  QED-model for multichain coupled qubit system, proposed in \cite{Part1}, was
confirmed by Raman scattering studies of quasi-1D carbon zigzag-shaped
nanotubes (CZSNTs), produced by high energy ion beam modification of natural
diamond single crystals. Multichain coupled qubit system represents itself
Su-Schriffer-Heeger $\sigma$-polaron lattice, formed in CZSNTs plus quantized
external electromagnetic (EM) field. New quantum optics phenomenon - Rabi
waves, predicted in \cite{Slepyan_Yerchak} has experimentally been identified
for the first time. It is shown, that Raman spectra in quasi-1D CZSNTs are
quite different in comparison with well known Raman spectra in 2D those ones.
They characterized by semiclassical consideration by the only one vibronic mode
of Su-Schriffer-Heeger $\sigma$-polaron lattice instead of longitudinal and
transverse optical phonon $G^+$ and $G^-$modes and the out-of-plane radial
breathing mode, which are observed in Raman spectra of 2D single wall
nanotubes. It is consequence of 2D - 1D transition in all physical properties
of nanotubes. It is shown, that strong electron-photon coupling takes place in
CZSNTs by interaction with EM-field and quantum nature of EM-field has to be
taken into account. It has been done for the first time in stationary
spectroscopy at all. All optical spectra, in particular, Raman spectra are
registered by usual stationary measurement technique in nonequilibrium
conditions, which are the consequence of Rabi wave packets' formation. It leads
in its turn to appearance of additional lines, corresponding to revival part of
inversion dependence of joint EM-field + matter system in frequency
representation.
