This test article is my attempt to construct Coxeter groups by rank, including products. I subdivide them by their finite order, infinite, or hyperbolic infinite.

I name them by their group names, Coxeter's bracket notation names, and their Coxeter-Dynkin diagram graphs. I also give an example polytope or tessellation that has this symmetry.

Finite Definite (spherical)

Rank 1

(1-space)

A₁: [ ]

Rank 2

(2-space)

A₂: [3] (triangle)
B₂: [4] square)
H₂: [5] (pentagon)
I₂(p) [p] (p-gon)

(2-space prismatic)

A₁xA₁: [ ]x[ ] = (rectangle)

Rank 3

(3-space)

A₃: [3,3] (tetrahedron)
B₃: [4,3] (cube/octahedron)
H₃: [5,3] (dodecahedron/icosahedron)

(3-space prismatic)

I₂(p)xA₁: [p]x[ ] (p-gonal prism)
A₁xA₁xA₁: [ ]x[ ]x[ ] = (cube/cuboid)

Rank 4

(4-space)

A₄: [3,3,3] (5-cell)
B₄: [4,3,3] (tesseract/16-cell)
D₄: [3^1,1,1] (24-cell)
F₄: [3,4,3] (24-cell)
H₄: [5,3,3] (120-cell/600-cell)

(4-space prismatic)

A₃xA₁: [3,3]x[ ] (tetrahedral prism)
B₃xA₁: [4,3]x[ ] (tesseract/orthoplex)
H₃xA₁: [5,3]x[ ] (dodecahedral prism)
I₂(p)xA₁xA₁: [p]x[ ]x[ ] = (p-4 duoprism)
A₁xA₁xA₁xA₁: [ ]x[ ]x[ ]x[ ] = (tesseract/orthoplex)
I₂(p)xI₂(q) [p]x[q] (p-q duoprism)

Rank 5

(5-space)

A₅: [3,3,3,3] (hexateron)
B₅: [4,3,3,3] (Penteract)
D₅: [3^2,1,1] (Demipenteract)

(5-space prismatic)

A₄xA₁: [3,3,3]x[ ]
B₄xA₁: [4,3,3]x[ ] -
F₄xA₁: [3,4,3]x[ ] -
H₄xA₁: [5,3,3]x[ ] -
D₄xA₁: [3^1,1,1]x[ ] -
A₃xI₂^p: [3,3]x[p] -
B₃xI₂^p: [4,3]x[p] -
H₃xI₂^p: [5,3]x[p] -
I₂^pxI₂^qxA₁: [p]x[q]x[ ] -

Rank 6

(6-space)

A₆: [3,3,3,3,3] (6-simplex)
B₆: [4,3,3,3,3] (6-orthoplex/6-hypercube)
D₆: [3^3,1,1] (6-orthoplex)
E₆: [3^2,2,1] (1_22 polytope)

Uniform prism

There are 6 categorical uniform prisms based the uniform 5-polytopes.

#	Coxeter group
1	A₅×A₁	[3,3,3,3] × [ ]
2	B₅×A₁	[4,3,3,3] × [ ]
3	D₅×A₁	[3^2,1,1] × [ ]

#	Coxeter group
4	A₃×I₂(p)×A₁	[3,3] × [p] × [ ]
5	B₃×I₂(p)×A₁	[4,3] × [p] × [ ]
6	H₃×I₂(p)×A₁	[5,3] × [p] × [ ]

Uniform duoprism

There are 11 categorical uniform duoprismatic families of polytopes based on Cartesian products of lower dimensional uniform polytopes. Five are formed as the product of a uniform polychoron with a regular polygon, and six are formed by the product of two uniform polyhedra:

#	Coxeter group
1	A₄×I₂(p)	[3,3,3] × [p]
2	B₄×I₂(p)	[4,3,3] × [p]
3	F₄×I₂(p)	[3,4,3] × [p]
4	H₄×I₂(p)	[5,3,3] × [p]
5	D₄×I₂(p)	[3^1,1,1] × [p]

#	Coxeter group
6	A₃×A₃	[3,3] × [3,3]
7	A₃×B₃	[3,3] × [4,3]
8	A₃×H₃	[3,3] × [5,3]
9	B₃×B₃	[4,3] × [4,3]
10	B₃×H₃	[4,3] × [5,3]
11	H₃×A₃	[5,3] × [5,3]

Uniform triprisms

There is one infinite family of uniform triaprismatic families of polytopes constructed as a Cartesian products of three regular polygons. Each combination of at least one ring on every connected group produces a uniform prismatic 6-polytope.

#	Coxeter group		Coxeter-Dynkin diagram
1	I₂(p)×I₂(q)×I₂(r)	[p] × [q] × [r]

Rank 7

(7-space)

A₇: [3,3,3,3,3,3] (8-simplex)
B₇: [4,3,3,3,3,3] (8-orthoplex/8-hypercube)
D₇: [3^4,1,1] (8-orthoplex)
E₇: [3^3,2,1] (3_21 polytope)

There are 16 uniform prismatic families based on the uniform 6-polytopes.

#	Coxeter group
1	A₆×A₁	[3⁵] × [ ]
2	B₆×A₁	[4,3⁴] × [ ]
3	D₆×A₁	[3^3,1,1] × [ ]
4	E₆×A₁	[3^2,2,1] × [ ]
5	A₄×I₂(p)×A₁	[3,3,3] × [p] × [ ]
6	B₄×I₂(p)×A₁	[4,3,3] × [p] × [ ]
7	F₄×I₂(p)×A₁	[3,4,3] × [p] × [ ]
8	H₄×I₂(p)×A₁	[5,3,3] × [p] × [ ]
9	D₄×I₂(p)×A₁	[3^1,1,1] × [p] × [ ]
10	A₃×A₃×A₁	[3,3] × [3,3] × [ ]
11	A₃×B₃×A₁	[3,3] × [4,3] × [ ]
12	A₃×H₃×A₁	[3,3] × [5,3] × [ ]
13	B₃×B₃×A₁	[4,3] × [4,3] × [ ]
14	B₃×H₃×A₁	[4,3] × [5,3] × [ ]
15	H₃×A₃×A₁	[5,3] × [5,3] × [ ]
16	I₂(p)×I₂(q)×I₂(r)×A₁	[p] × [q] × [r] × [ ]

There are 18 uniform duoprismatic forms based on Cartesian products of lower dimensional uniform polytopes.

#	Coxeter group
1	A₅×I₂(p)	[3,3,3] × [p]
2	B₅×I₂(p)	[4,3,3] × [p]
3	D₅×I₂(p)	[3^2,1,1] × [p]
4	A₄×A₃	[3,3,3] × [3,3]
5	A₄×B₃	[3,3,3] × [4,3]
6	A₄×H₃	[3,3,3] × [5,3]
7	B₄×A₃	[4,3,3] × [3,3]
8	B₄×B₃	[4,3,3] × [4,3]
9	B₄×H₃	[4,3,3] × [5,3]
10	H₄×A₃	[5,3,3] × [3,3]
11	H₄×B₃	[5,3,3] × [4,3]
12	H₄×H₃	[5,3,3] × [5,3]
13	F₄×A₃	[3,4,3] × [3,3]
14	F₄×B₃	[3,4,3] × [4,3]
15	F₄×H₃	[3,4,3] × [5,3]
16	D₄×A₃	[3^1,1,1] × [3,3]
17	D₄×B₃	[3^1,1,1] × [4,3]
18	D₄×H₃	[3^1,1,1] × [5,3]

There are 3 uniform triaprismatic families based on Cartesian products of uniform polyhedrons and two regular polygons.

#	Coxeter group
1	A₃×I₂(p)×I₂(q)	[3,3] × [p] × [q]
2	B₃×I₂(p)×I₂(q)	[4,3] × [p] × [q]
3	H₃×I₂(p)×I₂(q)	[5,3] × [p] × [q]

Rank 8

(8-space)

A₈: [3,3,3,3,3,3,3] (8-simplex)
B₈: [4,3,3,3,3,3,3] (8-orthoplex/8-hypercube)
D₈: [3^5,1,1] (8-orthoplex)
E₈: [3^4,2,1] (4_21 polytope)

Four are based on the uniform 7-polytopes:

#	Coxeter group
1	A₇×A₁	[3,3,3,3,3,3] × [ ]
2	B₇×A₁	[4,3,3,3,3,3] × [ ]
3	D₇×A₁	[3^4,1,1] × [ ]
4	E₇×A₁	[3^3,2,1] × [ ]

Three are based on the uniform 6-polytopes and regular polygons:

#	Coxeter group
5	A₅×I₂(p)×A₁	[3,3,3] × [p] × [ ]
6	B₅×I₂(p)×A₁	[4,3,3] × [p] × [ ]
7	D₅×I₂(p)×A₁	[3^2,1,1] × [p] × [ ]

Fifteen are based on the product of the uniform polychora and uniform polyhedra:

#	Coxeter group
8	A₄×A₃×A₁	[3,3,3] × [3,3] × [ ]
9	A₄×B₃×A₁	[3,3,3] × [4,3] × [ ]
10	A₄×H₃×A₁	[3,3,3] × [5,3] × [ ]
11	B₄×A₃×A₁	[4,3,3] × [3,3] × [ ]
12	B₄×B₃×A₁	[4,3,3] × [4,3] × [ ]
13	B₄×H₃×A₁	[4,3,3] × [5,3] × [ ]
14	H₄×A₃×A₁	[5,3,3] × [3,3] × [ ]
15	H₄×B₃×A₁	[5,3,3] × [4,3] × [ ]
16	H₄×H₃×A₁	[5,3,3] × [5,3] × [ ]
17	F₄×A₃×A₁	[3,4,3] × [3,3] × [ ]
18	F₄×B₃×A₁	[3,4,3] × [4,3] × [ ]
19	F₄×H₃×A₁	[3,4,3] × [5,3] × [ ]
20	D₄×A₃×A₁	[3^1,1,1] × [3,3] × [ ]
21	D₄×B₃×A₁	[3^1,1,1] × [4,3] × [ ]
22	D₄×H₃×A₁	[3^1,1,1] × [5,3] × [ ]

Three are based on the uniform polyhedra and uniform duoprism:

#	Coxeter group
23	A₃×I₂(p)×I₂(q)×A₁	[3,3] × [p] × [q] × [ ]
24	B₃×I₂(p)×I₂(q)×A₁	[4,3] × [p] × [q] × [ ]
25	H₃×I₂(p)×I₂(q)×A₁	[5,3] × [p] × [q] × [ ]

There are 28 categorical uniform duoprismatic forms based on Cartesian products of lower dimensional uniform polytopes.

There are 4 based on the uniform 6-polytopes and regular polygons:

#	Coxeter group
1	A₆×I₂(p)	[3,3,3,3,3] × [p]
2	B₆×I₂(p)	[4,3,3,3,3] × [p]
3	D₆×I₂(p)	[3^3,1,1] × [p]
4	E₆×I₂(p)	[3^2,2,1] × [p]

There are 9 based on the uniform 5-polytopes and uniform polyhedra:

#	Coxeter group
5	A₅×A₂	[3,3,3,3] × [3,3]
6	A₅×B₂	[3,3,3,3] × [4,3]
7	A₅×H₂	[3,3,3,3] × [5,3]
8	B₅×A₂	[4,3,3,3] × [3,3]
9	B₅×B₂	[4,3,3,3] × [4,3]
10	B₅×H₂	[4,3,3,3] × [5,3]
11	D₅×A₂	[3^2,1,1] × [3,3]
12	D₅×B₂	[3^2,1,1] × [4,3]
13	D₅×H₂	[3^2,1,1] × [5,3]

Finally there are 20 based on two uniform 4-polytopes:

#	Coxeter group
14	A₄xA₄	[3,3,3] × [3,3,3]
15	A₄xB₄	[3,3,3] × [4,3,3]
16	A₄xD₄	[3,3,3] × [3^1,1,1]
17	A₄xF₄	[3,3,3] × [3,4,3]
18	A₄xH₄	[3,3,3] × [5,3,3]
19	B₄xB₄	[4,3,3] × [4,3,3]
20	B₄xD₄	[4,3,3] × [3^1,1,1]
21	B₄xF₄	[4,3,3] × [3,4,3]
22	B₄xH₄	[4,3,3] × [5,3,3]
23	D₄xD₄	[3^1,1,1] × [3^1,1,1]
24	D₄xF₄	[3^1,1,1] × [3,4,3]
25	D₄xH₄	[3^1,1,1] × [5,3,3]
26	F₄xF₄	[3,4,3] × [3,4,3]
27	F₄xH₄	[3,4,3] × [5,3,3]
28	H₄xH₄	[5,3,3] × [5,3,3]

There are 11 categorical uniform triaprismatic forms based on Cartesian products of lower dimensional uniform polytopes, for example these regular products:

Six are based on products of the uniform 4-polytopes and uniform duoprisms:

#	Coxeter group
1	A₄×I₂(p)×I₂(q)	[3,3,3] × [p] × [q]
2	B₄×I₂(p)×I₂(q)	[4,3,3] × [p] × [q]
3	F₄×I₂(p)×I₂(q)	[3,4,3] × [p] × [q]
4	H₄×I₂(p)×I₂(q)	[5,3,3] × [p] × [q]
5	D₄×I₂(p)×I₂(q)	[3^1,1,1] × [p] × [q]
6	A₃×A₃×I₂(p)	[3,3] × [3,3] × [p]

Five are based on triprism products of two uniform polyhedra and regular polygons:

#	Coxeter group
7	A₃×B₃×I₂(p)	[3,3] × [4,3] × [p]
8	A₃×H₃×I₂(p)	[3,3] × [5,3] × [p]
9	B₃×B₃×I₂(p)	[4,3] × [4,3] × [p]
10	B₃×H₃×I₂(p)	[4,3] × [5,3] × [p]
11	H₃×A₃×I₂(p)	[5,3] × [5,3] × [p]

There is one infinite family of uniform quadriprismatic figures based on Cartesian products of four regular polygons:

#	Coxeter group		Coxeter-Dynkin diagram
1	I₂(p) x I₂(q) x I₂(r) x I₂(s)	[p] x [q] x [r] x [s]

Rank 9

(9-space)

A₉: [3,3,3,3,3,3,3,3] (9-simplex)
B₉: [4,3,3,3,3,3,3,3] (9-orthoplex/9-hypercube)
D₉: [3^6,1,1] (9-orthoplex)

Rank 10

(10-space)

A₁₀: [3,3,3,3,3,3,3,3,3]
B₁₀: [4,3,3,3,3,3,3,3,3]
D₁₀: [3^7,1,1]

Euclidean compact

Rank 2

(1-space)

I^~₁: [∞] (apeirogon)

Rank 3

(2-space)

A^~₂: (3 3 3) (triangular tiling)
B^~₂: [4,4] (square tiling)
H^~₂: [6,3] (triangular tiling/hexagonal tiling)

Rank 4

(3-space)

A^~₃: (3 3 3 3) (quarter cubic honeycomb)
B^~₂: [4,3,4] (cubic honeycomb)
D^~₃: [4,3^1,1] (Alternated cubic honeycomb)

(2-space prismatic)

I^~₁xI^~₁: [∞]x[∞] = (square tiling)

Rank 5

(4-space)

A^~₄: (3 3 3 3 3)
B^~₄: [4,3,3,4] (Tesseractic honeycomb)
C^~₄: [4,3,3^1,1] (Demitesseractic honeycomb)
D^~₄: [3^1,1,1,1] (Demitesseractic honeycomb)
F^~₄: [3,4,3,3] (Icositetrachoric honeycomb/Demitesseractic honeycomb)

(3-space prismatic)

A₃xI^~₁: [3,3]x[∞] -
B₃xI^~₁: [4,3]x[∞] -
H₃xI^~₁: [5,3]x[∞] -

Rank 6

(5-space)

A^~₅:
B^~₅: [4,3,3,3,4]
C^~₅: [4,3²,3^1,1]
D^~₅: [3^1,1,3,3^1,1]

(4-space prismatic)

I^~₁xI^~₁xI₂^r: [∞] x [∞] x [r] = [4,4]x[r] - =
B^~₃xI^~₁: [4,3,4]x[∞]
D^~₃xI^~₁: [4,3^1,1]x[∞]
A^~₃xI^~₁:
A^~₂xA^~₂: [Δ]x[Δ]
A^~₂xB^~₂: [Δ]x[4,4]
A^~₂xH^~₂: [Δ]x[6,3]
B^~₂xB^~₂: [4,4]x[4,4]
B^~₂xH^~₂: [4,4]x[6,3]
H^~₂xH^~₂: [6,3]x[6,3]
A₄xI^~₁: [3,3,3]x[∞] (5-cell column)
B₄xI^~₁: [4,3,3]x[∞] (tesseract/16-cell column)
H₄xI^~₁: [5,3,3]x[∞] (120-cell/600-cell column)
F₄xI^~₁: [3,4,3]x[∞] (24-cell column)
D₄xI^~₁: [3^1,1,1]x[∞] (24-cell column)

(3-space prismatic)

I^~₁xI^~₁xI^~₁: [∞] x [∞] x [∞] -

Rank 7

(6-space)

A^~₆: (3 3 3 3 3 3)
B^~₆: [4,3,3,3,3,4]
C^~₆: [4,3²,3^1,1]
D^~₆: [3^1,1,3²,3^1,1]
E^~₆: [3^2,2,2]

(6-space prismatic)

A₅xI^~₁: [3,3,3] x [∞]
B₅xI^~₁: [4,3,3] x [∞]
D₅xI^~₁: [3^2,1,1] x [∞]
A₄xI^~₁xA₁: [3,3,3] x [∞] x [ ]
B₄xI^~₁xA₁: [4,3,3] x [∞] x [ ]
F₄xI^~₁xA₁: [3,4,3] x [∞] x [ ]
H₄xI^~₁xA₁: [5,3,3] x [∞] x [ ]
D₄xI^~₁xA₁: [3^1,1,1] x [∞] x [ ]
A₃xI^~₁xI₂^q: [3,3] x [∞] x [q]
B₃xI^~₁xI₂^q: [4,3] x [∞] x [q]
H₃xI^~₁xI₂^q: [5,3] x [∞] x [q]
I^~₁xI₂^qxI₂^rA₁: [∞] x [q] x [r] x [ ]

(5-space prismatic)

A₃xI^~₁xI^~₁: [3,3] x [∞] x [∞]
B₃xI^~₁xI^~₁: [4,3] x [∞] x [∞]
H₃xI^~₁xI^~₁: [5,3] x [∞] x [∞]
I^~₁xI^~₁xI₂^rxA₁: [∞] x [∞] x [r] x [ ]

(4-space prismatic)

I^~₁xI^~₁xI^~₁A₁: [∞] x [∞] x [∞] x [ ]

Rank 8

(7-space)

A^~₇: (3 3 3 3 3 3 3)
B^~₇: [4,3,3,3,3,3,4]
C^~₇: [4,3³,3^1,1]
D^~₇: [3^1,1,3³,3^1,1]
E^~₇: [3^3,3,1]

Rank 9

(8-space)

A^~₉: (3 3 3 3 3 3 3 3)
B^~₈: [4,3,3,3,3,3,3,4]
C^~₈: [4,3⁴,3^1,1]
D^~₈: [3^1,1,3⁴,3^1,1]
E^~₈: [3^5,2,1] (E8 lattice)

Rank 10

(9-space)

A^~₉: (3 3 3 3 3 3 3 3 3)
B^~₉: [4,3,3,3,3,3,3,3,4]
C^~₉: [4,3⁵,3^1,1]
D^~₉: [3^1,1,3⁵,3^1,1]

Euclidean noncompact

Rank 3

(2-space)

I^~₁xA₁: [∞]x[ ] (apeirogonal prism)

Rank 4

(3-space)

B^~₂xA₁: [4,4]x[ ] (cubic prismatic slab)
H^~₂xA₁: [6,3]x[ ] (triangular/hexagonal prismatic slab)
A^~₂xA₁: (3 3 3 3)x[ ] (triangular prismatic slab)
I^~₁xA₁xA₁: [∞]x[ ]x[ ] = (4-∞ semi-infinite duoprism)
I₂(p)xI^~₁: [p]x[∞] (p-∞ semiinfinite duoprism)

Rank 5

(4-space)

I₂^pxI^~₁xA₁: [p]x[∞]x[ ] -
D^~₃xA₁: [4,3^1,1]x[ ]
A^~₃xA₁: (3 3 3 3)x[ ]
A^~₂xI₂^p: (3 3 3)x[p]
B^~₂xI₂^p: [4,4]x[p]
H^~₂xI₂^p: [6,3]x[p]

(3-space)

I^~₁xI^~₁xA₁: [∞]x[∞]x[ ] -
B^~₂xI₂^p: [4,4]x[∞]
H^~₂xI₂^p: [6,3]x[∞]
A^~₂xI₂^pxA₁: [Δ]x[∞]x[ ]
B^~₂xA₁: [4,3,4]x[ ]

Rank 6

(5-space)

A₄xI^~₁: [3,3,3]x[∞] -
B₄xI^~₁: [4,3,3]x[∞] -
F₄xI^~₁: [3,4,3]x[∞] -
H₄xI^~₁: [5,3,3]x[∞] -
D₄xI^~₁: [3^1,1,1] x [∞] -
A₃xI^~₁xA₁: [3,3] x [∞] x [ ] -
B₃xI^~₁xA₁: [4,3] x [∞] x [ ] -
H₃xI^~₁xA₁: [5,3] x [∞] x [ ] -
I^~₁xI₂^qxI₂^r: [∞] x [q] x [r] -

A^~₄xA₁: (3 3 3 3)x[ ]
B^~₄xA₁: [4,3,3,4]x[ ]
C^~₄xA₁: [4,3,3^1,1]x[ ]
D^~₄xA₁: [3^1,1,1,1]x[ ]
F^~₄xA₁: [3,4,3,3]x[ ]

Rank 7

Rank 8

Rank 9

Rank 10

Hyperbolic compact

Rank 3

(2-space)

[p,q] , p,q>=3, p+q>9
[p,q,r:] , p,q,r>=3, p+q+r>9

Rank 4

(3-space)

[3,5,3] (Order-3 icosahedral honeycomb)
[5,3,4] (Order-5 cubic honeycomb/Order-4 dodecahedral honeycomb)
[5,3,5] (Order-5 dodecahedral honeycomb)
[5,3^1,1]
(4 3 3 3)
(5 3 3 3)
(4 3 3 3)
(4 3 5 3)
(5 3 5 3)

(2-space)

(p q r s) , p,q,r,s>=2, p+q+r+s>8

Rank 5

(4-space)

[5,3,3,3] (Order-5 pentachoronic tetracomb/Order-3 hecatonicosachoronic tetracomb)
[5,3,3,4] (Order-5 tesseractic tetracomb/Order-4 hecatonicosachoronic tetracomb)
[5,3,3,5] (Order-5 hecatonicosachoronic tetracomb)
[5,3,3^1,1] (Order-5 demitesseractic tetracomb)
(4 3 3 3 3)

Rank 6

Noncompact!

(5-space)

[3,4,3,3,3]
[3,3,4,3,3]
[4,3,4,3,3]

Rank 7

Rank 8

Rank 9

Rank 10

Hyperbolic noncompact

Rank 3

(2-space)

[p,∞] , p>=3
(p q ∞) , p,q>=3, p+q>6
(p ∞ ∞) , p>=3
(∞ ∞ ∞)

Rank 4

(3-space)

[6,3,3]
[4,4,3]
[3,6,3]
[6,3,4]
[4,4,4]
[6,3,5]
[6,3,6]
...

Rank 5

(4-space)

[4,3,4,3]

Rank 6

Rank 7

Rank 8

Rank 9

Rank 10

Finite Coexter groups

Group symbol	Alternate symbol	Rank	Order	Related polytopes	Coxeter-Dynkin diagram
A_n	A_n	n	(n + 1)!	n-simplex	...
B_n = C_n	C_n	n	2ⁿ n!	n-hypercube / n-cross-polytope	...
D_n	B_n	n	2ⁿ⁻¹ n!	demihypercube	...
I₂(p)	D₂^p	2	2p	p-gon
H₃	G₃	3	120	icosahedron / dodecahedron
F₄	F₄	4	1152	24-cell
H₄	G₄	4	14400	120-cell / 600-cell
E₆	E₆	6	51840	1₂₂ polytope
E₇	E₇	7	2903040	3₂₁ polytope
E₈	E₈	8	696729600	E₈ polytope

Finite Coxeter groups

Families of convex uniform polytopes are defined by Coxeter groups.

n	A₁₊ [3^n-1]	D₄₊ [3^n-3,1,1]	C₂₊ [4,3^n-2]	I₂^p [p]	E_6-8 [4,3^n-3,2,1]	F₄ [3,4,3]	H_2-4 [5,3^n-1]
1	A₁=[]
2	A₂=[3]		C₂=[4]	I₂^p=[p]			H₂=[5]
3	A₃=[3²]	D₃=A₃=[3^0,1,1]	C₃=[4,3]				H₃=[5,3]
4	A₄=[3³]	D₄=[3^1,1,1]	C₄=[4,3²]		E₄=A₄=[3^0,2,1]	F₄=[3,4,3]	H₄=[5,3,3]
5	A₅=[3⁴]	D₅=[3^2,1,1]	C₅=[4,3³]		E₅=B₅=[3^1,2,1]
6	A₆=[3⁵]	D₆=[3^3,1,1]	C₆=[4,3⁴]		E₆=[3^2,2,1]
7	A₇=[3⁶]	D₇=[3^4,1,1]	C₇=[4,3⁵]		E₇=[3^3,2,1]
8	A₈=[3⁷]	D₈=[3^5,1,1]	C₈=[4,3⁶]		E₈=[3^4,2,1]
9	A₉=[3⁸]	D₉=[3^6,1,1]	C₉=[4,3⁷]
10+	..	..	..

Note: (Alternate names as Simple Lie groups also given)

A_n forms the simplex polytope family. (Same A_n)
B_n is the family of demihypercubes, beginning at n=4 with the 16-cell, and n=5 with the demipenteract. (Also named D_n)
C_n forms the hypercube polytope family. (Same C_n)
D₂ⁿ forms the regular polygons. (Also named I₁ⁿ)
E₆,E₇,E₈ are the generators of the Gosset Semiregular polytopes (Same E₆,E₇,E₈)
F₄ is the 24-cell polychoron family. (Same F₄)
G₃ is the dodecahedron/icosahedron polyhedron family. (Also named H₃)
G₄ is the 120-cell/600-cell polychoron family. (Also named H₄)

Affine Coxeter groups (Euclidean)

Group symbol	Alternate symbol	Related uniform tessellation(s)	Coxeter-Dynkin diagram
A^~_n-1	P_n	Simplex-rectified-simplex honeycomb A^~₂:Triangular tiling A^~₃:Tetrahedral-octahedral honeycomb	...
B^~_n-1	R_n	Hypercubic honeycomb	...
C^~_n-1	S_n	Demihypercubic honeycomb	...
D^~_n-1	Q_n	Demihypercubic honeycomb	...
I^~₁	W₂	apeirogon
H^~₂	G₃	Hexagonal tiling and Triangular tiling
F^~₄	V₅	Hexadecachoric tetracomb and Icositetrachoronic tetracomb or F4 lattice
E^~₆	T₇	E6 lattice
E^~₇	T₈	E7 lattice
E^~₈	T₉	E8 lattice

n	A^~₂₊ (3ⁿ)	D^~₄₊ [3^1,1,3^n-5,3^1,1]	B^~₂₊ [4,3^n-3,4]	C^~₃₊ [4,3^n-4,3^1,1]	E^~_6-8 [3^a,b,c]	F^~₄ [3,4,3,3]	H^~₂ [6,3]	I^~₁
2								I^~₁=[∞]
3	A^~₂=h[6,3]		B^~₂=[4,4]				F^~₂=[6,3]
4	A^~₃=q[4,3,4]		B^~₃=[4,3,4]	C^~₃=h[4,3,4]
5	A^~₄	D^~₄=q[4,3²,4]	B^~₄=[4,3²,4]	C^~₄=h[4,3²,4]		U₅=[3,4,3,3]
6	A^~₅	D^~₅=q[4,3³,4]	B^~₅=[4,3³,4]	C^~₅=h[4,3³,4]
7	A^~₆	D^~₆=q[4,3⁴,4]	B^~₆=[4,3⁴,4]	C^~₆=h[4,3⁴,4]	E^~₆=[3^2,2,2]
8	A^~₇	D^~₇=q[4,3⁵,4]	B^~₇=[4,3⁵,4]	C^~₇=h[4,3⁵,4]	E^~₇=[3^3,3,1]
9	A^~₈	D^~₈=q[4,3⁶,4]	B^~₈=[4,3⁶,4]	C^~₈=h[4,3⁶,4]	E^~₈=[3^5,2,1]
10	A^~₉	D^~₉=q[4,3⁷,4]	B^~₉=[4,3⁷,4]	C^~₉=h[4,3⁷,4]
11	...	...	...	...

References

THE GROWTH SERIES OF COMPACT HYPERBOLIC COXETER GROUPS WITH 4 AND 5 GENERATORS
Spacelike Singularities and Hidden Symmetries of Gravity: 3 Hyperbolic Coxeter Groups
Reflection Groups and Coxeter groups (Cambridge studies in advanced mathematics 29) , James E. Humphreys, Cambridge University press, 1990 ISBN 0521436133 (paperback), ISBN 052137510X (hardcopy)
- 2.4 Some positive definite graphs, 2.5 Some positive semidefinite graphs, 6.8 Coxeter Hyperbolic groups

Finite Definite (spherical)

Rank 1

Rank 2

Rank 3

Rank 4

Rank 5

Rank 6

Rank 7

Rank 8

Rank 9

Rank 10

Euclidean compact

Rank 2

Rank 3

Rank 4

Rank 5

Rank 6

Rank 7

Rank 8

Rank 9

Rank 10

Euclidean noncompact

Rank 3

Rank 4

Rank 5

Rank 6

Rank 7

Rank 8

Rank 9

Rank 10

Hyperbolic compact

Rank 3

Rank 4

Rank 5

Rank 6

Rank 7

Rank 8

Rank 9

Rank 10

Hyperbolic noncompact

Rank 3

Rank 4

Rank 5

Rank 6

Rank 7

Rank 8

Rank 9

Rank 10

Finite Coexter groups

Finite Coxeter groups

Affine Coxeter groups (Euclidean)

See also

References