Cultivation systems for areas requiring cooling as a countermeasure against the Great Reset, cooling devices for urban houses, storage facilities for non-genetically modified rice grains.
The integration of perovskite solar cells and low-temperature cultivation rooms addresses nuclear risks and global warming, ensuring stable food production and domestic food security through renewable energy and cooling systems, while preserving non-genetically modified crops.
Patent Information
- Authority / Receiving Office
- JP · JP
- Patent Type
- Applications
- Current Assignee / Owner
- 白川利久
- Filing Date
- 2024-10-16
- Publication Date
- 2026-04-28
AI Technical Summary
The potential for nuclear accidents and the decline in domestic rice production due to global warming and the Great Reset scenario pose significant challenges, necessitating alternative energy solutions and agricultural practices to ensure food security and population sustainability.
A cultivation system incorporating perovskite solar cells and low-temperature cultivation rooms for cooling, combined with urban house cooling systems using microwaves and storage facilities for non-genetically modified rice grains, to stabilize food supply and adapt to changing climate conditions.
Enables safe and sustainable agriculture, preserves non-genetically modified crops, and stabilizes food production by utilizing renewable energy and efficient cooling methods, reducing reliance on imported grains and enhancing domestic food security.
Smart Images

Figure 2026071120000001_ABST
Abstract
Description
Technical Field
[0001] To convert the solar energy pouring onto the earth into electric power, a photovoltaic power generation system is necessary. The photovoltaic power generation system consists of solar cells, a connection device, a power conditioner, and a distribution board. When sunlight hits the solar cells, it is converted into direct current. The direct current from a large number of solar cells is sent by the connection device to the power conditioner. The direct current is converted into alternating current by the power conditioner. The alternating current is transmitted externally through the lighting wire by the distribution board.
Background Art
[0002] Recently, perovskite-based thin and large-surface-area flexible solar cells have become a topic of discussion.
Disclosure of the Invention
Problems to be Solved by the Invention
[0003] If an accident occurs at a nuclear power plant, the president may be required to pay 1 trillion yen in damages. If the product liability law is well-established, the manufacturer and the supervisory agency should also be held accountable. It is absurd that only the power company is held liable for damages. In the United States, manufacturing industries have fled the country based on the product liability law and shifted overseas. Local areas in the United States have declined. If one really wants to restart or newly build a conventional nuclear power generation facility using slightly enriched uranium, the manufacturer, the supervisory agency, the government, and the economic organizations can build it and sell the electricity to the power company. At that time, depending on the case compared to TEPCO, the damage compensation claim in case of an accident will be around 1 trillion yen, increasing or decreasing. There will be strong demands from the United States, which wants to monopolize nuclear energy, on the manufacturer, the supervisory agency, the government, and the economic organizations. Whether an accident was anticipated or unexpected depends on whether the actions and operations followed the manual. It also depends on the contract between the manufacturer and the power company. In the case of Fukushima Daiichi, TEPCO likely had a contract that prevented it from holding GE liable. Recently, it depends on the power dynamics between the manufacturer and the power company. The Ministry of International Trade and Industry, having relinquished its nuclear regulatory responsibilities, is finding it difficult to mediate. The Ministry of the Environment might take on this role. If a country without military power exports nuclear power plants, it will be held infinitely liable to the Japanese people. Countries like China and Russia can get away with it even if the exported plants cause accidents. Traditionally, oil transactions were restricted to the dollar. However, the agreement between the US and Saudi Arabia was apparently dissolved in July of this year. Saudi Arabia can now trade oil in dollars, euros, yuan, and yen. The US had been purchasing enriched uranium, oil, and LNG from Russia since before last year. Japan no longer has to worry about fossil fuel imports. However, it will need to earn the purchase price through its export capabilities. Japan's export capabilities seem to be declining. It may become difficult to obtain fossil fuels and enriched uranium. Furthermore, what would happen if the US did something equivalent to abandoning the dollars it has poured out, like in the Nixon Shock? A new exchange block based on gold (which China is collecting) and blockchain is being explored. Russia is proposing a Eurasian bloc. It appears that signs of a Great Reset are beginning to emerge. Private companies involved in the Great Reset, such as oil refining companies run by wealthy families, grain logistics companies, and media companies, seem to be leaning towards renewable energy use out of a desire for their own perpetual prosperity. A cynical view suggests that they want to maintain the US's unipolar dominance by continuously making the large quantities of oil used for military aircraft cheap. They probably want to monopolize nuclear energy. Japanese Diet members cannot maintain their positions without relying on the US ruling class. In a society that calls for a smoking ban, there still seem to be farmers cultivating "leaf tobacco." The soaring price of "rice" will likely continue until Norinchukin Bank's massive losses are resolved. For us ordinary people, the best course of action is to remain indifferent to the greed of the masses, like a ring of flames. It is in the best interest of ordinary people themselves to change their eating habits from childhood to a culture of consuming grains, including imported rice, wheat, and buckwheat. Wheat and buckwheat are already mainly imported. Strengthening our import capacity is also in Japan's best interest. We should also import mochi (rice cakes). As the Japanese population declines, domestic rice production will become a burden. No one, not even politicians, believes that the current childcare, low birthrate countermeasures, and free school lunches will increase the Japanese population. However, there are probably believers in childcare, low birthrate countermeasures, and free school lunches. Serious policies and countermeasures will emerge when the Japanese population reaches around 50 million. I understand the desire and belief to save marginalized villages, but there are probably no means to do so. It might be possible to guide people from marginalized villages to nearby cities and provide transportation for group round trips to their former marginalized villages once a month. Policies and countermeasures until the population reaches around 50 million are crucial. Elimination of waste, accumulation of wealth, and enrichment of the productive class are important. For every 20 million decrease in population, from 120 million to 50 million, it will be the job of government officials to create a roadmap for improving the lives of ordinary citizens, taking into account the demographic changes. Something like an industry-related chart will become important. The Self-Defense Forces will need a small number of special forces, female SDF personnel to operate unmanned aerial vehicles (air, surface sea, deep sea, and ground), and SDF personnel with physical disabilities. Docking operations at space stations were performed by women. Women also seem more suitable for manned submersibles. It appears that women are more likely to survive major accidents. Since it's unmanned, they'll use cheap drones with no regard for safety. Military personnel and individuals will need special support for employment, university, and retirement. Domestic ministries won't improve infrastructure because the population is declining. If a major disaster occurs, they won't restore the area, but instead mobilize people en masse to other locations less prone to disasters. There's plenty of land in rural areas. The government will buy up the many shuttered shopping streets. People will return to their original locations as workplaces. Most of the lacquer and wood used for Wajima lacquerware, except for high-end products, are imported, so they can be manufactured inland. If we leave it to Japanese private companies, they'll probably be able to handle it reasonably well. Even in the era of the Great Reset, is there any point in fiscal consolidation in Japan? We'll need to prepare a successor to the Social Democratic Party to deal with the US ruling class. We can negotiate lower prices because groups like the Social Democratic Party oppose it. Decarbonized electricity can also be generated using solar power. In the future, vast tracts of land will become available in rural areas of Japan. Solar power generation will increase tax revenues for rural cities. In recent years, the climate has tended to be warmer. This has made it difficult for plants that prefer cooler climates, such as Kyoto vegetables, to grow. Even rice plants can suffer from heat damage if temperatures get too high, as evaporation is too rapid compared to water absorption, causing them to wither and die. In particular, this could make it difficult to secure seeds for the following year. [Means for solving the problem]
[0004] Method 1 is a cultivation system for areas requiring cooling as a countermeasure against the Great Reset. The cultivation system for areas requiring cooling consists of a solar power generation system and multiple low-temperature cultivation rooms (200). The cultivation cool room (200) is a building with four sides covered by weather-resistant walls (240), the top covered by peropskite solar cells (100) with insulated bases and a solar input window, and the bottom covered by a plant cultivation bed. Inside the building, an air conditioner (110) is driven by electricity from the solar power generation system described below to regulate the temperature inside the building. The solar power generation system consists of a peropskite solar cell (100) with an insulated base and one solar power generation device. The peropskite solar cell with an insulating base (100) is formed by bonding an insulating base (12) to the lower surface of a peropskite power generation layer (13) having a peropskite crystal structure, with a ventilation gap spacer (11) in between. A complete solar power generation system consists of a connection box, a power conditioner, a distribution board, and an electricity meter. By converting solar energy irradiated onto areas requiring cooling into cultivated crops and shipping them to cities, the heat is released back into urban areas. The surplus electricity generated by the aforementioned solar power generation system is transmitted to the city, thereby releasing the solar energy that would otherwise irradiate the area requiring cooling into the city as heat.
[0005] To build a cheap cold storage room (200°C) for cultivation, the building needs to be fragile. Considering earthquakes, the solar panels must be lightweight. The raw materials for solar cells should ideally be sourced in Japan. Rare earth elements are undesirable. Therefore, solar cells with a peropskite power generation layer (13) would be the best option. Selling local solar energy to Tokyo, Osaka, and Nagoya would benefit those regions. In this era of global warming, cooling local areas and then disposing of the waste heat generated from them in the form of electricity to Tokyo, Osaka, and Nagoya would align with Japan's law of conservation of energy. By using peropskite solar panels (100) with insulated bases on the sides of a low-temperature cultivation chamber (200), surplus electricity can be sold back to the grid. Optical cables can be used to guide ambient sunlight into the low-temperature cultivation chamber (200), and the entire roof of the low-temperature cultivation chamber (200) can be covered with peropskite solar cells (100) with insulated bases.
[0006] Method 2 is a cooling system for urban houses using a microwave radiator (302). The urban house cooling system consists of an air conditioner (210) installed inside the house, a microwave generator (301) installed inside the house, and a microwave radiator (302) installed on the roof of the house. The air conditioner (210) operates using electricity discharged from the cooling area cultivation system of claim 1. The microwave generator (301) generates microwaves using electricity emitted from the cooling-required area cultivation system of claim 1. The microwave emitter (302) is a city house cooling device that emits microwaves generated by the microwave generator (301) into space. Method 2 has similar examples as shown in the embodiments.
[0007] Method 3 is a storage facility for non-genetically modified rice grains. A non-genetically modified rice paddy storage facility characterized by storing non-genetically modified rice paddies in a low-temperature cultivation chamber (200) in a cooling-required regional cultivation system according to claim 1. During the Great Reset, if we don't consume genetically modified foods, we don't know what kind of trap the US ruling class might set for us. Genetically modified foods will be provided to elderly people and others who have lost their reproductive capacity. Ethanol production using genetically modified foods will be a compromise. [Effects of the Invention]
[0008] The cultivation-grade cold storage room (200°C) will enable farmers to practice safe agriculture, free from the harmful effects of recent global warming. When genetically modified rice or wheat is cultivated in open fields, its pollen can cause non-genetically modified rice or wheat to bear fruit, potentially leading to the extinction of non-genetically modified rice or wheat seeds. By cultivating non-genetically modified rice or wheat in the cooling-required cultivation system of the present invention and harvesting the seeds, non-genetically modified rice or wheat can be preserved. This eliminates the need to cultivate plants in inconvenient locations in search of cooler climates, and allows for the selection of land with easy access to water and electricity, and closer to consumption areas. If the cooling-required cultivation system of the present invention is used for the cultivation of saltwater and freshwater fish, stable harvests can be expected. Since rice is wind-pollinated, the airflow from the air conditioner (110) disperses the rice pollen into the low-temperature cultivation room (200), aiding in rice pollination. Reinforcing the bottom of the cultivation low-temperature chamber (200°C) with concrete allows it to be installed even near the coastline. This prevents water leakage damage to rice paddies caused by mantis shrimp. While plate tectronics is the most widely accepted explanation for earthquake occurrence, the "heat engine theory" and "heat transfer theory" are gaining traction. According to these theories, the border between Tokyo and Saitama prefectures in the Tokyo metropolitan area is apparently at risk. In western Japan, the Sea of Japan side along the Oyama mountain range is also said to be at risk. Osaka is surrounded by many hot springs, and it seems that hot springs can be found by digging just 1000 meters deep. [Best Mode for Carrying Out the Invention]
[0009] We were able to provide a system to cool areas that needed cooling. [Example 1]
[0010] Example 1 is a cultivation system for areas requiring cooling. Figure 1 shows an overview of a peropskite solar cell (100) with an insulated base at the top. The photovoltaic power generation system consists of a perovskite solar cell (100) with a heat insulation base and a photovoltaic power generation device 1 type. The perovskite solar cell (100) with a heat insulation base is formed by adhering a heat insulation base (12) with a ventilation gap spacer (11) sandwiched between the lower surface of a perovskite power generation layer (13) having a perovskite crystal structure. The photovoltaic power generation device 1 type consists of a connection box, a power conditioner, a distribution board, and a power meter. An overview diagram of the area cultivation system to be cooled is shown at the lower part of FIG. 1. The cultivation low-temperature greenhouse (200) is covered with weather-resistant walls (240) on four sides, the upper surface is covered with the perovskite solar cell (100) with a heat insulation base and a sunlight introduction window, the lower surface is covered with a plant cultivation floor, and an air conditioner (110) is installed indoors in the building. An air conditioner (110) is installed in a building so that the internal temperature can be kept constant, and plants such as grains and vegetables are cultivated. Water supply like drip irrigation can save water resources. Sunlight is converted into direct current by a perovskite solar cell (100) with a heat insulation base having a perovskite power generation layer (13). It is converted into alternating current by the photovoltaic power generation device 1 type. The photovoltaic power generation device 1 type consists of a connection box, a power conditioner, a distribution board, and a power meter. The direct current generated by each perovskite solar cell (100) with a heat insulation base is aggregated in the connection box. The direct current is converted into alternating current by the power conditioner. The alternating current is connected to power-consuming devices by the distribution board. The distribution board is connected to the power meter and measures and records the power transmission and reception to the electric light wire. The alternating current for residential use passing through the distribution board drives the air conditioner (110). By converting the solar energy irradiated on the area into cultivated products and shipping them to the city, the heat of the area is exhausted to the city. The surplus power generated by the photovoltaic power generation system is transmitted to the city, so that the solar energy irradiated on the area is exhausted to the city.
Example 2
[0011] Example 2 involves the use of microwaves in urban house cooling systems. Figure 2 shows an overview of microwave utilization in urban house cooling systems. The urban house cooling system consists of an air conditioner (210) installed inside the house, a microwave generator (301) installed inside the house, and a microwave radiator (302) installed on the roof of the house. The air conditioner (210) operates using electricity discharged from the cooling area cultivation system of claim 1. The microwave generator (301) generates microwaves using electricity emitted from the cooling-required area cultivation system of claim 1. Microwaves are not easily absorbed by water vapor in the air. Blue LEDs can be used instead of microwaves, and they are also not easily absorbed by water vapor. The microwave emitter (302) emits microwaves generated by the microwave generator (301) into space, and discards the electricity emitted from the cooling-required regional cultivation system of claim 1 into space. Cooling the area may be beneficial to that region. We must consider how to release the solar energy that shines on urban buildings into space. In cities, air conditioners (210) that provide both heating and cooling are common. Even when used for heating, they release heat from areas that need cooling even in winter (for example, a cooling-required cultivation system installed at a ski resort) into the city via the power lines. If renewable energy becomes surplus, we'll install battery storage systems in cities and dump the waste into space at night. The air conditioner (210) and microwave generator (301) operate using electricity from the power lines, including electricity derived from fossil fuels.
[0012] Example 2-1 is a heat-dissipating house in an urban area. Figure 3 is an overview of the urban heat-dissipating housing in Example 2-1. The urban heat-dissipating house is a building in which weather-resistant walls (240) and a roof covered with roof insulation boards (230), and an air conditioner (210) installed indoors and a heat-dissipating board (220) (solar reflector) are laid on top of the roof insulation boards (230). The air conditioner (210) operates using electricity discharged from the cooling area cultivation system of claim 1. The heat sink (230) dissipates the solar energy that would otherwise irradiate the city into space. The electricity transmitted to the city by the solar power generation system of claim 1 is consumed and used as waste heat by the air conditioner (210). Solar energy radiated onto the city is released into space by radiation from the heat sink (230) mentioned above.
[0013] Example 2-2 is a temperature-resistant housing in an urban area. Figure 4 is an overview of the urban warming-resistant housing in Example 2-2. The urban climate-resistant housing is a building in which weather-resistant walls (240) and roof are covered with peropskite solar cells (100) with insulated bases, and an air conditioner (210) and a solar power generation system are installed indoors. The solar energy shining on the city is converted into electricity using a peropskite solar cell (100) with an insulated base and a solar power generation system. This electricity is then used to operate an air conditioner (210). The solar power generation system of claim 1 uses electricity from the power lines to consume solar waste heat in areas requiring cooling in the city, and receives waste heat from areas that need cooling. Because storage batteries are expensive, they will not be installed as a general rule. If there is a power shortage, electricity from fossil fuel power plants will be used in the power lines. [Example 3]
[0014] Example 3 is a storage facility for non-genetically modified rice grains. This is a non-genetically modified rice paddy storage facility in which non-genetically modified rice paddies are stored in a low-temperature cultivation chamber (200) for cultivation in a cooling-required regional cultivation system according to claim 1. The cultivation low-temperature chamber (200) is laid out in a hole dug in a cool area of the highlands north of the Northern Alps or in the northern highlands of Hokkaido, and the plants are stored in the cultivation low-temperature chamber (200). Low temperatures are maintained even when power generation is stopped during snowfall. [Industrial applicability]
[0015] It's okay to miss out on the Great Reset. During the Pacific War, even though we were fully aware of the disparity in national power, we still rushed to get on the bus. The leaders of the Great Reset are oil refining companies, so fossil fuels won't be abandoned. The investigation into the Sado-Niigata offshore earthquake is insufficient, and with the Fukushima tank water problem ongoing, it would be better to wait until Shimane Prefecture has gained sufficient experience before developing innovative light water reactors. In the east, Onagawa is operating stably and seems likely to buy us some time to assess the Great Reset. Chiba Prefecture has a cold mass region where solar power generation is possible. This invention is suitable for performing a leisurely stroll exercise that somewhat follows the Great Reset. It allows for leisurely stroll exercise in the Kanto Plain.
[0016] [Brief explanation of the drawing]
[0017] [Figure 1] The upper part of Figure 1 shows an overview of a peropskite solar cell (100) with an insulated base. The lower part shows an overview of a cultivation system for areas requiring cooling. [Figure 2] An overview diagram of microwave utilization in urban house cooling systems. [Figure 3] Overview of the heat-dissipating housing in the city in Example 2-1. [Figure 4] Overview diagram of a temperature-resistant housing in a city, as shown in Example 2-2. [Explanation of Symbols]
[0018] 11 is a spacer for ventilation gaps. 12 is an insulated base 13 is a peropskite power generation layer. 100 is a peropskite solar cell with an insulated base. 110 is an air conditioner 200 is a cold room for cultivation. 210 is an air conditioner 240 is a weather-resistant wall 301 is a microwave generator 302 is a microwave emitter
Claims
1. The cultivation system for areas requiring cooling consists of a solar power generation system and numerous low-temperature cultivation rooms (200). The cultivation cool room (200) is a building with four sides covered by weather-resistant walls (240), the top covered by peropskite solar cells (100) with insulated bases and a solar input window, and the bottom covered by a plant cultivation bed. Inside the building, an air conditioner (110) is driven by electricity from the solar power generation system described below to regulate the temperature inside the building. The solar power generation system consists of a peropskite solar cell (100) with an insulated base and one solar power generation device. The peropskite solar cell with an insulating base (100) is formed by bonding an insulating base (12) to the lower surface of a peropskite power generation layer (13) having a peropskite crystal structure, with a ventilation gap spacer (11) in between. A complete solar power generation system consists of a connection box, power conditioner, distribution board, and electricity meter. By converting solar energy irradiated onto areas requiring cooling into cultivated crops and shipping them to cities, heat is released back into the cities. A Great Reset countermeasure cultivation system for areas requiring cooling, characterized in that surplus electricity from the aforementioned solar power generation system is transmitted to the city, thereby releasing the solar energy irradiated onto the area requiring cooling into the city as heat.
2. The urban house cooling system consists of an air conditioner (210) installed inside the house, a microwave generator (301) installed inside the house, and a microwave radiator (302) installed on the roof of the house. The air conditioner (210) operates using electricity discharged from the cooling area cultivation system of claim 1, The microwave generator (301) generates microwaves using electricity emitted from the cooling-required area cultivation system of claim 1. A microwave radiator (302) is a city house cooling device characterized by emitting microwaves generated by a microwave generator (301) into space.
3. A non-genetically modified rice paddy storage facility characterized by storing non-genetically modified rice paddies in a low-temperature cultivation chamber (200) in a cultivation system for areas requiring cooling according to claim 1.