The area that a nuclear bomb can affect depends on its size and yield. A typical nuclear bomb can have a blast radius ranging from a few hundred meters to several kilometers and can cause destruction over a wide area due to the intense heat, blast wave, and radiation. The effects can vary based on factors such as the weapon's design, delivery method, and surrounding terrain.
Stratus clouds typically form in layers and have a low altitude, extending horizontally rather than vertically. They can cover large areas of the sky and vary in size depending on atmospheric conditions, but they are generally considered to be extensive and widespread.
It is a one of two main types of nuclear weapons. Commonly called the H-bomb, the hydrogen bomb, or the thermonuclear bomb, the fusion bomb relies on the fusion of light isotopes (usually of hydrogen and sometimes helium) to create a large amount of its energy. This is different from fission bombs, that release energy but inducing a neutron chain reaction to split large atoms in metals like Uranium 235 and Plutonium 329. The fusion bomb was invented in the decade after the first nuclear weapons were designed in the early 1940's. The fusion bombs in use today all rely on a fission bomb first stage (called a "primary") to compress and heat a second fusion stage (called a "secondary"). The second stage has a thick shell of dense metal (which can be a fissionable metal, but need not be) on the outside and is filled with fusion fuel (hydrogen isotopes, or more usually a lithium-hydrogen compound [LiD]). It is usually round. In the center of the fusion fuel is another piece of fissile metal (usually Plutonium 239) called a "spark plug." These two stages are placed inside a case of dense metal, usually shaped like a peanut, with one stage at each end. When the fission primary goes off, x-ray radiation floods down around the fusion secondary instantly heating its metal shell and causing it to implode inwards as it outer layers explode away. This is called "radiation implosion." As the shell of the secondary implodes, it compresses both the fusion fuel and the "spark plug." The "spark plug" quickly is crushed to such a density that it is supercritical and it fissions and explodes against the fusion fuel which is still being crushed inward by the radiation implosion. The effect is that the fission primary is pushing inward on the secondary while the spark plug (basically another fission bomb) explodes outward--the fusion fuel is caught between. That fuel is heated and compressed (and any lithium transmuted) to such a degree that fusion can finally occur. The lite isotopes fuse and some mass it converted in to huge amounts of energy. A large number of fast neutrons are also produced. if the casing of the bomb or the metal shell of the secondary are made of uranium of thorium of a similar fissionable metal, these neutrons will fission the metal producing even more energy (this can almost double the yield in designs that use such metals as well as increasing fallout dramatically.) It is possible to add additional fusion stages, (which has been done in practice), though any number of additional ever-larger stages is possible. Thus, theoretically, a fusion bomb of unlimited size can be build. While most nuclear weapons existing today are fusion designs, most of them are no larger than the largest fission bomb (500kt), since military needs actually favor smaller weapons over big yields. All of the biggest nuclear bombs ever built have been fusion bombs. The largest bomb detonated was a fusion bomb that was equivalent to 50 million tons of TNT. The largest fission bomb tested was only one 100th as powerful, yielding 500 kilotons (half a million tons of TNT), which is still more than 20 times more powerful than the weapon dropped on Nagasaki.
The western side of the Big Island (Kona) typically receives the least amount of rainfall compared to the eastern side (Hilo). This is due to the rain shadow effect caused by the island's volcanoes blocking moisture from reaching the leeward side.
The main source of hydrogen in the universe is the Big Bang, which created hydrogen atoms during the early stages of the universe's formation. Stars also play a crucial role in generating hydrogen through nuclear fusion in their cores.
The total land area on Earth is approximately 57.5 million square miles. This accounts for about 29% of the planet's surface area, with the majority of it being located in the Northern Hemisphere.
That depends on how big the nuclear bomb is.
The size of the area destroyed by a nuclear bomb depends on its yield. A small nuclear bomb with a yield of 1 kiloton could destroy buildings within a few city blocks, while a larger bomb with a yield of 1 megaton could impact several square miles. The damage would also vary based on the bomb's design, height of detonation, and local geography.
It wasn't just one bomb.. It was a huge nuclear bombardment during the Great War with China.
The distance a nuclear bomb can reach depends on various factors such as the size of the bomb, the altitude at which it detonates, weather conditions, and landscape. Generally, a large nuclear bomb could have a blast radius of several miles and cause destruction over a wider area through the effects of heat, blast, and radiation.
An nuclear bomb is purposefully release to pulse out damage. A nuclear accident, on the other hand, is an accident when a nuclear source (usually referring to a nuclear plant) either blows up or leaks. Although it is normally weaker and less dangerous than a nuclear bomb, a big enough explosion or a serious enough nuclear meltdown can break that limit.
The largest nuclear bomb ever detonated was the Soviet Union's Tsar Bomba in 1961, which had a yield of 50 megatons. It was the most powerful nuclear weapon ever created and tested.
Big boom!!
It is unlikely for a nuclear bomb or reaction to blow up a whole state. The explosive power of a nuclear bomb is devastating, but the physical size of a typical state is much larger. The impact of a nuclear explosion would be significant within a certain radius, but it would not cover an entire state.
That depends on the cube root of the yield. The fireball of a 10 megaton bomb reaches about 3 miles diameter.
Iran wants to be big man in the neighborhood. Not yet.___________________________________________Iran never declared that it needs a nuclear bomb and never tried to have it. Iran; as declared; is building up a peaceful nuclear power program.
None at all.
Nuclear bombs have the potential to create extremely large explosions, depending on their size and design. The most powerful nuclear bomb ever detonated, the Tsar Bomba, had an explosive yield of about 50 megatons (equivalent to 50 million tons of TNT) and created a blast radius of over 20 miles.