Linked from

The 23 pages that link to Quark–gluon plasma, each with the reason it gives.

• Quantum chromodynamicsBroader topic: Heavy-ion collisions create matter whose properties probe QCD beyond ordinary hadrons.

• Large Hadron ColliderRelated: Heavy-ion collisions at the LHC create and probe this state of strongly interacting matter.

• HadronCompared with: Heavy-ion collisions can create matter in which ordinary hadron boundaries dissolve.

• Strong interactionBroader topic: It reveals how the interaction behaves under extreme temperature and density.

• Color chargeRelated: Its collective behavior reflects color interactions in dense, hot matter.

• Brookhaven National LaboratoryRelated: RHIC experiments at Brookhaven established and characterized this early-universe-like state.

• Color confinementCompared with: It shows that confinement can be overcome collectively under extreme conditions.

• HadronizationCompared with: Hadronization occurs as an expanding plasma cools and its partons become confined.

• Lattice QCDBroader topic: Lattice QCD maps its thermodynamic properties and the transition from ordinary hadronic matter.

• AdS/CFT correspondenceRelated: Holographic models estimate properties of this strongly coupled plasma when ordinary perturbation theory fails.

• Heavy-ion collisionBroader topic: It can form briefly after the nuclei deposit enough energy into a small volume.

• Relativistic Heavy Ion ColliderRelated: The search for this predicted state helped motivate RHIC’s heavy-ion program.

• Matter (physics)Broader topic: Its properties probe how ordinary matter emerged as the early universe cooled.

• Strange quarkRelated: Strange-quark production helps characterize this deconfined state.

• Heavy-ion acceleratorRelated: Heavy-ion collisions can produce this state for brief moments.

• Quark epochBroader topic: The quark epoch was filled with this deconfined state of matter.

• Quark starRelated: It demonstrates deconfinement in hot matter, unlike the cold, dense conditions proposed inside quark stars.

• QCD vacuumCompared with: Comparing it with the vacuum reveals how confinement and chiral symmetry change with temperature.

• Hadron eraNarrower topic: The hot state that preceded hadron formation as the universe expanded and cooled.

• High-energy nuclear physicsBroader topic: Heavy-ion collisions can produce this deconfined phase for brief intervals.

• J/ψ mesonRelated: J/ψ yields and momentum distributions help study this state in nuclear collisions.

• List of unsolved problems in physicsBroader topic: Its behavior tests how strongly interacting matter emerges from quantum chromodynamics.

• QCD matterBroader topic: It is the best-studied deconfined phase of QCD matter.