  Material's geometrical structure is a fundamental part of their properties.
The honeycomb geometry of graphene is responsible for the arising of its Dirac
cone, while the kagome and Lieb lattice hosts flat bands and pseudospin-1 Dirac
dispersion. These features seem to be particular for few 2D systems rather than
a common occurrence. Given this correlation between structure and properties,
exploring new geometries can lead to unexplored states and phenomena. Kepler is
the pioneer of the mathematical tiling theory, describing ways of filing the
euclidean plane with geometrical forms in its book {\it Harmonices Mundi}. In
this letter, we characterize $1255$ lattices composed of the euclidean plane's
k-uniform tiling, with its intrinsic properties unveiled - this class of
arranged tiles present high-degeneracy points, exotic quasiparticles, and flat
bands as a common feature. Here, we present aid for experimental interpretation
and prediction of new 2D systems.
