Linked from

The 31 pages that link to Heavy-ion fusion, each with the reason it gives.

• Superheavy elementRelated: Experiments use these collisions to create many superheavy elements.

• Superheavy element synthesisNarrower topic: Most superheavy nuclei are formed when accelerated ions fuse with heavy target nuclei.

• NihoniumNarrower topic: Nihonium was formed by fusing a zinc projectile with a bismuth target.

• Periodic table extensionRelated: It is the main method used to synthesize the heaviest known elements and test routes to heavier ones.

• Transuranium elementRelated: Heavy-ion fusion has enabled the synthesis of many elements beyond plutonium.

• Transactinide elementRelated: Fusion reactions create most known transactinide nuclei one atom at a time.

• UnbiniliumNarrower topic: Element 120 searches rely on fusing a projectile nucleus with a heavy target.

• Calcium-48Related: Heavy-ion fusion combines calcium-48 with a target nucleus to create a heavier compound nucleus.

• Albert GhiorsoRelated: This reaction produced several of the superheavy nuclei sought by Ghiorso’s teams.

• FleroviumNarrower topic: Flerovium nuclei are synthesized by fusing calcium-48 with plutonium- or curium-based targets.

• DarmstadtiumRelated: The first darmstadtium atoms were made by fusing nickel ions with lead nuclei.

• UnbiuniumRelated: Heavy-ion fusion is a principal proposed route to creating unbiunium.

• BerkeliumRelated: Fusion reactions with berkelium targets can create elements beyond it.

• Superheavy element researchRelated: Superheavy nuclei are synthesized by fusing accelerated ions with target nuclei.

• EinsteiniumRelated: Einsteinium targets can support experiments that create and study superheavy nuclei.

• FermiumRelated: Heavy-ion reactions can synthesize fermium isotopes for nuclear-structure studies.

• MendeleviumNarrower topic: Later mendelevium isotopes were made by combining heavier projectile nuclei with actinide targets.

• UnbiquadiumBroader topic: Experiments seeking element 124 would use heavy-ion collisions to attempt its formation.

• UnpenthexiumRelated: Fusion of heavy ions is a possible route toward producing nuclei beyond known elements.

• UnbipentiumRelated: Fusion reactions are a possible route to creating nuclei beyond the known periodic table.

• UnbitriumBroader topic: Experiments seeking element 123 would likely use heavy-ion fusion.

• UnhexpentiumRelated: Creating element 165 would require overcoming fusion barriers between highly charged nuclei.

• UnpentquadiumRelated: It is a principal route proposed for synthesizing elements beyond the known periodic table.

• UnquadquadiumRelated: Producing element 144 would likely require fusion reactions involving very heavy target and projectile nuclei.

• BohriumRelated: Fusion reactions produce bohrium nuclei in accelerator experiments.

• UnbienniumRelated: Fusion could combine target and projectile nuclei to form element 129.

• UnpentbiumRelated: Fusion is a principal route used to attempt the creation of superheavy elements.

• UnquadniliumRelated: Fusion reactions are a possible route to producing nuclei near atomic number 140.

• UnquadseptiumRelated: It is a principal strategy for attempting to create superheavy elements.

• UnquadtriumRelated: Fusion reactions are a possible route to producing nuclei with extremely high atomic numbers.

• UntrioctiumRelated: Fusion is a principal proposed route to creating nuclei beyond known elements.