We construct several charged regular black hole metrics employing mass
distribution functions which are inspired by continuous probability
distributions. Some of these metrics satisfy the weak energy condition and
asymptotically behave as the Reissner--Nordstrom black hole. In each case, the
source to the Einstein equations corresponds to a nonlinear electrodynamics
model, which in the weak field limit becomes the Maxwell theory (compatible
with the Maxwell weak field limit or approximation). Furthermore, we include
other regular black hole solutions that satisfy the weak energy condition and
some of them correspond to the Maxwell theory in the weak field limit.Comment: v1: 19 pages, LaTeX, no figures; v2: typos corrected and one
reference removed to match published version in Phys. Rev.
In this work we construct a family of spherically symmetric, static, charged
regular black hole metrics in the context of Einstein-nonlinear electrodynamics
theory. The construction of the charged regular black hole metrics is based on
three requirements: (a) the weak energy condition should be satisfied, (b) the
energy-momentum tensor should have the symmetry $T^{0}_{0}=T^{1}_{1}$, and (c)
these metrics have to asymptotically behave as the Reissner-Nordstr\"{o}m black
hole metric. In addition, these charged regular black hole metrics depend on
two parameters which for specific values yield regular black hole metrics that
already exist in the literature. Furthermore, by relaxing the third
requirement, we construct more general regular black hole metrics which do not
behave asymptotically as a Reissner-Nordstr\"{o}m black hole metric.Comment: v1: 11 pages, LaTeX, no figures; v2: typos corrected and one
reference removed to match published version in Phys. Lett.
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