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Universal properties of infrared oscillator basis extrapolations

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arxiv 1302.3815 v2 pith:OZ76MLTQ submitted 2013-02-15 nucl-th

Universal properties of infrared oscillator basis extrapolations

classification nucl-th
keywords basisoscillatorcalculationsdeuteronenergyformulasharmonicinfrared
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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Recent work has shown that a finite harmonic oscillator basis in nuclear many-body calculations effectively imposes a hard-wall boundary condition in coordinate space, motivating infrared extrapolation formulas for the energy and other observables. Here we further refine these formulas by studying two-body models and the deuteron. We accurately determine the box size as a function of the model space parameters, and compute scattering phase shifts in the harmonic oscillator basis. We show that the energy shift can be well approximated in terms of the asymptotic normalization coefficient and the bound-state momentum, discuss higher-order corrections for weakly bound systems, and illustrate this universal property using unitarily equivalent calculations of the deuteron.

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