Nothing. Mass can neither can created nor destroyed. Energy can neither be created nor destroyed. They can only be moved from one frame of reference to another.
During fission, binding energy is released because the nucleons have been rearranged. Since mass is energy, per e = mc2, this release of energy is accompanied by a release of mass.
energy
1. Unlike fission, during fusion tremendous amount of energy is liberated. Hence fusion of a very small mass generates large amount of energy. 2. Unlike fission the products of fusion reactions are not radio-active. Thus they are harmless and can be replaced easily. 3. Highly penetrating radiations are liberated during fission, which are highly hazardous.
1. Unlike fission, during fusion tremendous amount of energy is liberated. Hence fusion of a very small mass generates large amount of energy. 2. Unlike fission the products of fusion reactions are not radio-active. Thus they are harmless and can be replaced easily. 3. Highly penetrating radiations are liberated during fission, which are highly hazardous.
Very powerful source of energy, very small amount replaces many tons of fossil fuels.
A (small) amount of mass is "converted" into energy. If you fuse light elements into heavier ones (particulally hydrogen into helium), you end up with less mass than you started with. Likewise breaking apart heavy elements into lighter ones result in a "loss" of mass. Note - iron is the low point of all of this, thus you can fuse up to iron OR fission down to iron - but no farther.
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Fission releases a large amount of energy from a small amount of material
1. Unlike fission, during fusion tremendous amount of energy is liberated. Hence fusion of a very small mass generates large amount of energy. 2. Unlike fission the products of fusion reactions are not radio-active. Thus they are harmless and can be replaced easily. 3. Highly penetrating radiations are liberated during fission, which are highly hazardous.
1. Unlike fission, during fusion tremendous amount of energy is liberated. Hence fusion of a very small mass generates large amount of energy. 2. Unlike fission the products of fusion reactions are not radio-active. Thus they are harmless and can be replaced easily. 3. Highly penetrating radiations are liberated during fission, which are highly hazardous.
This is called nuclear fission. During this process a small amount of mass is annihilated which produces energy
About 200 Mev per fission, which is a very small amount but then many many nuclei are fissioned per second
Very powerful source of energy, very small amount replaces many tons of fossil fuels.
Two causes are possible: - spontaneous fission of uranium - a reaction (n, gamma) of molybdenum
G J. Small has written: 'Fission gas release from uranium dioxide during transient heating'
Each fission of a U235 nucleus produces 200 Mev which in terms of Joules is 3.2 x 10-11 Joules. This is a very small amount, which shows just how many fissions are occurring every second, for a reactor which produces 3000 Mw thermal
It affected the population. It changed from a small amount to an abundance.
It's slightly less in July, when the earth is farthest from the sun, and slightly more in January, when the earth is closest to the sun. But these differences are very small.
Pros: Need very small amount of H2 to emit powerful energy. Cons: Fission reaction so very hard to control.