We construct some examples of finite and infinite crystalline three-dimensional nets derived from symmetric reticulations of homogeneous two-dimensional spaces: elliptic (S2), Euclidean (E2) and hyperbolic (H2) space. Those reticulations are edges and vertices of simple spherical, planar and hyperbolic tilings. We show that various projections of the simplest symmetric tilings of those spaces into three-dimensional Euclidean space lead to topologically and geometrically complex patterns, including multiple interwoven nets and tangled nets that are otherwise difficult to generate ab initio in three dimensions
We derive more than 80 embeddings of 2D hyperbolic honeycombs in Euclidean 3 space, forming 3-period...
In this snapshot, we will first give an introduction to hyperbolic geometry and we will then show ho...
An n-dimensional tiling is formed by laying tiles, chosen from a finite collection of shapes (protot...
We analyse two-component “weavings” made of a pair of dual (p,q) and (q,p) nets that undulate on bo...
We demonstrate the usefulness of two-dimensional hyperbolic geometry as a tool to generate three-dim...
We demonstrate the usefulness of two-dimensional hyperbolic geometry as a tool to generate three-dim...
We describe a technique for construction of 3D Euclidean (E3) networks with partially-prescribed rin...
High-symmetry free tilings of the two-dimensional hyperbolic plane (H 2) can be projected to genus-3...
Many crystalline networks can be viewed as decorations of triply periodic minimal surfaces. Such sur...
Many crystalline networks can be viewed as decorations of triply periodic minimal surfaces. Such sur...
An account is given of various classifications of three-periodic nets. It is convenient to classify ...
A non-technical account of the links between two-dimensional (2D) hyperbolic and three-dimensional (...
Tris-chelated metal complexes with octahedral geometry are sometimes used as building blocks for "se...
Aperiodic tilings are interesting to mathematicians and scientists for both theoretical and practica...
We suggest constructive definitions for the determination of untangled finite graphs and three-perio...
We derive more than 80 embeddings of 2D hyperbolic honeycombs in Euclidean 3 space, forming 3-period...
In this snapshot, we will first give an introduction to hyperbolic geometry and we will then show ho...
An n-dimensional tiling is formed by laying tiles, chosen from a finite collection of shapes (protot...
We analyse two-component “weavings” made of a pair of dual (p,q) and (q,p) nets that undulate on bo...
We demonstrate the usefulness of two-dimensional hyperbolic geometry as a tool to generate three-dim...
We demonstrate the usefulness of two-dimensional hyperbolic geometry as a tool to generate three-dim...
We describe a technique for construction of 3D Euclidean (E3) networks with partially-prescribed rin...
High-symmetry free tilings of the two-dimensional hyperbolic plane (H 2) can be projected to genus-3...
Many crystalline networks can be viewed as decorations of triply periodic minimal surfaces. Such sur...
Many crystalline networks can be viewed as decorations of triply periodic minimal surfaces. Such sur...
An account is given of various classifications of three-periodic nets. It is convenient to classify ...
A non-technical account of the links between two-dimensional (2D) hyperbolic and three-dimensional (...
Tris-chelated metal complexes with octahedral geometry are sometimes used as building blocks for "se...
Aperiodic tilings are interesting to mathematicians and scientists for both theoretical and practica...
We suggest constructive definitions for the determination of untangled finite graphs and three-perio...
We derive more than 80 embeddings of 2D hyperbolic honeycombs in Euclidean 3 space, forming 3-period...
In this snapshot, we will first give an introduction to hyperbolic geometry and we will then show ho...
An n-dimensional tiling is formed by laying tiles, chosen from a finite collection of shapes (protot...