Reducing cost of living and the like

Abstract

To improve cost and the like of energy and the like.SOLUTION: Creating a structure in which water and the like are properly arranged improves cost and the like of energy and the like.SELECTED DRAWING: Figure 1

Description

[Technical field]

[0001] global environment [Background technology]

[0002] Land-based aquaculture [Prior art documents] [Patent documents]

[0003] [Patent Document 1] Patent No. 6092454

[0004] [Non-Patent Document 1] JP2018-93852 University of Tokyo, Soil temperature data, Japan Association of Groundwater Hydrology, Kyoto University, Osaka Gas joint research. First successful conversion of thermal energy into light with a wavelength that can be efficiently generated by solar cells. Published in Science Advances on December 24, 2016. Nano-resonators made from silicon. www.kyot 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 Summary of the Invention

[0005] Improving energy costs, etc. [Problem to be solved by the invention]

[0006] Improving energy costs, etc. [Means for solving the problem]

[0007] Use a sled, etc. Create a structure to properly distribute water, etc. [Brief description of the drawings]

[0008] [Figure 1] Space etc. [Diagram 2] Vehicles etc. [Diagram 3] Water, etc. [Figure 4] Power generation, etc. [Diagram 5] Equipment etc. [Figure 6] Equipment etc. [Industrial Applicability]

[0009] Independent industries can be established even in depopulated areas.

Claims

1. When shielding, use a transparent material that allows light to pass through, cover with strong plastic or PET. A structure made by connecting bottles (or other specialized bottles) that are originally made of PET bottles. Water is pumped into the area 5 meters underground, and the temperature stays at about 15 degrees Celsius (latitude and longitude) throughout the year. Pumps, etc., are installed in underground tanks in places where the temperature is kept constant (depending on the temperature, etc.) (underground in mountainous areas, etc.) If it is, there is energy that will naturally fall due to the pressure of gravity) and the water is circulated by using this method. If the liquid is removed, the temperature of the space through which vehicles pass will be close to 15°C, and if the flow rate of the liquid is adjusted, the air temperature of the vehicle will be It is possible to reduce the air resistance by reducing the pressure in the space in which cars and other vehicles travel. When creating a vacuum, pressure-resistant reinforced plastic, glass, etc. are used to prevent vehicles from passing through. It can also be installed on the periphery of the space to reinforce it. Water, etc., is circulated by a pump. When doing so, liquids such as water may suddenly boil even if exposed to sunlight from the outside. Since the pump does not need to be operated frequently, energy costs are also low. If energy is obtained from solar panels, etc., the equipment may be installed on the roof, side or rear of the equipment. Solar panels, etc. are installed in the vacant space of the building. In order to achieve this, water that is kept at a constant temperature in an underground tank like the one mentioned above is placed on the panels. Or, a pipe-shaped structure made of a light-transmitting material could be installed nearby to allow underground water to flow through it. The temperature of the solar panel can be controlled by running water of about 15 degrees Celsius from a tank, etc. The water-proof panel can be made airtight and attached to a tub or other object that contains shallow water. Then, water of about 15 degrees Celsius is poured into the tank, which is installed about 5 meters underground, and then the tank is re-inserted underground. Collect the water in a tank or other container. If the location allows natural groundwater to flow freely, it can be left to run. It is also possible to control the temperature of the panel. For example, a plastic bottle can be used to control the mouth of the bottle. The underground tank is placed in the area by cutting out a rectangular cube and gluing several of them together. A structure is constructed to hold water, etc., using a material such as a plastic bottle that transmits light but does not transmit water, etc. Using this method, a hollow structure is created that is filled with water, etc., and a soak is placed in the hollow part. This allows you to put in things like a temperature control panel. By installing a similar device on solar panels installed in the building, the amount of electricity generated can be increased. If the solar panel gets too hot, the amount of electricity it generates will decrease. The underground tank is heated to about 15 degrees Celsius to effectively cool the tank. Since the ground temperature varies depending on the depth, multiple tanks can be installed at different depths, and the water can be stored in them. If necessary, you can drain the water from the structure made of a plastic bottle, etc. The material is light, so it can be moved by hand, but it is also possible to move it by motor drive. The ceiling can be constructed so that it can be opened and closed by a simple tap. Water that has changed depending on the soil temperature is about 5 cm long and wide (this is just a rough guideline, but the scale can be adjusted freely). The structure is such that a pipe for the water supply is installed around the pipe, and a passage for water flow is provided around the pipe. A structure is set up to allow the water from the underground tank to flow through, and a fan is attached to the end of the pipe to blow air. When air moves through the tubes due to the force of a fan, etc., heat is exchanged with the surrounding water, etc. (for example, If it is made of a thin material such as a water bottle, heat will be easily conducted, and in the summer it will gradually cool 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 that of water from an underground tank. It is cold in the summer and warm when the air temperature is below 15℃. You can also connect motors and other devices to create structures. Fans, such as electric fans, consume little electricity. This will save energy. The pipes do not have to be straight, so they can be curved to create distance. By passing a thinner tube through the inside of the tube, water can be circulated there as well. It can also facilitate heat exchange. Water circulating through a rod of metal or other material with high thermal conductivity The surface that comes into contact with the flowing air and water at a temperature of about 15°C is placed between the flowing passage and the pipe. You can also increase the volume. You can also install fans at the other end of the tube or in the middle of the tube. It can also be attached to the heat exchanger to improve heat exchange efficiency. The device can be installed indoors, but underground It can also be installed in places with a constant ground temperature of about 1 meter. Air is let in and out through pipes. A pipe is inserted into the ground at a depth of about 5 meters where the ground temperature is about 15°C, and air is pumped into the pipe. If you pump it in, in the summer, the air sucked in above ground will travel underground and then flow back through the pipes. When the water leaves the outlet, the temperature is close to the ground temperature of 15°C. Water flows on all four sides of the pipe or in a specific part, but in the case of a two-tiered structure, the lower part The water level will be maintained by gravity even if the ceiling is not sealed, so there is no need to install a ceiling. In some cases, water comes into direct contact with the air, improving heat exchange efficiency. Most of the installation around the pipes If the ground temperature of the location is around 15°C, the original air temperature will approach 15°C. When using hot water or water artificially boiled in a boiler for air conditioning in homes and facilities, etc., it is compressed. First, pour hot water into a space made of plastic bottles, etc., and then use the above In this method, the underground temperature of about 15 degrees is used to exchange heat and bring the air temperature closer to 15 degrees. If you add hot water instead of 15 degrees, it will reach that temperature. In order to keep the food warm when it is sent, we put plastic bottles etc. in a container that is connected together. Enclosed space, compressed space (or just a little ventilation, etc., depending on the situation) The above-mentioned space for blowing hot air etc. is installed underground or above ground, but If it is very cold above, the cost of digging underground should be taken into consideration, and the temperature should be about 15 degrees, about 5 meters underground. A heat insulation system using water from a tank may be used. For underground tanks, etc., the temperature must be adjusted according to the depth. Since the depth changes depending on the season, it is possible to prepare multiple tanks and mix water, etc. If necessary, the outside of the device that sends air made from PET bottles, etc., is covered with insulation material (Styrofoam). By covering it with insulation such as foam, the efficiency can be increased. It is also possible to transmit electricity. The efficiency of solar panels increases when the temperature is close to a certain level. Water that uses the earth's temperature, such as water that is passed through a thin pipe about 5 meters underground near such objects. It is also possible to circulate the water or store it temporarily. - Eliminate the influence of outside air on panels and other equipment (including the equipment to be covered if necessary) and keep the temperature For control purposes, the outer periphery is made of a material similar to that of a plastic bottle. The structure is created by pouring water, etc., that utilizes the earth's temperature from 5 meters underground. Solar panels and other devices can be installed in structures that can control the temperature inside the body. It also prevents the water from getting too hot. It can circulate or stop within the structure, and the flow rate of water can be changed by adjusting the pump. The water that passes through the plastic bottles returns to the underground tank and the temperature is controlled by the ground temperature. The tanks may be installed in multiple locations depending on the depth. To control the amount of water circulating, it is possible to pass the water through finer tubes. Such tubes can be installed in advance on devices such as solar panels. Water from underground tanks is poured into pipes made of this material, and they are placed around solar panels to regulate the temperature. To prevent water from getting into electrical equipment, pipes, solar panels, etc. should be waterproofed. It is not a plastic bottle, but a thinner material made specifically for it, through which water flows. For example, a thin wall of water about 2 cm thick can be used to cover the perimeter of a solar panel. It is used to control the temperature of solar panels, etc. It is used to pump water from underground tanks, etc. When the solar panel is raised to a certain height using a method such as gravity, the tube passes around the solar panel. It flows back into the underground tank. A mist-like substance (or even a non-mist substance) can be applied to the top of solar panels, etc. It is also possible to lower the temperature by spraying water, etc., and in this case, water from an underground tank is also used. The water can be collected and recycled. Fertilizer is poured into a space created using plastic bottles, etc. It is divided into several layers, including one that collects water and oxygen, and another that allows water and oxygen to seep underground. It is also possible to make other structures such as PET bottles by using a similar structure. If you cover the top with a cloth and create an airtight container, fertilizer, pesticides, etc. will not scatter to the outside. Reusing it can also reduce costs. When taking in outside air, put a door on the top. You can open it, use a fan to let air in, and even make a door for people to enter. Such a barrier can prevent fertilizers used in agriculture from diffusing outside the barrier. It is also possible to prevent this. The pacemaker created a tunnel-like space just large enough for a human to pass through, and placed rails and tie rods in it. Use a wrench to pull in a cart-like object. In hydroponic cultivation, the solution is placed inside the space. If you are growing plants, you can use water tanks of the right size to accommodate the growth of the roots. You can also put a bucket or other container into the space on a cart and move it inside. You can move it around by placing it on a pallet using a rail, so place the rail in a sunny place. It can be moved to any location by laying it down or rolling it with tires. In some cases, the upper part of the plant can be moved using a cart or similar device. Similarly, you can use plastic bottles to create a space for a car, etc. The temperature of the interior space can be controlled using circulating water, etc., and it is possible to park a car in the room. You can take a rest inside. There is also a structure made of plastic bottles that can be used to grow crops. It is also possible to grow crops by placing structures on it. Electric compressors are used, but the compressors are powered by hydraulic gears. The compressor is powered by using energy or by transmitting the rotational energy of the windmill through gears. The tank that stores the compressed air is placed about 5 meters underground. Water stored in a tank installed at a certain temperature or 5 meters underground Blow air in and bring the temperature to close to 15°C. Air compression compressor that uses natural energy such as hydraulic power The gas is used to power the device and stored in a tank installed underground, etc., and can be used as desired like a battery. It can be taken out at any time and used to move gears. When cooling, the air is first cooled in underground tanks, compressed, and the humidity is adjusted, and air is then pumped underground. Storage and lowering of humidity. Storage tanks containing compressed air, etc., are placed underground to lower the temperature. Even if the tank is large, it is not difficult to find a place to install it underground. The compressed air is adjusted in temperature and humidity and sent from the facility to general households through underground pipes, etc. It is highly efficient to use compressed air (gas form or dry ice) instead of storing electricity. The water can be stored in a waterwheel-like structure next to a river, etc. If the ocean waves are on a ria coast, the tsunami will reach high places, so The structure is artificially created to trap seawater up to 10 meters above the coastline. Then, the water is stored and used to turn hydroelectric turbines that use gravity. It can be used to generate electricity, to rotate air compressors, and as a variety of other power sources. By using the energy of ocean waves to obtain the potential energy of a certain amount of seawater semi-permanently, This method will be useful for the lives of human beings. Move the cylinder to a location with a diameter of 20 meters or more. Another method is to use a tank filled with water, etc., installed underground. If rotating wheels or other objects are placed there and compressed air is released from below, the energy required for lifting off can be used to This causes the wheels to rotate. The deeper the tank, the more wheels can be installed. This creates energy that rotates the waterwheel and the wheel due to buoyancy. Energy can be used to operate a compressor to create compressed air or to operate a generator. It is always efficient. The water pressure in a vertical tank filled with liquid water is applied. Compressed air (gas) and dry ice at a deep point and Omasa gas (Omasa gas, HHO, GAS, etc.) are placed in the tank and electricity or heat generated by chemical reactions of chemical substances is used. In addition, ignite gas (or a mixture of hydrogen and oxygen) and use the heat to create dry ice. Compressed air also expands due to water pressure (gravity) and creates upward kinetic energy. This generates heat and is used to turn water wheels, etc. Or run a generator. To increase the efficiency of the rotation of water wheels, etc. Make it movable so that it can be opened and closed. Then, when it is pushed by gas, it opens. The kinetic energy of the water turbine hits the liquid, creating resistance and slowing down the rotation speed. This can prevent this as much as possible. The wings open and close, but they do not close completely, only opening slightly. Or, if an object that has buoyancy is attached to a part of the wing and is oriented in a specific direction, it will have buoyancy even if it is completely closed. It is also possible to think of a structure that allows air to get in and push the material apart. Or, attach a plate or other object to a specific part of the tank so that the air can easily gather in the blades of the waterwheel. The shape of the wing is designed to control the flow of water or air. If a waterwheel of this shape is installed in a tunnel or other place where there is no energy and water pressure, the water flow will Therefore, the wings open where they are being pushed and close when the pressure from the water current weakens. Dams and other hydroelectric power plants have heights of 100 meters and pipes stretching hundreds of meters. However, the propellers for hydroelectric power generation installed downstream alone cannot fully harness the energy of the water flow. The water cannot be recovered to turn the turbine of the generator, resulting in losses, so the drop is about 10 meters. It's now just a water flow, with thinner pipe-like tunnels and tubes. In the section between the two, water turbines and propellers for hydroelectric power generation will be installed. It can efficiently recover potential energy. It can also eject compressed air from deep areas with high water pressure. When turning a water wheel or the like with the force of air rising to the top, this water tank or tank is designed with great care. When the water wheel etc. is rotating clockwise, compressed gas etc. is ejected at exactly 1 o'clock. This prevents the propeller, turbine, etc. from slowing down due to water pressure. The force of the clockwise rotation is constantly generated, and the energy of compressed air, gas, etc. is generated. It converts the force of buoyancy caused by differences in density, etc. into rotational energy such as in a water turbine. Shafts of water turbines, etc. When injecting compressed gas into a hollow cylinder, the cylinder may get stuck at the 1 o'clock or 6 o'clock position. A door that is fitted with a kerosene filter, and the hole in the shaft gets caught in it, causing the door to open and gas to escape. When the lock is no longer caught, it closes by using the force of a spring or the hollow part of the shaft. Pass gas through the gas tank and cover it with a metal cap. When a hole is made in a specific part of the cap, the gas outlet of the rotating shaft etc. It is also possible to have a structure that allows gas to be ejected when the turbine reaches a certain position, and the ejection of compressed gas can be linked to the position of the turbine. Methods such as controlling a valve so that compressed gas comes out only when the valve moves to a specific position, etc. The shaft part that transmits the energy of the waterwheel, etc. can be extended horizontally to form a water tank, To prevent water from leaking from the tank, the tank is sealed tightly and the water passes through to the tank where there is no water. The direction is changed by using gears in the tank, and the rotation is transmitted to the shaft extending upward to make the tank. When the tank reaches a height where it can come into contact with the outside air, it transmits the energy to the gears, etc. It can also be used as a power source. Several water wheels can be connected vertically. There are various ways to think about this, such as extending the tank deep or raising it above ground. In order to transmit the rising energy and buoyancy to the power, the ship is connected by a belt or something and supported in some way. (The resistance of something like a bicycle chain to absorb the buoyancy is known as A plate with adjustable angle (due to installation costs, it is not always possible to change the angle of the plate due to resistance, etc.) The angle does not have to change, but you can use a structure like this. The energy gained from this is then connected to a shaft, which is then used to move water upwards. These can be used to lift up water, etc. These can be divided into 10 meter intervals to adjust the water pressure, etc. It is also possible to arrange them vertically and connect several of them together. Air, etc., flows from the lower structure to the upper structure. The upward energy of the air, etc., is recycled and injected into the body using a structure that allows it to flow again through pipes, etc. The energy generated by the rising air in each structure can be used efficiently. The water, etc., can be converted into driving energy, etc., through a shaft, etc. The water comes into contact with the ground, so it is necessary to pump it up. It is possible to use a similar structure like a bicycle chain to move the By stacking such devices vertically in multiple layers, The rising energy of air (or carbon dioxide) is efficiently used and converted into energy. It is also possible to control the water pressure by changing the temperature. Once compressed air is put in, it is separated from the atmosphere to prevent leakage to the outside. It is possible to attach a cover to the contact surface of the device, and if necessary, to allow the compressed air to escape into the atmosphere. It is also possible to install a pipe that detects pressure on the route that connects compressed air, etc. It is also possible to set up a pressure regulator, etc., and attach a valve that opens and closes in conjunction with it to control the flow of air, etc. It is also possible to optimally control the pressure in each section. The valves that open and close are electronically controlled. It may be an analog type that opens and closes according to pressure from a spring or the like. It can also be connected horizontally and made into a small size. Of course, this can be used on ships, etc. It is also possible to attach various devices to it to provide propulsion. Water is once transported to a high place (e.g. 60 meters above ground) using a water pump, elevator, vehicle, etc. Then, move the pipe downwards and place it in water. The kinetic energy is then used to power propellers, etc. for generating electricity. Of course, this energy can be used for various purposes. If such a device were installed on a ship, If loaded, it can generate electricity or be used as direct propulsion energy. No pipes are required. However, a certain amount of water will fall at a certain point. Since the kinetic energy of an object increases in proportion to the square of its speed, it can be moved efficiently. It can obtain energy. Compared to a speed of 1M / S at a height of about 60M, the kinetic energy The energy is increased by about 625 times. Even at 40L per second, considerable power generation can be achieved. As the ball falls, energy is efficiently increased. Efficiently transfers energy and other substances The electric current is increased and used to power a generator (for example, to rotate a turbine for hydroelectric power generation). Baseball It may be a ball with iron in it. For example, a turbine for generating electricity may be made from a large number of balls. When transferring energy to the ball, the ball falls into a pipe or other structure at the top to ensure that the ball falls regularly. In order to control the flow, the ball is made to roll on a rail and a stopper is used to open and close the ball. By making it ball-shaped, you can set a slight incline and it will be easy to move. The balls can be easily moved by gravity. For example, turbines that receive energy are each independently charged with the energy of balls, etc. For example, you can tell the position of each wheel without having to arrange the blades of a waterwheel in a horizontal line. By slightly shifting the ball, the energy of the ball can be efficiently transmitted to wheels, water wheels, turbines, etc. The ball's movement is controlled by the drop position above, and the turbines below rotate. The return device that can collect the waste at the highest position is adjusted and controlled mechanically to maximize efficiency. If the water is at the bottom, it should be collected in a certain place and then mechanically removed from there. If a moving bucket or other object moves upward, the water or other liquid will move upward. If you move it to a certain location using gravity or control its direction using a lane, it will be like a batting machine. The balls move up as the machine moves. The balls are surrounded by rubber to maintain their strength. It can be covered with shock-resistant materials such as leather. When installing, it is important to take care not to damage the structure due to the nature of the edges, such as mountains and valleys. If there is spring water by utilizing the natural terrain, the cost of building a large-scale facility from scratch can be reduced. It is also possible to reduce the amount of electricity required. Existing buildings can be used and parts of them can be remodeled. When a certain amount of spring water bubbles up near the summit of a mountain, the water is diverted through pipes, etc. It is also possible to pull it to a specific point while maintaining a high altitude. In some cases, water can be pumped up using power or other means and transported from the bottom for reuse. Even if the difference between the height of the mountain and the surrounding lowlands is 50 meters, the original height of the mountain is still there. Since the height is only about 50 meters, less scaffolding is required. It is also easy to install pipes in that area without having to go into the wood or concrete. It is also possible to create platforms to support pipes, etc. using scaffolding such as soffits. The water that flows down from the mountains is collected and then used to make use of the height of the waterway below. The mountain's topography is utilized to generate energy and other resources, while construction costs are kept low and high. It is also possible to obtain energy from the earth by digging down into low-lying areas and placing generators underground. This will avoid noise and increase the height difference. When dropping the pipe downwards, connect a pipe that can send compressed air to the top of the pipe. It is designed to drop water downwards more quickly and has a structure that bundles together multiple thin pipes instead of a single pipe. The inner pipes are bundled together in a structure, and several holes are drilled for ventilation, and the pipes are compressed into these holes. The air is sent from the high part of the pipe so that it falls smoothly when water falls through the pipe. It is also possible to do so. If there is no spring water, a certain amount of water is brought or rainwater is collected. The vehicle can be driven by using the above-mentioned structure that slides on the cooled ice. It is also possible to move the object efficiently, and to some extent it can be accelerated by using gravitational energy, engines, etc. If rails or other structures are installed so that the water moves upwards after it has been accelerated, the water can be moved to a higher position. The energy required to propel the vehicle can be obtained by the acceleration caused by gravity. Of course, this kind of equipment can be installed on ships and other vessels to reduce energy costs. The temperature in the Japanese mainland is about 15 degrees Celsius throughout the year, about 5 meters underground. If we use the natural law that the temperature is maintained at 100°C, and put a tube-shaped tunnel on the ground, it will cool the air. This can save energy. Or, when cooling the structure by grounding it on the ground, It is also possible to cover the outer periphery of the tube with liquid water, etc., and the outer periphery of the tube is made of plastic. If the vehicle is illuminated through glass or other materials that allow light to pass through, the scenery can be seen from inside the vehicle. It is also possible to run a sealed ship filled with water, etc., and to move the objects by creating a vacuum inside the tunnel. Improve energy efficiency during operation (applicable to anything that can travel through tunnels, etc.) 。 Even if it is not as large as a train, a car or other vehicle can be made to have a similar structure, allowing for energy savings. It can reduce costs, etc. It can increase the reliability of self-driving cars, etc. It can also reduce the cost of driving cars, etc. by using the same platform. Connected to a cart placed on the foam, the sled supports the weight of the cart and creates rolling resistance. We will reduce the number of roads that have been frozen and the temperature of the road surface in summer. To prevent this, water is poured from tanks installed 5 meters underground under roads and passageways. By using a method such as this, the water is circulated 10 cm (approximately) below the asphalt of the road. This prevents the road surface from freezing or emitting excessive heat. It is also possible to increase the cooling efficiency in summer by using a plastic bottle, etc. A space the size of a futon (it can be larger or smaller, the size can be changed) It will keep the space cool in summer and warm enough not to freeze in winter. Water from a tank installed at a height of about 1000m is poured into a plastic bottle through a pipe. Connect the bottles so that the water circulates and returns to the tank. In order to make the train run smoothly, pipes etc. are installed under the train tracks and oil etc. (clay etc.) is poured into them. Then, a hole is made in the top of the pipe and the The piles are dropped from trains and other vehicles, and the piles are caught in the air. Like a gun, the pressure is not released by the pipes, so they come into contact with round plates that are tightly packed together. It is possible to slow down trains by increasing the pressure inside the pipes. If there are multiple posts for trains, etc., first attach one post (to hook the outside of the train, etc.) The brakes applied to the train are then applied to the second, third, and so on. The force can be adjusted. Holes are drilled in various places in the pipe to allow the pressure to escape, and the pressure is kept constant. When the pressure reaches this level, the stopper or other parts may come off and cause the pipe to break due to sudden excessive pressure. It is necessary to cool solar panels by connecting plastic bottles, etc. In the past, these structures were lined up on the roofs of houses, and water was allowed to flow into them. By storing water in a container, it is possible to control the temperature inside a residential building. Tanks are installed about 5 meters underground, in a place where the ground temperature is about 15 degrees all year round. Water, etc. is circulated. Water, etc. is stopped for a certain period of time, such as when the temperature changes on the roof. A structure made of plastic bottles (not necessarily plastic bottles) can be placed in the It can also be designed to be embedded under roof tiles, etc. Multiple underground tanks can be prepared to store water underground. You can also connect tanks together to adjust the temperature at different depths. If cold spring water or hot spring water is available, it can be pumped directly into the water. In winter, it can prevent snow from accumulating on the roof. Also, if water is poured onto the top of this structure, The exterior of the structure can be cleaned. At about 5 meters underground, the temperature is 15℃ all year round. The temperature is kept at about the same level as the soil, and the temperature changes depending on the depth underground. The depth should be about 5 meters underground or a little shallower depending on the required ground temperature. The temperature is determined and water is poured into a tank made of plastic bottles, etc., as shown above. A structure is constructed to control the temperature of air made from PET bottles, etc. By providing space inside the unit for air to pass through, the temperature of the air can be adjusted. We will build something that can control the air. And we will use a plastic bottle to control the air. A space for plants to grow, made of plastic bottles placed on the ground through pipes The outside air is taken in through a specific intake and used to grow underground spaces and plants. The outside air is blocked and a special gas is circulated, or an air intake is installed in the outside air intake area. The tanks underground are designed to purify the air by using air filters, etc. Prepare multiple plants at high and low positions from the viewpoint of the structure for plant cultivation, etc. It is also possible to use the temperature difference with the outside air to naturally cause convection and circulate the air. This can reduce the cost of replacing the air conditioner, and if necessary, a motor-driven fan can be installed to change the air conditioner. The water is poured into a space where plants are grown. They can also be designed to be so narrow that it is impossible to pass through, maximizing the use of space. The pallet containing the above items is placed on a cart, and the cultivation space is created using tires and rails. Instead of sunlight, LEDs and other elements that convert heat into light (Kyoto) can be used. The University of Tokyo and other universities are using solar panels, and mirrors and optical fibers are used to capture sunlight and create spaces for plants. If the heat applied to the conversion element affects plants, etc., A pipe-like device is set up in the plant cultivation space and water is circulated through it to cool the plant cultivation space. The plant growing space is also made of plastic bottles. So if you circulate water at a constant temperature, say 5 meters underground, you can prevent excessive temperature fluctuations. In a system that utilizes underground temperatures, the underground temperature can be extracted from the underground space. The air conditioned by the heater is circulated in spaces for growing plants, etc., and is used in underground spaces about 5 meters below ground. The water stored in the tank will also be heated to about 15 degrees, so this can also be circulated. It can be made large enough to accommodate spaces between plants, and can be used for purposes other than growing plants. It is separated from the outside world by a structure made of a water bottle, etc., and the temperature, humidity, etc. inside are controlled. The underground structure uses the soil temperature to roll the air conditioned by the soil temperature and the like is used to grow plants. The air is moved through a tube to the base, but it is also possible to move only the air at that time. The water is then moved along with the air and poured into the plastic bottle where the juice is stored. By pouring it in, you can also control the temperature in the space for growing plants. Only circulating air can be circulated. The cultivation space for plants, etc. is designed to be so narrow that humans cannot enter it. This allows for efficient use of space and allows multiple plants to be grown on top of each other. The area from the plant cultivation space to the work area where people take care of the plants is underground or On the ground, make a long, narrow tunnel out of plastic bottles and attach it to a rail or something to grow plants. The equipment is set on a dolly and moved by pulling it with an electric towing vehicle or a winch. The work area will be sealed so that workers can work without being exposed to the outside world. This will help prevent bacteria from entering the plant from the outside and prevent seed cross-pollination. The size of the cultivation space can be changed, so it can be made large enough for people to enter. If you install a solar power system in that space, the heat from the solar panels will be By controlling the temperature, it is possible to generate electricity efficiently. To contribute to a society where goods and services can be exchanged in a communicative manner. With this as the basic collateral, we will provide services to each other to help build a rational society. A person who has agreed to give the inventor the right to operate the service network in order to continue the service by contract. The inventor will be entrusted with managing the invention. The water above is dropped vertically to generate power for the generator below. As an application of this method, instead of water, a magnet that has been processed to roll is dropped into the water. Coils are installed around the lane or other route to generate electricity, etc., and the lane is used to The gear is then moved by the force of gravity, using compressed air, etc. Then, the gears that move the shafts move back up to the upper position. When it reaches the top position, gravity energy causes it to roll down the top of the lane and connect to the lane below. It can also go up into the sky and then fall back down again. Collect magnets with a rolling mechanism Leave a certain amount of space in the background, near the top or the point where the robot will fall, and let it wait there. If you release the stopper, the rail will start rolling again due to gravity. This is the same as the above example, where water, etc., falls vertically. The same can be done with a device that transmits the energy to the blades of a generator below to generate electricity. A tank is provided in the upper or lower part of the tank to store water, etc., and the stored water is used as needed. It can be made to fall and used as energy, or natural water can be stored there, or spring water can be used. You can also use various pumps to raise the water to the top. You can also use it by connecting plastic bottles and pouring water from an underground tank into them. When you want to control the temperature of a space, stack these plastic bottles on top of each other. The space per unit area increases. A spiral rail is laid between the plant growing area and the work area. It can be used to connect the vehicles to the bottom, or to move them from higher places to lower places using elevators, etc. Or humans climb up the stairs or take the elevator. The elevator can go all the way to the edge of the platform, so people can work there. The elevator stops at the floor where the plant is placed on the rail. The top can be moved so that people can sit on it. The inside can be sealed off by surrounding it with permeable vinyl or the like. The elevator is in the center. The plants in the center are isolated from the outside world, so their seeds don't get mixed up. There are no insects either. A space is created in the center of the structure, which is made by connecting bottles and other materials, and plants can be placed there to grow. When the structure is being used, it is surrounded by a transparent vinyl sheet to block it from the outside world. Then, a human being goes near the space of the structure and moves a part of the structure to fill the space. The workers then moved the PET bottles and other items to be processed and used. It is also possible to return parts that have been taken to their original state.

1. Gravity of water (liquid, etc.) and air (gas, etc.) The difference is used to generate upward energy in the tank. A device with wings that can open and close directional energy and convert it into rotational energy. In principle, it connects a bicycle chain-like thing to a crank-like thing. The energy transfer device is installed in the center of the tank. ▲4▼Put water (liquid, etc.) into the tank. ▲5▼Compressed air (gas, etc.) is poured into the tank. ▲6▼From the top to the bottom. Water (liquid, etc.) is dropped downward. The energy is converted into electricity using a generator, or other energy is used.

7. The difference in gravity between the liquid and gas is used as rotational energy. The changed power is used to bring it to the top and reuse it.

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