JP7622306B2 - Reducing living costs, etc. - Google Patents

Description

Detailed Description of the Invention

When blocking out the water, cover it with a transparent material that transmits light, strong plastic, or connect PET bottles (or other specialized ones) to create a structure. The PET bottles would normally hold juice, and water would be stored about 5 meters underground at a temperature of about 15 degrees Celsius throughout the year.
If water is circulated by pumping it from an underground tank installed in a place where the temperature is kept constant (depending on the latitude, etc.) (in the case of underground mountain areas, there is natural energy that falls due to gravity), the space through which vehicles pass can be made close to 15°C, and by adjusting the flow rate of the liquid, the cost of air conditioning for vehicles can be reduced. When reducing the pressure of the space through which vehicles pass to make it close to a vacuum in order to reduce air resistance, pressure-resistant reinforced plastic, glass, etc. can be installed on the outer periphery of the space through which vehicles pass to reinforce it. When circulating water with a pump, liquids such as water do not suddenly boil even when exposed to sunlight from the outside, so there is no need to operate the pump frequently, and energy costs are low. When obtaining energy from solar panels, etc., solar panels are installed on the roof of this facility, or on the sides, lanes, or other open spaces. In order to cool the solar panels, water kept at a constant temperature in an underground tank like the one mentioned above can be flowed over the panels, or a pipe-like structure made of a light-transmitting material can be installed nearby and water at about 15°C can be flowed through it from the underground tank to control the temperature of the solar panels.
The solar panels are waterproofed and airtight, and then attached to a tub or similar that holds shallow water, and water at about 15°C, such as that installed about 5 meters underground, is poured into it and then collected in an underground tank or similar. If the location is such that natural groundwater flows naturally, running water is fine, and the temperature of the panels is controlled. For example, a plastic bottle can be used with the drinking spout cut out, and multiple rectangular cubes glued together to create a structure in which water from an underground tank can be poured.

Using a material such as a plastic bottle that allows light to pass through but does not allow water to pass through, a hollow structure is made with water and other materials. Then, in the hollow part, solar panels and other items that need to be temperature controlled can be placed. This is done by installing a similar device in solar panels installed in homes to increase the amount of electricity generated. If the solar panel becomes too hot, the amount of electricity generated will decrease. In addition, water at about 15 degrees from the underground tank is used to efficiently air-condition the space. Since the ground temperature around the underground tank varies depending on the depth, multiple tanks can be installed at different depths and the water can be mixed. If necessary, the structure made of plastic bottles can be moved by draining the water. Since the material is light, it can be done by hand, but the ceiling can also be constructed in advance so that it can be opened and closed by motor drive, etc. A pipe about 5 cm long and wide (this is just a rough guideline and the scale can be changed freely) is installed in the underground tank, and a structure with a passageway that allows water to flow around it is installed, and the water from the underground tank is flowed there. A fan is attached to the end of the pipe to blow air. When air moves through the pipes with the force of a fan, it exchanges heat with the surrounding water (for example, thin materials such as plastic bottles conduct heat easily), and in summer it gradually cools down. If the length of the pipe is increased to a certain extent, the temperature at the outlet of the pipe will be close to the temperature of the water from the underground tank. In summer, it is cold, and the air is 15
If the temperature is lower than about ℃, it will become warm. For example, you can make a structure by connecting plastic bottles. Fans such as electric fans consume little electricity, so they are energy-efficient. The pipes do not have to be straight, so they can be curved to create distance. It is also possible to pass a thinner pipe through the pipe and circulate water there to facilitate heat exchange when exposed to wind, etc.
A rod of metal with high thermal conductivity is inserted between a passage through which circulating water flows and a pipe.
It is also possible to increase the area of contact between the water, etc., with a temperature of around 5°C and the air flowing through. It is also possible to increase the heat exchange efficiency by installing fans, etc., not only at the inlet of the tube, but also at the outlet or along the way. This device can be installed indoors, but it can also be installed in places where the ground temperature is constant, around 5 meters underground. Air is drawn in and out through pipes. When the ground temperature around 5 meters underground is 15°C,
Similarly, if air is pumped into a pipe at a depth of about 15°C, in the summer, the air sucked in above ground travels underground and leaves the pipe at a temperature close to the ground temperature of 15°C. This is the same regardless of the season, even in winter. Water flows on all four sides of the pipe or in a specific part, but in the case of a two-tiered structure, the water is maintained by gravity in the lower part even if the ceiling is not sealed, so there are cases where the ceiling does not need to be installed, and the water comes into direct contact with the air, improving the heat exchange efficiency. If the ground temperature in most of the installation location around the pipe is about 15°C, the temperature of the original air will approach 15°C. Compressed air is used when using hot spring water or water artificially boiled in a boiler for air conditioning in homes and facilities. First, hot water is poured into a space made of PET bottles, etc., and in the above method, the underground temperature of about 15 degrees is used to exchange heat and bring the temperature of the air, etc. closer to 15°C. However, if you put hot water instead of about 15°C, the temperature will be that temperature. In order to keep it warm when sending it, you can put it in a pipe made of connected PET bottles, etc., and send it in a compressed state (or just a little ventilation, depending on the situation) in the space enclosed by it. The above-mentioned space for sending hot air, etc. can be installed underground or above ground, but if the ground is very cold, considering the cost of digging underground, you can use an insulation system using water, etc. in a tank about 5 meters underground at about 15°C. Since the depth of underground tanks, etc. varies depending on the season according to the depth, multiple tanks can be prepared and water, etc. can be mixed.
If necessary, the periphery of the device that sends the air made from the PET bottles can be covered with a heat-insulating material (such as polystyrene foam, which has an insulating effect) to increase efficiency. Cold air can also be sent. Water that uses the earth's temperature about 5 meters underground can be circulated or temporarily stored through a thin pipe near an object such as a solar panel, which is more efficient when the temperature is close to a certain level. In addition, after leaving it in this state, in order to eliminate the influence of outside air and control the temperature, the outer periphery of the solar panel (including the filtering device if necessary) can be made of a material such as PET bottles connected together, and water that uses the earth's temperature about 5 meters underground can be poured into the structure, and the structure can be installed in a structure that can control the temperature inside, etc., to prevent the solar panel from becoming excessively hot. Water can be circulated or stopped in the structure made of connected PET bottles, and the flow rate of water can be changed by adjusting the pump. The water that passes through the PET bottles returns to the underground tank, where the temperature is controlled by the earth's temperature. Multiple underground tanks may be installed depending on the depth. To control the temperature of solar panels, etc., the circulating water can be passed through finer pipes, or such pipes can be installed in advance on the solar panels or other devices. Water from underground tanks can be poured into thin pipes made of light-transmitting material and placed around solar panels to control the temperature. The pipes and solar panels are waterproofed to prevent water from entering the electrical machinery. Instead of using plastic bottles, thinner materials made specifically for this purpose can be used to allow water to flow through them. For example, a thin wall of water about two centimeters thick can be used around the periphery of solar panels to control the temperature of solar panels. When water in an underground tank is raised to a certain height using a pump, it flows through pipes around the solar panels by gravity and returns to the underground tank. Water (not necessarily mist) can be sprayed on the solar panels to lower the temperature, and the water from the underground tank can be collected and circulated. It is also possible to construct a structure using PET bottles, etc., with multiple layers, such as a function to pour fertilizer into the space and collect it, or a layer to allow water and oxygen to seep underground. If a similar structure is used to cover the top and create an airtight state, fertilizer, pesticides, etc. will not scatter to the outside. Costs can be reduced by reusing fertilizer, etc. When taking in outside air, a door can be attached to the top, etc., and opened, or a fan can be used to let in air, and a door can also be made for people to enter. Such a barrier can also prevent fertilizer used in agriculture, etc. from spreading outside. In the above-mentioned space constructed using PET bottles, etc., a tunnel-like space is created inside, just large enough for a person to pass through, and a cart-like object is pulled into it using rails or tires. In hydroponics, the solution can be poured into the space, or if you are growing plants, a bucket that can hold water of a size prepared according to the growth of the roots can be placed on a cart and moved into the space. Plants can be moved on pallets using rails, etc., so if you lay rails in a sunny place or roll them on tires, you can move them to any location. If you are growing plants hydroponically, you can move the part above the roots of the plant with a cart on top, so less pulling force is required. Similarly, you can create a space for a car using plastic bottles, etc., and control the temperature of the space inside using circulating water, etc., so you can park your car and take a break inside. You can also grow crops on top of that by placing a structure made of plastic bottles to grow crops. Usually, electric compressors are used to compress air industrially, but the energy of hydraulic gears is used to power the compressor, or the rotational energy of a windmill is transmitted to the gears and used to power the compressor. Then, a tank containing compressed air is placed in a place with a constant ground temperature about 5 meters underground, or the air is blown into water in a tank placed 5 meters underground, etc., to bring the temperature close to 15°C. Natural energy such as hydraulic power can be used to power an air compressor, and stored in a tank installed underground, etc., so that it can be taken out whenever desired like a battery and used to move gears. When compressing air with a compressor, it can be cooled in an underground tank first, then compressed to adjust humidity, or the air can be stored underground to lower humidity. Tanks containing compressed air can also be placed underground to lower the temperature. Even large tanks can be installed underground, so there is no problem with the installation location. Using the above mechanism, compressed air can be adjusted in temperature and humidity, and then sent from the facility to general households through underground pipes, etc., for high efficiency. Instead of storing electricity, it is stored as compressed air (which can be in a gaseous or dry ice-like state). Waterwheel-like devices can also be installed next to rivers. If the ocean waves are in a ria coast, tsunamis will surge up to high places, so such structures can be artificially created and seawater can be brought up to 10 meters or higher from the coastline by the force of the ocean waves. This air is then stored and used to generate electricity by turning hydroelectric turbines that use gravity, or to power compressors that compress air, etc., or as a variety of other power sources. The potential energy of large amounts of seawater can be obtained semi-permanently by utilizing the energy of ocean waves, making it useful for human life. Using this method, compressed air can be stored in a cylinder or the like, and the cylinder can be moved to a location 20 meters underground, or the cylinder can be left stationary with a diameter of 20 meters. A water tank filled with water, etc., is then prepared, installed underground, etc. A rotating wheel or the like is placed there, and compressed air is released from below, causing the wheel to rotate due to the energy generated when it rises to the surface. The deeper the water tank, the more wheels can be installed, and buoyancy becomes the energy that rotates the water wheel and wheel. The rotational energy of the water wheel and wheel can be used to operate a compressor to create compressed air or to operate a generator, making it extremely efficient. Compressed air (gas), dry ice, etc., are placed at a deep point where water pressure is applied to a vertical tank filled with liquid water, etc.
A gas such as HHO or GAS is set in the tank, and electricity or heat from a chemical reaction of chemicals is added to ignite the gas (a mixture of hydrogen and oxygen is also acceptable), which causes the dry ice to expand with the heat. The compressed air also generates upward kinetic energy against the water pressure (gravity), which is then used to turn the water wheel. This energy is then recovered to run a generator. In order to increase the efficiency of the water wheel when it rotates, the water wheel's blades are made movable and can be opened and closed. This allows the blades to open when pushed by the gas, and the kinetic energy is received by the liquid, and the blades of the water wheel hit the liquid, creating resistance, preventing the rotation speed from decreasing as much as possible. The blades open and close, but do not close completely, but open slightly, or even if completely closed, a buoyant object is attached to part of the blade, which opens slightly when it is in a certain direction due to buoyancy. The water flow or air flow can be controlled by letting air in and pushing it apart, or by attaching a plate or the like to a specific part of the tank to make it easier for the air to gather in the blades of the water wheel in the tank. If this type of waterwheel is installed in a tunnel where there is no energy for air or other gases to rise and water pressure is applied, the wings will open where they are pushed by the water flow and close when the water flow pressure weakens. In hydroelectric power generation at large dams, there are some with a head of 100 meters and hundreds of meters of pipes, but if the hydroelectric power generation propeller is only attached to the downstream part, the energy of the water flow cannot be fully recovered to turn the turbine of the generator, and there will be a loss, so the head is about 10 meters and it is dispersed in a thinner pipe-like tunnel or tube, or a waterwheel or hydroelectric power generation propeller is installed in the section where there was only water flow until now. In this way, the potential energy of the water flow can be efficiently recovered. Also, when compressed air is sprayed from deep places with high water pressure, when the waterwheel is turned by the force of air rising up, if this water tank or tank is designed in an ingenious way and compressed gas is sprayed at exactly 1 o'clock when the waterwheel is rotating clockwise, the deceleration of the propeller, waterwheel, etc. due to water pressure can be suppressed. Compressed gas is also ejected from the 6 o'clock direction, etc., so the force of clockwise rotation is always continuous, and the energy of compressed air, gas, etc., and the force of buoyancy due to density differences, etc. are converted into the rotational energy of a water wheel, etc. When the shaft of a water wheel, etc. is made hollow and compressed gas is injected into it, a catch is placed at the 1 o'clock or 6 o'clock position, and the hole in the shaft is caught by it, opening the door through which the gas is ejected. When the door reaches a position where it is not caught, it closes with the force of a spring, etc., or a structure can be used in which gas is passed through the hollow part of the shaft and the surrounding area is covered with a cap made of metal, etc., so that when a specific part of the cap is opened, gas can be ejected when the gas ejection port of the rotating shaft reaches a specific position. Alternatively, the ejection of compressed gas is linked to the position of the water wheel, and a valve is controlled so that compressed gas is ejected only when the specific position is reached. The shaft part that transmits the energy of the water wheel, etc., can be extended horizontally as it is, and a water tank,
There are two ways to do this: to increase the airtightness of the tank so that water does not leak out, and to let it pass through to a part of the tank where there is no water, or to change the direction inside the tank using gears, etc., to transmit the rotation to an upward shaft, and when the tank reaches a height where it can come into contact with the outside air at the top, the energy can be transmitted to gears, etc. and used as a power source. Several water wheels can be connected vertically, etc. to each other. There are various ways to think of, such as extending the tank deep underground, or raising it above ground. In order to transmit the upward energy and buoyancy of air in water, etc. to power, it is also possible to use a structure that is connected with a belt or something and supported in some way (such as a plate that can change its angle depending on the resistance that receives buoyancy, like a bicycle chain (although the angle of the plate does not necessarily have to change depending on the resistance, etc., due to installation costs)). In addition, the energy obtained by buoyancy in this way can be connected with a shaft and used as upward movement energy to lift water, etc., and can be used for pumping. These can be divided into sections of 10 meters or so, and the water pressure can be adjusted, and several of them can be connected vertically. Air can be reused by using a structure that allows it to flow from the lower structure to the upper structure again through pipes, etc., and the upward energy of the injected air can be efficiently utilized. The energy associated with the upward movement of the air in each structure can be converted into driving energy, etc. through shafts, etc. Water can be pumped up because the air in this device rises and the water comes into contact with the ground, etc. A similar bicycle chain-like structure can be used to transport water, etc., upward along its rotation. By stacking such devices vertically in several tiers, the upward energy of the air (or carbon dioxide, etc.) can be efficiently utilized and converted into energy, and the water pressure can also be controlled. The air is not released to the outside, but is collected in a tank, etc. and reused. After the compressed air is introduced, a cover can be attached to the surface that comes into contact with the atmosphere to prevent leakage to the outside, and if necessary, a pipe can be installed to release the compressed air into the atmosphere, etc. Pressure-sensing sensors can be installed on the paths connecting the compressed air, etc., and valves that open and close in conjunction with the sensors can be installed to optimally control the pressure of each part where the air flows. The valves that open and close can be electronically controlled or analog, such as opening and closing according to pressure using a spring. The devices can be connected horizontally instead of vertically, and can be made small in size. Of course, such devices can be attached to ships and the like to use them as propulsion. In order to use energy efficiently, water, etc. is first moved to a high position, such as 60 meters above ground, using a pump, elevator, vehicle, or other method that uses buoyancy as mentioned above, and then pipes are oriented downward to drop the water, etc., and the kinetic energy is used below to power a propeller for generating electricity.
Of course, this energy can be used in various ways as power. If such a device is installed on a ship, it can generate electricity or reduce direct propulsion energy. A certain amount falls at a limited point without using pipes. It can be pumped up using the principle of this device. Since kinetic energy increases in proportion to the square of the moving speed of the object, energy can be obtained efficiently. At a height of about 60m, the kinetic energy is about 625 times that of a speed of 1m/s. A considerable amount of electricity can be generated even at 40L per second. Energy is efficiently increased by water falling vertically. The energy of the movement of the material is efficiently increased and used as power for a generator, etc. (For example, to turn a turbine for hydroelectric power generation.) It can also be a baseball with iron inside. When transmitting energy from a large number of balls to a turbine for power generation, for example, the balls can be made to roll on rails to fall into a pipe or the like that will allow them to fall regularly at the top, and the flow can be controlled with an openable stopper. By making it into a ball shape and setting a slight incline, it can be easily moved by gravity without power. A number of pipes are prepared through which the balls etc. fall to receive the energy, and each can be made to transmit the energy of the balls etc. independently to turbines etc., so that the energy of the balls etc. can be efficiently transmitted to wheels, water wheels, turbines etc. by slightly shifting the positions of each, without having to arrange the blades of water wheels etc. in a horizontal row, for example. The return device etc. that can collect the balls at the upper position is adjusted and controlled mechanically so that the movement of the balls controlled at the upper drop position and the rotation of the turbines etc. below are most efficient. If the water is at the lower position, the water etc. can be allowed to collect in a certain place, and if a mechanically moved bucket etc. moves upwards from there, the water etc. will move upwards. Ball-shaped objects can also be moved to a certain place by gravity etc., or if the direction is controlled by a lane etc., the balls etc. will move upwards in accordance with the movement of the machine, like a batting machine. The balls etc. are surrounded by rubber to maintain their strength,
It can be covered with shock-resistant materials such as leather. When installing it, it is possible to reduce the cost of building a large-scale facility from scratch by using natural topography such as mountains and valleys and spring water if available. It is also possible to use existing buildings and modify parts of their edges.
When a certain amount of spring water is bubbling up near the peak of a mountain, it is possible to use pipes to draw the water to a specific point while maintaining the altitude. If the amount of water is small, it can be pumped up using power and transported from below for reuse. Even if the difference between the peak of the mountain and the nearby lowlands is 50 meters, the original height of the mountain is already there, so it is only necessary to keep that part at about 50 meters, and less scaffolding is required. Mountains are usually uninhabited, so it is easy to install pipes there. Scaffolding made of wood or concrete can be used to create platforms to support pipes. Hydroelectric power generation at dams and other facilities collects water that has flowed down from the surrounding mountains and uses the height of the waterway below to obtain energy, but it is also possible to obtain high energy while keeping construction costs down by taking advantage of the topography of the mountain itself. By digging down into the lowlands and placing generators underground, noise and other issues can be avoided and the difference in elevation can be widened. When water, etc., is dropped downward through a pipe, etc., for generating electricity, etc., a pipe that can send compressed air, etc. can be connected to the upper part of the pipe to make the water, etc., drop downward faster, or a structure in which multiple thin pipes are bundled together instead of a single pipe can be made, and the inner pipe of the bundled pipe can have several holes for ventilation, and compressed air can be sent from the higher part of the pipe to the holes so that the water, etc., can drop smoothly through the pipe. If there is no spring water, a certain amount of water, etc. can be transported or rainwater can be collected and used. Vehicles can also be moved efficiently using the above-mentioned structures that slide on cooled ice, etc., and if rails, etc. are made to accelerate using gravity energy, etc., or an engine, etc., and then move upward, the energy required to move water, etc. to a higher position can be obtained by the acceleration caused by gravity, so the energy cost required for propulsion can be reduced. Of course, such a device can be attached to a ship, etc., to use it as propulsion. The temperature around 5 meters underground in the Japanese mainland is maintained at about 15 degrees throughout the year, and by using this natural law and building a tube-shaped tunnel there, the energy required for cooling can be saved. Alternatively, when this structure is grounded on the ground and cooled, the outer periphery of the tube can be covered with liquid water, and if the outer periphery of the tube is made of plastic, glass, or other light-transmitting material, the scenery can be seen from inside the vehicle. It is also possible to fill a similar tunnel with water and run a sealed ship inside, creating a vacuum inside the tunnel to increase energy efficiency during travel (this can be applied to anything that can run inside a tunnel).
. By adopting a similar structure for cars, not just large vehicles like trains, energy costs can be reduced. It increases the reliability of automatic driving of cars. Cars are connected to a cart installed on a similar platform, and the weight of the car is mainly supported by the sled, reducing rolling resistance. For current roads, water in a tank installed 5 meters underground under the road or passageway is circulated 10 cm (approximately) below the asphalt of the road using pipes to prevent freezing and lower the temperature of the road surface in summer. It is also possible to increase the cooling efficiency in summer by making circulating water around the sled using pipes. A space the size of a futon (it can be larger or smaller, the size can be changed) is made using plastic bottles, etc., and the temperature in the space is kept cool in summer and not freezing in winter. Water from a tank installed about 5 meters underground is placed inside the plastic bottles through pipes, and the plastic bottles are connected so that the water circulates and returns to the tank. To make an emergency stop of a train, etc., a pipe is installed under the train route and oil (or gas, such as clay) is poured into it. A hole is then drilled in the top of the pipe and a stake is dropped from the train or other object to hook it. The point where the stake falls comes into contact with a round plate or other object made close to the pipe to prevent pressure from escaping, like an air gun, and the pressure inside the pipe is increased, slowing the train or other object. If multiple pipes are installed and there are multiple stakes on the train, first one stake (a rod-shaped object used to hook the vehicle to the outside) is hooked, then the second and third stakes are added, and so on, adjusting the braking force applied to the train. If holes are drilled in various places in the pipe to release pressure, when a certain pressure is reached, a plug or other object is removed, preventing the pipe from breaking due to sudden excessive pressure. The temperature inside a residential building can be controlled by lining up such structures on the roof of a house in the same way that solar panels are cooled by connecting plastic bottles, and pouring or storing water there. Water can be circulated by installing tanks about 5 meters underground where the ground temperature is about 15 degrees all year round. Water can be stopped for a certain period of time while the temperature changes on the roof. Structures made of plastic bottles (not necessarily plastic bottles) can be designed to be buried under roof tiles. Multiple underground tanks can be prepared and connected to each other to set the depth at different positions to finely adjust the temperature, and if natural cold spring water or hot spring water is available, it can be pumped directly.
In winter, snow and other debris can be prevented from accumulating on the roof. Also, by pouring water over the structure, the exterior surface of the structure can be cleaned. At around 5 meters underground, the temperature remains at 15°C all year round.
It utilizes the fact that the temperature is kept at about 5 meters underground or the fact that the temperature changes depending on the depth underground. On mountain slopes, etc., a depth is determined according to the required ground temperature, such as about 5 meters underground or a little shallower, and a tank made of PET bottles, etc. is filled with water in advance and a structure is constructed to manage the temperature of the air made of PET bottles, etc., as shown above. A space is provided inside the PET bottles, etc. through which air can pass, and a structure is constructed that can control the temperature of the air by passing through it. Then, the air is connected to a space made of PET bottles, etc., installed on the ground, etc., where plants are grown, through a pipe made of PET bottles, etc. Outside air is taken in from a specific intake port and circulated to the underground space or the space for growing plants, etc. Outside air can be blocked off and dedicated gases can be circulated, or the air can be purified using an air filter, etc. in the outside air intake section. It is also possible to prepare multiple underground tanks at high and low positions from the structures for plant cultivation, etc., by taking advantage of the difference in altitude of the mountain. In this way, the temperature difference with the outside air can be used to naturally create convection, reducing the cost of air circulation, and if necessary, a fan driven by a motor can be installed to direct air into the space where plants are grown. The plant cultivation space can be designed to be so narrow that it is impossible for a person to stand and pass through, making the most of the space. Pallets with plants can be placed on a cart and moved in and out of the cultivation space using tires or rails. Instead of sunlight, LEDs or elements that convert heat into light (announced by Kyoto University, etc.) can be used, or sunlight can be drawn into the space using mirrors or optical fibers. If the heat applied to the conversion element has an effect on the plants, a pipe-shaped device can be set between them and water can be circulated there to cool the plant cultivation space, and since the area around the plant cultivation space is originally constructed with plastic bottles, excessive temperature fluctuations can be prevented by circulating water at a constant temperature, such as 5 meters underground. In a system that utilizes underground temperatures, air adjusted by the underground temperature can be circulated from the underground space to the space for plant cultivation, and water stored about 5 meters underground can also be circulated at about 15 degrees. The plant cultivation space can be made large enough for humans to enter, and can be used for purposes other than plant cultivation. The plant cultivation space is separated from the outside world by a structure made of plastic bottles, etc., and in order to control the temperature and humidity inside, air adjusted by the earth temperature is moved from the underground structure that utilizes the earth temperature to the plant cultivation space through pipes, etc. At that time, it is possible to move only the air, or to move water together with the air and pour that water into the place where the plastic bottle juice is stored, which can also be used to control the temperature of the plant cultivation space. In some cases, only water can be circulated, or only air can be circulated. If the plant cultivation space is designed to be long and narrow so that humans cannot enter, it will be an effective use of the space, and multiple plant cultivation spaces can be stacked on top of each other.
From the plant cultivation space to the work area where people can take care of the plants, etc., a long, narrow tunnel made of similar PET bottles, etc., is placed underground or above ground, and the plants are placed on a cart and pulled by an electric tow truck or winch on rails or something. If the work area is sealed so that people can work while being isolated from the outside world, it is possible to prevent bacteria from entering from the outside and events such as seed cross-pollination. The size of the plant cultivation space can be changed, so it can be made large enough for people to enter and work there, and if a solar power generation system is installed in the space, the temperature of the solar panels can be controlled to generate electricity efficiently. These inventions will be useful for a society where goods and services can be exchanged in a manner that allows communication. In order to contribute to the construction of a rational society with the invention technology as the basic collateral, people who agree to the inventor will entrust the operation rights of the service network to the inventor by contract in order to continue the service, etc. As an application of the above method of dropping water vertically to power a generator below, instead of water, magnets processed to roll can be dropped, coils can be placed around the path of the falling lane to generate electricity, and the lane can be used to roll to a certain location using gravitational energy, and the gears that move the gears and shafts can be moved using the compressed air as mentioned above to return to the upper position. Once it reaches the upper position, it can roll along the top of the lane using gravitational energy, go downward to the connected lane, and then drop again. A certain amount of space can be provided at the top or near the drop point to store the rolling magnets, and they can be left waiting there, and when a stopper that opens and closes electrically is released, the magnets can roll again using gravity, etc. This can be done in the same way with the device shown above, which drops water vertically and transmits the energy to the blades of a generator below to generate electricity, or by setting up tanks at the top or bottom to store water and then dropping it as needed to generate energy, or by storing natural water or using spring water. Various types of power can be used to raise water to the top, such as a water pump. When connecting plastic bottles and running water from an underground tank through them to control the temperature of the space inside, stacking the bottles up increases the space per unit area. A spiral rail can be used to connect the plant growing space to the bottom, or an elevator can be used to move from high to low.
Or people can go up the stairs or take the elevator. The elevator can go up to the edge of the growing space, so people can work there. Chairs can be installed in the elevator and it stops at each floor, where they can be connected to rails installed above the elevator, and plants and other plants can be moved along the rails while people remain seated. The outside of this tall structure can also be surrounded with light-transmitting vinyl or similar material to seal the inside. The elevator is located in the center.
The plants in the middle are isolated from the outside world, so seeds do not mix with them. Insects do not come either. When a space is created in the middle of a structure made by connecting and processing PET bottles, etc., and plants are placed there to grow, the structure is surrounded with light-transmitting vinyl to isolate it from the outside world, and a person can go close to the space in the structure, move part of the structure to reach the space, and then return the parts made by processing the moved PET bottles to their original state. ▲1▼The difference in gravity between water (liquid, etc.) and air (gas, etc.) is used to generate upward energy in the tank. ▲2▼A device with wings, etc. that can open and close the upward energy generated in the tank is connected in principle to a bicycle chain-like and crank-like device to convert it into rotational energy. ▲3▼This rotational energy transmission device is installed in the middle of the tank. ▲4▼Water (liquid, etc.) is poured into the tank through a pipe, etc. ▲5▼Compressed air (gas, etc.) is poured into the tank. 6. Drop water (liquid, etc.) downward from the top to the bottom. The energy is used to generate electricity using a generator or as another energy source. 7. The water (liquid, etc.) at the bottom is brought to the top by a force that converts the gravity difference between the liquid and gas into rotational energy and reused.

Global environment

Land-based aquaculture

Patent No. 6092454

JP2018-93852 University of Tokyo, Ground temperature data, Japan Association of Groundwater Hydrology, Kyoto University, Osaka Gas joint research. First successful conversion of thermal energy into light with wavelengths that solar cells can generate electricity efficiently. Published in Science Advances on December 24, 2016. Nano-resonators made from silicon. www.kyoto ou.ac.jp Vegetable growth conditions www.atariya.net Himawari, a lighting system that uses the sun's blessings www.himawari-net.co.jp Calorific value of fuel www.hakko.co.jp

Improving energy costs, etc.

Improving energy costs, etc.

Use a sled, etc. Create a structure to properly distribute water, etc.

Space etc. Vehicles etc. Water, etc. Power generation, etc. Power unit, etc. Power unit, etc.

Independent industries can be established even in depopulated areas.

Claims (1)

This device uses a substance that allows light to pass through but not liquid to pass through, to construct a hollow structure that is structured to allow or retain liquid for controlling temperature, and allows solar panels to be inserted into the hollow part. Because solar panels generate less electricity when they get too hot, by adjusting the latitude and installation depth of the underground tank, it is possible to circulate liquid that has been regulated to a ground temperature of around 15 degrees all year round, and use this to control the temperature in the hollow part of the hollow structure. Because the ground temperature around the underground tank varies depending on the depth, multiple tanks are installed at different depths, and the liquid in the multiple tanks can be mixed to regulate the temperature of the liquid.

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