  In this assignment we try to probe the role played by torsion in the current
scenario of coincidence and devise a set-up for its realization. In order to
model the scenario, the energy arising from the torsion component is considered
analogous to dark energy. An interaction between dark energy and dark matter is
considered, which is by far the best possible tool to realize the coincidence.
A set-up is designed and a constraint equation is obtained which screens the
models of \textit{f(T)} gravity that can successfully accommodate the
stationary scenario in its framework, from those which cannot. Due to the
absence of a universally accepted interaction term introduced by a fundamental
theory, the study is conducted over three different forms of chosen interaction
terms. As an illustration two widely known models of \textit{f(T)} gravity are
taken into consideration and used in the designed setup. The study reveals that
the realization of the coincidence scenario as well as the role played by
torsion in the current universe is a model dependent phenomenon. It is found
that the first model showed a considerable departure from the stationary
scenario. On the contrary the other four models are perfectly consistent with
our setup and generated a satisfactory stationary scenario, thus showing their
cosmological viability and their superiority over their counterparts. For the
third model (exponential model) it was seen that the cosmological coincidence
is realized only in the phantom regime. For the fourth (logarithmic model) and
the fifth models, we see that the the stationary scenario is attained for
negative interaction values. This shows that the direction of flow must be from
dark energy to dark matter unlike the previous models. Under such circumstances
the universe will return from the present energy dominated phase to a matter
dominated phase.
