  We re-examine our former predictions \cite{kahanath1,kahanath2} of the top
and Higgs masses via dynamical symmetry breaking in a 4-fermion theory which
produces the Higgs as a bound state, and relates the top and Higgs masses to
$m_W$. The use of dynamical symmetry breaking was stongly motivated by the
apparent equality, within a factor of two, of the known and expected masses of
the $W$, $Z$, top and Higgs. In later work \cite{kahanath2} we evaluated the
masses self-consistently at the mass-poles, which resulted in predictions of
$m_t \sim 175$ GeV, and $m_H \sim 125$ GeV as central values within ranges
produced by varying the measured strong coupling. Figures (1) and (2) result
from evolution down to $m_W$ while the number quoted for the top quark mass,
i.e. 175 GeV includes an evolution back up to the top and use of the
determination of $\alpha_s$ at LEP at that time. $m_H$ is less dependent on the
value of the strong coupling. The variation of the predicted masses for a range
of the strong and electro-weak couplings $\alpha_s$, $\alpha_W$ at $m_W$ are
exhibited in Figure (3) and Figure (4) reproduced from the last work
\cite{kahanath2}, which was submitted to PRD well before the first FNAL
publications \cite{CDF1,D0top} suggesting evidence for the top.
