  The time-evolution of multiparty quantum correlations as quantified by
monogamy scores and bipartition collections of quantum correlations is
investigated for light-harvesting complexes modeled by the fully connected and
the Fenna-Mathews-Olson (FMO) networks. The dynamics consists of a coherent
term as well as dissipative, dephasing, and sink operator terms. The multiparty
quantum correlation reveals important information regarding the sharability of
quantum correlations in the networks, which allow us to categorize the network
sites into three distinct groups in the FMO complex and to predict the
structural geometry of the complex. In particular, we show that the relative
values of the ingredients of multiparty quantum correlation measures in the
time dynamics clearly indicate the primary route of energy transfer from the
antenna to the bacterial reaction center in the FMO complex.
