  We investigate quantum steering of an open quantum system by measurements on
its environment in the framework of collision models. As an example we consider
a coherently driven qubit dissipatively coupled to a bath. We construct local
non-adaptive and adaptive as well as nonlocal measurement scenarios specifying
explicitly the measured observable on the environment. Our approach shows
transparently how the conditional evolution of the open system depends on the
type of the measurement scenario and the measured observables. These can then
be optimized for steering. The nonlocal measurement scenario leads to maximal
violation of the used steering inequality at zero temperature. Further, we
investigate the robustness of the constructed scenarios against thermal noise.
We find generally that steering becomes harder at higher temperatures.
Surprisingly, the system can be steered even when bipartite entanglement
between the system and individual subenvironments vanishes.
