  We explore corrections to the "hard wall" gravity dual of QCD with two-form
tensor fields. These fields correspond to a dimension three quark bilinear in
QCD, which generates states with 1(--) and 1(+-) quantum numbers, or
omega/rho-like and h1/b1-like mesons, respectively. We include new interaction
terms, which render the model complete up to dimension six. We find that
breaking chiral symmetry induces modifications to the spectrum, by mixing the
vector current and the new two-tensor operator. This breaks the degeneracy of
the 1(--) and 1(+-) spectra. We also compute the (b1->omega + pi) decay rate
and D/S ratio, and the couplings of excited rho states to two pions. We then
perform a comprehensive new fit to QCD data. We obtain a value for the magnetic
susceptibility of the QCD quark condensate which is consistent with
phenomenological estimates. These results allow us to evaluate the success of
dimension counting and UV matching in this model.
