  The search for the Higgs boson is entering a decisive phase. The Large Hadron
Collider experiments have collected more than 1 fb$^{-1}$ of data and are now
capable of efficiently probing the high Higgs mass region, $m_H > 140$ GeV. The
low mass region is more challenging at the LHC, but if the Higgs has Standard
Model (SM)-like properties, the LHC should find evidence for it by the end of
next year. In low energy supersymmetric extensions of the SM, the situation is
similar for large values of the CP-odd Higgs mass $m_A$, but more interesting
for lower values of $m_A$. The ($\sqrt{s}$ =7 TeV) LHC searches for a low-mass
Standard Model Higgs boson predominantly in the $h\rightarrow \gamma\gamma,WW$
decay modes, which may be suppressed by an increase in the $h\rightarrow
b\bar{b}, \tau^+ \tau^-$ partial widths (and thus the total $h$ width) for
$m_A\lesssim 500$ GeV. Although $h\rightarrow b\bar{b}, \tau^+ \tau^-$ are
sought at the LHC, these channels are not powerful enough to fully counter this
suppression in the first year of running. We consider two alternative
possibilities for probing the low $m_A$ region: nonstandard Higgs boson
searches at the LHC, and a statistical combination with the Tevatron, where
$Vh\rightarrow b\bar{b}$ is the primary search channel for light $h$. We also
study an MSSM scenario in which the $h\rightarrow\gamma\gamma$ rate is enhanced
at low $m_A$ to the point where discovery is possible in the near future.
