Nuclear warfare assumption japanese race preservation system. a semi-fixed nuclear submarine (110). a nuclear power plant (2000. battery-powered submarines. a fuel cell (120).

Abstract

Importation power (the rate of food self-sufficiency is low, but foreign currency is abundant. It is an important customer for countries with excessive food supply. Therefore, it is necessary to secure a means for maintaining the Japanese genes.SOLUTION: This physical distribution system is composed of submarine power supply stations 100 laid in several places of a Japanese exclusive economic zone, several storage battery-driven power supply submarines 200, many storage battery-driven cargo submarines 300, and land rice colonies 400 of many countries. The submarine power supply station (100) is composed of a towable semi-fixed nuclear power submarine landed on the seabed and a plurality of storage batteries, and the storage batteries are charged with electricity generated by a nuclear power generation facility of the towable semi-fixed nuclear power submarine.SELECTED DRAWING: Figure 1

Description

[Technical Field]

[0001] The invention consists of a battery-powered submarine, primarily nuclear-powered, and a land-based rice colony (400) of multiple countries with dual nationality. [Background technology]

[0002] Fission-alloy nuclear fuel is an alloy of U-Pu-MA with Fission (a collective term for molybdenum, zirconium, palladium, platinum, etc.), which is difficult to remove but does not pose a major problem to reactor nuclear reactions, without completely removing fission products from spent nuclear fuel. Minor actinides MA include neptunium (Np), americium (Am), and curium (Cm). It also contains small amounts of Thorium (Th). In this invention, the spent oxide nuclear fuel from a light water reactor that contains fissium, U-Pu-MA, and Th is left intact, and the metallized nuclear fuel that has been devoid of volatiles and light-mass fissions is referred to as light water reactor fissium alloy nuclear fuel. DISCLOSURE OF THE INVENTION [Problem to be solved by the invention]

[0003] We should start maintaining small Japanese colonies around the world now, and send energy and food from those colonies to mainland Japan. Regarding transportation issues, the Ministry of Self-Defense, as the General Staff's primary job (logistics), could set up a joint venture with a private transport company to transport civilian goods using civilian trucks rather than military trucks. In emergencies, they would transport military supplies. They would also handle ships, submarines, and air freight. While we don't need tanks, which require strong roads (useless in Ukraine), we could expand our drone and helicopter fleets. There are also numerous other projects, including demolition, reconstruction, and infrastructure. Uniformed personnel who have made outstanding contributions to the Ministry of Self-Defense should be allowed to retire young and be given senior positions in those projects. Increase the number of personnel with experience in the Self-Defense Forces. Actively encourage employment at private military companies (not through amakudari). Caution should be exercised against bureaucrats entertaining the private sector. The government is ignoring the positive side of a weak yen: the revitalization of domestic agriculture and fishing industries, including food. Farmers, the Ministry of Agriculture, Forestry and Fisheries, and the Diet have not implemented any measures or policies. Despite the fact that Japan's food self-sufficiency rate is declining, the rice production reduction policy has continued for a long time. Norinchukin Bank's huge losses are being addressed. The Ministry of International Trade and Industry (MITI) did not consider carbohydrates among the energy sources such as oil. They did not realize that humans cannot function without carbohydrates. Even when developing AI, humans must be given carbohydrates. This means that they will not establish a Ministry of Ethnic Groups or give other existing ministries the authority to grant licenses and permits for activities beyond their own frameworks. In that case, the only option is to rely on the private sector to take some kind of measures. For example, they will have to settle talented people overseas and preserve the genes of the Japanese people. If the current declining birthrate continues, they will eventually become extinct. The Diet, local government associations, the media, and experts have convinced us, and pretend to be convinced, that increasing child allowances will prevent the decline in birthrates. We ordinary people are disheartened. There seems to be nothing they can do. If we reverse the approach taken when the Eugenic Protection Law was enacted, which aimed to reduce the birth rate, we may be able to stem the decline in the birth rate somewhat. If we interpret eugenic protection in a way that increases the birth rate, it may be possible to increase the birth rate. It may also be a good idea to support the rise of the incubator and egg incubation industries, advertising promotion, street solicitation, and changes in moral values. We will continue to move forward despite criticism from the media, experts, and moralists. If group care facilities for the elderly who receive pensions are established in cities with declining populations, the efficiency will revitalize the regions. It is desirable to quietly implement new, youthful policies while appeasing vested interests and existing moralists (a reprint of Shibusawa's book. There is no need to think about the burden on future generations. If the Japanese people die out, the problem will disappear. Along the way, selling off the Japanese archipelago piece by piece). No matter what politicians do, the "Japan. Cha cha cha" era will only last a few years. They could avoid being too conscious of the common people, keep child allowances to a moderate level, and use that money to plan their next move. The natural extinction of the Japanese people and global nuclear war are not impossible. Without global trade, the Japanese population would need to be around 30 million to maintain their current lifestyle. With a population of around 30 million, energy can be supplied by surface-derived energy, mineral resources can be supplied by urban mines, and food self-sufficiency can be managed. Even if a global nuclear war were to break out, if we were prepared we could recover in a few years. The question is how we would survive the few years before and after a global nuclear war. [Means for solving the problem]

[0004] Method 1 is a system for preserving the Japanese race in the event of a nuclear war. The Japanese species preservation system in the event of a nuclear war consists of submarine power stations (100) laid in several locations in Japan's exclusive economic zone, several battery-powered power submarines (200) as described in claim 3, numerous battery-powered cargo submarines (300) as described in claim 4, and land rice colonies (400) in numerous countries. The submarine power supply station (100) consists of a towable semi-rigid nuclear submarine (110) anchored on the seabed or a seamount, and multiple storage batteries (120). The storage battery (120) is charged with electricity generated by the nuclear power plant (2000) of the towable semi-rigid nuclear submarine (110). A Japanese race preservation system for the event of a nuclear war, characterized by the ability to exchange daily necessities between land rice colonies (400) in various countries, including the home country, using battery-powered cargo submarines (300).

[0005] Means 2 is a semi-fixed nuclear submarine (110). The towable semi-fixed nuclear submarine (110) of means 1 is a nuclear submarine that does not have means of moving under its own power and is anchored on the seabed of a seamount or depression. The towable semi-rigid nuclear submarine (110) comprises a semi-rigid nuclear submarine body (2001) with a towing device (2002) laid on the surface, and a nuclear power plant (2000) built into the semi-rigid nuclear submarine body (2001). A semi-rigid nuclear submarine (110) capable of towing, which is equipped with a discharged storage battery (120) and a charged storage battery (120) on top of the semi-rigid nuclear submarine body (2001), is eavesdropped on.

[0006] The discharged storage battery (120) carried from the battery-powered power supply submarine (200) is lowered onto the top of the semi-fixed nuclear submarine body (2001), and the charged storage battery (120) placed on the top of the semi-fixed nuclear submarine body (2001) is loaded onto the battery-powered power supply submarine (200). The electricity generated by the nuclear power plant (2000) charges a discharged storage battery (120). The semi-fixed nuclear submarine body (2001) cannot navigate under its own power and is moved by other submarines or surface ships.

[0007] Means 3 is nuclear power generation facilities (2000). The nuclear power plant (2000) of the means 2 comprises a nuclear fuel container (2110) and a reactor vessel (2100) containing a heavy rare gas coolant (3), a gas turbine (2300), and a generator (2400). A nuclear power generation facility (2000) characterized in that a nuclear fuel container (2110) incorporates a reflector (2111), a fixed metal nuclear fuel body (2120), a movable metal nuclear fuel body (2130), an additional metal nuclear fuel body (2140), and a cover reflector (2112). Prior examples of the above fixed metal nuclear fuel body (2120) include Patent Documents 1, 2 and 3. [Patent Document 1] Patent application 2023-131719 [Patent Document 2] Patent application 2023-189696 [Patent Document 3] Patent application 2023-148573

[0008] Means 4 is a battery-powered submarine (200). The battery-powered powered submarine (200) of means 1 has a discharged battery (120) and a charged battery (120) built into the cargo compartment through an openable loading / unloading opening (3300) laid at the bottom of the self-propelled powered submarine body (3001). A stainless steel floatation vessel (3110) is laid on the powered submarine hull (3001) to provide buoyancy. The floatation vessel (3110) is made up of numerous small spherical vessels filled with nitrogen or carbon dioxide gas. The small spherical vessels are preferably made of a light and strong material such as titanium or duralumin. In the unlikely event that the floatation vessel (3110) develops a crack, the small spherical vessels will remain inside the floatation vessel (3110). The submarine is powered by a watertight external rechargeable battery (3400) installed at the bottom of the submarine hull (3001) and is powered by an electric motor that rotates the propulsion screw (3500). Diving is performed using the elevator (1) and the propeller (3500). For emergency surfacing, the storage battery (120) in the cargo bay is dumped into the sea. Finally, the watertight external storage battery (3400) for power supply, which is installed at the bottom of the power supply submarine hull (3001), is dumped into the sea. The storage battery (120) in the cargo compartment is the same as the watertight external storage battery (3400) used for driving. The inside of the powered submarine hull (3001) can be seawater if the occupant is unmanned or wearing a diving suit. There is no problem if all the batteries (120) are watertight external batteries (3400). If the hull is filled with nitrogen or carbon dioxide gas, the gas temperature can be adjusted to control the diving depth. A separate pressure tank is provided, and the gas is released or recovered as needed. The discharged watertight externally mountable battery (3400) of the battery-powered cargo submarine (300) of means 5 is laid on the bottom of the battery-powered cargo submarine (300) from the battery-powered power supply submarine (200).

[0009] Means 5 is a battery-powered cargo submarine (300). The battery-powered cargo submarine (300) of means 1 is configured to carry materials and personnel into the carbohydrate cargo hold (4100) through an openable loading / unloading opening (3300) installed at the bottom of the self-propelled cargo submarine body (4001). This battery-powered cargo submarine (300) is characterized by being powered by a watertight external rechargeable battery (3400) installed at the bottom of the cargo submarine body (4001) and by rotating a propulsion screw (3500) with an electric motor. When the watertight external accumulator battery (3400) for driving the cargo submarine (4001) installed at the bottom of the cargo submarine body (4001) is discharged, it is transferred to the battery-powered power supply submarine (200) of means 4, and a charged watertight external accumulator battery (3400) from the battery-powered power supply submarine (200) is installed at the bottom of the cargo submarine body (4001) instead.

[0010] Vessel 6 is an underwater yacht. A triangular underwater sail (5001) is stretched on the upper part of the cargo submarine body (4001) of the battery-powered cargo submarine (300) of means 5; The underwater yacht according to claim 5 is characterized in that it can sail upstream along ocean currents by regarding the watertight externally mountable storage battery (3400) as a keel. [Effects of the Invention]

[0011] The genes of the Japanese race can be preserved and continuously managed around the world. Even if the Japanese archipelago were temporarily contaminated by nuclear weapons, it would be possible for the colonies of each country to return to it within a year. Conversely, even if a colony were temporarily contaminated by nuclear weapons, assistance could be provided by colonies of other countries or the Japanese archipelago. The means of transportation will be submarines that run on batteries powered by nuclear power plants (2000), making them less vulnerable to attack, even if oil resources become difficult to obtain. This will make it easier to transport goods and people. The nuclear fuel for the nuclear power plant (2000) is light water reactor fissium alloy nuclear fuel manufactured from LWR spent nuclear fuel accumulated in Japan, so there is no need to worry about resource depletion. This is because fissium alloy nuclear fuel is easy to process. Japan can procure it domestically without having to outsource the production of nuclear fuel to a foreign country. If the process is outsourced, the so-called low-level radioactive waste, such as contaminated water and chemicals, generated during the processing process will be sent to Japan. It is nearly impossible to permanently store low-level radioactive waste in Japan. If the colony is established in Central Asia, it will be powered by solar and wind power. There are few military or economically important facilities in the surrounding area, so it is unlikely to be exposed to a nuclear attack. Because the colony grows upland rice, it is rarely targeted by the surrounding areas. Most of the staple food is wheat or paddy rice. Even in times of food shortage, the unfamiliar upland rice is avoided. In peacetime, it is exchanged for paddy rice from Japan. Upland rice is difficult to grow continuously, so corn, potatoes, and soybeans are grown in between. BEST MODE FOR CARRYING OUT THE INVENTION

[0012] It has been possible to provide a system that can preserve the genes of the original race all over the world by nuclearly burning away the accumulated spent nuclear fuel and storing the heat generated in the process of nuclear burning away in submarine batteries. Example 1

[0013] Example 1 is a system for preserving the Japanese race in the event of a nuclear war. Figure 1 is an overview of the Japanese race preservation system in the event of a nuclear war. It consists of submarine power supply stations (100) laid in several locations in Japan's exclusive economic zone, several battery-powered power supply submarines (200) described in Means 3, numerous battery-powered cargo submarines (300) described in Means 4, and land rice colonies (400) of numerous countries (which may have dual nationality). The submarine power supply station (100) consists of a towable semi-rigid nuclear submarine (110) anchored on the seabed (or a seamount) and multiple storage batteries (120). The storage battery (120) is charged with electricity generated by the nuclear power plant (2000) of the towable semi-rigid nuclear submarine (110). Battery-powered cargo submarines (300) can exchange daily necessities between land rice colonies (400) in various countries, including the home country.

[0014] Japan has long suffered natural disasters every year, with the energy of more than 10 massive hydrogen bombs. Yet, the country now has a population of 140 million. In the current world situation, we must assume that there will be an attack of more than 100 giant hydrogen bombs. Furthermore, Japan itself faces the problem of a declining birth rate. It has become important to preserve and preserve the Japanese race. Even if the media and politicians, who are seeking to gain popularity for profit, create an environment in Japan that makes it easy to raise children, the decline of the Japanese race is inevitable. The world situation rarely becomes severe all at once, but rather takes several years to resolve. The system of this invention must be maintained during that time. To do this, the energy source must be nuclear. Nuclear power plants and transportation are less susceptible to danger if they are underwater. Self-navigating nuclear propulsion systems are considered weapons and are viewed with caution by the world. The Japanese rice that lives in the upland rice colony (400) is kept out of sight and out of the stores. Behind the scenes work, including management, purchasing, storage, accounting, and sales planning. Wheat and rice are in global demand, and if only Japanese people ate them, they would be hated and robbed by the rest of the world. Upland rice, on the other hand, is not a global favorite, so it is less likely to be targeted by others. Upland rice requires less water, so it can be cultivated in radiation-resistant greenhouses. Seeds, seedlings, and rice grains can be supplied to mainland Japan from upland rice colonies (400) around the world. Food and other supplies are exchanged between the upland rice colonies (400) in each country. A nuclear explosion releases a huge amount of energy in a short amount of time, but it only lasts for an instant. Some people can survive if they can just get through the moment. If the Japanese race were to marry local people, the number of births would double between Japanese women and local men, and between Japanese men and local women. If all goes well, one man could, with the consent of his family, bring around 100 children and their mothers to Japan in two years, and raise them with care as children of noble families. This would cost a huge amount of money, and would be financially impossible for an average family. Therefore, wealthy noble families could manage it. It is only natural that the government should provide subsidies. Furthermore, the government should not hesitate to provide full support to talented people who are orphaned. Those who wish to go to upland rice colonies in each country (400) would have their qualifications reviewed by a third-party organization and be granted permission. Those who would disrupt the political system of the country they visit would be prohibited. Those who do not want to help themselves would be asked to remain in Japan. Some members of prominent Japanese families have Vietnamese wives. Many of the heroes of the Meiji Restoration were adopted. There is no need to insist on pure Japanese race. If you look closely, even pure Japanese race is a mixture of Asian and South Seas blood. Example 2

[0015] The second embodiment is a towable semi-rigid nuclear submarine (110). FIG. 2 is a schematic diagram of a towable semi-rigid nuclear submarine (110). A towing device (2002) is laid on the surface of a semi-fixed nuclear submarine hull (2001), and a nuclear power plant (2000) is built into the semi-fixed nuclear submarine hull (2001). A discharged storage battery (120) and a charged storage battery (120) are installed on the top of the semi-fixed nuclear submarine hull (2001). The discharged storage battery (120) is charged with the power generated by the nuclear power generation facility (2000) of the third embodiment, and becomes a charged storage battery (120). Towable semi-rigid nuclear submarines (110) are anchored to the seabed (seamounts or depressions) and have no means of self-propulsion. If it is forced to move, it will be towed by other submarines or surface ships using a towing device (2002). Example 3

[0016] Example 3 is a nuclear power plant (2000). Figure 3 is an overview of the nuclear power plant (2000). The nuclear power plant (2000) consists of a reactor vessel (2100) containing a nuclear fuel container (2110) and a heavy noble gas coolant (3), a gas turbine (2300), and a generator (2400). A portion of the heavy noble gas coolant (3) is allowed to enter the nuclear fuel container (2110). The extremely hot heavy rare gases leaving the reactor vessel (2100) rotate the gas turbine (2300), which in turn rotates the generator (2400) to generate electricity. A compressor may be installed separately at the inlet side of the gas turbine (2300). The still hot heavy noble gases leaving the gas turbine (2300) pass through the high temperature pipes (2320) and are radiated from the high temperature fins (2311) to the wall of the semi-rigid nuclear submarine hull (2001), and then enter the nuclear fuel container (2110) through the blower (2500). The nuclear fuel container (2110) incorporates a reflector (2111), a fixed metal nuclear fuel assembly (2120), a movable metal nuclear fuel assembly (2130), an additional metal nuclear fuel assembly (2140), and a cover reflector (2112). The lid reflector (2112) is removable, and the movable metal nuclear fuel assembly (2120) can be replaced with an additional metal nuclear fuel assembly (2140). The fixed metal nuclear fuel assembly (2120) is a light water reactor fissium alloy nuclear fuel manufactured from spent light water reactor MOX nuclear fuel. The cylindrically shaped fissium alloy nuclear fuel for a light water reactor is sealed in a stainless steel cladding tube. It is secured to the nuclear fuel container (2110) with clasps. The fixed metal nuclear fuel assembly (2120) alone is subcritical, and can remain subcritical even when surrounded by seawater. The movable metal nuclear fuel assembly (2130) is made of the same light water reactor fissium alloy nuclear fuel as the fixed metal nuclear fuel assembly (2120), sealed in a stainless steel cladding cylindrical tube. The movable metal nuclear fuel assembly (2130) has a movable rod (2122) installed, allowing it to move back and forth. Even when the movable metal nuclear fuel assembly (2130) and the fixed metal nuclear fuel assembly (2120) are in close contact, they remain subcritical, and can remain subcritical even when surrounded by seawater. The additional metal nuclear fuel assembly (2140) is a thin cylinder made of the same light water reactor fissium alloy nuclear fuel as the fixed metal nuclear fuel assembly (2120), sealed in a stainless steel cladding cylindrical tube. However, the cylinder has a notch so that it can be later attached to the movable rod (2122). By adding several additional metal nuclear fuel assemblies (2140), the nuclear fuel vessel (2110) becomes near-critical. The nuclear fuel container (2110) generates power even when subcritical due to spontaneous neutrons from Pu, Am, and Cm. The excess neutrons convert U238 to Pu. If the fuel is allowed to burn for a certain period of time, it will become critical and then supercritical. If supercriticality is likely to increase, the movable metal nuclear fuel assembly (2130), the additional metal nuclear fuel assembly (2140), and the lid reflector (2112) are maintained in criticality by using an electric motor to separate the movable rod (2122) from the nuclear fuel container (2110). Example 4

[0017] The fourth embodiment is a battery-powered submarine (200). FIG. 4 is a schematic diagram of a battery-powered submarine (200). The battery-powered powered submarine (200) has discharged batteries (120) and charged batteries (120) built into the cargo compartment through an openable loading / unloading opening (3300) laid at the bottom of the self-propelled powered submarine body (3001). It consists of a stainless steel floating vessel (3110) installed on top of the powered submarine hull (3001). The flotation vessel (1230) consists of a number of stainless steel spheres (1231) containing nitrogen. The submarine is powered by a watertight external rechargeable battery (3400) installed at the bottom of the submarine hull (3001) and is powered by an electric motor that rotates the propulsion screw (3500). The surroundings are monitored by the audiovisual equipment (3210) installed in the powered submarine body (3001), and it is controlled by the control equipment (3200). The vessel will be able to dive to about 1,000 meters by injecting seawater or filling it with nitrogen and carbon dioxide gas. It will be able to surface by releasing the batteries. If a float is connected to a discharged watertight external rechargeable battery (3400) and left on the seabed, the battery-powered submarine (200) can be recovered. Example 5

[0018] The fifth embodiment is a battery-powered cargo submarine (300). FIG. 5 is a schematic diagram of a battery-powered cargo submarine (300). The battery-powered cargo submarine (300) of claim 1 carries charged batteries (120) through an openable loading / unloading opening (3300) installed at the bottom of the self-propelled cargo submarine body (4001), and carries supplies and personnel in the carbohydrate cargo hold (4100). The cargo submarine (4001) is powered by a watertight external rechargeable battery (3400) installed at the bottom of the submarine's body, and the propulsion screw (3500) is rotated by an electric motor to move the submarine. The cargo submarine (4001) is controlled by a control device (3200) and monitored by a viewing device (3210) installed in the body of the submarine (4001). The self-location is recognized as follows. They determine their own location by analyzing sound waves (such as Morse wave or sonar signals) emitted by numerous fixed or drifting buoys laid on the seafloor. Alternatively, they use fish finders to determine their own location, treating the buoys as fish. Occasionally, they will launch a distress signal buoy from their ship to inform headquarters of their own location. The ship's own position can be estimated from a seafloor topography map showing underwater mountains, underwater basins, and underwater volcanoes, as well as an underwater navigation grid (based on international standards). Example 6

[0019] In the sixth embodiment, a battery-powered cargo submarine (300) is designed to be able to travel upstream with ocean currents. An overview of the battery-powered cargo submarine (300) with an underwater triangular sail (5001) is shown in Figure 4. An underwater triangular sail (5001) is stretched on the upper part of the cargo submarine body (4001) of claim 5. The watertight externally mountable storage battery (3400) of claim 5 is used as a keel so that it can sail upstream along ocean currents. Example 7

[0020] The seventh embodiment is a storage battery (120). Lead-acid batteries, nickel-cadmium batteries, and nickel-metal hydride batteries are promising. In addition, fuel cells that use hydrogen and oxygen as fuel are also promising. The storage battery (120) of claims 1 to 5 electrolyzes water using the electricity generated by the nuclear power plant (2000) of claim 3 to produce hydrogen and oxygen. In a fuel cell, the electrolyte is dilute sulfuric acid and the electrodes are platinum. Instead of expensive platinum, radioactive platinum extracted from spent nuclear fuel processing cannot be used as jewelry. It has almost no use and is costly to store. Therefore, using radioactive platinum as the electrode of the fuel cell reduces costs. [Industrial Applicability]

[0021] During the Fukushima accident, many in the media and the Diet refused to assist or help the power plant workers working to bring the accident under control. This was despite the fact that they offered sympathy and assistance to elderly people affected by the earthquake. It seems that fewer Americans living in Tokyo have fled the country (perhaps to Japan's allies who have American-made nuclear reactors?). This is how much nuclear power is hated. Nuclear power in the future will likely only be viable if it is unmanned. Ordinary people, local residents, and nuclear power plant workers are hesitant and opposed. Furthermore, many people equate large corporations with evil, so the media is also trying to gain popularity. Therefore, small businesses could produce nuclear power and sell only the electricity to large and small businesses. Then, nuclear power generation equipment could be sold in a format similar to this invention. As with red koji, without a clear, well-organized explanation, supervisory agencies will be unable to act, just like bureaucrats around the world. They'll just end up offering various instructions later. This will discourage any attempt to make improvements. It's the same with nuclear power. We have no choice but to wait until a system is established where supervisory agencies don't have to take responsibility and aren't swayed by media fuss (the bigger the fuss, the more money there is). It would be possible if Japan were to create small, independent venture companies (which can go bankrupt) like in the United States and place orders with manufacturing and distribution companies. However, this would likely be met with resistance from bureaucrats who would lose their supervisory authority. It might be possible if we could clearly outline the creation of a Ministry of Atomic Energy Development and a Ministry of Nuclear Regulation (which would recruit private investigators each time an accident occurs, just like in the case of an airplane accident). I feel like Suzu was once a planned site for a nuclear power plant. It would be good to have a summary speech in light of the recent earthquake. It may be possible to build a test reactor for the nuclear power plant of this invention. I think it would be useful for the reconstruction of Noto. While the 60Hz area is making a profit with nuclear power generation, the 50Hz area is making a profit without nuclear power generation. We will continue to see how things go for a few more years. The nuclear fuel used in this invention has a plutonium enrichment of 10 wt% or less (pluthermal is also 10 wt% or less), so it is unlikely that there will be any complaints from the US national security agencies. If, upon restarting a nuclear power plant, what experts see as a minor mistake or a human-caused or natural event leads to an abnormal operating state or a situation where a control rod cannot be inserted, there will be a big uproar. To avoid such an uproar, it is necessary to take precautions against various abnormal operating situations in advance. If the plant is restarted and something unimportant happens, experts say, the president will have to resign, or else the plant will lose its residents. Since it's been proven that nuclear power generation can be profitable even with zero electricity, it seems like a good idea to declare the Fukushima accident over and restart the plant under a new structure once more than one-third of the numerous tanks, which likely contain trace amounts of tritium, are empty. There are bound to be people and organizations that desperately want to restart the plant, so after clarifying who is responsible for the damage, it might be a good idea to sell the nuclear power plant and the land to Japan Atomic Power Company, with the payment coming from the electricity generated. The shutdown nuclear power plants could act as insurance, providing a source of energy for when Japan recovers after any emergency situation has passed. Citizens can be classified in various ways. Discrimination is not allowed, but divisions and distinctions are certainly permissible. Companies headed by founding families, such as Canon, with its Mitarai family, Takeda Pharmaceutical, with its Takeda family, Kobayashi Pharmaceutical, with its Kobayashi family, iDeCo, with its Seki family, and Toyota, with its Toyoda family, are likely to have a strong desire to survive not only for their own companies but also for the Japanese nation. Politicians and government officials need to work together to find and nurture potential J-people (many illegitimate children, including the second and third sons, two daughters, and three daughters of the head of the family). Heads of wealthy aristocratic families that have continued for generations also likely have a strong desire to survive for the nation to which they belong. Brilliant figures like Ishiwara Kanji, Tojo Hideki, and Matsuoka Yosuke, who worked hard out of a rebellious spirit and competitive streak, seem to lack consideration for the Japanese nation and all its people. The media and politicians, eager to impress others in order to sell their products, repeatedly emphasize the value of supporting and caring for the vulnerable. We ordinary people have a weak sense of the nation and the people. Supporting and caring for the vulnerable is left to volunteers. In contrast, famous confectioneries that have been passed down for generations are educated about the continuation of family and national lines, and the people involved seem to take it for granted. If residents of highly depopulated areas were to relocate to neighboring areas with lower depopulation rates, the number of depopulated areas would decrease. In highly depopulated areas, community buses could be used to provide group outings once or twice a month. Remote monitoring cameras could be installed in the homes of those who wish to remain. In Natsume Soseki's time, there were only a few high-class idlers, but now many graduates of national, public, and private universities across the country think of themselves as high-class idlers. If we don't do something about these people, the Japanese race will truly become an endangered species. Do all the people of Japan really believe that the current child-rearing support policies will increase the birth rate? It seems as though the entire nation thinks it has convinced them, or that they are convinced. It's like a "100 million fireballs" or "100 million people repenting together." Wouldn't it be better for the government to spend money on think tanks and other private sector organizations to buy their wisdom? [Brief explanation of the drawings]

[0022] [Figure 1] Overview of the Japanese race preservation system in the event of nuclear war. [Figure 2] Overview of a towable semi-rigid nuclear submarine (110). [Figure 3] Overview of the nuclear power plant (2000). [Figure 4] Overview of the battery-powered submarine (200). [Explanation of symbols]

[0023] 1 is elevator 2 is rudder 3 is heavy rare gas coolant 100 is a submarine power supply station 110 is a semi-fixed nuclear submarine 120 is a storage battery 200 is a battery-powered submarine 300 is a battery-powered cargo submarine 400 is an upland rice colony 2000 is nuclear power generation facilities 2001 is a semi-fixed nuclear submarine body 2002 is a towing device 2100 is the reactor vessel 2110 is a nuclear fuel container 2111 is a reflector 2112 is the cover reflector 2120 is a fixed metal nuclear fuel assembly 2122 is a movable rod 2130 is a movable metal nuclear fuel assembly 2140 is additional metal nuclear fuel assembly 2300 is a gas turbine 2310 is a high temperature tube 2311 is a tube fin 2351 is a cryogenic tube 2400 generator 2500 is a blower 3001 is a powered submarine hull 3110 is a flotation vessel 3200 is a control device 3210 is a viewing device 3300 is the loading / unloading exit 3400 is a waterproof external storage battery 3500 is a propulsion screw 4001 is a cargo submarine 4100 is the cargo compartment for carbohydrates, etc. 5001 Underwater Triangular Sail

Claims

1. The Japanese species preservation system in the event of a nuclear war consists of submarine power stations (100) laid in several locations in Japan's exclusive economic zone, several battery-powered submarines (200) as described in claim 3, numerous battery-powered cargo submarines (300) as described in claim 4, and land rice colonies (400) in numerous countries. The submarine power supply station (100) consists of a towable semi-rigid nuclear submarine (110) anchored on the seabed and multiple storage batteries (120). The storage battery (120) is charged with electricity generated by the nuclear power plant (2000) of the towable semi-rigid nuclear submarine (110), A Japanese race preservation system in the event of a nuclear war, characterized by the use of battery-powered cargo submarines (300) to exchange daily necessities between land rice colonies (400) in various countries, including the home country.

2. The towable semi-rigid nuclear submarine (110) of claim 1 is a nuclear submarine that is anchored on the seabed and does not have a means of self-propulsion, The towable semi-rigid nuclear submarine (110) has a towing device (2002) laid on the surface of the semi-rigid nuclear submarine body (2001), and a nuclear power plant (2000) built into the semi-rigid nuclear submarine body (2001). A semi-fixed nuclear submarine (110) capable of towing, which is equipped with a discharged storage battery (120) and a charged storage battery (120) on top of the semi-fixed nuclear submarine body (2001), is eavesdropped on.

3. The nuclear power plant (2000) of claim 2 comprises a nuclear fuel container (2110) and a reactor vessel (2100) containing a heavy rare gas coolant (3), a gas turbine (2300), and a generator (2400), A nuclear power generation facility (2000) characterized in that a nuclear fuel container (2110) incorporates a reflector (2111), a fixed metal nuclear fuel body (2120), a movable metal nuclear fuel body (2130), an additional metal nuclear fuel body (2140), and a cover reflector (2112).

4. The battery-powered powered submarine (200) of claim 1 comprises a self-propelled powered submarine body (3001) having a discharged battery (120) and a charged battery (120) built into the cargo compartment through an openable loading / unloading opening (3300) laid at the bottom of the body, and A stainless steel floating vessel (3110) is installed on the power supply submarine hull (3001), A battery-powered submarine (200) characterized in that it navigates by rotating a propulsion screw (3500) with an electric motor using a watertight external rechargeable battery (3400) for driving laid at the bottom of the submarine hull (3001) as a power source.

5. The battery-powered cargo submarine (300) of claim 1 comprises a self-propelled cargo submarine body (4001) having an openable loading / unloading opening (3300) at the bottom thereof, and stores supplies and personnel in a carbohydrate cargo hold (4100), The battery-powered cargo submarine (300) is characterized by being powered by a watertight external rechargeable battery (3400) installed at the bottom of the cargo submarine body (4001) and used to rotate a propulsion screw (3500) with an electric motor to navigate.

6. The battery-powered cargo submarine (300) of claim 5 has an underwater triangular sail (5001) stretched over the upper part of the cargo submarine body (4001), An underwater yacht characterized in that the watertight externally mountable storage battery (3400) of claim 5 can be regarded as a keel and can sail upstream along ocean currents.

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