A nuclear cycle, now known as the carbon-nitrogen-oxygen (CNO) cycle, in which hydrogen nuclei could be burned using carbon as a catalyst.
If you mean in hydrogen bombs, then the answer is:
Energy released in the primary stage is transferred to the secondary (or fusion) stage. The exact mechanism whereby this happens is unknown. This energy compresses the fusion fuel and sparkplug; the compressed sparkplug becomes critical and undergoes a fission chain reaction, further heating the compressed fusion fuel to a high enough temperature to induce fusion, and also supplying neutrons that react with lithium to create tritium for fusion. Generally, increasing the kinetic energy of gas molecules contained in a limited volume will increase both temperature and pressure.
AnswerHydrogen fusion releases so much energy because there is so much energy available. When two hydrogen nuclei fuse to form one helium nucleus, the total energy in the helium nucleus (E=MC2) is less than the total energy in two hydrogen nuclei. The difference is the amount of energy released in the fusion reaction.The nuclear fusion uses Hydrogen to produce Helium. The fusion also releases a lot of energy, which is what causes the explosion.
To some degree. Hydrogen bombs release energy via nuclear fusion, but they use a fission reaction to trigger the fusion.
Hydrogen bombs are caused by atoms fusing together--fusion. Each fusion releases energy. When enough atoms get fused, it causes a big explosion--big enough to wipe out a city.Atomic bombs can also be caused by fission--atoms splitting apart. Each split atom releases energy. If enough atoms get split up the energy released can wipe out cities such as Hiroshima and Nagasaki.
Fusion. However in standard fusion bombs about 90% of the yield comes from fission of Uranium-238 in the fusion tamper and radiation channel guide from fast 15MeV fusion neutrons.
Our sun mostly transforms hydrogen nuclei into helium by fusion, but it also fuses helium with helium, lithium with hydrogen, and beryllium with hydrogen, to make elements as heavy as boron.
The nuclear fusion uses Hydrogen to produce Helium. The fusion also releases a lot of energy, which is what causes the explosion.
hydrogen fusion
The fusion of Hydrogen into Helium causes heat and radiation to occur.
fusion reactions, where lighter elements combine to release tremendous amounts of energy. In stars, the fusion of hydrogen into helium powers their luminosity and heat. Hydrogen bombs use isotopes of hydrogen to trigger a controlled fusion reaction, releasing a massive amount of explosive energy.
The energy in the sun is released through nuclear fusion. This process involves the fusion of hydrogen atoms to form helium, releasing large amounts of energy in the form of heat and light.
The Sun energy is from hydrogen fusion.
Nuclear fusion is a process where multiple like-charged atomic nuclei join together to form heavier nucleus. It is accompanied by the release of energy. The nuclear fusion process is responsible for the fusion of helium of hydrogen atoms into helium atoms in the core of the sun.
Hydrogen undergoes fusion, not fission. Fusion is the process of combining lighter elements, like hydrogen, to form heavier elements and release energy. Fission, on the other hand, is the process of splitting heavier elements into lighter ones.
It is fusion - the fusion of hydrogen into helium - accompanied by a gigantic release of binding energy that feeds the reaction and generates radiation in the form of light, heat, etc.
A hydrogen bomb is called so because it mainly relies on the fusion of hydrogen isotopes to release energy. The fusion process is what distinguishes it from an atomic bomb, which relies on nuclear fission.
The sun's energy (and that of all other stars) comes from nuclear fusion. The nuclei of hydrogen atoms (ie protons) fuse together to produce helium and release energy.
Stars fuse hydrogen through nuclear fusion into helium and release the massive resulting energy into space.