  Quantum teleportation is the transfer of quantum information between two
locations by the use of shared entanglement. Current teleportation schemes
broadly fall under one of two categories, of either qubit or continuous
variables teleportation. Spin coherent states on spin ensembles can be
teleported under the continuous variables approximation for states with small
deviations from a given polarization. However, for spin coherent states with
large deviations, no convenient teleportation protocol exists. Recently, we
introduced a teleportation scheme where a spin coherent state lying on the
equator of the Bloch sphere is teleported between distant parties (A.N. Pyrkov
and T. Byrnes, New. J. Phys. 16, 073038 (2014)). Here we generalize the
protocol to a spin coherent state with an arbitrary position on Bloch sphere.
Our proposed scheme breaks classical bounds based on communication in the
unconditional case and quantum state estimation with postselection.
