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

• Deuterium–tritium fusionNarrower topic: This reaction is one specific fusion pathway, distinguished by its fuel and products.

• Element 119Narrower topic: Proposed synthesis routes fuse a projectile nucleus with a heavy target to make element 119.

• Hydrogen bombBroader topic: Fusion reactions supply much of the energy in a thermonuclear weapon.

• DarmstadtiumNarrower topic: Heavy-ion fusion is the specific fusion method used to create darmstadtium.

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

• Isotopes of hydrogenNarrower topic: Deuterium and tritium are leading fuels for proposed fusion reactors.

• 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.

• Kelvin–Helmholtz mechanismCompared with: Fusion resolved the solar energy shortfall that gravitational contraction could not overcome.

• Nuclear chemistryBroader topic: Fusion illustrates a distinct route from nuclear change to energy release.

• 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.

• Solar coreNarrower topic: The Sun’s core is a natural fusion environment, powered by gravity rather than engineered confinement.

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

• Mark OliphantNarrower topic: Oliphant’s experiments helped establish laboratory methods for studying fusion reactions.

• Small modular reactorCompared with: Fusion is often confused with fission, but SMRs use fission rather than fusion.

• 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.

• MeitneriumNarrower topic: Meitnerium-producing reactions fuse projectile and target nuclei.

• Nuclear engineeringCompared with: Fusion offers a distinct route to nuclear energy, with different engineering challenges from fission.

• 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.

• Fusion powerNarrower topic: This is the reaction that releases energy in fusion power systems.

• HassiumNarrower topic: Hassium is created by fusing accelerated ions with target nuclei.

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

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

• UnpentquadiumNarrower topic: Fusion supplies the broad physical framework for attempts to create superheavy nuclei.

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

• Advanced nuclear reactor technologyCompared with: Fusion is a distinct nuclear energy approach, not an advanced fission reactor technology.

• 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.

• UnbibiumNarrower topic: Creating element 122 would require fusing nuclei, despite the strong electrostatic repulsion between them.

• 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.

• UnquadbiumRelated: Fusion of heavy ions is a possible route to synthesizing unquadbium.

• UnquadhexiumRelated: Fusion reactions are a principal route used to attempt synthesis of superheavy nuclei.

• UnsepttriumRelated: Creating element 173 would require a nuclear reaction capable of assembling its nucleus.

• UntribiumRelated: Fusion reactions are the principal route considered for making heavier elements such as element 123.

• UntritriumNarrower topic: Fusion reactions produced the short-lived nuclei whose identification established element 113.