  Dipolar Bose-Einstein condensates represent a powerful platform for the
exploration of quantum many-body phenomena arising from long-range
interactions. A series of recent experiments has demonstrated the formation of
supersolid states of matter. Subsequent theoretical works have shown that
quantum fluctuations can affect the underlying phase transition and may lead to
the emergence of supersolids with various lattice structures in dipolar
condensates. In this work we explore the signatures of such different
geometries in confined finite condensates. In addition to previously found
triangular lattices, our analysis reveals a rich spectrum of states, from
honeycomb patterns and ring structures to striped supersolids. By optimizing
relevant parameters we show that transitions between distinct supersolids
should be observable in current experiments.
