Group Theoretical Analysis of Quasicrystallography from Projections of Higher Dimensional Lattices Bn
arXiv:1403.2847 · doi:10.1107/S2053273314025492
Abstract
A group theoretical discussion on the hypercubic lattice described by the affine Coxeter-Weyl group Wa(Bn) has been presented. When the lattice is projected onto the Coxeter plane it is noted that the maximal dihedral subgroup Dh of W(Bn) with h = 2n representing the Coxeter number describes the h-fold symmetric quasicrystallography. Higher dimensional cubic lattices are explicitly constructed for n = 4, 5, 6. Their rank 3 Coxeter subgroups and maximal dihedral subgroups are identified. It has been explicitly shown that when their Voronoi cells are decomposed under the respective rank 3 subgroups W(A3),W(H2) x W(A1) and W(H3) one obtains the rhombic dodecahedron, rhombic icosahedron and rhombic triacontahedron respectively. Projection of the lattice B4 onto the Coxeter plane represents quasicrystal structures with 8-fold symmetry. The B5 lattice is used to describe the quasicrystals with both 5-fold and 10-fold symmetries. The lattice B6 can describe a 12-fold symmetric quasicrystal as well as a 3D icosahedral quasicrystal depending on the choice of subspace of projections. The novel structures from the projected sets of lattice points are compatible with the available experimental data.
24 pages, 17 figures
Cited by in corpus (6)
- Explicit Construction of the Voronoi and Delaunay Cells of W(An) and W(Dn) Lattices and Their Facets
- Prototiles and Tilings from Voronoi and Delone cells of the Root Lattice A_n
- SU(5) Grand Unified Theory, its Polytopes and 5-fold Symmetric Aperiodic Tiling
- Icosahedral Polyhedra from D6 lattice and Danzer's ABCK tiling
- From Affine to Affine : Group Theoretical Analysis of Five-fold Tilings
- Dodecahedral Structures with Mosseri-Sadoc Tiles