  We evaluate the feasibility of the implementation of two quantum repeater
protocols with an existing experimental platform based on a $^{40}$Ca$^+$-ion
in a segmented micro trap, and a third one that requires small changes to the
platform. A fiber cavity serves as an ion-light interface. Its small mode
volume allows for a large coupling strength of $g_c = 2 \pi 20$ MHz despite
comparatively large losses $\kappa = 2 \pi 36.6$ MHz. With a fiber diameter of
125 mu m, the cavity is integrated into the microstructured ion trap, which in
turn is used to transport single ions in and out of the interaction zone in the
fiber cavity. We evaluate the entanglement generation rate for a given fidelity
using parameters from the experimental setup. The DLCZ protocol (Duan et al,
Nature, 2001, 414, 413-418) and the hybrid protocol (van Loock et al, Phys.
Rev. Lett., 2006, 96, 240501) outperform the EPR protocol (Sanguard et al, New
J. Phys., 2013, 15, 085004). We calculate rates of more than than 35 s$^{-1}$
for non-local Bell state fidelities larger than 0.9 with the existing platform.
We identify parameters which mainly limit the attainable rates, and conclude
that entanglement generation rates of 740 s$^{-1}$ at fidelities of 0.9 are
within reach with current technology.
