  Recently, there has been a growing interest in the study of deformed
uranium-uranium ($U$-$U$) collisions in its various geometrical configurations
due to their usefulness in understanding the different aspects of quantum
chromodynamics (QCD). In this paper we have studied the particle production in
deformed $U$-$U$ collisions at $\sqrt{s_{NN}}$ = $193$ GeV using modified
wounded quark model (WQM). At first, we have shown the variation of
quark-nucleus inelastic scattering cross-section ($\sigma_{qA}^{in}$) with
respect to centralities for various geometrical orientations of $U$-$U$
collisions in WQM. After that we have calculated the pseudorapidity density
($dn_{ch}/d\eta$) within WQM using two-component prescription. Further we have
calculated the transverse energy density distribution ($dE_{T}/d\eta$) along
with the ratio of transverse energy to charged hadron multiplicity
($E_{T}/N_{ch}$) for $U$-$U$ collisions and compared them with the
corresponding experimental data. We have shown the scaling behavior of
$dn_{ch}/d\eta$ and $dE_{T}/d\eta$ for different initial geometry of $U$-$U$
collision with respect to $p$-$p$ data at $\sqrt{s_{NN}}=200$ GeV. Furthermore
we have shown the Bjorken energy density achieved in $U$-$U$ collisions for
various configurations and compared them with experimental data of $Au$-$Au$ at
200 GeV. We observe that the present model suitably describes the experimental
data for minimum bias geometrical configuration of $U$-$U$ collisions. An
estimate for various observables in different initial geometries of $U$-$U$
collisions is also presented which will be tested in future by experimental
data.
