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The sun produces energy by the fusion of nuclei of small elements into those of larger elements: for example hydrogen into oxygen. This process involves a loss of mass and that mass is converted into solar energy - in line with Einstein's equation.
Maybe. They would have had to think of all the possible side effects but the chance of this happening is tiny. There are two explosions in a hydrogen bomb: a fission reaction of uranium or plutonium. This then creates the heat and pressure in the centre of the explosion to initiate the fusion reaction and explosion. The chances of the fission reaction causing a chain reaction in the water is very small as it needs large unstable nuclei to react like U235 but there is none in the sea. The chances of the fusion reaction creating a chain reaction is even less because the fusing elements need to be at millions of degrees and the sea is not a million degrees.
When a single heavy nucleus splits into two or more lighter nuclei (fission), the sum of their masses is less than the mass of the original nucleus. Some mass is missing, and some energy is released. When two light nuclei fuse into a single heavier nucleus (fusion), the mass of the heavier one is less than the sum of the masses of the two light ones. Some mass is missing, and some energy is released. In both events, the missing mass has been converted to energy. If the amount of missing mass is 'm', and you multiply 'm' by the square of the speed of light 'c2' , the answer you get is the amount of energy that was released 'e'. e = mc2
Some mass is "lost" during nuclear fusion and E = mc2 gives the amount of energy that this "lost" mass will be equal to.
None. The amount of energy released by an atomic bomb is an infinitesimally small fraction of the amount given by that equation. The atomic bomb is based on chain reactions: fission driven by neutron chain reaction, fusion bomb driven by high heat & pressure.
The fusion of deuterium (D) and hydrogen (H) involves the fusion of two deuterium nuclei to form a helium-3 nucleus and a neutron. The equation for this reaction is: 2D + 1H → 3He + n + energy.
Experiments in fusion have used deuterium and tritium, both isotopes of hydrogen
Mainly; hydrogen, deuterium, and tritium
In nuclear fusion, high temperatures and pressures cause hydrogen atoms to collide and fuse together to form helium atoms. This process releases a tremendous amount of energy in the form of heat and light, powering stars like our sun.
Basically its a blanket of heavy hydrogen (deuterium) around a "regular" atomic bomb.
Using tritium with deuterium in a hydrogen bomb allows for a more efficient fusion reaction by increasing the rate of fusion and the yield of the bomb. Tritium and deuterium isotopes react at lower temperatures and pressures compared to pure deuterium, making the fusion process easier to initiate and sustain. Additionally, tritium is a potent source of neutrons, which can increase the efficiency of the fusion reaction.
The most likely fuel for fusion on earth is a mixture of deuterium and tritium (both isotopes of hydrogen)
The nuclear fusion order for a star like our Sun involves the conversion of hydrogen into helium. This fusion process occurs in multiple stages, beginning with the fusion of hydrogen isotopes (protons) into deuterium, and then further reactions combine deuterium to form helium-3 and, ultimately, helium-4.
Deuterium is a stable isotope of hydrogen, with one proton and one neutron in its nucleus. It is used in the fusion stage of a hydrogen bomb to initiate the explosive chain reaction.
The easiest fusion reaction to make is between deuterium and tritium, two isotopes of hydrogen. This reaction requires the least amount of energy to initiate and is being pursued for fusion energy research.
Hydrogen-2 (deuterium) and hydrogen-3 (tritium) nuclei can undergo fusion to form helium-4, releasing a neutron in the process. This fusion reaction is the basis for fusion energy production in potential future reactor designs.
Hydrogen in stars. Man made attempts use the heavier isotopes of Hydrogen (Deuterium, Tritium) and sometimes Lithium.