The reactions in sun are nuclear fusion reactions.
In this reaction: four hydrogen atoms (4 protons) combine to form one helium atom (2 protons + 2 neutrons). (Two of the protons change to neutrons due to the weak interaction. Also, electrons are not so much an issue in the core due to the heavy ionization present due to the extreme temperatures.)
Energy is produced due to difference between the mass of the four hydrogen atoms and the mass of the helium atom.
Every second, in the sun, about 616 million tonnes of hydrogen with nuclear fusion transforms to 612 million tonnes of helium and the mass difference (4.3 million metric tonnes/second) gives energy equivalent to 3.8 x 1026 watt.
nuclear fusion....... Despite this being what almost all scientists have been led to believe it is wrong. The sun is actually powered by nuclear fission which takes place far beneath the suns molten surface. This is caused when the fusing elements finally reach critical mass and fissure, releasing the great energy that was accumulated during the fusion process. What we see and feel as heat and light are the results of fission. The lighter sub atomic particles and atoms are thus rocketed upward to the higher elevations where we can observe them with our detecting instruments. As we watch we can see the results as these lighter elements begin to reform through the fusion process and create the heavier elements. That's why most believe it is only fusion that powers the stars. Nope fusion takes energy......as it takes extreme heat and pressure (i.e. the sun's gravity) to cause the elements to fuse back together so they can thus again be compressed and smelted to again reach critical mass and fissure. Thus it will always take more energy to fuse atoms together than the fusion process will ever yield. That's recycling God's way.
A fission reaction is not necessary for a fusion reaction. Fission reactions involve breaking apart heavy atomic nuclei, which releases energy. Fusion reactions involve combining light atomic nuclei, also releasing energy, but under different conditions. One does not require the other to occur.
Nuclear bombs can use either nuclear fission or nuclear fusion as the primary mechanism of energy release. Most nuclear bombs in current arsenals rely on nuclear fission reactions, while thermonuclear bombs use a fission reaction to trigger a fusion reaction.
It depends on the specific context. Fission is the splitting of an atomic nucleus into two smaller nuclei, releasing energy, while fusion is the combining of two smaller nuclei into a larger one, also releasing energy. Each reaction has distinct characteristics and applications in different scenarios.
In a hydrogen bomb, fusion is used to release a large amount of energy through the fusion of hydrogen isotopes to create helium. This process, known as thermonuclear fusion, generates a massive explosion by harnessing the immense energy released during the fusion reaction. The process is initiated by a fission reaction that creates the high temperatures and pressures needed for fusion to occur.
Detonation of a fusion hydrogen bomb is initiated by the primary fission bomb, which generates high temperatures and pressures needed to trigger fusion reactions in the hydrogen isotopes. The fission bomb compresses and heats the fusion fuel to the point where nuclear fusion reactions can occur, releasing vastly more energy than the fission reaction alone.
fission..sup
fission
Fission and fusion
explain how a fusion reactor would be similar to a fission reaction
Not fusion, but a fission reaction.
fission and/or fusion
Fusion or fission.
fusion nuclear reaction followed by fission nuclear reaction
Fission is the opposite reaction to fusion. Fission involves the splitting of a heavy atomic nucleus into lighter elements, releasing a large amount of energy in the process.
To some degree. Hydrogen bombs release energy via nuclear fusion, but they use a fission reaction to trigger the fusion.
Nuclear energy is either:fission reaction, orfusion reaction, orradioactive decay
A fission reaction is not necessary for a fusion reaction. Fission reactions involve breaking apart heavy atomic nuclei, which releases energy. Fusion reactions involve combining light atomic nuclei, also releasing energy, but under different conditions. One does not require the other to occur.