  I discuss standard motivation for the new physics at the 1 TeV scale.
Although the arguments for new exotic phenomena seem to be very supportive I
argue that the Standard Model still might offer a good description far beyond
this energy scale. I analyze three Standard Model cases with specific boundary
conditions at the lowest energies. These conditions essentially eliminate the
hierarchy and fine-tuning problems. In the first model where quartic scalar
interactions are required to decouple, the Higgs is predicted to weigh around
39 GeV. In the second model with composite Higgs, the top Yukawa coupling is
required to be one (by hand, i.e. reflecting the assumed ground state) and the
Higgs mass of about 138 GeV is favored. The third model has condensation
mechanism embedded in two dimensions. The top Yukawa coupling being one comes
about as prediction rather then requirement, i.e. $g_t={3g_2 \over
2}\sqrt{1+{1\over3}(g_1\over g_2)^2} (1-\textit{few}%)\approx 1.025
(1-\textit{few}%)$ where $g_2$, $g_1$ are electroweak $SU(2)\times U(1)$ gauge
couplings, and the SM Higgs is expected to weigh in between 114.8 and 118.6
GeV.
