  This work builds upon the previous article [1] and explores the solution of
the charged black string introduced in [2]. The black bounce regularization
method, based on the Simpson-Visser solution, is employed by transforming the
radial variable using $r\rightarrow \sqrt{r^2+a^2}$. The regular charged black
string metric is defined, and the properties of event horizons, surface
gravity, and Hawking temperature are investigated. The behavior of curvature
quantities, including curvature invariants and tensors, is examined to verify
the absence of singularities when $a\neq 0$. The Einstein equation for the
energy-momentum tensor is solved, and the null energy condition is analyzed for
the obtained solution. The sources of this solution are evaluated, combining a
scalar field with nonlinear electrodynamics. However, unlike other works, an
electric field is considered instead of a magnetic field. Finally, the study
calculates the possibility of stable or unstable circular orbits for massive
and massless particles.
