  Implications of additional fundamental scalar fields are regarded as among
the most important avenues to explore after the experimental discovery of the
standard model Higgs, particularly when there already exist cogent arguments in
favor of their existence. A peculiar observation in Higgs-scalar singlet system
is tendency of scalar singlet field to have negative squared physical masses
which may be a sign of either a tachyon field or symmetry breaking. Assuming
that this feature is due to the presence of a phenomenon similar to the
conventionally understood Higgs mechanism, Wick Cutkosky model is studied in
the parameter space suggested by the classical ground state of the system at
Higgs mass $125.09$ GeV with positive values for both squared bare masses. The
results are found to have strong negative contributions to squared scalar
masses. For higher cutoff values, the renormalized squared scalar masses and
squared bare couplings are found to qualitatively favor a relationship similar
to the one in the classical ground state of the system, upto an additive
constant. Higgs propagators remain almost unaffected as observed in a
previously explored region of parameter space. However, scalar singlet
propagators are found to have relatively different qualitative features in
comparison to the previous study of the model. Vertices are found to have
qualitatively similar features. No sign of triviality is found.
