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We calculated in nonlinear bosonized theory $1/\bar{N}$ corrections to theLandau Fermi-liquid fixed-point (FLFP) axial-vector coupling constant innuclear matter $g_A^L\approx 1$ to which the Landau parameter $F_1^\omega$predominantly contributes. We obtain the correction to $F_1^\omega$ tocalculate the correction $\delta g_A^L$ to the axial-vector coupling constant$g_A^L$ at the nuclear saturation density. It comes out to be extremely small,$\delta g_A^L\sim O(10^{-4})$. We discuss how the "dilaton-limit fixed-point(DLFP)" result $g_A=1$ can be preserved from finite nuclei to high densitiesrelevant to massive neutron stars and its possible impact on $0\nu\beta\beta$decay processes involved in going beyond the Standard Model.

Corrections to Landau Fermi-liquid fixed-point approximation in nonlinear bosonized theory: Application to $g_A^L$ in nuclei