Dependence of nuclear binding on hadronic mass variation
arXiv:0709.0077 · doi:10.1103/PhysRevC.76.054002
Abstract
We examine how the binding of light () nuclei depends on possible variations of hadronic masses, including meson, nucleon, and nucleon-resonance masses. Small variations in hadronic masses may have occurred over time; the present results can help evaluate the consequences for big bang nucleosynthesis. Larger variations may be relevant to current attempts to extrapolate properties of nucleon-nucleon interactions from lattice QCD calculations. Results are presented as derivatives of the energy with respect to the different masses so they can be combined with different predictions of the hadronic mass-dependence on the underlying current-quark mass . As an example, we employ a particular set of relations obtained from a study of hadron masses and sigma terms based on Dyson-Schwinger equations and a Poincaré-covariant Faddeev equation for confined quarks and diquarks. We find that nuclear binding decreases moderately rapidly as the quark mass increases, with the deuteron becoming unbound when the pion mass is increased by 60% (corresponding to an increase in of 2.5). In the other direction, the dineutron becomes bound if the pion mass is decreased by 15% (corresponding to a reduction of by 30%). If we interpret the disagreement between big bang nucleosynthesis calculations and measurements to be the result of variation in , we obtain an estimate where (the expected accuracy in is about a factor of 2). The result is dominated by Li data.
28 pages including 3 figures v2:additional citations/acknowledgments added
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