Editing 2781: The Six Platonic Solids

Jump to: navigation, search

Warning: You are not logged in. Your IP address will be publicly visible if you make any edits. If you log in or create an account, your edits will be attributed to your username, along with other benefits.

The edit can be undone. Please check the comparison below to verify that this is what you want to do, and then save the changes below to finish undoing the edit.
Latest revision Your text
Line 10: Line 10:
  
 
==Explanation==
 
==Explanation==
 +
{{incomplete| The explaination needs to explain what a "regular polyhedron" is.}}
 +
 
This comic imagines an alternate reality where mathematicians discover a new {{w|Platonic solid}} beyond the [https://sites.math.washington.edu/~julia/teaching/445_Spring2013/Paper_Euler.pdf five proven to exist in three-dimensional space.] In three dimensions there are 9 {{w|Regular polyhedra}}. A regular polyhedron is a solid figure with all faces being congruent regular polygons with the same number of alike faces arranged around each vertex. While the most familiar, Platonic solids, are referenced in the comic, there are also 4 {{w|Kepler–Poinsot polyhedra}}. In four dimensions, there are six {{w|regular polytope}}s, five of which are analogous to the five Platonic solids in 3-D space, and a sixth which is analogous to the {{w|rhombic dodecahedron}}.  
 
This comic imagines an alternate reality where mathematicians discover a new {{w|Platonic solid}} beyond the [https://sites.math.washington.edu/~julia/teaching/445_Spring2013/Paper_Euler.pdf five proven to exist in three-dimensional space.] In three dimensions there are 9 {{w|Regular polyhedra}}. A regular polyhedron is a solid figure with all faces being congruent regular polygons with the same number of alike faces arranged around each vertex. While the most familiar, Platonic solids, are referenced in the comic, there are also 4 {{w|Kepler–Poinsot polyhedra}}. In four dimensions, there are six {{w|regular polytope}}s, five of which are analogous to the five Platonic solids in 3-D space, and a sixth which is analogous to the {{w|rhombic dodecahedron}}.  
  

Please note that all contributions to explain xkcd may be edited, altered, or removed by other contributors. If you do not want your writing to be edited mercilessly, then do not submit it here.
You are also promising us that you wrote this yourself, or copied it from a public domain or similar free resource (see explain xkcd:Copyrights for details). Do not submit copyrighted work without permission!

To protect the wiki against automated edit spam, we kindly ask you to solve the following CAPTCHA:

Cancel | Editing help (opens in new window)