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Recent experimental advances in realizing degenerate quantum dipolar gases inoptical lattices and the flexibility of experimental setups in attainingvarious geometries offer the opportunity to explore exotic quantum many-bodyphases stabilized by anisotropic, long-range dipolar interaction. Moreover, theunprecedented control over the various physical properties of these systems,ranging from the quantum statistics of the particles, to the inter-particleinteractions, allow one to engineer novel devices. In this paper, we considerdipolar bosons trapped in a stack of one-dimensional optical lattice layers,previously studied in [1]. Building on our prior results, we provide adescription of the quantum phases stabilized in this system which includecomposite superfluids, solids, and supercounterfluids, most of which are foundto be threshold- less with respect to the dipolar interaction strength. We alsodemonstrate the effect of enhanced sensitivity to rotations of a SQUID-typedevice made of two composite superfluids trapped in a ring-shaped opticallattice layer with weak links.

Quasi-molecular bosonic complexes -- a pathway to atomic analog of SQUID with controlled sensitivity