  We consider a scheme for on-demand teleportation of a dual-rail electron
qubit state, based on single-electron sources and detectors. The scheme has a
maximal efficiency of 25%, which is limited both by the shared entangled state
as well as the Bell-state measurement. We consider two experimental
implementations, realizable with current technology. The first relies on
surface acoustic waves, where all the ingredients are readily available. The
second is based on Lorentzian voltage pulses in quantum Hall edge channels. As
single-electron detection is not yet experimentally established in these
systems, we consider a tomographic detection of teleportation using current
correlators up to (and including) third order. For both implementations we take
into account environmental effects.
