  Electroweak symmetry breaking may be a consequence of color sextet quark
chiral symmetry breaking. A special solution of QCD is involved, with a
high-energy S-Matrix that can be constructed ``semi-perturbatively'' via the
chiral anomaly and reggeon diagrams. An infra-red fixed point and color
superconductivity are crucial components of the construction. Infinite momentum
physical states contain both quarks and a universal ``anomalous wee gluon''
component, and the spectrum is more limited than is required by confinement and
chiral symmetry breaking. The pomeron is approximately a regge pole and the
Critical Pomeron describes asymptotic cross-sections.
  The strong coupling of the pomeron to the electroweak sector could produce
large $x$ and $Q^2$ events at HERA, and vector boson pairs at Fermilab. Further
evidence for the sextet sector at Fermilab would be a large $E_T$ jet excess,
due in part to the non-evolution of ${\alpha}_s$, and other phenomena related
to the possibility that top quark production is due to the $\eta_6$.
  The sextet proton and neutron are the only new baryonic states. Sextet states
dominate high energy hadronic cross-sections and stable sextet neutrons could
produce both dark matter and ultra high energy cosmic rays. The cosmic ray
spectrum knee suggests the effective sextet threshold is between Fermilab and
LHC energies, with large cross-section effects expected at the LHC. Jet and
vector boson cross-sections will be very much larger than expected, and sextet
baryons should also be produced. Double pomeron produced states could provide
definitive evidence for the existence of the sextet sector in the initial low
luminosity running.
