Linked from

The 97 pages that link to Nuclear fusion, each with the reason it gives.

• Nuclear binding energyRelated: Fusion releases energy when the product is more tightly bound per nucleon than its reactants.

• Atomic nucleusRelated: Fusion releases energy when the resulting nucleus is more tightly bound.

• Ernest RutherfordRelated: Rutherford’s work on nuclear reactions helped lay foundations for studying transformations inside nuclei.

• Nuclear weaponRelated: Fusion reactions provide much of the yield in thermonuclear weapons.

• Nuclear physicsRelated: It powers stars and shows how reactions among light nuclei release energy.

• AstronomyRelated: Fusion powers stars and accounts for their energy output over immense timescales.

• Mass–energy equivalenceRelated: Fusion releases energy when the final nucleus has less mass than its ingredients.

• NihoniumRelated: Fusion of the projectile and target created compound nuclei of element 113.

• Nuclear transmutationRelated: Fusion builds heavier elements by combining nuclei, often with a change in proton number.

• NucleosynthesisRelated: Fusion powers stars and builds nuclei up to the iron-group region.

• AstrophysicsRelated: Fusion powers stars and determines much of their luminosity and lifetime.

• Nuclear forceRelated: Fusion releases energy when the resulting nucleus gains binding from the nuclear force.

• NuclideRelated: Fusion creates new nuclides while releasing energy for some reactant combinations.

• NucleonRelated: Fusion changes nucleon arrangements and powers stars and experimental fusion systems.

• Castle BravoRelated: Fusion reactions in Bravo’s secondary stage supplied much of the test’s explosive energy.

• Nuclear fuelRelated: Fusion fuels release energy by combining rather than splitting nuclei.

• Los Alamos National LaboratoryRelated: Laboratory researchers investigate fusion physics and its potential as an energy source.

• MoscoviumRelated: Moscovium was made by fusing calcium-48 projectiles with americium-243 targets.

• Margaret BurbidgeRelated: Fusion powers stars and builds many of the nuclei considered in the B2FH account.

• Strong nuclear forceRelated: Fusion releases energy when the resulting nucleus has greater binding per nucleon.

• Thermonuclear weaponRelated: Fusion supplies a substantial share of the explosive yield.

• B2FH paperRelated: Fusion supplies stellar energy and builds elements up to the iron group.

• Mass defectRelated: Fusion releases energy when the product nucleus has a greater mass defect per nucleon.

• Radiative zoneRelated: Fusion supplies much of the energy that later crosses the radiative zone.

• CoperniciumRelated: Fusion of projectile and target nuclei can produce copernicium.

• Element naming controversyRelated: Fusion reactions in accelerators produce many of the newly claimed elements.

• LawrenciumRelated: Fusion reactions with heavy-ion beams produce lawrencium nuclei.

• SeaborgiumRelated: Fusion reactions between accelerated ions and target nuclei produce seaborgium.

• Stellar coreRelated: Fusion supplies energy in the cores of main-sequence stars and many evolved stars.

• Enewetak AtollRelated: Fusion fuel gave later Enewetak test devices yields far beyond fission-only weapons.

• Nuclear weapon designRelated: Fusion fuel can contribute energy in staged thermonuclear weapons.

• RutherfordiumRelated: Heavy-ion fusion reactions have created rutherfordium nuclei in particle accelerators.

• Tsar BombaRelated: Fusion reactions supplied much of the bomb’s explosive energy.

• FermiumRelated: Fusion-based reactions provide one route to producing selected fermium isotopes in accelerators.

• Synthetic elementRelated: Fusion of heavy-ion projectile and target nuclei produces several superheavy elements.

• UnbihexiumRelated: Fusion reactions are used to attempt production of superheavy nuclei.

• LivermoriumRelated: Livermorium was synthesized by fusing calcium-48 nuclei with curium-248 targets.

• RoentgeniumRelated: A fused projectile and target nucleus produced roentgenium in the discovery experiment.

• UnbiquadiumRelated: Fusion of projectile and target nuclei is a possible route to element 124.

• NobeliumRelated: Fusion reactions between heavy ions can create nobelium nuclei.

• UnbitriumRelated: Fusion of target and projectile nuclei is a proposed route to element 123.

• UntriniliumRelated: Fusion-based experiments are a principal route proposed for synthesizing superheavy elements.

• Energy sourceRelated: Fusion powers the Sun and is a potential source of terrestrial energy.

• Interactions and forcesRelated: Stars release energy through fusion, where nuclear and electromagnetic effects compete.

• Large Helical DeviceRelated: Fusion reactions motivate the high-temperature plasma conditions investigated in the device.

• Nuclear technologyRelated: Fusion powers the Sun and is pursued as a potential energy source and weapon mechanism.

• UnbioctiumRelated: Fusion reactions are a possible route to producing superheavy nuclei.

• UnbiseptiumRelated: Synthesis attempts would need to fuse projectile and target nuclei into element 127.

• UnhexenniumRelated: Fusion reactions are a possible route to synthesizing nuclei beyond the currently confirmed elements.

• UnhexquadiumRelated: Heavy-element experiments create candidate nuclei by fusing projectile and target nuclei.