The safety of a nuclear power plant is analyzed. The fuel of a nuclear plant is uranium that is radioactive and produces extremely toxic byproducts. Uranium is a metal that is mined from the earth then the uranium ore is refined (sulfuric acid) into pure uranium that is melted into metal rods that have an approximately length of 12 feet and a diameter of 9 inches. A single rod is emitting gamma rays that are massless and penetrate the adjacent rods resulting in a fission reaction. When the rods are placed closed together, the rods interact via gamma ray emissions which results in the rods to heat until glowing hot (fission) which is where the power of a nuclear power plant originates. Water is used to control the intensity of the glowing hot uranium rods that generated steam that runs turbines which produces electricity where the water prevents the uranium rods from melting down. The cause of a meltdown is that the rods within the core are not cooled properly which results in the rods to undergo a fusion meltdown. Ordinarily, metal that is melted will cool down and solidify but the uranium rods that are undergoing fusion stay glowing hot. During a meltdown, the glowing hot fusion rods, within the core, interact with the cooling water that is trapped within the core resulting in the formation of hydrogen gas that interacts with the uranium in the formation of a nuclear explosion that disperses radioactive particles into the air forming nuclear fallout. In the Fukushima disaster, the remaining uranium melted through the steel structure of the reactor core and cement floor resulting in a uranium cluster underneath the Fukushima reactors that today is producing an uncontrollable fission reaction since the area where the fission cluster penetrated the core reactor and earth is inaccessible because of the high level of gamma ray emission which is cause by the fission process of the remaining uranium.

The fuel rods are contained within a six inch thick steel reactor core which is 20 meter in height that is shaped similar to a cup with a cover. After six years of fission that produces the energy of a nuclear power plant, the 200 uranium rods, contained within the core, become spent since the outer surface of the rod that interact with the gamma rays decays and must be replace with new rods. These spent rods are still extremely dangerous since the inside of the rods are still extremely active and are at least 60% as radioactive as the original rods. The spent fuel rods are stored in cooling pools (swimming pools containing water) since the rods are still active and can result in a fission melt down. The rods are submerged in water to keep the rods cool. If the rods stored in cooling pond are not cooled properly with water, the spent fuel can begin to produce a fission meltdown and cause a nuclear explosion. If the water leaks out of the pond or water is not continuously added to the ponds since the spent fuel rods are continuously radiating heat that evaporates the water, the spent fuel rod can produce fission and melt; consequently, these fuel rod should be used, in the reactor core, until they cannot produce fission which would solve the spent fuel problem. Nuclear physicists claim that neutrons of the spent fuel rod inhibit the use of the spent fuel rods but if the spent fuel rod can melt down then the spent fuel rod can be used until they cannot melt down. It is more profitable to use new fuel rods to produce more energy than to used spent rod that produce less energy. Economics before safety.

There are 440 nuclear power plants in the world that store there spent fuel rods in on site ponds which is extremely precarious situation. Economics before safety since it is cheaper to store the spent fuel in ponds. If all 440 nuclear power plants core reactor rods and their respective spent fuel ponds were to meltdown and explode all insect and mammal life on earth would terminate which may be the reason for all these holocaust movies. The potential is there and can be minimized; in case of a world catastrophe that subjugates the electrical power grid and nuclear power plant personal. The safest method to store the spent fuel is to encase the rods in glass or cement, as the French did or still do and the USA says that they do, which purpose is to ensure that the rods are separated since the closeness of the fuel rods cause the rods to produce a fission reaction and potentially fission meltdown and nuclear explosion resulting in a nuclear fallout catastrophe. The cement or glass encased fuel rod can then be stored without using cooling ponds and the rods cannot produce a chain reaction of the fission effect since the meltdown (fission) of spent rods require the proximity of the rods that is eliminated by the cement or glass enclosure but it may be possible to minimize the fusion capacity of the rods by keeping the rods in the core longer (neutralization). The gamma rays emitted by the rods is causing the nuclear reaction where the cement or glass enclosures eliminate the proximity element that causes the nuclear fission (perpetual glow hot metal-chain reaction) but the rods could be neutralized by longer stay in the core. The Nuclear Regulatory Commission NRC is implying that the spent fuel rods are encased in cement and stored outside the reactor in nuclear storage site but only a small amount of the spent fuel is being stored in these sites (less than 3%). Most of the spent fuel is stored in on site ponds (cheap).

A nuclear reactor uses 200 rods that last for 6 years; therefore, a thirty-year-old nuclear plant contains approximately 1,000 rods or five times the necessary uranium in ponds. The safest place store the rods is to build a nuclear storage site in the desert away from the nuclear power plant and to bury the spent fuel rods in the desert where they originated from. Doing this would reduce the potential risk by more than 500%. One cannot be reliant on the NRC for guidance since Fukushima nuclear plant engineers built a cooling pond directly on top of the reactor core and the plants were designed by General Electric and was monitored by the NRC. The explosion at the Fukushima nuclear power plant was preventable. The NRC stated that Fukushima explosions were hydrogen explosions but the Fukushima explosions were nuclear explosions (fissing uranium interaction with hydrogen gas) which accounts for the enormous amount of radioactive contamination. If the top of the core could be opened during an emergency, water could be added to the rods to evert the meltdown and hydrogen gas would not be trapped within the core which caused the Fukushima nuclear explosion. Liquid hydrogen is the oxidizer for a hydrogen bomb that was used on Hiroshima and Nagasaki. Eliminating the hydrogen gas would have prevented the nuclear explosion that cause the extensive radioactive contamination associated with the Fukushima nuclear disaster. The reason the Fukushima explosion was not a large full-scale explosion similar to that of Nagasaki and Hiroshima is because the explosion occurred within the reactor that rods are encase in steel which significantly reduced the blast zone and hydrogen gas is least dense than liquid hydrogen. Furthermore, to increases the safety of a nuclear power plant, the present nuclear plants must be refitted by allow water to be directly pumped into the open reactor core. The open core is extremely important since the stream produce, by the additional water, must escape to prevent the formation of hydrogen gas. Example, numerous fire engines’ pumps could be used to pump water into the core if the electrical power were lost, and, in another safety system, automobiles wheels on tread mills could be used to generate electric energy or run pumps. Second, the bottom of the core should be made with graphite since the maximum temperature of fission uranium is 3,000 degrees F and the maximum temperature that graphite can sustain is 6,000 degrees F. The Chernobyl nuclear power plant core was not compromised during the fission meltdown. The Chernobyl fissioning uranium did not melt through the bottom of the reactor core. At Fukushima, the fissioning uranium melted through the Fukushima reactor core and began propagating downward into the earth but the earth and core steel diluted the melted down and stop the propagation of the melting uranium. To clean up the radioactive material at the Fukushima site which is prevent because of the high level the gamma emissions, that prevents electrical circuits from functioning, can be neutralized by dropping iron ore pellet into the hole and covering the fissioning uranium with the iron pellet that would reduce the gamma emissions, by absorption, then taking machinery and breaking apart the remaining fissioning uranium and creating a separation, between the fissioning uranium, that is essential is curtailing the fissioning of the uranium remaining.

Radioactivity at Hiroshima is between 6 and 25 roentgens of gamma radiation; the highest in the Nagasaki area was between 30 and 110 roentgens of gamma radiation--- after 80 years. The average natural background radiation is ..33 roentgens and the current federal occupational limit of exposure for an adult is 5.3 roentgens. Presently, at Fukushima, the radiation measurement is 53,000 roentgens. The dose of 250 to 500 roentgens would kill half the exposed population with radiation poisoning. The reasoning that the Fukushima disaster was so toxic is because numerous spent fuel ponds loaded full of uranium rods were stored directly on top of the reactor core; consequently, the nuclear explosions vaporized 3,000 spent fuel rods resulting in the radioactive particles to be spread out over the area of Fukushima. Congratulation NRC.

This article will analyze the safety of a nuclear power plant. The fuel of a nuclear plant is uranium that is radioactive and extremely toxic. Uranium is a metal that is mined from the earth then the uranium ore is refined into pure uranium that is shaped into uranium metal rods that have an approximately length of 12 feet and a diameter of 9 inches. A uranium rod is emitting gamma rays that are massless and can penetrate the adjacent rods resulting in a fission reaction. Nuclear physicists state that neutrons are forming the fission chain reaction which is not physically possible since the ostensible neutrons that have a mass cannot propagate through the uranium rods or penetrate the stainless-steel enclosure of the control rods that contain boron, cadmium, silver, hafnium or indium that are said to absorb the neutrons. When the uranium rods are placed closed together the uranium rods interact via gamma ray emissions which results in the rods to resonate and heat until glowing hot producing a fission chain reaction which is where the power of a nuclear power plant originates. Water and lead control rods are used to control the intensity of the glowing hot uranium rods that generate steam which runs turbines that produce electricity of a nuclear power plant where the lead control rods encased in steel is place between the uranium rods to stop the fission reaction since the lead absorbs the gamma rays. If the system is not cooling properly and the fission reaction is not terminated by inserting the control rods between the uranium rods, the uranium rods melt down and the high temperature of the melted uranium interaction with water results in the formation of hydrogen gas that reacts with the melted uranium producing a small nuclear explosion which results in the melted uranium to be dispersed into the air forming nuclear fallout.

The problem is that after six years the 200 uranium rods become spent since the outer surface of the rod that interact with the gamma rays decay and must be replace with new rods. These spent rods are still extremely dangerous since the inside of the rods are still extremely active where the inside of the rods are at least 95% as radioactive as the original rods since the spent rods can be reprocessed to 95% of there original capacity. After six years of use, the rod are taken out of the reactor and are called spent fuel rods that are stored in cooling pools since the rods are still active and can melt down. The rods are submerged in water to keep the rods cool. If the spent rods stored in the cooling pond are not properly cooled with water, the spent fuel will melt and cause a nuclear explosion if the water leaks out of the pond or water is not continuously added to the ponds since the spent fuel rods are continuously radiating heat that evaporates the water. If the spent fuel rod can melt down then the spent fuel can be used as fuel; consequently, these fuel rod should be used until they cannot melt down. If the spent rods can melt down, they can still run the turbines. Nuclear physicists will say that neutrons of the spent fuel rod inhibit the use of the spent fuel rods but massless gamma rays are causing the fission reaction..

There are 440 nuclear power plants (that have multiple reactors); consequently, in the world there are more than 800 reactors where the spent rods are stored in ponds on the site of the nuclear power plant which is extremely precarious situation. A safe way to store the spent fuel is to encase the rods in glass or cement, as the French did or still do and the USA says that they do, which purpose is to ensure that the rods are separated since the closeness of the fuel rods cause the rods to heat up and potentially melt down (fission) resulting in a nuclear catastrophe but it would be safer to use the fuel rod until the rods cannot produce the fission chain reaction in the reactor or encase the spent rod in lead. In the case of the encased spent rods in cement or glass (still fissionable), the cement or glass encased spent fuel rod can then be stored without using cooling ponds and cannot melt down since the melt down of spent rods require the proximity of the rods that is eliminated by the cement or glass enclosure. The gamma rays emitted by the rods is causing the nuclear reaction which can be absorbed by lead. The cement or glass enclosures eliminate the proximity element. The US nuclear regulatory commission is implying that the spent fuel rods are encased in cement and stored outside the reactor in nuclear storage site but only a small amount of the spent fuel is encased in cement and being stored in these sites (less than 3%). The majority of the spent fuel is stored on site in ponds that allows more rods in a smaller area and encasing the spent rods in glass and cement is expansive. It is more profitable to use new rods to produce more energy than to used spent rod that produce less energy than placing the spent rods in cooling ponds but the ponds will have to be maintain for 2,000 years since uranium has a half-life of over one billion years; therefore, the radioactive level that is exhibited by the uranium spent fuel rod will remain at the current level for over 2,000 years.

A nuclear reactor uses 200 rods that last for 6 years; therefore, a thirty-year-old plant that uses two reactors contains approximately 2,000 rods. The safest method is to build a nuclear storage site in the desert away from the nuclear power plant and to bury the glass or cement encased spent fuel rods in the desert where they originated from. Doing this would reduce the potential risk by 80% or safer still would be use keep the uranium rods in the reactor until the rod cease to produce the fission chain reaction. The USA is an example, if you are going to use nuclear power you must be consider safety first. One cannot be reliant on the Nuclear Regulatory Commission NRC for guidance since the Fukushima nuclear plant was built with a spent rod cooling pond directly on top of the reactor core where the Fukushima plant’s reactor was made and designed by General Electric and were monitored by the NRC yet Fukushima was allowed to build spent uranium cooling pond directly above the reactor’s core where the rods were undergoing fission. As a result, the nuclear explosion pulverized 3,000 spend uranium rods; consequently, it will take 20,000 years for the city of Fukushima to become inhabitable. In addition, the Fukushima reactor core that formation of hydrogen gas caused the nuclear explosion that produced most of the Fukushima nuclear contamination which is the reason for the enormous amount of nuclear fallout. A simple hydrogen explosion would not have caused the enormous amount of nuclear contamination.
To increase the safety the spent fuel rods, the cooling pools should be situated outside totally exposed to the air or with only a roof and no sides to allow any hydrogen gas created to disperse into the air since the interaction of the hydrogen gas with the melted uranium can cause a nuclear explosion. Without the hydrogen gas the spent uranium rods cannot explode. Furthermore, the present nuclear plants must be refitted to allow the top of the reactor to pop off during an emergency where external pumps can directly pour water onto the rods undergoing fusion to prevent the uranium rods from melting and the open core would allow the steam to escape preventing a nuclear explosion since a nuclear explosion requires hydrogen gas. Example, a fire engine pumps could be used to pump water into the open top reactor core vessel if a nuclear power plant losses electrical power. In an another system, automobiles’ wheels could be placed on a tread mill and used to generate electricity to run external pumps. Radioactivity at Hiroshima is between 6 and 25 roentgens of gamma radiation; the highest in the Nagasaki area was between 30 and 110 roentgens of gamma radiation, after 75 years. The average natural background radiation is .33 roentgens and the current federal occupational limit of exposure for an adult is 5.3 roentgens. The dose of 250 to 500 roentgens would kill half the exposed population with radiation poisoning. Presently, at Fukushima, the radiation measurement is 53,000 roentgens. It will take 20,000 years for the city of Fukushima to be inhabitable. The most common early symptoms of radiation sickness are nausea, vomiting and diarrhea that can start within minutes of exposure and can come and go for several days. You might also have skin damage similar to sunburn, blisters or sores with high dose of radiation. Radiation may also damage the cells that produce hair causing your hair to fall out. The symptoms can go away entirely for anywhere from a few hours to weeks but can come back and are often worse. Extended exposure to 250 to 500 roentgens can cause bone, liver and brain cancer.

This article will analyze the safety of a nuclear power plant. The fuel of a nuclear plant is uranium that is radioactive and extremely toxic. Uranium is a metal that is mined from the earth then the uranium ore is refined (sulfuric acid) into pure uranium (yellow cake) that is melted and shaped into metal rods that have an approximately length of 12 feet and a diameter of 9 inches. A single rod is emitting gamma rays that are massless and can penetrate the adjacent rods resulting in a fission reaction. When the rods are placed closed together, the rods interact via gamma ray emissions (neutrons that have a mass cannot propagate through matter) that results in the rod to heat until glowing hot (fission) which is where the power of a nuclear power plant originates. Water and lead control rods are used to control the intensity of the glowing hot uranium rods that generated steam that runs turbines which produces electricity where the water (500 degrees) and the lead control rods are inserted between the uranium rods to absorb the gamma rays to slow or stop the reaction. If the system is not cooling properly and the reactors are not shut down (it takes six hours to lower the control rods into the reactor core), the rods meltdown resulting in the existing cooling water to form hydrogen gas that reacts with the melted uranium producing a nuclear explosion that disperses uranium into the air forming nuclear fallout.

In normal circumstances, after six years of fission that produces the energy of a nuclear power plant, the 200 uranium rods, contained within the core, loss energy since the outer surface of the rod that interact with the gamma rays decays and must be replace with new rods. These used rods are still extremely dangerous since the inside of the rods are still extremely active and are at least 80% as radioactive as the original rods since the used rods can be reprocess to 95% of there full capacity (French). The spent fuel rods are stored in cooling pools (swimming pools containing water) since the used rods are still active and can melt down. The used rods are submerged in water to keep the rods cool. If the rods stored in cooling pond are not cooled properly with water, the used fuel rod will melt and cause a nuclear explosion. If the water leaks out of the pond or water is not continuously added to the ponds since the used fuel rods are radiating heat that evaporates the water, the spent fuel rod can melt and interact with water to produce hydrogen gas; consequently, these fuel rod should be used, in the reactor core, until they cannot produce fission which would solve the used (spent) fuel storage problem. Nuclear physicists claim that neutrons of the used fuel rods inhibit the use of the used fuel rods but if the used fuel rod can melt down then the used fuel rod can be used until they cannot produce fission. My guess is that it is more profitable to use new fuel rods to produce more energy than to the existing rod that produce less energy.

There are an average of two reactors per nuclear power plant and there are 440 nuclear power plants in the world that store there used (spent) fuel rods in on site ponds which is extremely precarious situation. If all 900 reactors and their respective used fuel ponds were to meltdown all life on earth would terminate which may be the reason for all these holocaust movies. The potential is there and can be minimized; in case of a world catastrophe that subjugates the electrical power grid and nuclear plant personal. The safest method to store the used rods is to encase the rods in glass or cement, as the French did or still do and the USA says that they do, which purpose is to ensure that the rods are separated since the closeness of the fuel rods cause the rods to produce a fission reaction. The French know how to keep their asses clean. Congratulations to the French. The cement or glass encased fuel rod can then be stored without using cooling ponds and the rods cannot melt down since the melt down of used rods require the proximity of the rods that is eliminated by the cement or glass enclosure but it may be possible to eliminate the fusion capacity of the used rods by keeping the used rods in the core longer (neutralization). The gamma rays emitted by the rods is causing the nuclear reaction since neutron composed of matter cannot propagate through matter. The cement or glass enclosures eliminates the proximity element that causes nuclear fission (glow hot metal). Using the rods long would result in the uranium to decay to elements half its mass with much shorter half-lives. The Nuclear Regulatory Commission (NRC) is implying that the spent fuel rods are encased in cement and stored outside the reactor in nuclear storage site but only a small amount of the spent fuel is being stored in these sites (less than 3%). Most of the spent fuel is stored on site in ponds (cheap).

A nuclear reactor uses 200 uranium rods that last for 6 years; therefore, a thirty-year-old nuclear plant with two reactors contains approximately 2,000 rods in ponds or five times the necessary uranium to run a nuclear plant.. The safest method is to build nuclear storage site in the desert away from the nuclear power plant and to bury the encased used uranium fuel rods in the desert where they originated from. Doing this would reduce the potential risk by more than 500%. One cannot be reliant on the NRC for guidance since Fukushima nuclear plant engineers built a cooling pond directly on top of the reactor core and the plant’s reactors were made by General Electric and was monitored by the NRC. The Fukushima explosion completely destroyed a 12-inch-thick concrete structure that surrounded the reactor core.. A simple hydrogen explosion would not have done that and there’s the fallout. When the Fukushima reactors exploded, it sent 3,000 uranium rods worth of pulverize uranium into the atmosphere. Parents should not let children play with matches because children can be silly. To further improve the safety of a nuclear power plant, during an emergency, if the top of the core could be removed, this would prevent a nuclear explosion since the trapped hydrogen gas caused the Fukushima nuclear explosion. The Fukushima nuclear explosion was preventable if the top of the core could be removed and allow the hydrogen gas to escape into the surrounding atmosphere. In addition, external pumps could have added cooling water to the interior of the open core preventing the meltdown of the uranium rod undergoing an uncontrolled fission reaction. Example, numerous fire engines could inject water into the open core and automobiles wheels on tread mills could be used to generate electricity used to run water pumps. There is a time interval of approximately five hours between when a nuclear plant loss of electrical power and the core’s nuclear melt down and explosion. The core will not explode even during a meltdown if the core top is open since a nuclear explosion require hydrogen gas interacting with the uranium that is undergoing fission. To clean up Fukushima, figure out how to magnetize uranium. USb2

On Friday, March 25, 2022 at 12:26:46 PM UTC-7, carl eto wrote:

Nuclear Holocaust

This article will analyze the safety of a nuclear power plant. The fuel of a nuclear plant is uranium that is radioactive and extremely toxic. Uranium is a metal that is mined from the earth then the uranium ore is refined (hydrochloric acid) into pure uranium (yellow cake) that is melted and shaped into metal rods that have an approximately length of 12 feet and a diameter of six inches (200 lb). A uranium rod is emitting gamma rays that are massless and can penetrate the adjacent rods resulting in a fission reaction. When the rods are placed close together, the rods interact by gamma rays since neutrons that have a mass cannot propagate through matter. The rods activated by gamma rays result in the rods to heat until glowing hot (fission) which is where the power of a nuclear power plant originates. The clicks produced by a Geiger counter are formed by gamma rays since only massless gamma rays can propagate through the detector’s sealed ionization tube. Water and lead control rods are used to control the intensity of the fission reaction of the uranium rods that generated steam that runs a turbine which produces electricity where the steam at a temperature of less than 500 degrees F is produced to prevent the formation of hydrogen gas. The lead control rods encased in stainless steel are inserted between the uranium rods where the lead absorbs the gamma rays to slow or stop the reaction since neutrons, composed of matter, cannot propagate through steel encasement of the control that ostensibly contain cadmium. If the system is not cooling properly and the reactor is not shut down (it takes the minimum of three hours to lower the control rods into the reactor core for a shutdown), the uranium rods begin to melt (2,070 degrees F) resulting in the steam to form hydrogen gas that reacts with the melted uranium producing a nuclear explosion within the core.

In normal circumstances, after six years, the 200 uranium rods, contained within the core, loss potency since the outer surface of the rods that interact with the gamma rays decay resulting in the uranium rods to reduce (deplete) to an isotope of uranium. The depleted (spent) used rods are replaced with new rods. These used uranium rods are still extremely dangerous since the used depleted uranium is an isotope of uranium that has a half-life of 700 million year and can be reprocess back to uranium. The used (spent) fuel rods are stored in cooling pools (swimming pools containing water) since the used rods can still produce fission. The used rods are submerged in water to keep the rods cool. If the rods stored in a cooling pond are not cooled, the used fuel rod will produce a fission chain reaction and potentially causing a nuclear explosion, if the water leaks out of a cooling pond or water is not continuously added to the pond since the used fuel rods are radiating heat that evaporates the water. The spent (depleted) fuel rods can produce a fission reaction and melt. The interaction of the uranium undergoing uncontrolled fission melt (2,070 degrees F) where the steam produces hydrogen gas that interaction with spent uranium rods undergoing fission can produce a nuclear explosion; consequently, these fuel rod should be used, in the reactor core, until they cannot produce fission (20 years instead of six years) that would split the uranium atoms which would solve the used (spent) deleted fuel rod storage problem but the rods would become brittle which could be solved by placing the uranium rods in a stainless steel tube encasement then reusing the stainless encased depleted uranium rods in the core.

There are an average of two reactors per nuclear power plant and there are 440 nuclear power plants in the world that store there used (spent) fuel rods in on site ponds which is an extremely precarious situation. If all 900 reactors and their respective used uranium rod ponds were to meltdown and explode, all life on earth would terminate, within 120 years and never come back, which may be the reason for all these nuclear holocaust movies. It will be a slow an agonizing process. An atomic bomb contains 200 lb of uranium; whereas, a single 30 year old nuclear reactor power plant contains 200 tons of uranium. The combination of nuclear weapons and nuclear power plants has the potential to create “The Road” but the potential threat can be minimized. In the case of a World War III that subjugates the electrical power grid and nuclear plant personal, a safer method to store the used rods would be to encase the rods in glass or cement, as the French did or still do and the USA says that they do, which purpose is to ensure that the rods are separated since the closeness of the used fuel rods causes the rods to produce a fission reaction. The cement or glass encased fuel rod can then be stored without using cooling ponds and the rods cannot melt down since the melt down of used rods require the proximity of the uranium rods that is eliminated by the cement or glass enclosure. The Nuclear Regulatory Commission (NRC) is implying that the spent fuel rods are encased in cement and stored outside the reactor in nuclear storage site but only a small amount of the spent fuel is being stored in these sites (less than 3%). Most of the spent fuel is stored on site in ponds (cheap and easy).

A nuclear reactor uses 200 uranium rods that are used for 6 years; therefore, a thirty-year-old nuclear plant with two reactors contains approximately 2,000 rods (200 tons) in ponds which is five times the necessary uranium to run a nuclear plant. A safer method is to build nuclear storage site in the desert far away from the nuclear power plant and to bury the encased used uranium fuel rods in the desert where they originated from. Doing this would reduce the potential risk by more than 500%. One cannot be reliant on the NRC for guidance since Fukushima nuclear engineers built a cooling pond directly on top of the reactor core and the plant’s reactors were made by General Electric and was monitored by the NRC. The Fukushima explosion destroyed half a five-story building with 10-inch-thick concrete walls that surrounded the reactor core. A hydrogen explosion would not have destroyed the concrete structure of that housed the reactor and produced the enormous Fukushima fallout. When the Fukushima reactors exploded, it sent 3,000 uranium rods worth of pulverize uranium into the atmosphere. Fukushima will never be inhabitable for humans unless they pick out every individual uranium particle in the topsoil and the radioactive uranium particles that leached into the ground water. In Nagasaki and Hiroshima, the nuclear explosion split the uranium atom into elements with short half-lives; consequently, Nagasaki and Hiroshima are habitual but at Fukushima, the uranium that has a half-life the over one billion years was dispersed in the prefecture of Fukushima; consequently, Fukushima city will never be inhabitable useless all the uranium can be removed. One possible method is to convert the uranium into uranium hydride that is magnetic. Also, to further improve the safety of a nuclear power plant, if the bottom of the reactor were made of carbon/graphite (maximum temperature of 5,000 degrees F), the melted uranium (2070 degree F) would not penetrate the core and if an addition graphite pan was built underneath the core to catch the drippings, this would improve the safety. Also, to prevent the nuclear explosion of the reactor core, the addition of core safety valves that would release the steam within the core would prevent the formation of hydrogen gas.

bti1

While My Guitar Gently Weeps

Why is there not a clear analysis of the amount of uranium (in mg) in the contaminated soil at Fukushima?

On Sunday, March 27, 2022 at 10:12:10 AM UTC-7, carleto4...@gmail.com wrote:

> Why is there not a clear analysis of the amount of uranium (in mg) in the contaminated soil at Fukushima?

Why not look it up? It took me about 10 seconds to find the answer...

Nuclear Holocaust


This article will analyze the safety of a nuclear power plant. The fuel of a nuclear plant is uranium that is radioactive and extremely toxic. Uranium 238U is a silvery metal that is mined from the earth then the uranium ore is refined (hydrochloric acid) into pure uranium (yellow cake) that is melted and shaped into metal rods that have an approximately length of 12 feet and a diameter of six inches (200 lb). A uranium rod is emitting gamma rays that are massless and can penetrate the adjacent rods resulting in a fission reaction. When the rods are placed close together, the rods interact by gamma rays since neutrons that have a mass cannot propagate through matter. The rods activated by gamma rays result in the rods to heat until glowing hot (fission) which produces the power of a nuclear power plant. The Geiger counter’s clicks are formed by gamma rays since only massless gamma rays can propagate through the detector’s sealed ionization tube. Water and lead control rods are used to control the intensity of the fission reaction of the uranium rods that generated steam that runs a turbine which produces electricity where the steam at a temperature of less than 500o F is produced to prevent the formation of explodable hydrogen gas. The lead control rods encased in stainless steel are inserted between the uranium rods that lead absorbs the gamma rays to slow or stop the reaction. Neutrons, composed of matter, cannot propagate through steel encasement of the control rods that ostensibly contain cadmium. If the system is not cooling properly and the reactor is not shut down (it takes the minimum of three hours to lower the control rods into the reactor core for a shutdown), the uranium rods begin to melt (2,070o F) resulting in the steam to form hydrogen gas that can detonate the melted uranium producing a nuclear explosion.
In normal circumstances, after six years, the 200 uranium rods, contained within the core, loss potency since the outer surface of the rods that interact with the gamma rays decay resulting in the uranium rods to reduce (deplete) to an isotope of uranium 235U. The depleted (spent) used rods 235U are replaced with new uranium rods 238U . These used uranium rods are still extremely dangerous since the used depleted uranium is an isotope of uranium that has a half-life of 700 million years and can be reprocessed back to uranium. The used (spent) fuel rods are stored in cooling pools (swimming pools containing water) since the used rods can still produce fission but a lower rate. The used rods are submerged in water to keep the rods cool. If the rods stored in a cooling pond are not cooled, the used fuel rods will produce a fission chain reaction and potentially causing a nuclear explosion, if the water leaks out of a cooling pond or water is not continuously added to the pond since the used fuel rods are radiating heat that evaporates the water. The overheated spent (depleted) fuel rods can produce a fission reaction and melt. The interaction of the uranium undergoing fission (2,070o F) is detonated with hydrogen gas that producing a nuclear explosion; consequently, these fuel rod should be used, in the reactor core, until they cannot produce fission (20 years instead of six years) that would split the uranium atoms which would solve the used (spent) deleted fuel rod storage problem. The rods would become brittle after eight year use in the core producing fission which is solved by placing the uranium rods in a stainless steel tube encasement then reusing the stainless encased depleted uranium rods in the core.

There are an average of two reactors per nuclear power plant and there are 440 nuclear power plants in the world that store there used (spent) fuel rods in on site ponds which is an extremely precarious situation. If all 900 reactors and their respective used uranium rod ponds were to meltdown and explode, all life on earth would terminate, within 120 years and never return, which may be the reason for all these nuclear holocaust movies. It will be a slow an agonizing process. An atomic bomb contains 200 lb of uranium; whereas, a single 30 year old nuclear reactor power plant contains 200 tons of uranium. The combination of nuclear weapons and nuclear power plants has the potential to create “The Road” but the potential threat can be minimized. In the case of a World War III that subjugates the electrical power grid and nuclear plant personal, a safer method to store the used rods would be to encase the rods in glass or cement, as the French did or still do and the USA says that they do, which purpose is to ensure that the rods are separated since the closeness of the used fuel rods causes the rods to produce a fission reaction. The cement or glass encased fuel rod can then be stored without using cooling ponds and the rods cannot melt down since the melt down of used rods require the proximity of the uranium rods that is eliminated by the cement or glass enclosure. The Nuclear Regulatory Commission (NRC) is implying that the spent fuel rods are encased in cement and stored outside the reactor in nuclear storage site but only a small amount of the spent fuel is being stored in these sites (less than 3%). Most of the spent fuel is stored on site in ponds (cheap and easy).
A nuclear reactor uses 200 uranium rods that are used for 6 years; therefore, a thirty-year-old nuclear plant with two reactors contains approximately 2,000 rods (200 tons) in ponds which is five times the necessary uranium to run a nuclear plant. A safer method is to build nuclear storage site in the desert far away from the nuclear power plant and to bury (one mile deep) the segmented (3 segments) and encased the used uranium fuel rods in the desert and completely seal the mine from the rods to the end of the bed rock with cement and leaving absolutely no spaces that hydrogen gas can collect.. Doing this would reduce the potential risk by more than 500%. One cannot be reliant on the NRC for guidance since Tepco nuclear engineers built a cooling pond directly on top of the reactor core that were made by General Electric and the construction was approved by the NRC. The Fukushima nuclear explosion destroyed half a five-story building with 10-inch-thick concrete walls that enclosed the Fukushima reactor core and produced the enormous and infamous Fukushima nuclear fallout. When the Fukushima reactors exploded, it sent 3,000 uranium rods worth of pulverize uranium, from the cooling ponds atop the core, into the atmosphere which may be the reason scientists are concealing the amount of uranium in the contaminated soil since uranium has a half-life of over one billion years.
Fukushima city will never be habitable unless they pick out every individual uranium particle in the topsoil and the radioactive uranium particles that leached into the ground water. In Nagasaki and Hiroshima, the nuclear explosion split the uranium atom into small radioactive elements (with short half-lives---cesium-137 is popular); consequently, Nagasaki and Hiroshima are habitual but at Fukushima, the uranium was dispersed as fallout; consequently, Fukushima city will never be habitable useless all the uranium can be removed. One possible method is convert uranium into uranium oxide that is magnetic then use a strong magnet to pick it up the uranium particles. Also, to further improve the safety of a nuclear power plant, if the bottom of the reactor were made of carbon/graphite (maximum temperature of 5,000o F), the melted uranium (2070o F) would not penetrate the core and if an addition graphite pan was built underneath the core to catch the drippings, this would improve the safety. Also, to prevent the nuclear explosion of the reactor core, the addition of reactor core safety valves that would break open and release the steam within the core to prevent the formation of hydrogen gas. I don’t think the core can explode without hydrogen gas. Also, hydrogen gas may be fueling the 50-ton Fukushima fission fireball or fireballs that has penetrate the bottom of the core and three-foot-thick cement bottom and is somewhere below the reactor core. The gamma ray emission are so high that electrical circuit do not function near the nuclear fireball; consequently, no real data is available regarding the nuclear fireball; therefore, it may be prudent to stop adding water to cool the 50-ton uranium fireballs that are undergoing fission (the high temperature implies fission fireball reaction is occurring) and hydrogen gas may be fueling the reaction. I would recommend digging far underneath the nuclear fireball and inserting a large flat carbon/graphite pan to catch the fireball and allow the uranium to spread out on the carbon/graphite pan which would stop the fission process after stopping adding water to the nuclear fireball which is presently being implemented since Tepco is releasing millions of radioactive water into the ocean. Where is all this radioactive water coming from? Concealing the problem will not make it go away. If the nuclear fireballs at Fukushima are not stopped all the water in the entire world will eventually become radioactive (500 years) and there are potentially 440 more Fukushima’s. It will be a slow an agonizing process.

M27

carl eto wrote:

> ionization tube. Water and lead control rods are used to control the
> intensity of the fission reaction of the uranium rods that generated
> steam that runs a turbine which produces electricity where the steam at
> a temperature of less than 500o F is produced to prevent the formation

the stupidest way to heat the water. Humans are so fucking stupid.

On Sunday, March 27, 2022 at 12:06:21 PM UTC-7, Paul Alsing wrote:
> On Sunday, March 27, 2022 at 10:12:10 AM UTC-7, carleto4...@gmail.com wrote:
>
> > Why is there not a clear analysis of the amount of uranium (in mg) in the contaminated soil at Fukushima?
> Why not look it up? It took me about 10 seconds to find the answer...

What is the breakdown in mg? I certainly cannot find it but you Einstein found it in 10 seconds. So let see it......

On Sunday, March 27, 2022 at 2:39:35 PM UTC-7, carleto4...@gmail.com wrote:
> On Sunday, March 27, 2022 at 12:06:21 PM UTC-7, Paul Alsing wrote:
> > On Sunday, March 27, 2022 at 10:12:10 AM UTC-7, carleto4...@gmail.com wrote:
> >
> > > Why is there not a clear analysis of the amount of uranium (in mg) in the contaminated soil at Fukushima?
> > Why not look it up? It took me about 10 seconds to find the answer...

> What is the breakdown in mg? I certainly cannot find it but you Einstein found it in 10 seconds. So let see it......

I'm sorry if you are too ignorant to find this on your own but it is not my job here to do your homework for you...

On Monday, 28 March 2022 at 03:03:21 UTC+2, Paul Alsing wrote:
> On Sunday, March 27, 2022 at 2:39:35 PM UTC-7, carleto4...@gmail.com wrote:
> > On Sunday, March 27, 2022 at 12:06:21 PM UTC-7, Paul Alsing wrote:
> > > On Sunday, March 27, 2022 at 10:12:10 AM UTC-7, carleto4...@gmail.com wrote:
> > >
> > > > Why is there not a clear analysis of the amount of uranium (in mg) in the contaminated soil at Fukushima?
> > > Why not look it up? It took me about 10 seconds to find the answer...
>
> > What is the breakdown in mg? I certainly cannot find it but you Einstein found it in 10 seconds. So let see it......
> I'm sorry if you are too ignorant to find this on your own but it is not my job here to do your homework for you...

Sure, your job is to bark, spit and slander at the enemies
of The Shit. That's what it's training its doggies for.

Here are example approximate half-value layers (thickness of material needed to reduce radiation by half) for a variety of materials against a source of gamma rays (Iridium-192):

Concrete: 44.5 mm
Steel: 12.7 mm
Lead: 4.8 mm
Tungsten: 3.3 mm
Uranium: 2.8 mm`

corium 4750 degree F------------------------carbon/graphite 5000 degree F.

https://www.google.com/search?q=fukushima+corium&rlz=1C1GCEA_enUS999US999&sxsrf=APq-WBudpXRpb4Gscq0KRLG0mCBwtUu8Rg:1648485748190&tbm=isch&source=iu&ictx=1&vet=1&fir=CM8IK3cWjZ37bM%252Cz6joxTh7ZT97KM%252C_%253B5jl9tT89zENp8M%252CIfaXCQ_xu00DQM%252C_%253BhfxPxDflCT714M%252ClsOduq-Jyv5vDM%252C_%253BQhml0n0ZvBknyM%252CdDshEW3dkpOrZM%252C_%253BKpnuLWkxaBXEkM%252CUKR3MGQ-5q6kBM%252C_%253Blme3XzsJ27PAgM%252CSeYV8KVOGLHg6M%252C_%253BF2aMgnQxMkvcnM%252C-zpAGknwQBqzyM%252C_%253BEQEpZ5MGJHWOFM%252CYeNwpwgi_DLkVM%252C_%253BXVrdmnNZwpswAM%252CQ4Z2udT2I7rDcM%252C_%253BSei3pVkyls8wsM%252CQq9EYwCQFxAQTM%252C_%253BYMJW7tWFwzkhkM%252CdDshEW3dkpOrZM%252C_%253BZ9oZCZCRy_MksM%252CByjJn97hLwM-VM%252C_%253Bn8Pswp_xqQtE-M%252ColFt9FtsFhCD2M%252C_%253BMNUg2cP66b87SM%252CaydWD9z56lIKgM%252C_&usg=AI4_-kSf4GRr7YNBVVC_mkVXnppN0aVmTA&sa=X&ved=2ahUKEwiOrMD7n-n2AhUtKEQIHcATBz0Q9QF6BAgCEAE#imgrc=GuTny_GqNeA4ZM

Nuclear Holocaust


This article will analyze the safety of a nuclear power plant. The fuel of a nuclear plant is uranium that is radioactive and extremely toxic. Uranium 238U is a silvery metal that is mined from the earth then the uranium ore is refined (hydrochloric acid) into pure uranium (yellow cake) that is melted and shaped into metal rods that have an approximately length of 12 feet and a diameter of six inches (200 lb). A uranium rod is emitting gamma rays that are massless and can penetrate the adjacent rods resulting in a fission reaction. When the rods are placed close together, the rods interact by gamma rays since neutrons that have a mass cannot propagate through matter. The rods activated by gamma rays result in the rods to heat until glowing hot (fission) which produces the power of a nuclear power plant. The Geiger counter’s clicks are formed by gamma rays since only massless gamma rays can propagate through the detector’s sealed ionization tube. Water and lead control rods are used to control the intensity of the fission reaction of the uranium rods that generated steam that runs a turbine which produces electricity where the steam at a temperature of less than 500o F is produced to prevent the formation of explodable hydrogen gas. The lead control rods encased in stainless steel are inserted between the uranium rods that lead absorbs the gamma rays to slow or stop the reaction. Neutrons, composed of matter, cannot propagate through steel encasement of the control rods that ostensibly contain cadmium or the uranium rods to form a nuclear fission. If the system is not cooling properly and the reactor is not shut down (it takes the minimum of three hours to lower the control rods into the reactor core for a shutdown), the uranium rods begin to melt (2,070o F) resulting in the steam to form hydrogen gas that can detonate uranium producing nuclear fission resulting in a nuclear explosion.
In normal circumstances, after six years, the 200 uranium rods, contained within the core, loss potency since the outer surface of the rods that interact with the gamma rays decay resulting in the uranium rods to reduce (deplete) to an isotope of uranium 235U. The depleted (spent) used rods 235U are replaced with new uranium rods 238U . These used uranium rods are still extremely dangerous since the used depleted uranium is an isotope of uranium that depleted uranium 235 has a half-life of 700 million years and can be reprocessed back to uranium 238. The used (spent) fuel rods are stored in cooling pools (swimming pools containing water) since the used rods can still produce fission but a lower rate. The used rods are submerged in water to keep the rods cool. If the rods stored in a cooling pond are not cooled, the used fuel rods will produce a fission chain reaction and potentially causing a nuclear explosion, if the water leaks out of a cooling pond or water is not continuously added to the pond since the used fuel rods are radiating heat that evaporates the water. The spent fuel uranium rods ponds will have to be maintained for 60,000 years since the depleted uranium is not in fact depleted but highly radioactive and will be as radioactive in 120,000 years as it is today. The overheated spent (depleted) fuel rods can produce a fission reaction and melt. The interaction of the uranium undergoing fission (2,070o F) is detonated with hydrogen gas that producing a nuclear explosion; consequently, these fuel rod should be used, in the reactor core, until they cannot produce fission (20 years instead of six years) that would split the uranium atoms which makes the storage of the spent fuel rods safer. The rods would become brittle after eight-year use in the core producing fission which is solved by placing the deleted uranium rods in a stainless steel tube encasement then reusing the stainless encased depleted uranium rods in the core.

There are an average of two reactors per nuclear power plant and there are 440 nuclear power plants in the world that store there used (spent) fuel rods in on site ponds which is an extremely precarious situation. If all 900 reactors and their respective used uranium rod ponds were to meltdown and explode, all life on earth would terminate, within 120 years and never return. An atomic bomb contains 200 lb of uranium; whereas, a single 30 year old nuclear reactor power plant contains 200 tons of uranium. The combination of nuclear weapons and nuclear power plants plus used uranium rod ponds has an infinite negative potential but the threat can be minimized. In the case of a World War III that subjugates the electrical power grid and nuclear plant personal, a safer method to store the used rods would be to encase the rods in glass or cement, as the French did or still do and the USA says that they do, which purpose is to ensure that the rods are separated since the closeness of the used fuel rods causes the rods to produce a fission reaction. The cement or glass encased fuel rod can then be stored without using cooling ponds and the rods cannot melt down since the melt down of used rods require the proximity of the uranium rods that is eliminated by the cement or glass enclosure. The radiation levels of the rods will stay constant for more than 200,000 years. The Nuclear Regulatory Commission (NRC) is implying that the spent fuel rods are encased in cement and stored outside the reactor in nuclear storage site but only a small amount of the spent fuel is being stored in these sites (less than 3%). Most of the spent fuel is stored on site in ponds (cheap and easy).
A nuclear reactor uses 200 uranium rods that are used for 6 years; therefore, a thirty-year-old nuclear plant with two reactors contains approximately 2,000 rods (200 tons) in ponds which is five times the necessary uranium to run a nuclear plant. A safer method is to build nuclear storage site in the desert far away from the nuclear power plant and to bury (one mile deep) the encased used uranium fuel rods in the desert. Doing this would reduce the potential risk by more than 500%. One cannot be reliant on the NRC for guidance since Tepco nuclear engineers built a cooling pond directly on top of the reactor core that were made by General Electric and the construction was approved by the NRC. The cooling pond, filled with 100 tons of uranium rods, resulting in at least one of the reactors to produce a 50 ton corium fireball that breached the core steel walls and the three meter thick cement core foundation block and is producing a fission reaction 30 meters below the core which would not have occurred if the spent rod cooling ponds were not located directly above the reactor. If the spent fuel rods where stored anywhere beside the top of the core, only one ton of uranium would have be involved but instead 100 tons was part of the blast and fall out. The Fukushima nuclear explosion destroyed half a five-story building with 10-inch-thick concrete walls that enclosed the Fukushima reactor core and produced the enormous and infamous Fukushima nuclear fallout. When the Fukushima reactors exploded, it sent 3,000 uranium rods worth of pulverize uranium, from the cooling ponds atop the core, into the atmosphere which may be the reason scientists are concealing the amount of uranium in the contaminated soil since uranium has a half-life of over one billion years.
Fukushima city will never be habitable unless every uranium particle from the topsoil and groundwater is removed. In Nagasaki and Hiroshima, the nuclear explosion split the uranium atom into smaller radioactive elements (cesium 137, strontium 90 and carbon 14) that have considerable short half-life than uranium; consequently, Nagasaki and Hiroshima are habitual but at Fukushima, the uranium was dispersed as fallout; consequently, Fukushima city will never be habitable useless all the uranium can be removed. One possible method is convert uranium into a form of uranium oxide that is magnetic at low temperature (-130 o F) then use a strong magnet to pick it up the uranium particles from the contaminated soil. Also, to further improve the safety of a nuclear power plant, if the bottom of the reactor were lined with a three-foot-thick flat surface composed of carbon/graphite (max. temp. 5,000o F), the melted corium (max. temp. 4070o F) would not penetrate the core and if an addition graphite pan with a steel foundation was built underneath the core to catch the corium, this would improve the safety. Also, to prevent the nuclear explosion of the reactor core, the addition of reactor core safety valves that would break open and release the steam within the core to prevent the formation of hydrogen gas. The uranium producing fission meltdown will not explode without hydrogen gas which is the detonator. Also, hydrogen gas may be fueling the 50-ton Fukushima fission corium fireball and the layers above the corium is exasperating the problem. To stop the corium fireball (max. temp. 4070o F) inserting a large flat carbon/graphite (max. temp. 5000 o F) pan with a steel foundation below the corium fireball to stop the corium fireball and allow the uranium to spread out on the carbon/graphite pan which would stop the fission process. Remove all of the structure above the corium fireball and fully exposed on fireball then eliminate the sides that is holding the corium fireball and release the corium fireball. When the fireball losses it’s structure the fireball meltdown will end. If the nuclear fission corium fireballs at Fukushima are not stopped all the water in the entire world will eventually become radioactive (500 years) and there are potentially 440 more Fukushima’s.

M28

Nuclear Holocaust

This article will analyze the safety of a nuclear power plant. The fuel of a nuclear plant is uranium that is radioactive and extremely toxic. Uranium 238U is a silvery metal that is mined from the earth then the uranium ore is refined (hydrochloric acid) into pure uranium (yellow cake) that is melted and shaped into metal rods that have an approximately length of 12 feet and a diameter of six inches (200 lb). A uranium rod is emitting gamma rays that are massless and can penetrate the adjacent rods resulting in a fission reaction. When the rods are placed close together, the rods interact by gamma rays since neutrons that have a mass cannot propagate through matter. The rods activated by gamma rays result in the rods to heat until glowing hot (fission) which produces the power of a nuclear power plant. The Geiger counter’s clicks are formed by only gamma rays since only massless gamma rays can propagate through the detector’s sealed ionization tube. Water and lead control rods are used to control the temperature of the fission reaction (572 o F) of the uranium rods that generate steam that runs a turbine. The lead control rods encased in stainless steel are inserted between the uranium rods that lead absorbs the gamma rays to slow or stop the fission reaction. Neutrons, composed of matter, cannot propagate through steel encasement of the control rods that ostensibly contain cadmium nor can gamma rays penetrate the uranium rods to form a nuclear fission. When the uranium rods are not cooling properly and the reactor is not shut down (it takes the minimum of three hours to lower the control rods into the reactor core for a shutdown), the uranium rods begin to melt (2,070 o F) resulting in the steam to form hydrogen gas that can produce a nuclear explosion..

In normal circumstances, after six years of use, the 200 uranium rods producing fission, contained within the core, decrease in the rate of fission since the outer surface of the rods that interact with the gamma rays decay resulting in the uranium rods to reduce (deplete) to an isotope of uranium 235U. The depleted (spent) used rods 235U are replaced with new uranium rods 238U. These used uranium rods are still extremely dangerous since the used depleted uranium is an isotope of uranium that depleted uranium 235 has a half-life of 700 million years and can produce fission. The used (spent) fuel rods are stored in cooling pools (swimming pools containing water) since the used rods can still produce fission at a lower rate. The used rods are submerged in water to keep the rods cool. When the rods stored in a cooling pond are not cooled, the used fuel rods will produce a fission chain reaction and can cause a nuclear explosion, when the water leaks out of a cooling pond or water is not continuously added to the pond since the used fuel rods are radiating heat that evaporates the water. The spent fuel uranium rods ponds will have to be maintained for 60,000 years since the depleted uranium is not in fact depleted but highly radioactive and will be as radioactive in 120,000 years as they are today. The overheated spent (depleted) fuel rods can produce a fission reaction and produce a nuclear explosion; consequently, these fuel rod should be used, in the reactor core, until they cannot produce fission (20 years instead of six years) that would split the uranium atoms which makes the storage of the spent fuel rods safer but the rods are said to become brittle after eight-year use in the core producing fission which is solved by placing the deleted uranium rods in a stainless steel tube encasement then reusing the stainless encased depleted uranium rods.

There are an average of two reactors per nuclear power plant and 440 nuclear power plants in the world that store their used (spent) fuel rods in on site ponds which is an extremely precarious situation. If all 900 reactors and their respective used uranium rod ponds were to meltdown and explode, all life on earth would terminate, within 120 years and never return. An atomic bomb contains 200 lb of uranium; whereas, a single 30 year old nuclear reactor power plant contains 200 tons of uranium. The combination of nuclear weapons and nuclear power plants plus the used uranium rod ponds is an extremely dire situation that can be minimized. In the case of a World War III that subjugates the electrical power grid and nuclear plant personal, a safer method to store the used rods would be to encase the rods in glass or cement, as the French did or still do and the USA says that they do, which purpose is to ensure that the rods are separated since the closeness of the used fuel rods causes the rods to produce a fission reaction. The cement or glass encased fuel rod can then be stored without using cooling ponds and the rods cannot melt down since the melt down of used rods require the proximity of the uranium rods that is eliminated by the cement or glass enclosure. The radiation levels of the rods will stay constant for more than 200,000 years. The Nuclear Regulatory Commission (NRC) is implying that the spent fuel rods are encased in cement and stored outside the reactor in nuclear storage sites but only a small amount of the spent fuel is being stored in these sites (less than 3%). Most of the spent fuel is stored on nuclear power plants in ponds.

A nuclear reactor uses 200 uranium rods that are used for 6 years; therefore, a thirty-year-old nuclear plant with two reactors contains approximately 2,000 rods (200 tons) in ponds which is five times the necessary uranium to run a nuclear plant. A safer method is to build nuclear storage sites in the desert far away from the nuclear power plant and to bury (one mile deep) the encased used uranium fuel rods in the desert which would reduce the risk by more than 500%. One cannot be reliant on the NRC for guidance since Tepco nuclear engineers built a cooling pond directly on top of the reactor core that was made by General Electric and the construction was approved by the NRC. The cooling pond, filled with 100 tons of uranium rods, resulted in at least one of the reactors to produce a 50-ton corium fireball that breached the core steel walls and the three meter thick cement (melt pt. 2,700 o F) core foundation block and the corium fireball is currently producing a fission reaction 30 meters below the core which would not have occurred if the spent rod cooling ponds were not located anywhere except directly above the reactor. The NRC was attempting to destroy the earth using a 50-ton corium fireball by penetrating the core of the earth. Also, the Fukushima nuclear explosion destroyed half a five-story building with 10-inch-thick concrete walls that enclosed the Fukushima reactor core and produced the enormous and infamous Fukushima nuclear fallout. When the Fukushima reactors exploded, it sent 1,000 uranium rods worth of pulverized uranium (10 tons), from the cooling ponds atop the core, into the atmosphere forming the fallout and 10 tons of uranium to form the corium fireball.

Fukushima city will never be habitable unless every uranium particle from the topsoil and groundwater is removed. In Nagasaki and Hiroshima, the nuclear explosion split the uranium atom into smaller radioactive elements (cesium 137, strontium 90 and carbon 14) that have considerable short half-life than uranium; consequently, Nagasaki and Hiroshima are habitual but at Fukushima, a large amount of uranium was dispersed as fallout (more than 10 ton); consequently, Fukushima city will never be habitable useless all the uranium can be removed. One possible uranium removal method is to convert uranium into a form of uranium oxide that is magnetic at low temperature (-130 o F) then use a strong magnet to pick up the uranium particles from the contaminated soil. Also, to further improve the safety of a nuclear power plant, if the bottom of the reactor were lined with a three-foot-thick flat surface composed of carbon/graphite (max. temp. 5,000 o F), the melted corium (max. temp. 4070 o F) would not penetrate the core and if an additional graphite pan with a steel foundation was built underneath the core to catch the corium, this would also improve the safety. Plus, to prevent the nuclear explosion of the reactor core, the addition of reactor core safety valves that would break open and release the steam within the core to prevent the formation of hydrogen gas. The uranium gas (7,468 o F) will not explode without hydrogen gas. Also, hydrogen gas may be fueling the 50-ton Fukushima fission corium fireball and the layers above the corium are exacerbating the problem.

To stop the corium fireball (max. temp. 4070 o F). First, inserting a one-meter-thick flat carbon/graphite (max. temp. 5000 o F) pan (25 x 25 meter) with a steel foundation below the corium fireball. Use the same machinery that underground subways are constructed. On top of the carbon/graphite (CG) pan stack CG bricks 1.5 ft x 6 inches x 8 inches on top of the CG pan (20 layers). When the fireball melts, the melted uranium should flow between the bricks producing separation that should stop the fission reaction. Next, remove all of the physical structure above and around the corium fireball then used four small robotic bulldozers encased in two inches of lead around the electrical circuit then excavate around the corium fireball and build small trenches radiating outwardly from the corium fireball that will allow the melted uranium to flow along the trenches. To attack the fireball, shut off the water, which will melt the fireball and allow the uranium to flow in the trenches radiating outwardly around the corium fireball which should stop the fireball. The fight will be to operate the robotics machinery to dig the trenches lined with carbon/graphite, close to the corium fireball, because of the gamma rays. Attach heavy chains to the bulldozers to drag them out if they malfunction and have personnel ready to operate the equipment. The bricks are a backup plan and when both strategies do not work you can turn the water back on. M29.

Sometimes a man or women can find his or her destiny on the road he or she choose to avoid.

Nuclear Holocaust

This article will analyze the safety of a nuclear power plant. The fuel of a nuclear plant is uranium that is radioactive and extremely toxic. Uranium 238U is a silvery metal that is mined from the earth then the uranium ore is refined (hydrochloric acid) into pure uranium (yellow cake) that is melted into small cylindrical pellets (2 inch long and .25 inch diameter) that are inserted into a 12 ft hollow steel tube where 226 tubes filled with uranium pellets are stacked to form a 12 feet uranium rod (1,000 lb). A uranium rod is emitting gamma rays that are massless and can penetrate the adjacent rods resulting in a fission reaction. When the rods are placed close together, the rods interact by gamma rays since neutrons that have a mass cannot propagate through matter. The rods activated by gamma rays result in the rods to heat until glowing hot (fission) which produces the power of a nuclear power plant. The Geiger counter’s clicks are formed by only gamma rays since only massless gamma rays can propagate through the detector’s sealed ionization tube. Water and boron steal control rods are used to control the temperature of the fission reaction (572o F) of the uranium rods that generate steam that runs a turbine. The boron control rods encased in stainless steel are inserted between the uranium rods that boron absorbs the gamma rays to slow or stop the fission reaction. Neutrons, composed of matter, cannot propagate through steel encasement of the control rods that contain the boron can neutrons, that have a mass, penetrate the uranium rods to form a nuclear fission. When the uranium rods are not cooling properly or the reactor is not shut down (it takes the minimum of three hours to lower the control rods into the reactor core for a shutdown), the uranium rods begin to melt (2,070o F) resulting in the steam to form hydrogen gas that can produce a nuclear explosion.

In normal circumstances, after six years of use, the 200 uranium rods, loss potency which results in the decrease in the rate of fission since the gamma rays decay the uranium pellets resulting in the uranium rods to reduce (deplete) to an isotope of uranium 235U. The depleted (spent) used rods are replaced with new uranium rods 238U. These used uranium rods are still extremely dangerous since the used depleted uranium is an isotope of uranium that depleted uranium 235 has a half-life of 700 million years and can produce fission. The fires of the Fukushima spent fuel rod pools at number 4 reactor was caused by the water overheating (+600o F) and producing hydrogen gas that began to burn. The used (spent) fuel rods are stored in cooling pools (swimming pools containing water) since the used rods can still produce fission but at a lower rate. The used rods are submerged in water to keep the rods cool. When the rods stored in a cooling pond are not cooled, the used fuel rods will produce fission chain reaction and can cause a nuclear explosion, when the water leaks out of a cooling pond or water is not continuously added to the pond since the used fuel rods are radiating heat that evaporates the water. The spent fuel uranium rods ponds will have to be maintained for 60,000 years since the depleted uranium is not in fact depleted but highly radioactive and will be as radioactive in 120,000 years as they are today and the deleted uranium can be used to make an atomic bomb (75%). The overheated spent (depleted) fuel rods can produce a fission reaction and produce a nuclear explosion if interacting with trapped hydrogen gas created by the water that is overheated and sealed with a core or cement building; consequently, these fuel rod should be used, in the reactor core, until a significant amount of the uranium cannot produce fission (20 years instead of six years) that would split the uranium atoms which makes the storage of the spent fuel rods safer but the rods’ structure are said to become brittle after eight-year use in the core which is solved by re-encasing the deleted uranium pellets in new stainless steel tube encasements then reusing the stainless encased depleted uranium rods.

There are an average of two reactors per nuclear power plant and 440 nuclear power plants in the world that store their used (spent) fuel rods in on site ponds which is an extremely precarious situation. If all 900 reactors and their respective used uranium rod ponds were to meltdown and explode, all life on earth would terminate, within 120 years and never return. Nuclear power plant explosions are extremely dirty since a large amount of whole uranium is released as fallout. An atomic bomb contains 200 lb of uranium; whereas, a single 30 year old nuclear reactor power plant contains 400 tons of uranium. The combination of nuclear weapons and nuclear power plants plus the used uranium rod ponds is an extremely dire situation that can be minimized. In the case of a World War III that subjugates the electrical power grid and nuclear plant personal, a safer method to store the used rods would be to encase the rods in glass or cement, as the French did or still do and the USA says that they do, which purpose is to ensure that the rods are separated since the closeness of the used fuel rods causes the rods to produce a fission reaction. The cement or glass encased fuel rod can then be stored without using cooling ponds and the rods cannot melt down since the melt down of used rods require the close proximity of the uranium rods that is eliminated by the cement or glass enclosure. The radiation levels of the rods will stay constant for more than 200,000 years. The Nuclear Regulatory Commission (NRC) is implying that the spent fuel rods are encased in cement and stored outside the reactor in nuclear storage sites but only a small amount of the spent fuel is being stored in these sites (less than 3%). Most of the spent fuel is stored on nuclear power plants in ponds.

A nuclear reactor uses 200 uranium rods that are used for 6 years; therefore, a thirty-year-old nuclear plant with two reactors contains approximately 2,000 rods (400 tons) in ponds which is five times the necessary uranium to run a nuclear plant. A safer method is to build nuclear storage sites in the desert far away from the nuclear power plant and to bury (one mile deep) the encased used uranium fuel rods in the desert which would reduce the risk by more than 500%. One cannot be reliant on the NRC for guidance since Tepco nuclear engineers built cooling pools were built directly on top of the core (3. Upper pool) (https://nuclearstreet.com/nuclear-power-plants/w/nuclear_power_plants/mark-iii-containment) and pools next to the reactor core, near the top of the reactor core. When the reactor explored the cooling pools filled with uranium rods became part of the Fukushima fallout and corium fission-mass that melted through the core and cement base. The reactor and pool structure was constructed by General Electric nuclear engineers (General Electric Mark III Containment reactor) and the construction was approved by the NRC. The cooling pond, filled with 200 tons of uranium rods, resulted in at least one of the reactors to produce a 100 ton corium fission-ball that melted through the reactor core’s steel walls and the three meter thick cement (melt pt. 2,000o F) core foundation block and the corium fission-ball is currently producing a fission reaction 30 meters below the core (that is being cooled with sea water) which would not have occurred if the spent rod cooling pools were located anywhere except near the top of the reactor. The NRC part of a plan at attempting to destroy the earth using a 100-ton corium fission-ball, created by the spent fuel pools, located at the top of the core, that fission-mass was going to penetrating the core of the earth. There are currently 67 old nuclear reactor using the GE Mark III containment and reactor structure that have fuel pools at the top of the reactor. Also, the Fukushima explosion was a nuclear explosion that destroyed half a five-story building with 10-inch-thick concrete walls that enclosed the Fukushima reactor core and produced the enormous and infamous Fukushima nuclear fallout that includes radioactive 137-cessium which proves the Fukushima explosions were nuclear explosions that were contained by the core since 137-cesium is part of the nuclear explosion. They want to try to conceal that it was not a nuclear explosion but want to highlight that 137 cesium is the radioactive produce that is causing the radiation since 137-cesium has a short half-life but 137-cesium proves a extremely dirty nuclear explosion occurred. When the Fukushima reactors exploded, it sent 3,000 uranium rods worth of pulverized uranium (40 tons), from the cooling ponds atop the core, into the atmosphere forming the fallout and 100-tons of uranium to form the corium fission-mass.

Fukushima city will never be habitable unless every uranium particle from the topsoil, trees, animals and groundwater is removed. In Nagasaki and Hiroshima, the nuclear explosion split the uranium atom into smaller radioactive elements (cesium 137, strontium 90 and carbon 14) that have considerable short half-life than uranium; consequently, Nagasaki and Hiroshima are habitual since an atomic bomb is a clean nuclear bomb but at Fukushima, a large amount of uranium was dispersed as fallout (more than 50 ton). The explosion of a nuclear power plant is extremely dirty in term of the type of radioactive particles being distributed as fallout. Fukushima prefecture will never be habitable, even in 10,000 years, since the radiation levels will only slight decrease in 100 years caused by rain runoff but the uranium intensity that remains will not decrease, useless all the uranium is removed. Every little, tiny tinny speck of uranium dust must be isolated and removed. There are no short cuts and covering up the problem is only making the problem worst for Japan and the World since there is an uncontrollable corium fission mass at the bedrock that is being cooled with water an creating an enormous amount of radioactive water. More radioactive water is being released into the sea than all the radioactive water ever produced by all the nuclear power plant and the problem is never going to go away. One possible uranium removal method to possibly make Fukushima habitable again is to convert uranium into a form of uranium oxide that is magnetic at low temperature (-130o F) then use a strong magnet to pick up the uranium particles from the contaminated soil which would be a start. It would also be helpful if the amount of radioactive material in the soil in mg was publish which the authorities are concealing since they are hiding that uranium is involved. Also, to further improve the safety of a nuclear power plant, if the bottom of the reactor were lined with a three-foot-thick flat surface composed of carbon/graphite (max. temp. 5,000o F), the melted corium (max. temp. 4070o F) would not penetrate the core and if an additional graphite pan with a steel foundation was built underneath the core to catch the corium and spread the corium out on the carbon/graphite pan this would stop the fission reaction by eliminating the proximity factor which would also improve the safety. Plus, to prevent the nuclear explosion of the reactor core, the addition of reactor core safety valves that would break open and release the steam within the core to prevent the formation of hydrogen gas. The uranium will not explode without hydrogen gas. Also, hydrogen gas may be fueling the 50-ton Fukushima fission corium fireball and the layers above the corium are exacerbating the problem.

No one should go into Fukushima unless absolutely necessary and always ware a mask and do not touch anything or go into any of the buildings.

Tepco estimates published in May 2012 showed a total of about 1020 PBq released to the atmosphere over 12-31 March 2011 (after which very little was released). Apart from noble gases this comprised 500 PBq iodine-131, 10 PBq Cs-137 and 10 PBq Cs-134. In iodine-131 equivalent terms this comes to 500 + 400 + 40 = 940 PBq iodine-131 eq released to the atmosphere. In addition, 500 PBq noble gases was estimated, mainly xenon-133. This is normally disregarded since it is not biologically active and has only a 5-day half-life. Of the total releases, about 20% came from unit 1, 40% from unit 2 (peak on 15 March), and 40% from unit 3 (peak on 16 March). Releases to the ocean over 26 March to 30 September were about 11 PBq iodine-13, 3.5 PBq Cs-134, 3.6 PBq Cs-137, total 18.1 PBq (or 169 PBq I-131 eq) apart from atmospheric fallout. Relatively little radioactive material was released by the active venting of pressure inside the reactor vessels (routing steam through water and releasing it through the exhaust stacks) or by the hydrogen explosions.

https://world-nuclear.org/information-library/safety-and-security/safety-of-plants/appendices/fukushima-radiation-exposure.aspx

Amazing, absolutely no trace of Uranium. What happen to it all?

The Chernobyl nuclear power plant disaster led to the release of 13 650 × 1018 Becquerel (Bq) (Martin-Garin et al2012) and contributed significantly to the dispersal of many radioactive isotopes in the environment such as 137Cs, 90Sr, 60Co, 154Eu, 241Am, 234,235,236U and 239,240,241Pu, exhibiting different kinds of radiation

https://academic.oup.com/femsec/article/doi/10.1093/femsec/fix079/3883766

Yet at Chernobyl uranium was present in the soil

Nuclear Holocaust

This article will analyze the safety of a nuclear power plant. The fuel of a nuclear plant is uranium that is radioactive and extremely toxic. Uranium 238U is a silvery metal that is mined from the earth then the uranium ore is refined (hydrochloric acid) into pure uranium (yellow cake) that is melted into small cylindrical pellets (2 inch long and .25-inch diameter) that are inserted into a 12 ft hollow steel tube where 226 tubes filled with uranium pellets are stacked to form a 12 feet uranium rod (1,000 lb). A uranium rod is emitting gamma rays that are massless and can penetrate the adjacent rods resulting in a fission reaction. When the rods are placed close together, the rods interact by gamma rays since neutrons that have a mass cannot propagate through matter. The rods activated by gamma rays result in the rods to heat until glowing hot (fission) which produces the power of a nuclear power plant. The Geiger counter’s clicks are formed by only gamma rays since only massless gamma rays can propagate through the detector’s sealed ionization tube. Water and boron steel control rods are used to control the temperature of the fission reaction (572o F) of the uranium rods that generate steam that runs a turbine. The boron control rods encased in stainless steel are inserted between the uranium rods that boron absorbs the gamma rays to slow or stop the fission reaction. Neutrons, composed of matter, cannot propagate through steel encasement of the control rods that contain the boron can neutrons, that have a mass, penetrate the uranium rods to form a nuclear fission. When the uranium rods are not cooling properly or the reactor is not shut down (it takes the minimum of three hours to lower the control rods into the reactor core for a shutdown), the uranium rods begin to melt (2,070o F) resulting in the steam to form hydrogen gas that can produce a nuclear explosion.

In normal circumstances, after six years of use, the 200 uranium rods, undergoing fission, loss radioactivity which results in the decrease in the rate of fission since the gamma rays decay the uranium resulting in the uranium rods to reduce (deplete) to an isotope of uranium 235U. The depleted (spent) used rods are replaced with new uranium rods 238U. These used uranium rods are still extremely dangerous since the used depleted uranium is an isotope of uranium that depleted uranium 235 has a half-life of 700 million years and can produce fission. The fire of the Fukushima spent fuel rod pools at reactor 4 was caused by the water overheating (+600o F) and producing hydrogen gas that began to burn. The used (spent) fuel rods are stored in cooling pools (large swimming pools containing water) since the used rods can still produce fission but at a lower rate. The used rods are submerged in water to keep the rods cool. When the rods stored in a cooling pond are not cooled, the used fuel rods will produce fission chain reaction and can cause a nuclear explosion, when the water leaks out of a cooling pond or water is not continuously added to the pond since the used fuel rods are radiating heat that evaporates the water. The spent fuel uranium rods ponds will have to be maintained for 60,000 years since the depleted uranium is not in fact depleted but highly radioactive and will be as radioactive in 120,000 years as they are today and the deleted uranium can be used to make an atomic bomb (75%). The overheated spent (depleted) fuel rods can produce a fission reaction and produce a nuclear explosion if hydrogen gas od trapped in the core; consequently, these fuel rod should be used, in the reactor core, until a significant amount of the uranium cannot produce fission (20 years instead of six years) that would split the uranium atoms which makes the storage of the spent fuel rods safer. The rods’ structure are said to become brittle after eight-year use in the core which is solved by re-encasing the deleted uranium pellets in new stainless steel tube encasements then reusing the stainless encased depleted uranium rods.

There are an average of two reactors per nuclear power plant and 440 nuclear power plants in the world that store their used (spent) fuel rods in on site ponds which is an extremely precarious situation. If all 900 reactors and their respective used uranium rod pools were to meltdown and explode, all life on earth would terminate, within 120 years and never return. Nuclear power plant explosions are extremely dirty since a large amount of whole uranium is released as fallout. An atomic bomb contains 200 lb of uranium; whereas, a single 30 year old nuclear reactor power plant contains 400 tons of uranium. The combination of nuclear weapons and nuclear power plants plus the used uranium rod ponds is an extremely dire situation that can be minimized. In the case of a World War III that subjugates the electrical power grid and nuclear plant personal, a safer method to store the used rods would be to encase the rods in glass or cement, as the French did or still do and the USA says that they do, which purpose is to ensure that the rods are separated since the closeness of the used fuel rods causes the rods to produce a fission reaction. The cement or glass encased fuel rod can then be stored without using cooling ponds and the rods cannot meltdown since the melt down of used rods require the close proximity of the uranium rods that is eliminated by the cement or glass enclosure. The radiation levels of the rods will stay constant for more than 200,000 years. The Nuclear Regulatory Commission (NRC) is implying that the spent fuel rods are encased in cement and stored outside the reactor in nuclear storage sites but only a small amount of the spent fuel is being stored in these sites (less than 3%). Most of the spent fuel is stored on nuclear power plants in ponds.

A nuclear reactor uses 200 uranium rods that are used for 6 years; therefore, a thirty-year-old nuclear plant with two reactors contains approximately 2,000 rods (1,000 tons) in pools which is five times the necessary uranium to run a nuclear plant. A safer method is to build nuclear storage sites in the desert far away from the nuclear power plant and to bury, without air pockets, the encased used uranium fuel rods in the desert which would reduce the risk by more than 500%. One cannot be reliant on the NRC for guidance since Tepco nuclear engineers built cooling pools next to the reactor core, near the top of the reactor core. When the reactor core exploded, the cooling pools filled with uranium rods became part of the Fukushima fallout and corium fission-mass that melted through the core and cement base. The reactor and pool structure was constructed by General Electric nuclear engineers (General Electric Mark III Containment reactor) and the construction was approved by the NRC. The cooling pool, filled with 200 tons of uranium rods, resulted in at least one of the reactors producing a 50 - 100 ton corium fission-ball (CFB) that melted through the reactor core’s steel walls and the three meter thick cement (melt pt. 2,000o F) core foundation block and the corium fission-ball is currently producing a fission reaction 30 meters below the core (that is being cooled with water) which would not have occurred if the spent rod cooling pools were located anywhere except near the top of the reactor.

There are GE Mark III containment and reactor structures that have fuel pools at the top of the reactor still being used today. Also, the Fukushima explosion was a nuclear explosion that destroyed a 5-inch thick steel core and half a eight-story building with 10-inch-thick concrete walls that enclosed the Fukushima reactor core and produced the infamous Fukushima nuclear fallout that includes radioactive 137-cesium which proves the Fukushima explosions were nuclear explosion. Tepco is concealing that it was a nuclear explosion but wants to highlight that 137 cesium is the radioactive product that is causing the radiation since 137-cesium has a short half-life but 137-cesium proves a nuclear explosion occurred. When the Fukushima reactors exploded, it sent 3,000 uranium rods worth of pulverized uranium (more than 200 tons), from the cooling ponds atop the core, into the atmosphere forming the fallout and 100-tons of uranium to form the corium fission-mass (CFM). Tepco is improperly storing the contaminated soil since another tsunami could wash the contaminated soil into the ocean which would be catastrophic since rain originates from the ocean. Current US federal occupational limit of exposure for an adult is 5.3 Rad/yr (.057 Sv/yr). The dose of 250 to 500 rad/yr (2.5 to 5 Sv/yr) would kill half the exposed population with radiation sickness. Today Fukushima city (45 miles from the nuclear power plant) produces 8 micro Sv/hr or 8 x 10-3 Sv/hr (24hr /day) (364 days/yr) = 70 Sv/yr = 7000 rad/yr.

Fukushima city will never be habitable unless every uranium particle from the topsoil, trees, animals and groundwater is removed. In Nagasaki and Hiroshima, the nuclear explosion split the uranium atom into smaller radioactive elements (cesium 137, strontium 90 and carbon 14) that have considerable short half-life than uranium and only 200 lb of Uranium was used; consequently, Nagasaki and Hiroshima are habitual since an atomic bomb is a clean nuclear explosion but at Fukushima, a large amount of uranium was dispersed as fallout (more than 50 ton). The explosion of a nuclear power plant is extremely dirty since whole uranium particles were distributed as fallout. Fukushima prefecture will never be habitable, even in 10,000 years, since the radiation levels will not decrease in one million years unless all the uranium is removed. Every little, tiny tinny speck of uranium dust must be isolated and removed. One possible uranium removal method to make Fukushima city habitable again is to convert uranium into a form of uranium oxide that is magnetic at low temperature (-130o F) then use a strong magnet to pick up the uranium particles from the contaminated soil. There are no shortcuts and covering up the problem is only making the problem worse for Japan and the World since there is an uncontrollable corium fission-ball at the bedrock that is being cooled with water and creating an enormous amount of radioactive water. More radioactive water is being released into the sea, at Fukushima, than all the radioactive water ever produced by all the nuclear power plants and the problem is never going to go away. Also, to further improve the safety of a nuclear power plant, if the bottom of the reactor were lined with a three-foot-thick flat surface composed of carbon/graphite (max. temp. 5,000o F), the melted corium (max. temp. 4070o F) would not penetrate the core and if an additional granite slab were placed underneath the core to catch the corium and spread the corium out to stop the fission reaction.. Plus, to prevent the nuclear explosion of the reactor core, if the top of the core could pop off during a meltdown to prevent the accumulation of hydrogen gas. The uranium will not explode without hydrogen gas. Also, hydrogen gas may be fueling the 50-ton Fukushima fission corium fission-ball (CFB) and the layers above the corium are exacerbating the problem.

Since the result of Michelson's experiment was negative then what is the purpose of Michelson-Morley experiment? To confirm a negative result is negative???

Normally when you obtain a positive result and you confirm it with another experiment but a negative result? And what does the negative result of MX and MMX confirm---the non existence of the ether.

carl eto <carleto4157990662@gmail.com> wrote:
> Since the result of Michelson's experiment was negative then what is the
> purpose of Michelson-Morley experiment? To confirm a negative result is negative???
>

If you have a theory that demands there is gold six inches under your back
yard, and another theory that says no gold, and you dig up your whole back
yard and there’s a negative result, what do you learn?

--
Odd Bodkin -- maker of fine toys, tools, tables