BOSE-EINSTEIN CONDENSATION
By A. Schakel. Structural Aspects of Quantum Field Theory and Noncommutative Geometry, 2008
1,204 citations recorded by the source corpus.
The history of the Bose-Einstein condensate (BEC) is considered from Einstein’s original conception, to London’s revival with respect to superfluid 4 He and to an explanation of today’s concept of the BEC as a result of broken gauge symmetry and phase coherence. A discussion of the BEC’s role in superfluidity shows that BEC is neither a necessary nor sufficient condition for superfluidity. The protocol to make BEC in dilute gases is outlined from the 1995 experiment by Cornell and Wieman. Finally, the potential that the BEC holds for future developments and applications is discussed.
Subfields: Atomic and Molecular Physics, and Optics
View Paper: https://www.semanticscholar.org/paper/686f661c02c637a9f0b37ebb9309905df907f0db
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Atomic and Molecular Physics, and Optics
- M. Berkooz
- D. Kutasov
- V. Niarchos
- I. Carusotto
- Armen Sedrakian
- John W. Clark Jr.
- J. de Boer
- N. Obers
Citations in the corpus
- Carroll Symmetry, Dark Energy and Inflation (2021, methodology): “Models with tachyonic aspects respecting Carrollian symmetries were considered in, e.g. [12 – 14], and will furthermore feature in this work.”
- Non-Hermitian physics (2020, background): “Finally, in the context of the Bose-Einstein condensate, it is well known that weakly excited states on top of the macroscopically occupied bosonic mode can be analyzed by non-Hermitian quadratic bosonic operators [814].”
- Tachyon effective actins in open string theory (2003, background): “Recent work on the dynamics of unstable D-branes in string theory has led to an effective action for the open string tachyon T and massless open string modes, Aμ (the gauge field on the D-brane) and Y I (the scalar fields parametrizing the location of the D-brane in the transverse directions) [1-18]”
- Comments on Cosmological Singularities in String Theory (2002, background): “The conclusions of our analysis would presumably be similar for other potentials which go exponentially to zero at large T , such as those that arise in boundary string field theory [42,43,44] (see [45,46,47] for discussions of more general potentials).”
- Superfluidity in nuclear systems and neutron stars (2018, background): “Such atomic systems allow for remarkable control within the relevant parameter space, notably by tuning of the strength of the pairing force via a Feshbach resonance [36–38]; for general discussions see [39, 40].”
- Nonlocal density correlations as a signature of Hawking radiation from acoustic black holes (2007, background): “sity n̂ and the phase θ̂ [12] and we expand the density”
- Quantum fluctuations in the superfluid state of the BCS-BEC crossover (2007, background): “The BCS-BEC crossover [1, 2, 3, 4] is a problem of long standing interest in many-body physics with implications for a variety of fields including condensed matter, highenergy, nuclear and atomic and molecular physics.”