Linked from

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

• Superheavy elementNarrower topic: Fusion is the basic route used to assemble superheavy atoms in laboratories.

• OganessonNarrower topic: Oganesson was synthesized by fusing a calcium-48 nucleus with a californium-249 target.

• Heavy-ion fusionNarrower topic: Heavy-ion fusion is a form of this broader reaction class.

• Proton–proton chainNarrower topic: The proton–proton chain is one specific set of fusion reactions.

• Stellar luminosityNarrower topic: Fusion supplies the energy that ultimately escapes a star as radiation.

• Hans BetheNarrower topic: Fusion supplied the physical mechanism behind Bethe’s explanation of stellar energy.

• Wolf–Rayet starNarrower topic: Fusion builds the helium, carbon, and heavier layers that stellar winds can expose.

• Magnetic confinement fusionNarrower topic: It is the energy-producing reaction that confinement is designed to sustain.

• SunNarrower topic: Fusion powers the Sun by converting hydrogen into helium.

• DeuteriumNarrower topic: Deuterium is a potential fusion fuel and a component of fusion research.

• UnunenniumNarrower topic: Element 119 could be formed when projectile and target nuclei fuse.

• Periodic table extensionNarrower topic: Fusion became the experimental route for building many elements beyond uranium.

• TritiumNarrower topic: Tritium links present fusion experiments to fuel supply, safety, and reactor design challenges.

• CNO cycleNarrower topic: The CNO cycle is one way stars release energy through fusion.

• TokamakNarrower topic: Tokamaks aim to sustain fusion reactions in a confined plasma.

• Transactinide elementNarrower topic: Heavy-ion fusion is the synthesis route behind many transactinide discoveries.

• Edward TellerNarrower topic: Fusion is the energy source the hydrogen bomb harnesses, unlike the fission reaction in its primary stage.

• TennessineNarrower topic: Tennessine was made by fusing calcium-48 projectiles with berkelium-249 target nuclei.

• Coulomb barrierNarrower topic: Overcoming or tunneling through the barrier allows nuclei to fuse.

• Ivy MikeNarrower topic: Fusion reactions supplied much of the energy released by the device.

• 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.

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

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

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

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

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

• 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.

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

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

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