  The observed recurrence of glitches in pulsars and neutron stars carry rich
information about the evolution of their internal structures. In this article I
show that the glitch-events observed in pulsars are exact quantum signatures
for their metamorphosis into dark super-baryons (SBs), whose interiors are made
of purely incompressible superconducting gluon-quark superfluids. Here the
quantum nuclear shell model is adopted to describe the permitted energy levels
of the SB, which are assumed to be identical to the discrete spinning rates
$\Omega_{SB},$ that SBs are allowed to rotate with. Accordingly, a glitch-event
corresponds to a prompt spin-down of the superconducting SB from one energy
level to the next, thereby expelling a certain number of vortices, which in
turn spins-up the ambient medium. The process is provoked mainly by the
negative torque of the ambient dissipative nuclear fluid and by a universal
scalar field $\phi$ at the background of a supranuclear dense matter. As
dictated by the Onsager-Feynman equation, the prompt spin-down must be
associated with increase of the dimensions of the embryonic SB to finally
convert the entire pulsar into SB-Objects on the scale of Gyrs. Based on our
calculations, a Vela-like pulsar should display billions of glitches during its
lifetime, before it metamorphoses entirely into a maximally compact SB-object
and disappears from our observational windows. The present model predicts the
mass of SBs and $\Delta \Omega/\Omega$ in young pulsars to be relatively lower
than their older counterparts.
