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Modified Mosseri-Sadoc tiles from $D_6$

Rehab Al Raisi, Nazife Ozdes Koca, Mehmet Koca, Ramazan Koc

Abstract

A modified set of Mosseri-Sadoc (MS) tiles tessellating 3D Euclidean space with icosahedral symmetry is introduced. The new set of tiles are embedded in dodecahedron with a threefold symmetric order. The modified Mosseri-Sadoc (MMS) tiles can be inflated by a new inflation matrix with positive eigenvalues $τ^3$ and $τ$ with the corresponding eigenvectors representing the volumes and the Dehn invariants of the tiles, respectively, where $τ=\frac{1+\sqrt5}{2}$ is the golden ratio. The MMS tiles are obtained by projection of the 4D and 5D facets of the Delone cells tiling the $D_6$ root lattice in an alternating order. It is also proved that a subset of the lattice $D_6$ projects into the dodecahedron inflated by $τ^n$ with an arbitrary integer $n$ and tiled by the MMS tiles.

Modified Mosseri-Sadoc tiles from $D_6$

Abstract

A modified set of Mosseri-Sadoc (MS) tiles tessellating 3D Euclidean space with icosahedral symmetry is introduced. The new set of tiles are embedded in dodecahedron with a threefold symmetric order. The modified Mosseri-Sadoc (MMS) tiles can be inflated by a new inflation matrix with positive eigenvalues and with the corresponding eigenvectors representing the volumes and the Dehn invariants of the tiles, respectively, where is the golden ratio. The MMS tiles are obtained by projection of the 4D and 5D facets of the Delone cells tiling the root lattice in an alternating order. It is also proved that a subset of the lattice projects into the dodecahedron inflated by with an arbitrary integer and tiled by the MMS tiles.

Paper Structure

This paper contains 6 sections, 23 equations, 4 figures, 3 tables.

Figures (4)

  • Figure 1: The Coxeter-Dynkin diagrams of $d_6$ and $h_3$ illustrating the symbolic projection.
  • Figure 2: Dodecahedron of edge length 1 with vertices $\pm A_i$ and $\pm B_i$.
  • Figure 3: Embedding of the MMS tiles in the dodecahedron.
  • Figure 4: Threefold embedding of 7 dodecahedra $d\left(1\right)$ in the dodecahedron $d\left(\tau^2\right)$ along with the other tiles (not shown).