Graham-Rothschild theorem: Difference between revisions

From Polymath Wiki
Jump to navigationJump to search
New page: '''Graham-Rothschild theorem''' (k=3): If all the combinatorial lines in <math>[3]^n</math> is partitioned into c color classes, and n is sufficiently large depending on c, m, then the...
 
No edit summary
Line 1: Line 1:
'''Graham-Rothschild theorem''' (k=3): If all the [[combinatorial lines]] in <math>[3]^n</math> is partitioned into c color classes, and n is sufficiently large depending on c, m, then there is an m-dimensional [[combinatorial subspace]] of <math>[3]^n</math> such that all the combinatorial lines in this subspace have the same color.
'''Graham-Rothschild theorem''' (k=3): If all the [[combinatorial line]]s in <math>[3]^n</math> is partitioned into c color classes, and n is sufficiently large depending on c, m, then there is an m-dimensional [[combinatorial subspace]] of <math>[3]^n</math> such that all the combinatorial lines in this subspace have the same color.


This theorem implies the [[Hales-Jewett theorem]].
This theorem implies the [[Hales-Jewett theorem]].

Revision as of 14:13, 15 February 2009

Graham-Rothschild theorem (k=3): If all the combinatorial lines in [math]\displaystyle{ [3]^n }[/math] is partitioned into c color classes, and n is sufficiently large depending on c, m, then there is an m-dimensional combinatorial subspace of [math]\displaystyle{ [3]^n }[/math] such that all the combinatorial lines in this subspace have the same color.

This theorem implies the Hales-Jewett theorem.