  In this article we propose a new strategy to address the Little Hierarchy
problem. We show that the addition of a fourth generation with vector-like
quarks to the minimal supersymmetric standard model (MSSM) can raise the
predicted value of the physical Higgs mass by mixing with the top sector. The
mixing requires a larger top quark Yukawa coupling (by up to $\sim 6 %$) to
produce the same top mass. Since loop corrections to $m_h$ go as $y_{top}^4$,
this will in turn increase the predicted value of the physical Higgs mass, a
point not previously emphasized in the literature. In the presence of mixing,
for A-terms and soft masses around 900 GeV, a Higgs mass of 125 GeV can be
generated while retaining perturbativity of the gauge couplings, evading
constraints from electroweak precision measurements (EWPM) and recent LHC
searches, and pushing the Landau pole for the top Yukawa above the GUT scale.
Soft masses can be as low as 800 GeV in parts of parameter space with a Landau
pole at $\sim 10^{10}$ GeV. However, the Landau pole can still be pushed above
the GUT scale if one sacrifices perturbative unification by adding fields in a
$\mathbf{5}$+$\mathbf{\bar{5}}$ representation. With a ratio of weak-scale
vector masses $\neq 1$, soft masses may be slightly below $800$ GeV. The model
predicts new quarks and squarks with masses $\gtrapprox 750$ GeV. We briefly
discuss potential paths for discovery or exclusion at the LHC.
