  We report on an alternative route based on nanomechanical folding induced by
AFM tip to obtain weakly interacting multi-layer graphene (wi-MLG) from a
chemical vapor deposition (CVD) grown single-layer graphene (SLG). The tip
first cuts, then pushes and folds graphene during zigzag movements. The pushed
graphene has been analyzed using various Raman microscopy plots: $A_D /A_G
\times E_L{}^4$ vs $\Gamma_G$, $\omega_{2D}$ vs $\Gamma_{2D}$, $\Gamma_{2D}$ vs
$\Gamma_G$, $\omega_{2D+/-}$ vs $\Gamma_{2D+/-}$, and $A_{2D-}/A_{2D+}$ vs
$A_{2D}/A_G$. We show that the SLG in plane properties are maintained under the
folding process and that a few tens of graphene layers are stacked, with a
limited amount of structural defects. A blue shift of about 20 cm-1 of the 2D
band is observed. The relative intensity of the 2D$_-$ and 2D$_+$ bands have
been related to structural defects, giving evidence of their role in the inner
and outer processes at play close to the Dirac cone.
