Lagrange-mesh method for deformed nuclei with relativistic energy density functionals

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Abstract

The application of relativistic energy density functionals to the description of nuclei leads to the problem of solving self-consistently a coupled set of equations of motion to determine the nucleon wave functions and meson fields. In this work, the Lagrange-mesh method in spherical coordinates is proposed for numerical calculations. The essential field equations are derived from the relativistic energy density functional and the basic principles of the Lagrange-mesh method are delineated for this particular application. The numerical accuracy is studied for the case of a deformed relativistic harmonic oscillator potential with axial symmetry. Then the method is applied to determine the point matter distributions and deformation parameters of self-conjugate even-even nuclei from 4He to 40Ca.

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APA

Typel, S. (2018). Lagrange-mesh method for deformed nuclei with relativistic energy density functionals. Frontiers in Physics, 6(AUG). https://doi.org/10.3389/fphy.2018.00073

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