  The long distance entanglement in finite size open Fermi-Hubbard chains,
together with the end-to-end quantum teleportation are investigated. We show
the peculiarity of the ground state of the Fermi-Hubbard model to support
maximum long distance entanglement, which allows it to operate as a quantum
resource for high fidelity long distance quantum teleportation. We determine
the physical properties and conditions for creating scalable long distance
entanglement and analyze its stability under the effect of the Coulomb
interaction and the hopping amplitude. Furthermore, we show that the choice of
the measurement basis in the protocol can drastically affect the fidelity of
quantum teleportation and we argue that perfect information transfer can be
attained by choosing an adequate basis reflecting the salient properties of the
quantum channel, i.e. Hubbard projective measurements.
