  Topological polaritons (aka topolaritons) present a new frontier for
topological behavior in solid-state systems. They combine light and matter,
which allows to probe and manipulate them in a variety of ways. They can also
be made strongly interacting, due to their excitonic component. So far,
however, their realization was deemed rather challenging. Here we present a
scheme which allows to realize topolaritons in garden variety zinc-blende
quantum wells. Our proposal requires a moderate magnetic field and a potential
landscape which can be implemented, e.g., via surface acoustic waves or
patterning. We identify indirect excitons in double quantum wells as a
particularly appealing alternative for topological states in exciton-based
systems. Indirect excitons are robust and long lived (with lifetimes up to
milliseconds), and, therefore, provide a flexible platform for the realization,
probing, and utilization of topological coupled light-matter states.
