  Condensed-matter community is involved in hot debate on the nature of quantum
critical points (QCP) governing the low-temperature properties of heavy fermion
metals. The smeared jump like behavior revealed both in the residual
resistivity $\rho_0$ and the Hall resistivity $R_H$, along with the violation
of the time invariance symmetry $\mathcal{T}$ and the charge invariance
$\mathcal{C}$, including the violation of quasiparticle-hole symmetry, and
providing vital clues on the origin of both the non-Fermi-liquid behavior and
QCP. For the first time, based on a number of important experimental data, we
show that these experimental observations point out unambiguously that QCP of
$\rm CeCoIn_5$ is accompanied by the symmetry violation, and QCP itself is
represented by the topological fermion-condensation quantum phase transition
(FCQPT) connecting two Fermi surfaces of different topological charges.
