The difference is the source of explosive energy, the temperature, and the reaction rate:
A hydrogen bomb is approximately 4.87 times more powerful than an atom bomb. What makes these bombs so powerful is that hydrogen is an extremely inflammable and explosive gas. When the bomb is released, the special coating used on its shell captures tons of friction, which heats the bomb. Then the detonator button is pressed, and the bomb blows up. Also, if the bomb comes in contact with the ground, before the button is pressed, then the heat absorbed by the bomb will set fire to the hydrogen inside and blow the bomb up.
Troponin I (TnI) and troponin T (TnT) are proteins found in cardiac muscle cells. They both play a role in regulating muscle contraction. TnI is specific to cardiac muscle, while TnT can be found in both cardiac and skeletal muscle. In the context of heart attacks, TnI is more specific and sensitive for detecting cardiac muscle damage compared to TnT.
The short answer is that the hydrogen bomb -- the fusion bomb -- was the natural extension of the relatively simple fission bombs used over Japan in WWII. The very creation of the fission "atomic" bomb made possible the pressures and temperatures needed to foster a fusion reaction. Doing so promised to unleash a level of energy and power unheard of even within the circles of Los Alamos. More to the point, the Soviet Union had been conducting a crash development program to create an atomic bomb after WWII, a program that used the Soviet bomb research, but added to it all the missing pieces supplied to them by agents in the US. Spies like Klaus Fuchs and Ethel and Julius Rosenberg supplied the USSR with the design details for the basic A-bomb. In 1949, about the same time they figured out how to reverse-engineer a B-29, the Soviets detonated an atomic bomb. Having stolen secrets far beyond the mere "firecracker" of a fission A-bomb, the Soviets immediately embarked on a crash program to develop the same thing the Americans were working on -- the fusion bomb. The "hydrogen" bomb, or "thermonuclear" bomb, borrows its power and its design from our sun. The star we depend on is powered by a never-ending cycle of nuclear fusion and fission. The "hydrogen" bomb works by using the heat and energy of fission to create fusion, then the heat and energy of fusion to create fission again. It works pretty well; the numbers went from kilotons of TNT to megatons of TNT. Why was it created? It was the logical extension of the fission bomb. It was the BIGGEST bomb around. It allowed one to place the word "megaton" into one's dictionary. American megatons and Soviet megatons lubricated the Cold War. For over forty years, East faced West, megatons in holsters at hips, and not one nuclear shot was fired. (The Cuban Missile Crisis in 1962 was ugly, but in the end, it was settled diplomatically.) No shots were fired because everyone was afraid that somebody somewhere might launch a missile or fire a shot that carried a "hydrogen bomb."
Explosive devices such as bombs do not typically contain francium as it is extremely rare and highly reactive. Instead, bombs are usually made using chemicals that release large amounts of energy when they react, such as explosives like TNT or RDX.
The V-1 rocket bomb, also known as the "Buzz Bomb", was filled with a mixture of ethanol and liquid oxygen as fuel for its pulsejet engine, while its warhead contained approximately 1,870 pounds (850 kg) of high explosive, typically amatol, which is a mixture of TNT and ammonium nitrate.
TNT(Trinitrotolune)
The bomb did not have tnt. The atomic power is measurred using tnt was the base. TNT is a unit of energy equal to 4.184 gigajoules, which is approximately the amount of energy released in the detonation of one ton of TNT, and a bomb with one kiloton has the blast compared to one ton of tnt.
TNT(Trinitrotolune)
that varies with yield, which is specified in tons of TNT and would thus be your answer. atomic bombs have been built and tested with yields from 10 tons of TNT to over 50 million tons of TNT.
About 20 kilotons of TNT. Assuming an average conventional bomb of the period weighed 200 pounds, one atomic bomb was equivalent to 200,000 conventional bombs.
A megaton bomb is more damaging than an atomic bomb because it has a much higher explosive yield. A megaton bomb releases energy equivalent to the detonation of one million tons of TNT, while an atomic bomb typically releases energy equivalent to the detonation of thousands of tons of TNT.
The first atomic bomb detonated was the Trinity Test Bomb on July 16, 1945. It had the estimated explosive power eqivalent of 20,000 Tons of TNT. It was identical to the bomb dropped on Nagasaki 3 weeks later. The Hiroshima bomb was of a different design and was about 15,000 Tons equvalent.
Kilotons are used to measure the power of atomic bombs. A kiloton is the power equivalent of 1000 tons of TNT, a chemical explosive used in bombs. A 15 kiloton atomic bomb has the power of 15,000 tons of TNT.
The bomb had a weight of almost 10,000 pounds.
The force released by a nuclear bomb is typically measured in kilotons or megatons of TNT. For example, the atomic bomb dropped on Hiroshima released an energy equivalent to approximately 15 kilotons of TNT. The force generated from a nuclear explosion is determined by the size and type of the bomb.
There is no "nominal" atomic bomb, their yields can vary from less than 100 tons TNT equivalent to nearly 1 megaton TNT equivalent. Therefore there is no single meaningful answer to this question. Hydrogen bombs have no upper limit for yield!
The MK-III Fatman bomb dropped on Nagasaki was:5 feet diameter10 feet long5 tons weightThe bomb's yield was 21 Ktons TNT equivalent.