  The energy and charge fluxes carried by electrons in a two-terminal junction
subjected to a random telegraph noise, produced by a single electronic defect,
are analyzed. The telegraph processes are imitated by the action of a
stochastic electric field that acts on the electrons in the junction. Upon
averaging over all random events of the telegraph process, it is found that
this electric field supplies, on the average, energy to the electronic
reservoirs, which is distributed unequally between them: the stronger is the
coupling of the reservoir with the junction, the more energy it gains. Thus the
noisy environment can lead to a temperature gradient across an un-biased
junction.
