  This paper is concerned with a compositional scheme for the construction of
control barrier certificates for interconnected discrete-time stochastic
systems. The main objective is to synthesize switching control policies against
$\omega$-regular properties that can be described by accepting languages of
deterministic Streett automata (DSA) along with providing probabilistic
guarantees for the satisfaction of such specifications. The proposed framework
leverages the interconnection topology and a notion of so-called control
sub-barrier certificates of subsystems, which are used to compositionally
construct control barrier certificates of interconnected systems by imposing
some dissipativity-type compositionality conditions. We propose a systematic
approach to decompose high-level $\omega$-regular specifications into simpler
tasks by utilizing the automata corresponding to the complement of
specifications. In addition, we formulate an alternating direction method of
multipliers (ADMM) optimization problem in order to obtain suitable control
sub-barrier certificates of subsystems while satisfying compositionality
conditions. We also provide a sum-of-squares (SOS) optimization problem for the
computation of control sub-barrier certificates and local control policies of
subsystems. Finally, we demonstrate the effectiveness of our proposed
approaches by applying them to a physical case study.
