In theories in which different regions of the universe can have different values of the the physical parameters, we would naturally find ourselves in a region which has parameters favorable for life. We explore the range of anthropically allowed values of the mass parameter in the Higgs potential, \(\mu^2\). For \(\mu^2<0\), the requirement that complex elements be formed suggests that the Higgs vacuum expectation value \(v\) must have a magnitude less than 5 times its observed value. For \(\mu^2>0\), baryon stability requires that \(|\mu|<<M_P\), the Planck Mass. Smaller values of \(|\mu^2|\) may or may not be allowed depending on issues of element synthesis and stellar evolution. We conclude that the observed value of \(\mu^2\) is reasonably typical of the anthropically allowed range, and that anthropic arguments provide a plausible explanation for the closeness of the QCD scale and the weak scale.