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{{Short description|Concept in geometry}}
{{Uniform hyperbolic tiles db|Reg hyperbolic tiling stat table|Ui3_2}}
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In [[geometry]], the '''infinite-order triangular tiling''' is a [[regular hyperbolic tiling|regular tiling]] of the [[hyperbolic geometry|hyperbolic plane]] with a [[Schläfli symbol]] of {3,
== Symmetry ==
A lower symmetry form has alternating colors, and represented by cyclic symbol {(3,
{| class=wikitable width=450
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|[[File:Apolleangasket symmetry.png|150px]]<BR>[[Apollonian gasket]] with *∞∞∞ symmetry
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{{Order i-3 tiling table}}
{{Order_i-3-3_tiling_table}}
===Other infinite-order triangular tilings===
A nonregular infinite-order triangular tiling can be generated by a [[Recursion (computer science)|recursive]] process from a central triangle as shown here:
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==See also==
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*[[Infinite-order tetrahedral honeycomb]]
*[[List of regular polytopes]]
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==References==
* [[John Horton Conway|John H. Conway]], Heidi Burgiel, Chaim Goodman-
* {{Cite book|title=The Beauty of Geometry: Twelve Essays|year=1999|publisher=Dover Publications|lccn=99035678|isbn=0-486-40919-8|chapter=Chapter 10: Regular honeycombs in hyperbolic space}}
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*{{MathWorld | urlname=PoincareHyperbolicDisk | title = Poincaré hyperbolic disk}}
[[Category:Hyperbolic geometry]]▼
▲[[Category:Tessellation]]
[[Category:Infinite-order tilings]]
[[Category:Isogonal tilings]]
[[Category:Isohedral tilings]]
[[Category:Regular tilings]]
[[Category:Triangular tilings]]
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