigation can be realized. Outstanding feature of allowing for navigation, not those which can be obtained.

    In addition, according to the tornado-type wind turbine-equipped ship in which the first windmill and the second windmill having the same shape as the first windmill share a rotation center and are arranged to rotate in opposite directions to each other. It can eliminate stalls caused by differences in wind direction due to the difference in altitude between the top and bottom of the wind power generator, so that more efficient wind power generation can be realized, and the hull sway caused by wind pressure can be significantly reduced. Therefore, it is possible to realize safer and more stable navigation.

    According to the ship equipped with a wind power generator of the present invention, in which a fossil fuel type power generator provided with a fossil fuel tank is connected to a storage battery, a state of no wind on water continues for a long time. In case of shortage of power storage due to windup or wind power generator failure, it is possible to navigate using the power from these fossil fuel type generators and realize safer operation Becomes

    The hull is either a twin-hull type or a three-hull type, and a tornado-type wind power generator is installed on a deck straddling between the hulls in a vertical posture. Since the type vessels are efficiently arranged on the deck where the wind power generator is limited, a wider effective space is secured, and more efficient transportation and installation of facilities can be performed.

    A food production facility of at least one of a production facility for agricultural products and a cultivation facility for marine products is mounted in a hull in an electrically connected state so as to receive power supply from a storage battery. Vessels equipped with a wind generator can produce food while sailing on the water, can significantly reduce the amount of carbon dioxide generated in the process of producing food, and eliminate the need for a land-based production plant. It will be able to provide more fresh food than transporting goods from the city, and will be able to use it effectively for evacuation and rescue in the event of a disaster, as well as for food production factories by berthing.

    In addition, a tornado-type wind power generator is arranged such that the rotation centers of the first and second wind turbines are above the first wind turbine, between the first and second wind turbines (power generation device), and below the second wind turbine. Are arranged vertically so as to coincide between the centers of gravity of the upper, middle and lower horizontal frames of the flat equilateral triangle, and are outside the outer diameters of the first and second windmills of the upper, middle and lower horizontal frames. The upper and lower vertices of the crocodile are integrated by three vertical frames, and are supported by a skeleton frame that is framed to form a triangular prism-shaped outer shape, and a total of three tornado types Wind power generators face each other with a gap of a plane equilateral triangle therebetween, and a pair of vertices sandwiching one side of the plane equilateral triangle are adjacently integrated, or integrated by a common vertical frame One side of the plane triangle has a double-sided triangular prism shape The unit is replaced by an integrated group of wind generators, at least one of which is standing above the hull's full waterline and exposed to the outside to receive wind. The wind turbine-equipped ship of the present invention, which is provided, has three tornado-type wind power generators integrated into a wind power generator group, so that the skeleton frames of each other support and reinforce each other. Thus, the power generation and the power storage can be at least tripled, and can be mounted on a larger vessel with high space efficiency.

    Furthermore, the tornado-type wind power generators are replaced with a group of wind power generators in which a total of six tornado-type wind power generators are integrated into a flat hexagonal column-shaped shell, and at least one of the wind power generators Is erected at a position above the draft line of the hull and exposed to the outside so as to receive the wind, the wind turbine-equipped ship of the present invention has at least six times the amount of power generation and Since the amount of electricity can be stored, it can be mounted on a larger vessel to enable safe and efficient navigation.

    The hull is equipped with at least one of a fuel cell and an energy device that oxidizes and burns hydrogen, a seawater pump that pumps seawater by receiving power from the storage battery, and generates hydrogen from seawater by receiving power from the storage battery. The ship equipped with a wind power generator of the present invention, which is equipped with a hydrogen generator and a hydrogen tank for storing hydrogen, can use hydrogen in addition to the electric power of the storage battery. Emissions can be further reduced, and navigation that is much more environmentally friendly can be realized.

In carrying out the present invention having the above-described configuration, the best or desirable mode will be described.
The hull must function as a vehicle that travels on water with people and things on it, and must have the function of moving on water such as the sea, lake, river, etc. A propulsion unit having an electric drive source must be provided, and a battery must be mounted above the bottom plate. More specifically, monohulls, catamaran, trihull, hydrofoil, hovercraft Alternatively, it can be any one of a wave piercer and the like.

    The propulsion device exerts a function of applying a force to the water under the hull to make the hull floating on the water movable, and can specifically be a screw propeller, more specifically, a fixed pitch Any of propeller, variable pitch propeller, contra-rotating propeller, nozzle propeller, pod propulsion, Z drive, electric pod propulsion, Schneider propeller, water jet propulsion, outer wheel (outer vehicle), archimedian screw, etc. It is possible.

    The electric drive source of the propulsion unit receives power supply and shares the function of driving the propulsion unit. Specifically, the electric motor, the electric slider, the electric cylinder, and the electric motor are a synchronous motor, a commutator Motors, AC motors such as thyristor motors, or DC motors such as shunt-type DC motors, series-wound DC motors, compound-wound DC motors, and more specifically, three-phase induction motors. And three-phase induction motors such as single-phase induction motors, single-phase induction motors such as split-phase start type, capacitor start type, repulsion start type, and capacitor type, and more specifically, general-purpose motors, inverter-specific constant torque motors, It can be any of a variety of motors, such as a cage-type induction motor such as a high-efficiency motor, but in other words, three-phase squirrel-cage induction motor, three-phase Linear induction motor, eddy current motor, switched reluctance motor, single-phase induction motor, induction motor, hysteresis motor, reluctance motor, inductor motor, synchronous motor, commutator motor, AC / DC motor, AC motor, electromagnetic motor , Permanent magnet field type motor, coreless motor, brushless motor, DC motor, superconducting motor, linear motor, superconducting non-induction motor, electrostatic motor, stepping motor, ultrasonic motor, and other special motors It is possible.

    The storage battery is a tornado-type wind power generator or a group of wind power generators consisting of a combination of multiple tornado-type wind power generators.The generated power is stored, and the electric drive source and control unit of the propulsion unit, as well as agricultural products Production facilities, food production facilities such as marine aquaculture facilities, and the like, and has the function of supplying power to equipment that requires power in the hull.Specifically, lead storage batteries, nickel-metal hydride batteries, lithium-ion batteries, It can be a NAS battery, a redox flow battery, a polymer electrolyte fuel cell, a phosphoric acid fuel cell, a molten carbonate fuel cell, a solid oxide fuel cell, and the like, and is also shown in Examples described later. Thus, a fossil fuel tank and a fossil fuel type generator driven by receiving fossil fuel from the fossil fuel tank are provided, and the power generated by the fossil fuel type generator is stored in the storage battery. Connected to it by as it is possible to those with said chemical fossil fuel electricity generator as such for emergency and auxiliary when the windless condition continued power is insufficient.

    The tornado-type wind power generator has a function of making it possible to generate power safely and efficiently by using natural wind energy blown from various directions toward the hull of a ship. This is a key component of an on-board type ship and utilizes the basic structure of a windmill blade, a windmill, and a wind generator described in Patent Document 1 (11). More specifically, based on 11), a position above the full load line of the hull and exposed to the outside so as to receive the wind force is disposed around the center of rotation in the vertical direction and receives the wind force. A blade for a windmill, which is located on the back side of the front side and the front side curved convexly toward the front in the traveling direction in the rotational direction when viewed from the vertical direction, and is concave toward the rear side in the traveling direction. Having a rear side curved to The side surface is a front edge surface arranged in front of the traveling direction, an air flow low-pass surface continuously formed from the leading edge surface toward the rear in the traveling direction arranged near the rotation center, and a side far from the rotation center. The airflow high-speed passage surface is formed continuously from the leading edge surface and bulges larger than the airflow low-speed passage surface toward the rear in the traveling direction, and has a length as viewed from the vertical direction longer than the airflow low-speed passage surface. At least one tornado-type wind power generator provided with an odd number of wind turbine blades provided with an odd number of wind turbine blades at equal angular intervals around the rotation center is set up in a vertical posture.

    The rear surface of the wind turbine blades should be in the form of an arc having a curvature smaller than the average curvature of the front surface, and, when viewed from the vertical direction, the arc formed by the rear surfaces of the wind turbine blades It is good that the rotation center is disposed on the extension of the wind turbine, and a wind tunnel through which the wind can pass can be provided between the wind turbine blade and the rotation center, and the wind turbine blade is It is preferable that a total of an odd number of sheets are arranged around the rotation center at equal angular intervals.

    Furthermore, when viewed from the vertical direction, the rear end in the traveling direction of the airflow high-speed passage surface of the wind turbine blade is arranged at a position farthest from the rotation center, and the rearmost end in the traveling direction of the airflow low-speed passage surface is most located at the rotation center. It is preferable that the first straight line passes through the rearmost end of the wind turbine blade in the advancing direction of the airflow low-speed passage surface and the rotation center when viewed from the vertical direction. Considering the second straight line passing through the foremost part of the traveling direction of the airflow and the rotation center, and the third straight line passing the rearmost end of the airflow high-speed passage surface in the traveling direction and the rotation center, the first straight line and the third straight line are considered. It can be said that it is desirable that the angle θ2 formed is set to be larger than the angle θ1 formed by the first straight line and the second straight line.

    The tornado-type wind power generator has a vertical rotation center with respect to a position above the full load line of the hull and exposed to the outside so as to receive the wind, as shown in an embodiment described later. A wind turbine blade that is disposed around and receives wind power, and is disposed on the rear side of the front side and the front side curved in a convex shape toward the front in the traveling direction in the rotational direction when viewed from the vertical direction, and travels forward. The rear surface has a rear surface curved concavely toward the rear side in the direction, and the front surface has a front edge surface arranged in front of the traveling direction, and a front edge surface arranged on the side near the center of rotation from the front edge surface in the traveling direction. The airflow low-speed passage surface continuously formed toward the rear of the airflow, and the curved surface that is located farther from the rotation center and bulges larger than the airflow low-speed passage surface from the front edge surface toward the rear in the traveling direction and is continuously formed from the vertical direction. The length seen is longer than the airflow low-speed passage surface The first and second windmills are provided with an odd number of blades for a windmill including a flow high-speed passage surface and at an evenly spaced center angle around the rotation center, and a second windmill having the same shape as the first windmill. A field magnet that has a common rotation center and is arranged to rotate in opposite directions to each other and rotates in the same direction as the first wind turbine in conjunction with the rotation of the first wind turbine; At least one tornado-type wind power generator having an armature coil rotating in the same direction as the second wind turbine and having a power generating device disposed between the first wind turbine and the second wind turbine. Can be installed upright.

    It is preferable that the first windmill and the second windmill have the same shape and are arranged so as to rotate in opposite directions. However, the first windmill and the second windmill may have similar shapes, or may have the same shape in the rotation center direction (vertical direction). It is possible to use different lengths, or to provide an odd number of windmill blades having different numbers of blades.

    In addition, as shown in an embodiment described later, the tornado-type wind power generator is configured such that the rotation center of the windmill blade coincides with the center of gravity of the upper and lower horizontal frame of a plane regular triangle arranged above and below the windmill blade. The upper and lower vertices of the vertex arranged outside the outer diameter of the wind turbine blades of the upper and lower horizontal frames are integrated with three vertical frames to form a triangular prism-shaped outer shape. In addition, a total of three tornado-type wind power generators face each other so as to be spaced apart from each other with a gap of a plane equilateral triangle. A pair of vertices sandwiched are adjacent to each other, or one of those integrated by a common vertical frame, and one of the plane triangles is integrated into a triangular prism-shaped outer shape with one side being doubled. Wind turbine generator group, and at least one of the wind turbine generator groups has a full hull. To a position where the outer to receive a wind exposed crocodile A above the waterline, it is possible to made is erected in a vertical position.

    Furthermore, the tornado-type wind power generator is arranged vertically so that the rotation center of the wind turbine blades coincides with the center of gravity of the upper and lower horizontal frames of a plane equilateral triangle arranged above and below the wind turbine blades. The top and bottom of each vertex arranged on the outside of the horizontal frame windmill blades are integrated with three vertical frames into a skeletal frame that is framed to form a triangular prism shape. In addition to being pivotally supported, a total of six tornado-type wind power generators face each other with a plane regular hexagonal space therebetween, and a pair of vertices sandwiching one side of a plane regular triangle are adjacent to each other Or, it is one of those integrated with a common vertical frame, and a group of six wind turbine generators integrated in the outer shape of a planar six-pointed star column, the wind generator group At least one unit will receive wind power above the hull's waterline To outside is exposed crocodile position, it can be composed is erected in a vertical position.

    Then, as shown in an embodiment described later, the hull is provided with at least one of a fuel cell and an energy device that oxidizes and burns hydrogen, and receives seawater by receiving power from a storage battery. A seawater pump for pumping, a hydrogen generator for generating hydrogen from seawater by receiving power from a storage battery, and a hydrogen tank for storing hydrogen can be mounted.

    Furthermore, as shown in the embodiments described later, a marine product production facility that functions by receiving power supply from a storage battery or a marine product cultivation facility that functions by receiving power supply from a storage battery is provided in the hull. At least one of the food production facilities may be mounted in an electrically connected state so as to receive power supply from the storage battery, and the production facilities for agricultural products include a greenhouse and a plant for supplying seedlings. Seedling raising facilities, gravel cultivation facilities for vegetable cultivation, solution cultivation facilities, silkworm chambers for juvenile silkworms, silkworm chambers for silkworms, mounting cocoon rooms, egg facilities for livestock raising, livestock barn, ayu, que, trout, catfish, eels , Salmon, carp, tiger puffer, shrimp, squid, octopus, saury, sardine, horse mackerel, horse mackerel, flounder, yellowtail, bluefin tuna, suma, cod, herring, sardine, mackerel, yellowtail, red sea bream, amberjack, crab, oyster, scallops Turban, it is possible to mussels, abalone, sea urchins, sea squirts, sea cucumber, jellyfish, seaweed, kelp, seaweed, and the like aquaculture facilities and other.

The control unit is responsible for controlling the electric drive source of the propulsion device mounted on the hull, and controls the power generation of tornado-type wind power generators, wind power generators, storage batteries, and production facilities for agricultural products. Power supply control to marine aquaculture facilities, and more specifically, computers, microcomputers, sequencers, relay circuits, other control devices, or a combination thereof. And the like, and may have a storage device, software, or the like as needed, or be connected to a communication network.
In the following, the structure of the present invention will be described in detail together with the embodiment shown in the drawings.

The drawings show several representative embodiments that embody the technical concept of the ship equipped with a wind power generator of the present invention.
It is a side view which shows a wind power generator mounting type ship in section. It is a top view which shows a wind power generator mounted ship. It is a top view showing a wind power generator. It is a side view which shows a wind power generator. It is a top view which shows the wind power generator group in which three groups were integrated. It is a top view which shows the wind power generator group which six were integrated. It is a side view which shows in cross section the ship to which the fossil fuel type generator was added. It is a top view which shows a catamaran type ship. It is a front view which shows the blade for windmills incorporated in a wind power generator.

In the cases shown in FIGS. 1 to 6 and 9, the storage battery 2 is mounted on the bottom plate 11 of the hull 10 provided with the propulsion unit 3 having the electric drive source 30, and the storage battery 2 is located above the hull 10. On the other hand, a wind turbine blade 6 that is disposed around the vertical rotation center C and receives wind power, and has a front side surface 60 that is convexly curved toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. A rear side surface 64 disposed on the back side of the front side surface 60 and concavely curved toward the rear side in the traveling direction. The front side surface 60 has a front edge surface 61 disposed forward in the traveling direction. An airflow low-speed passage surface 63 which is arranged on the side closer to the rotation center C and is continuously formed from the front edge surface 61 toward the rear in the traveling direction, and which is arranged farther from the rotation center C and moves in the traveling direction from the front edge surface 61. The airflow bulges rearward more than the low-speed airflow surface 63 A wind turbine blade 6 including an airflow high-speed passage surface 62 longer than the airflow low-speed passage surface 63 when formed continuously with a curved surface and having a length as viewed from the vertical direction is provided at a center angle around the rotation center C at equal intervals. At least one tornado-type wind power generator 5 having an odd number of wind turbines 50 (51) is erected in a vertical position, the wind power generator 5 and the storage battery 2 are connected, and the electric drive source 30 FIG. 1 shows a representative embodiment of a wind turbine mounted ship equipped with a wind generator 5 of the present invention, which is provided with a control unit 8 connected to a storage battery 2 and capable of controlling an electric drive source 30. It is.
Since the tornado-type wind power generator 5 utilizes the basic structure of the wind turbine blade, the wind turbine, and the wind power generator described in Patent Document 1 (11), a detailed description thereof will be omitted. Only the main points are shown below.

    As can be clearly understood from these figures, the wind turbine-equipped ship equipped with the wind generator 5 of the present invention has a propulsion having an electric motor 30 as an electric drive source 30 driven by receiving electric power. The storage battery 2 is mounted on a reinforcement frame (not shown) of the hull 10 or more and not more than the deck 13 in the hull 10 provided with the screw 3 as the vessel 3, and a full load draft line of the hull 10 is provided. For example, on the deck 13, the wind turbine blades 6 that are arranged around the vertical rotation center C and receive the wind are located at positions higher than 12 and exposed to the outside to receive the wind. As shown in FIGS. 3 and 9, when viewed from the vertical direction, a front side surface 60 that is convexly curved toward the front side in the traveling direction in the rotational direction, and is disposed on the back side of the front side surface 60. Rear side The front side surface 60 has a rear side surface 64 that is concavely curved toward the front side. And a curved surface continuously formed toward the rear of the airflow, and a curved surface which is disposed farther from the rotation center C and bulges rearwardly from the front edge surface 61 in the traveling direction to a greater extent than the airflow low-speed passage surface 63. And three wind turbine blades 6 each including an airflow high-speed passage surface 62 that is longer than the airflow low-speed passage surface 63 when viewed from the vertical direction, are arranged around the rotation center C at equally spaced center angles. Have been.

    In the blade 6 for a windmill, the rear side surface 64 has an arc shape having a curvature smaller than the average curvature of the front side surface 60, and the rotation center C is disposed on an extension of the arc formed by the rear side surface 64 when viewed from the vertical direction. A wind tunnel through which wind can pass is formed between the wind turbine blade 6 and the rotation center C, and the wind turbine blade 6 is located at the end of the airflow high speed passage surface 62 in the traveling direction when viewed from the vertical direction. The end is located farthest from the center of rotation C, the rearmost end in the traveling direction of the airflow low-speed passage surface 63 is located at the position closest to the center of rotation C, and the wind turbine blades 6 A first straight line passing through the rearmost end of the surface 63 in the traveling direction and the rotation center C; a second straight line passing through the frontmost portion of the wind turbine blade 6 in the traveling direction and the rotation center C; Considering the third straight line passing through the rear end and the rotation center C, the first straight line Angle θ2 forming in the third straight line are assumed to have been set larger than the angle θ1 which forms between the first and second straight lines.

    As shown in FIGS. 3 and 4, in the tornado-type wind power generator 5, three wind turbine blades 6, 6, 6 are arranged at equal intervals (opening angle 120 °) around the rotation center C. A first windmill 50 integrated to be disposed and a second windmill 51 having the same shape as the first windmill 50 are arranged up and down so as to share a rotation center C and rotate in opposite directions to each other. A field magnet 70 that rotates in the same direction as the first windmill 50 in conjunction with the rotation of the windmill 50, and an armature coil 71 that rotates in the same direction as the second windmill 51 in conjunction with the rotation of the second windmill 51. And a power generation device 7 disposed between the first windmill 50 and the second windmill 51. The rotation center C of the first windmill 50 and the second windmill 51 is Above, between the first windmill 50 and the second windmill 51 (the power generator 7), and below the second windmill 51, respectively. The first windmill of the upper, middle, and lower horizontal frames F0, F0, F0 is arranged vertically so as to coincide between the centers of gravity of the upper, middle, and lower horizontal frames F0, F0, F0 of the plane equilateral triangle. The upper and lower portions of the vertexes 50 and the ridges arranged outside the outer diameter of the second windmill 51 are integrated by three vertical frames F1, F1, and F1 to form a triangular prism shape. It is assumed to be pivotally supported in the skeleton frame F.

    As shown in FIGS. 1 to 4, the tornado-type wind power generators 5, 5 erected on the front and rear sides of the hull 10 are wind turbine blades 6 of a first wind turbine 50 of the wind power generator 5 in front. 6, 6 and the rotation direction of the wind turbine blades 6, 6, 6 of the first wind turbine 50 of the rear wind generator 5 are arranged in opposite directions to each other. The rotation direction of the wind turbine blades 6, 6, 6 of the second wind turbine 51 and the rotation direction of the wind turbine blades 6, 6, 6 of the second wind turbine 51 of the rear wind generator 5 are arranged in opposite directions. It is possible that it was done.

    As shown in FIGS. 1 and 2, two tornado-type wind power generators 5, 5 are provided at the center of the width between the right and port sides of the hull 10 of the marine vessel 1 equipped with the wind power generator, and at the center between the bow and the stern. For example, the two wind power generators 5 and 5 and the storage battery 2 are installed in a vertical posture at positions before and after the center of gravity (not shown) of the hull 10, respectively. The electric power generated by the generators 5 and 5 is electrically connected to the storage battery 2 so as to be stored in the storage battery 2, and the electric power is supplied to the electric motor 30 as the electric drive source 30 of the screw 3 as the propulsion device 3 of the hull 10. A control unit 8 electrically connected to the storage battery 2 so as to be able to supply power and capable of controlling the electric motor 30 as the electric drive source 30 of the screw 3 as the propulsion unit 3 of the hull 10 is provided in the bridge 14. Have been.

    As shown in FIGS. 1, 2, and 5, in the tornado-type wind power generator 5, three wind turbine blades 6, 6, 6 are arranged at equal intervals around the rotation center C. The first windmill 50 integrated as described above and the second windmill 51 having the same shape as the first windmill 50 have a common rotation center C and are vertically arranged so as to rotate in opposite directions to each other. It has a field magnet 70 that rotates in the same direction as the first windmill 50 in conjunction with the rotation, and an armature coil 71 that rotates in the same direction as the second windmill 51 in conjunction with the rotation of the second windmill 51. , A power generator 7 disposed between the first windmill 50 and the second windmill 51, and the rotation center C of the first windmill 50 and the second windmill 51 Between the 1st windmill 50 and the 2nd windmill 51 (power generation device 7), the plane Shozo respectively arranged under the 2nd windmill 51 The first windmill 50 and the second windmill 50 of the upper, middle, and lower horizontal frames F0, F0, F0 are vertically arranged so as to coincide between the centers of gravity of the upper, middle, and lower horizontal frames F0, F0, F0. The upper and lower vertices of the vertexes arranged on the outer side of the outer diameter of the windmill 51 are integrated with three vertical frames F1, F1, F1 to form a triangular prism-shaped outer frame. F, a pair of tornado-type wind power generators 5,5,5, which are pivotally supported in F, face each other with a plane regular triangle gap therebetween, and sandwich one side of the plane regular triangle. Vertices are integrated adjacent to each other, or are integrated by common vertical frames F1, F1, F1, and the outer shape of a triangular prism whose one side of a plane triangle is doubled. Is replaced by a wind turbine group 4 in which three are integrated, for example, two wind turbines The group of electric motors 4 and 4 are erected in a vertical position, for example, at a position on the deck 13 above the full load line 12 of the hull 10 and exposed to the outside so as to receive wind. can do.

In addition, as shown in FIGS. 1, 2 and 6, a tornado-type wind power generator 5 has three wind turbine blades 6, 6, 6 arranged at equal intervals around a rotation center C. The first windmill 50 integrated as described above and a second windmill 51 having the same shape as the first windmill 50 are arranged up and down so as to share a center of rotation C and rotate in opposite directions to each other. A field magnet 70 that rotates in the same direction as the first windmill 50 in conjunction with the rotation of the first windmill 50, and an armature coil 71 that rotates in the same direction as the second windmill 51 in conjunction with the rotation of the second windmill 51. The power generation device 7 is provided between the first windmill 50 and the second windmill 51. The rotation center C of the first windmill 50 and the second windmill 51 is set above the first windmill 50, Planes respectively arranged between the first windmill 50 and the second windmill 51 (the power generating device 7) and below the second windmill 51 The first, second and third windmills 50 of the upper, middle, and lower horizontal frames F0, F0, F0 are vertically arranged so as to coincide between the centers of gravity of the triangular upper, middle, and lower horizontal frames F0, F0, F0. The upper and lower vertices of the apexes arranged outside the outer diameter of the two windmills 51 are integrated by three vertical frames F1, F1 and F1 to form a triangular prism-shaped outer frame. , F, F, and a total of six tornado-type wind power generators 5, 5,... Oppose each other with a plane regular hexagonal space therebetween, forming one side of a plane regular triangle. The pair of vertices to be sandwiched are either integrated adjacent to each other or integrated by common vertical frames F1, F1,... Are replaced by an integrated wind power generator group 4, for example, two wind power generator groups 4 4, outside so that a higher than load line 12 of the hull 10 receiving the wind are exposed crocodile, for example a position on deck 13, can be made is erected in a vertical posture.
As shown by a two-dot chain line arrow in FIG. 6, the wind turbine group 4 in which the six units are integrated in the outer shape of the planar hexagram star column is provided with the first wind turbines 50 and 50 (or the second The windmills 51, 51) may be arranged so as to rotate in opposite directions to each other.

(Operation and Effect of First Embodiment)
As shown in FIGS. 1 to 4, the wind turbine mounted ship 1 equipped with the wind generator 5 of the present invention having the above-described configuration includes two tornado-type wind generators 5, 5. The hull on the water by being erected at the center of the width between the right and port sides of the hull 10 and the center between the bow and stern and before and after the center of gravity of the hull 10 The balance of 10 is good and safer navigation is realized.

    As shown in FIG. 5, each of the three skeleton frames F, F,... Of the three tornado-type wind power generators 5, 5, 5 has a triangular prism shape having a plane size twice as large. , Or as shown in FIG. 6, each of the skeleton frames F, F,... Of the six tornado-type wind power generators 5, 5,. One of the wind power generator groups 4 integrated with each other in the shape of a hexagonal column in the form of a plane has a vertical attitude at a position on the deck 13 of the hull 10 as shown in FIG. As shown in FIG. 2 and FIG. 2, the integrated strength with the hull 10 can be further increased as compared with the case where the wind power generator 5 is erected in a stand-alone state, and the amount of power generation Which can drive the propulsion unit 3 and the electric drive source 30 (see FIG. 1) of the larger vessel 1 It can be.

    Then, as shown by the two-dot chain line arrow in FIG. 6, the six units are integrated into the outer shape of a planar six-pointed star-shaped column, and the first windmills 50, 50 (or the second windmills 51, 51) adjacent around the circumference are integrated. The wind power generator group 4 arranged so that they rotate in opposite directions to each other has a uniform and uniform stress and vibration applied to the entire skeletal frames F, F,. It will be mounted on the hull 10.

    As shown in FIG. 7, in the wind turbine-equipped ship 1 equipped with the wind generator 5 of the present invention, the storage battery 2 supplies the fossil fuel tank 21 and the fossil fuel supply from the fossil fuel tank 21. A fossil fuel type power generator 20 that receives and drives is provided in the hull 10, and the power generated by the fossil fuel type power generator 20 is connected so as to be stored in the storage battery 2. The fossil fuel type power generator 20 is connected to the power generator 20 so as to be controllable.

    As shown in FIG. 8, the marine vessel 1 on which the wind power generator 5 of the present invention is mounted has a hull 10 which is a catamaran and a deck straddling between the hulls 10, 10. 13, a tornado-type wind power generator 5, 5 (or a wind power generator group 4, 4) is erected in a vertical position, a storage battery 2 is mounted in one hull 10, and a fuel cell 22 or , An energy device 23 for oxidizing and burning hydrogen, a seawater pump 24 receiving electric power from the storage battery 2 to pump seawater, a hydrogen generator 25 receiving electric power from the storage battery 2 to generate hydrogen from seawater, and hydrogen A hydrogen tank 26 for storing marine products is mounted, and the other hull 10 is provided with either a food production facility 9 for a production facility for agricultural products or a cultivation facility for marine products.

(Operation and Effect of Second Embodiment)
As shown in FIG. 7, the wind generator-equipped ship 1 of the present invention equipped with the wind generator 5 additionally provided with the fossil fuel tank 21 and the fossil fuel generator 20 has no wind. Even when the state is prolonged or when both the wind power generators 5 and 5 fail, power generation and charging are enabled, and safer and more reliable navigation can be realized.

    As shown in FIG. 8, a storage battery 2 is mounted in one hull 10 of a hull 10 which is a catamaran, and one of a production facility for agricultural products and a cultivation facility for marine products is provided in the other hull 10. According to the ship 1 equipped with the wind power generator 5 of the present invention provided with the food production facility 9 of the present invention, the installation space of the food production facility 9 can be widely secured, and furthermore, it is isolated from the storage battery 2. Therefore, the operational safety of food production can be further enhanced. Further, according to the ship 1 equipped with the fuel cell 22 or the energy device 23 for oxidizing and burning hydrogen, the storage battery 2 A part of the stored electric power can be stored as hydrogen energy, so that more various kinds of energy can be used.

(Conclusion)
As described above, the wind power generator-equipped ship of the present invention can achieve the intended purpose uniformly by its novel structure, is easy to manufacture, and has a conventional ship technology equipped with a wind power generator. Power generation efficiency, significantly increase the durability of wind power generators, reduce maintenance costs and make it much more economical. Since it is easy to adjust the number of generators and set the required amount of power generation, it is possible to emit carbon dioxide regardless of the type and size of the ship, regardless of the size of the ship. It is possible to secure farmland and aquaculture, as well as in the transportation industry, which is struggling with soaring oil prices and the restriction of carbon dioxide emissions, and the fishing industry, which wants to navigate the water with low fuel consumption. Difficult agricultural industry and cultivation / aquaculture fishing Is highly regarded in such field, use over a wide range, is expected to be those that continue to spread.

1 Ships equipped with a wind generator
10 Hull (monohull, catamaran, trimaran)
11 Same bottom plate
12 same load line
13 Same deck
14 Funabashi 2 storage battery
20 Fossil fuel generator
21 Fossil fuel tank
22 Same fuel cell
23 Energy devices that oxidize and burn hydrogen
24 Seawater pump
25 Hydrogen generator
26 Same hydrogen tank 3 thruster (screw)
30 Electric drive source (electric motor)
4 Wind generator group 5 Tornado-type wind generator
50 1st windmill
51 2nd windmill F frame frame
F0 Same horizontal frame
F1 Vertical frame C Center of rotation 6 Windmill blades
60 Front side
61 Front edge
62 High-speed airflow passage surface
63 Same airflow low-speed passage surface
64 Rear side 7 Power generator
70 Field magnet
71 Armature coil 8 Control unit 9 Food production facilities (production facilities for agricultural products, cultivation facilities for marine products)

(Structure of the invention)
As can be clearly understood from the embodiment of the present invention shown in the drawings, the ship equipped with a wind generator of the present invention basically has the following configuration.
That is, a storage battery is mounted above the bottom plate of a hull provided with a propulsion device having an electric drive source that is driven by supply of electric power, and a storage battery is provided above the full load line of the hull and receives wind power. A wind turbine blade that is disposed around a vertical rotation center and receives wind power with respect to the exposed position, and is curved in a convex shape toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. A front side surface, a rear side surface arranged rearward of the front side surface and curved concavely toward the rear side in the traveling direction, the front side surface is a front edge surface arranged forward in the traveling direction, An airflow low-speed passage surface that is arranged near the center of rotation and continuously formed from the leading edge toward the rear in the traveling direction, and an airflow low speed that is located farther from the center of rotation and backward from the leading edge toward the rear in the traveling direction Continuously formed with a curved surface that swells larger than the passing surface Equipped with a wind turbine blade configured to include an airflow high-speed passage surface having a length that is longer than the airflow low-speed passage surface when viewed from the vertical direction, and an odd number of windmills provided around the rotation center at equal center angles at equal intervals. Tornado-type wind power generators are placed at the center of the hull's right-to-port width, and between the bow and stern, before and after the center of gravity of the hull . The rotation direction of the wind turbine blades and the rotation direction of the wind turbine blades of the rear wind power generator are arranged so as to be opposite to each other, and are erected in a vertical posture. The electric power generated by the generator is electrically connected to the storage battery so as to be stored therein, and the storage battery is electrically connected to the electric drive source of the propulsion device of the hull so that the storage battery can supply power. Equipped with a control unit that can control the electric drive source of Becomes Te as the the configuration is the wind power generator on-board the ship to subject matter.

In other words, a wind power generator-equipped ship having this basic configuration is a storage battery that is larger than the bottom plate of a hull provided with a propulsion unit having an electric drive source that is driven by receiving power supply. A wind turbine blade that is disposed around a vertical rotation center and receives wind force at a position above the full load line of the hull and exposed to the outside so as to receive wind force. And a front side curved convexly toward the front in the traveling direction in the rotational direction as viewed from the vertical direction, and a rear side arranged on the back side of the front side and curved concavely toward the rear in the traveling direction. And the front side surface has a front edge surface arranged forward in the traveling direction, and an airflow low-speed passage surface continuously arranged rearward in the traveling direction from the front edge surface arranged near the center of rotation. , Located on the far side from the center of rotation and proceeding from the leading edge The wind turbine blades, which are formed continuously with a curved surface that bulges larger than the airflow low-speed passage surface toward the rear and include an airflow high-speed passage surface longer than the airflow low-speed passage surface when viewed from the vertical direction, At least one tornado-type wind generator with an odd number of wind turbines provided at evenly spaced center angles around the rotation center is located at the center of the hull's right-to-port width and between the bow and stern. And the rotation direction of the wind turbine blades of the front wind generator and the rotation direction of the wind turbine blades of the rear wind generator are opposite to each other. The wind generator and the storage battery are electrically connected so that the power generated by the wind generator is stored in the storage battery. The storage battery supplies power to the drive source A control unit that is electrically connected so as to be able to control the electric drive source of the propulsion device of the hull, and that stores the power generated by the wind power generator receiving the natural wind in a storage battery; The power supplied from the storage battery drives the electric drive source of the propulsion device, and the wind turbine-equipped ship has a configuration configured to enable navigation of the hull.

More specifically, a storage battery is mounted above the bottom plate of a hull provided with a propulsion device having an electric drive source that receives and drives electric power, and receives a wind force above a full load line of the hull. A blade for a windmill that is disposed around a vertical rotation center and receives wind power with respect to a position exposed to the outside, and is convex toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. And a rear side disposed on the back side of the front side and concavely curved toward the rear side in the traveling direction, and the front side is disposed before the front side in the traveling direction. An edge surface, an airflow low-speed passage surface that is arranged on the side near the rotation center and is continuously formed from the front edge surface toward the rear in the traveling direction, and a gas flow low-speed passage surface that is arranged on the side far from the rotation center and behind the front edge surface in the traveling direction. The curved surface is larger than the low-speed An odd number of blades for a windmill configured and including an airflow high-speed passage surface longer than the airflow low-speed passage surface when viewed from the vertical direction are provided around the rotation center at equal center angles. A first windmill and a second windmill having the same shape as the first windmill have a common rotation center and are arranged to rotate in opposite directions to each other, and cooperate with the rotation of the first windmill in the same direction as the first windmill. , And an armature coil rotating in the same direction as the second windmill in conjunction with the rotation of the second windmill, and a power generator disposed between the first windmill and the second windmill. At least one tornado-type wind power generator equipped with the device is arranged at the center of the width between the starboard and the port of the hull, and between the bow and stern, before and after the center of gravity of the hull, and , the direction of rotation of the wind turbine vanes of the first wind turbine in front of the wind turbine, the rear wind The direction of rotation of the wind turbine blades of the first wind turbine of the generator is opposite to each other, and the direction of rotation of the wind turbine blades of the second wind turbine of the front wind generator and the second direction of the rear wind generator. The wind turbine blades of the wind turbine are arranged in such a manner that the rotation directions of the wind turbine blades are opposite to each other and are set up in a vertical posture, and the wind power generator and the storage battery store the power generated by the wind power generator in the storage battery. Control that is electrically connected so that the storage battery can supply power to the electric drive source of the propulsion unit of the hull and that can control the electric drive source of the propulsion unit of the hull. This is a wind-powered generator-equipped ship having a configuration in which the parts are provided.

(Structure of the invention)
As can be clearly understood from the embodiment of the present invention shown in the drawings, the ship equipped with a wind generator of the present invention basically has the following configuration.
That is, a storage battery is mounted above the bottom plate of a hull provided with a propulsion device having an electric drive source that is driven by supply of electric power, and a storage battery is provided above the full load line of the hull and receives wind power. A wind turbine blade that is disposed around a vertical rotation center and receives wind power with respect to the exposed position, and is curved in a convex shape toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. A front side surface, a rear side surface arranged rearward of the front side surface and curved concavely toward the rear side in the traveling direction, the front side surface is a front edge surface arranged forward in the traveling direction, An airflow low-speed passage surface that is arranged near the center of rotation and continuously formed from the leading edge toward the rear in the traveling direction, and an airflow low speed that is located farther from the center of rotation and backward from the leading edge toward the rear in the traveling direction Continuously formed with a curved surface that swells larger than the passing surface Equipped with a wind turbine blade configured to include an airflow high-speed passage surface having a length that is longer than the airflow low-speed passage surface when viewed from the vertical direction, and an odd number of windmills provided around the rotation center at equal center angles at equal intervals. Tornado-type wind turbines are placed at the center of the hull's right-to-port width, at the bow and stern, before and after the center of gravity of the hull, and at the front of the wind turbine. and rotational direction of the use blades, and the rotational direction of the wind turbine vanes behind the wind power generator is erected in a vertical position by arranging so as to be opposite to each other, and the the battery these wind turbines, the wind power generation The electric power generated by the aircraft is electrically connected to be stored in the storage battery, and electrically connected to the electric drive source of the propulsion device of the hull so that the storage battery can supply power. A control unit that can control the electric drive source of the propulsion unit is provided It is a structure in which as formed by a wind power generator on-board the ship to subject matter.

In other words, a wind power generator-equipped ship having this basic configuration is a storage battery that is larger than the bottom plate of a hull provided with a propulsion unit having an electric drive source that is driven by receiving power supply. A wind turbine blade that is disposed around a vertical rotation center and receives wind force at a position above the full load line of the hull and exposed to the outside so as to receive wind force. And a front side curved convexly toward the front in the traveling direction in the rotational direction as viewed from the vertical direction, and a rear side arranged on the back side of the front side and curved concavely toward the rear in the traveling direction. And the front side surface has a front edge surface arranged forward in the traveling direction, and an airflow low-speed passage surface continuously arranged rearward in the traveling direction from the front edge surface arranged near the center of rotation. , Located on the far side from the center of rotation and proceeding from the leading edge The wind turbine blades, which are formed continuously with a curved surface that bulges larger than the airflow low-speed passage surface toward the rear and include an airflow high-speed passage surface longer than the airflow low-speed passage surface when viewed from the vertical direction, At least one tornado-type wind generator with an odd number of wind turbines provided at evenly spaced center angles around the center of rotation is provided at the center of the right-to-port width of the hull, and between the bow and stern. It is arranged at each position before and after the center of gravity of the hull, and the rotation direction of the wind turbine blades of the front wind generator and the rotation direction of the wind turbine blades of the rear wind generator are opposite to each other. erected on a vertical posture by placement into, and the with these wind turbines battery, power the wind generator is generated, are electrically connected to be charged in the storage battery, the electric drive of the propeller of the ship The storage battery supplies power to the A control unit which is electrically connected so as to be able to control an electric drive source of the propulsion unit of the hull, is provided, and stores power generated by the wind power generator receiving natural wind power in a storage battery; The power supplied from the storage battery drives the electric drive source of the propulsion device, and the wind turbine-equipped ship has a configuration configured to enable navigation of the hull.

More specifically, a storage battery is mounted above the bottom plate of a hull provided with a propulsion device having an electric drive source that receives and drives electric power, and receives a wind force above a full load line of the hull. A blade for a windmill that is disposed around a vertical rotation center and receives wind power with respect to a position exposed to the outside, and is convex toward the front in the traveling direction in the rotation direction when viewed from the vertical direction. And a rear side disposed on the back side of the front side and concavely curved toward the rear side in the traveling direction, and the front side is disposed before the front side in the traveling direction. An edge surface, an airflow low-speed passage surface that is arranged on the side near the rotation center and is continuously formed from the front edge surface toward the rear in the traveling direction, and a gas flow low-pass surface that is arranged on the side far from the rotation center and behind the front edge surface in the traveling direction The curved surface is larger than the low-speed An odd number of blades for a windmill configured and including an airflow high-speed passage surface longer than the airflow low-speed passage surface when viewed from the vertical direction are provided around the rotation center at equal center angles. A first windmill and a second windmill having the same shape as the first windmill have a common rotation center and are arranged to rotate in opposite directions to each other, and cooperate with the rotation of the first windmill in the same direction as the first windmill. , And an armature coil rotating in the same direction as the second windmill in conjunction with the rotation of the second windmill, and a power generator disposed between the first windmill and the second windmill. At least one tornado-type wind power generator equipped with the device is disposed at the center of the width between the right and port sides of the hull, and between the bow and stern and before and after the center of gravity of the hull, The direction of rotation of the wind turbine blades of the first wind turbine of the wind turbine The direction of rotation of the wind turbine blades of the first wind turbine of the electric machine is opposite to each other, and the direction of rotation of the wind turbine blades of the second wind turbine of the front wind generator and the second wind turbine of the rear wind generator are arranged. erected in the vertical posture by arranging such that the direction of rotation of the wind turbine vanes are opposite to each other, and the storage battery these wind power generator, the power the wind generator has occurred, is accumulated in the accumulator A control unit electrically connected to the electric drive source of the propulsion unit of the hull, electrically connected so that the storage battery can supply power, and capable of controlling the electric drive source of the propulsion unit of the hull. Is provided with a wind power generator-equipped ship having a configuration provided with the wind turbine generator.

Claims (9)

    A storage battery is mounted above the bottom plate of the hull provided with a propulsion device having an electric drive source that is driven by receiving power supply, and is exposed to the outside so as to receive wind power above the full load line of the hull. A wind turbine blade that is disposed around a vertical rotation center with respect to the set position and receives wind power, and is a front side surface that is convexly curved toward the front in the rotation direction when viewed from the vertical direction. And a rear side disposed on the back side of the front side and concavely curved toward the rear side in the traveling direction. The front side has a front edge surface disposed forward in the traveling direction, and a rotation center. A low-speed airflow surface that is continuously arranged from the leading edge to the rear in the traveling direction, and a low-speed airflow surface that is located far from the center of rotation and extends rearward from the leading edge in the traveling direction. Vertically formed with a curved surface that swells larger than A wind turbine blade configured to include an airflow high-speed passage surface that is longer than the airflow low-speed passage surface has at least a windmill provided with an odd number of windmills at equal center angles around the rotation center. One tornado-type wind power generator is erected in a vertical position, and the wind power generator and the storage battery are electrically connected so that the power generated by the wind power generator is stored in the storage battery. A control unit that is electrically connected to the electric drive source of the propulsion unit so that the storage battery can supply electric power, and that can control the electric drive source of the propulsion unit of the hull. A ship equipped with a wind generator.     A storage battery is mounted above the bottom plate of the hull provided with a propulsion device having an electric drive source that is driven by receiving power supply, and is exposed to the outside so as to receive wind power above the full load line of the hull. A wind turbine blade that is disposed around a vertical rotation center with respect to the set position and receives wind power, and is a front side surface that is convexly curved toward the front in the rotation direction when viewed from the vertical direction. And a rear side disposed on the back side of the front side and concavely curved toward the rear side in the traveling direction. The front side has a front edge surface disposed forward in the traveling direction, and a rotation center. A low-speed airflow surface that is continuously arranged from the leading edge to the rear in the traveling direction, and a low-speed airflow surface that is located far from the center of rotation and extends rearward from the leading edge in the traveling direction. Vertically formed with a curved surface that swells larger than A wind turbine blade configured to include an airflow high-speed passage surface that is longer than the airflow low-speed passage surface has at least a windmill provided with an odd number of windmills at equal center angles around the rotation center. One tornado-type wind power generator is erected in a vertical position, and the wind power generator and the storage battery are electrically connected so that the power generated by the wind power generator is stored in the storage battery. The storage battery is electrically connected to the electric drive source of the propulsion unit so that power can be supplied, and a control unit capable of controlling the electric drive source of the propulsion unit of the hull is provided. The power generated by the wind power generator is stored in a storage battery, and the power supplied from the storage battery drives an electric drive source of a propulsion device to enable navigation of the hull. A ship equipped with a wind generator.     A storage battery is mounted above the bottom plate of the hull provided with a propulsion device having an electric drive source that is driven by receiving power supply, and is exposed to the outside so as to receive wind power above the full load line of the hull. A wind turbine blade that is disposed around a vertical rotation center with respect to the set position and receives wind power, and is a front side surface that is convexly curved toward the front in the rotation direction when viewed from the vertical direction. And a rear side disposed on the back side of the front side and concavely curved toward the rear side in the traveling direction. The front side has a front edge surface disposed forward in the traveling direction, and a rotation center. A low-speed airflow surface that is continuously arranged from the leading edge to the rear in the traveling direction, and a low-speed airflow surface that is located far from the center of rotation and extends rearward from the leading edge in the traveling direction. Vertically formed with a curved surface that swells larger than A first windmill in which an odd number of blades for a windmill, which are configured to include an airflow high-speed passage surface longer than the airflow low-speed passage surface, are provided at equal angular intervals around the rotation center, and A second windmill having the same shape as the first windmill is arranged so as to rotate in opposite directions with a common rotation center and rotate in the same direction as the first windmill in conjunction with the rotation of the first windmill. A power generating device having a magnet for magnets and an armature coil that rotates in the same direction as the second windmill in conjunction with the rotation of the second windmill, and is provided between the first windmill and the second windmill. At least one tornado-type wind power generator is erected in a vertical position, and the wind power generator and the storage battery are electrically connected so that the power generated by the wind power generator is stored in the storage battery. The storage battery can supply power to the electric drive source of the hull propulsion unit. Are air connected, the wind power generator on-board a ship, characterized in that controllable control unit of the electric drive source for propeller of the hull was made provided.     The storage battery includes a fossil fuel tank, and a fossil fuel-type generator driven by receiving a supply of fossil fuel from the fossil fuel tank, and the power generated by the fossil fuel-type generator is connected to be stored in the storage battery. A wind power generator-equipped ship according to any one of claims 1 to 3, comprising:     The wind power generator according to claim 4, wherein the hull is one of a twin-hull type or a three-hull type, and a tornado-type wind power generator is provided upright on a deck straddling between the hulls. Aircraft-mounted ship.     The hull is provided with at least one of a production facility for agricultural products that functions by receiving power supply from a storage battery or a cultivation facility for marine products that functions by receiving power supply from a storage battery. The wind power generator-equipped ship according to any one of claims 4 and 5, wherein the ship is mounted in an electrically connected state so as to receive power supply from the ship.     A first wind turbine in which a tornado-type wind power generator is integrated such that an odd number of wind turbine blades are arranged at equal intervals around a rotation center, and a second wind turbine having the same shape as the first wind turbine. A wind turbine having a common rotation center and arranged vertically so as to rotate in opposite directions to each other, a field magnet rotating in the same direction as the first wind turbine in conjunction with the rotation of the first wind turbine, and a rotation of the second wind turbine And an armature coil rotating in the same direction as the second windmill in conjunction with the first windmill and the second windmill. The power generator is provided between the first windmill and the second windmill. The upper, middle and lower horizontal frames of a plane equilateral triangle arranged above the first windmill, between the first windmill and the second windmill (power generation device), and below the second windmill, respectively. The first and second windmills are vertically arranged so as to coincide between the centers of gravity of upper, middle, and lower horizontal frames. The top and bottom of each vertex arranged on the outer side of the outer diameter is integrated with three vertical frames, and is supported by a skeletal frame that is framed to form a triangular prism-shaped outer shape. The basic tornado-type wind power generators face each other with a plane equilateral triangle space therebetween, and a pair of vertices sandwiching one side of the plane equilateral triangle are adjacently integrated, or a common vertical frame Is replaced by a wind power generator group in which three units are integrated into a triangular prism-shaped outer shape in which one side of a plane triangle is doubled, and at least one of the wind power generator groups Claim 3 or Claim 3 wherein one of the units is arranged in a vertical position with respect to a position above the water load line of the hull and exposed to the outside to receive wind force. A marine vessel equipped with a wind power generator according to any one of claims 4 to 6.     A first wind turbine in which a tornado-type wind power generator is integrated such that an odd number of wind turbine blades are arranged at equal intervals around a rotation center, and a second wind turbine having the same shape as the first wind turbine. A wind turbine having a common rotation center and arranged vertically so as to rotate in opposite directions to each other, a field magnet rotating in the same direction as the first wind turbine in conjunction with the rotation of the first wind turbine, and a rotation of the second wind turbine And an armature coil rotating in the same direction as the second windmill in conjunction with the first windmill and the second windmill. The power generator is provided between the first windmill and the second windmill. The upper, middle and lower horizontal frames of a plane equilateral triangle arranged above the first windmill, between the first windmill and the second windmill (power generation device), and below the second windmill, respectively. The first and second windmills are vertically arranged so as to coincide between the centers of gravity of upper, middle, and lower horizontal frames. The upper and lower parts of the vertices arranged on the outer side of the outer diameter are integrated with three vertical frames, and are pivotally supported in a skeletal frame that is framed to form a triangular prism-shaped outer shape. The basic tornado-type wind power generators face each other with a plane regular hexagonal space therebetween, and a pair of vertices sandwiching one side of a plane regular triangle are adjacently integrated, or a common vertical frame Are replaced by a group of wind turbines in which six units are integrated into a flat six-pointed star-shaped outer shell, and at least one of the group of wind turbines is Claim 3 or Claim 4 wherein Claim 3 or Claim 3 is selected, wherein the vertical position is set to a position above the loading line and exposed to the outside so as to receive wind force. 6. A ship equipped with a wind generator according to any one of 6. At least one of a fuel cell and an energy device for oxidizing and burning hydrogen is mounted on the hull, a seawater pump that pumps seawater by receiving power from the storage battery, and generates hydrogen from seawater by receiving power from the storage battery. The marine vessel equipped with a wind generator according to any one of claims 4 to 8, further comprising a hydrogen generator and a hydrogen tank for storing hydrogen.

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