There is a misunderstanding here. It is a fine, but very important point. Mass can neither be created nor destroyed, and energy can neither be created nor destroyed.
There is a relationship between mass and energy, in the relativistic framework set down by Einstein in his famous mass-energy equivalence equation e = mc2. Do not misunderstand, however - this does not mean that mass can be converted to energy and vice versa - it means that mass has energy, and energy has mass, all depending on relativistic velocity.
In nuclear fission, the nuclear force (residual binding energy) that holds protons and neutrons together in an atom is greater than the nuclear force required to hold the protons and neutrons together in the split atoms that result from the fission process. The differential nuclear force, or mass deficit, is released during fission. It is more correct to say that the mass is carried away with the energy, because the mass is the energy and the energy is the mass, as stated above.
The simple answer is "Energy", at some level consistent with the thermal properties of the environment in which the event takes place. At some increasing thermal level, the process of fission, producing energy through the breaking of the strong nuclear force between (and binding) the particles of the nucleus, will, or more correctly may, under the right circumstance, convert to the process of fusing nuclei, and thereby converting nuclear mass into energy via Einsteins great equation E=MC^2.
It must be said then that gr for gr, lb for lb, or ton for ton, the fusion event releases significantly more energy per unit event than the fission process.
You don't convert mass into fission or fusion. What happens is that when fission or fusion occur, a small proportion of the mass involved is destroyed and this releases the energy which can then be used.
In a nuclear reaction, the mass of atoms is converted into energy according to Einstein's formula E = mc2.
Energy, E = mc2
Energy
'energy"
energy
The idea of nuclear fusion occurring at room temperature is called cold fusion.
Nuclear fusion is a nuclear reaction, but so is fission. So not all nuclear reactions are fission.
The difference between Fusion and Fission is that Fission is easier to do and produces more energy than fusion reactions. However fission can be dangerous and is used in Nuclear reactors. Fusion however is safer and produces less energy but safely. It is quite difficult to cause a Fusion reaction however.
Reactions that involve nuclei, called nuclear reactions, result in a tremendous amount of energy. Two types are fission and fusion.
for both fission and fusion is E=Mc2 energy is mass and vise verse, in both fission and fusion some mass gets lost in the process. this mass gets converted to energy.
Fission and fusion are different nuclear reactions.
Nuclear Fission & Nuclear fusion.
One type of atom (element or isotope) is converted to another. This is called nuclear reaction.
The idea of nuclear fusion occurring at room temperature is called cold fusion.
Little Boy is a Nuclear Fission Reaction
Fission and fusion
fusion nuclear reaction followed by fission nuclear reaction
fission and/or fusion
Nuclear energy is either:fission reaction, orfusion reaction, orradioactive decay
Nuclear fusion is a nuclear reaction, but so is fission. So not all nuclear reactions are fission.
Nuclear fission, not to be confused with fusion.
The difference between Fusion and Fission is that Fission is easier to do and produces more energy than fusion reactions. However fission can be dangerous and is used in Nuclear reactors. Fusion however is safer and produces less energy but safely. It is quite difficult to cause a Fusion reaction however.