  We report quantum Monte Carlo results of harmonically confined quantum Bose
dipoles within a range of interactions covering the evolution from a gas phase
to the formation of an array of droplets. Scaling the experimental setup to a
computationally accessible domain we characterize that evolution in qualitative
agreement with experiments. Our microscopic approach generates ground-state
results free from approximations, albeit with some controlled statistical
noise. The simultaneous estimation of the static structure factor and the
one-body density matrix allows for a better knowledge of the quantum coherence
between droplets. Our results show a narrow window of interaction strengths
where diagonal and off-diagonal long-range order can coexist. This domain,
which is the key signal of a supersolid state, is reduced with respect to the
one predicted by the extended Gross-Pitaevskii equation. Differences are
probably due to an increase of attraction in our model, observed previously in
the calculation of critical atom numbers for single dipolar drops.
