  We propose driven dissipative Majorana platforms for the stabilization and
manipulation of robust quantum states. For Majorana box setups, in the presence
of environmental electromagnetic noise and with tunnel couplings to quantum
dots, we show that the time evolution of the Majorana sector is governed by a
Lindblad master equation over a wide parameter regime. For the single-box case,
arbitrary pure states (`dark states') can be stabilized by adjusting suitable
gate voltages. For devices with two tunnel-coupled boxes, we outline how to
engineer dark spaces, i.e., manifolds of degenerate dark states, and how to
stabilize fault-tolerant Bell states. The proposed Majorana-based dark space
platforms rely on the constructive interplay of topological protection
mechanisms and the autonomous quantum error correction capabilities of
engineered driven dissipative systems. Once a working Majorana platform becomes
available, only standard hardware requirements are needed to implement our
ideas.
