Physics
Scientific paper
Mar 2012
adsabs.harvard.edu/cgi-bin/nph-data_query?bibcode=2012aps..apr.t8007c&link_type=abstract
American Physical Society, APS April Meeting 2012, March 31-Apr 3, 2012, abstract #T8.007
Physics
Scientific paper
A previous investigation by one of the authors showed that the critical mass of a constant-density neutron star can become greater than eight solar masses under conditions of neutron condensation to form a separate phase of composite bosons, provided the scattering length of the bosons was on the order of a picometer. That analysis employed Newtonian gravity, but general relativity provides a more fundamental analysis. Using general relativity, a Klein-Gordon Lagrangian density with Gross-Pitaevskii term for the bosons, and an effective-field approximation for neutrons, we have determined the equilibrium states of a collapsed star in a spherically symmetric variable-density single phase comprising a ground-state boson condensate and degenerate gas of noninteracting neutrons. Our calculations show that boson scattering lengths of about 20 picometers can prevent collapse to stellar black holes.
Cox David
Mallett Ronald
Silverman Mark
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