Journal of Low Temperature Physics

, Volume 162, Issue 3–4, pp 136–145 | Cite as

Giant Coupling Effects in Confined 4He Near T λ

  • J. K. Perron
  • F. M. Gasparini


Superfluid 4He shares with superconductors a transition into a low temperature state where the order parameter is a wave function. For the low temperature superconductors, which have a large zero temperature correlation length, this results in well known Josephson effects reflecting the overlap of the wave function across barriers and weak links. Similar phenomena are harder to realize for 4He because the zero temperature correlation length is of the order of interatomic dimensions. The fact that for 4He the critical region, where the correlation length diverges, is accessible experimentally leads to a possible new kind of coupling. This differs from that of a superconductor in the sense that critical fluctuations are important. We have seen such coupling whereby two regions of confined 4He interact and influence their respective thermodynamic behavior (Perron et al. in Nat. Phys. 6:499–502, 2010). This interaction extends over length scales which are much larger than the correlation length. We describe measurements of heat capacity and superfluid density which illustrate this behavior.


Helium four Superfluid transition Weak links effects Finite size effects Critical phenomena Finite size scaling Coupling effect Correlation lengths effects 


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© Springer Science+Business Media, LLC 2010

Authors and Affiliations

  1. 1.Department of Physics, The University at BuffaloState University of New YorkBuffaloUSA

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