Bose–Einstein condensate

E7351

A Bose–Einstein condensate is an exotic state of matter formed when a dilute gas of bosons is cooled to temperatures near absolute zero, causing a large fraction of the particles to occupy the same quantum state and behave as a single quantum entity.

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All labels observed (6)

Statements (52)

Predicate Object
instanceOf many-body quantum system
quantum phase of matter
state of matter
firstCreatedAt JILA
University of Colorado Boulder
firstCreatedBy Carl E. Wieman
Eric A. Cornell
firstCreatedInLaboratory 1995
firstCreatedUsing rubidium-87 atoms
hasApplication atom interferometry
precision measurements
quantum information science
quantum simulation
study of quantum phase transitions
study of superfluidity
hasNobelPrizeAssociated 2001 Nobel Prize in Physics
hasPhysicalConstituent boson
hasProperty long-range phase coherence
macroscopic occupation of ground state
macroscopic quantum coherence
matter-wave interference
occupies single quantum state
off-diagonal long-range order
quantum degeneracy
superfluidity
ultra-low temperature
hasTheoreticalBasis Bose–Einstein statistics
surface form: Bose–Einstein distribution

Bose–Einstein statistics
Gross–Pitaevskii equation
quantum mechanics
second quantization
isDescribedBy macroscopic wavefunction
order parameter wavefunction
isRelatedTo BCS–BEC crossover
Fermi gas
laser cooling
magnetic trap
optical trap
superfluid helium
namedAfter Albert Einstein
Satyendra Nath Bose
predictedBy Albert Einstein
Satyendra Nath Bose
predictionYear 1924
1925
requiresCondition bosonic particles
dilute atomic gas
evaporative cooling
temperature near absolute zero
trapping potential
typicalTemperatureScale microkelvin
nanokelvin

Referenced by (20)

Full triples — surface form annotated when it differs from this entity's canonical label.

Bose–Einstein statistics relatedConcept Bose–Einstein condensate
Lene Vestergaard Hau fieldOfWork Bose–Einstein condensate
this entity surface form: Bose–Einstein condensates
Carl E. Wieman fieldOfWork Bose–Einstein condensate
this entity surface form: Bose–Einstein condensation
Carl E. Wieman knownFor Bose–Einstein condensate
this entity surface form: Bose–Einstein condensation
Satyendra knownFor Bose–Einstein condensate
subject surface form: Satyendra Nath Bose
this entity surface form: Bose–Einstein condensate (theoretical prediction)
Satyendra hasEponym Bose–Einstein condensate
subject surface form: Satyendra Nath Bose
Eric A. Cornell knownFor Bose–Einstein condensate
JILA hasResearchArea Bose–Einstein condensate
this entity surface form: Bose–Einstein condensation
MIT–Harvard Center for Ultracold Atoms field Bose–Einstein condensate
this entity surface form: Bose–Einstein condensates
MIT–Harvard Center for Ultracold Atoms researchArea Bose–Einstein condensate
this entity surface form: Bose–Einstein condensation in dilute gases
Wolfgang Ketterle knownFor Bose–Einstein condensate
this entity surface form: Bose–Einstein condensates
spin–statistics theorem hasConsequence Bose–Einstein condensate
this entity surface form: Bose–Einstein condensation
Carl fieldOfWork Bose–Einstein condensate
subject surface form: Carl E. Wieman
this entity surface form: Bose–Einstein condensates
Carl knownFor Bose–Einstein condensate
subject surface form: Carl E. Wieman
this entity surface form: Bose–Einstein condensates
Lev Pitaevskii knownFor Bose–Einstein condensate
this entity surface form: Bose–Einstein condensates
Bose gas hasPhaseTransition Bose–Einstein condensate
this entity surface form: Bose–Einstein condensation transition
Oliver Penrose researchInterest Bose–Einstein condensate
this entity surface form: Bose–Einstein condensation
Boson hasCollectiveState Bose–Einstein condensate
Eugene P. Gross appliesTo Bose–Einstein condensate
subject surface form: Gross–Pitaevskii equation
this entity surface form: Bose–Einstein condensates