convex semiregular polyhedra

Convex uniform polyhedra have regular faces and are isogonal, which means that they are transitive in their vertices. They are dividable into: regular polyhedra (5, isoedral and isotoxal, commonly known as the Platonic), quasiregular polyhedra (2, isotoxal and Archimedeans, in which each face is completely surrounded by faces of a different type) and semiregular poyhedra, which comprises the remaining 11 Archimedeans and the infinite families of the semiregular prisms and antiprisms.

The quasiregular polyhedra, obtained from rectification of the convex regular, are dealt with in this webpage; in this one, I will first explain how to model the 5 Archimedeans that are obtainable from the convex regular through uniform truncation.

The tutorials below show some examples on how to model* the Archimedeans. These and other examples are included in my Ph.D. Thesis, that I will publish here, as soon as the university publishes it.

Truncated Tetrahedron, tT (from the regular tetrahedron)

2 ways of modelling the truncated tetrahedron from the tetrahedron (vera viana)

Truncated Cube, tC (from the cube)

modelling the truncated cube from the cube (vera viana)

Truncated Octahedron, tO (from the regular octahedron; from the cube)

modelling the truncated octahedron from the octahedron (vera viana)
2 ways of modelling the truncated octaedron from the cube (vera viana)

Truncated Icosahedron, tI

(coming soon)

Truncated Dodecahedron, tD

(coming soon)

Rhombicuboctahedron, RCO

(coming soon)

Rhombicosidodecahedron, RID

(coming soon)

Rhombitruncated Cuboctahedron, rtCO

(coming soon)

Rhombitruncated Icosidodecahedron, rtID

(coming soon)

Snub Cube, sC

(coming soon)

Snub Dodecahedron, sD

(coming soon)

* The software used is Rhinoceros (version 6.0)