KnowraBose–Einstein condensateLinked fromLinked fromThe 47 pages that link to Bose–Einstein condensate, each with the reason it gives.All 47Broader topic 26Related 12Narrower topic 2Compared with 7SuperfluidityRelated: A shared quantum state underlies superfluidity in dilute atomic gases.HeliumRelated: Helium-4’s superfluid phase is closely related to macroscopic quantum behavior of bosons.Helium-4Related: Helium-4’s superfluidity shares collective quantum behavior with dilute-gas condensates, though the systems differ.Spin–statistics theoremRelated: Its formation depends on the bosonic statistics assigned to integer-spin particles.Critical temperatureRelated: The transition occurs below a characteristic temperature in dilute gases and other systems.Atom interferometryRelated: Its coherent, ultracold atoms can serve as a source for matter-wave interferometry.RubidiumRelated: Rubidium-87 is a widely used atom for producing and studying these condensates.Liquid heliumRelated: Helium-4's superfluid transition is related to condensation, though interactions make the connection nontrivial.Nonlinear Schrödinger equationRelated: Its mean-field dynamics are often modeled by the Gross–Pitaevskii equation, a nonlinear Schrödinger form.Steven ChuRelated: Laser cooling helped make ultracold atomic samples available for reaching this regime.Claude Cohen-TannoudjiRelated: Laser cooling helps prepare atomic samples cold enough to reach this quantum phase.SupersolidRelated: Condensation provides a route to coherent flow in many supersolid experiments.