Timeline for Chromatic number of rainbow hypergraphs
Current License: CC BY-SA 4.0
7 events
when toggle format | what | by | license | comment | |
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Feb 11, 2021 at 7:08 | comment | added | Dominic van der Zypen | Thank you very much for editing your answer - I appreciate it and accepted it. | |
Feb 11, 2021 at 7:07 | vote | accept | Dominic van der Zypen | ||
Feb 11, 2021 at 1:48 | history | edited | bof | CC BY-SA 4.0 |
added 27 characters in body
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Feb 10, 2021 at 23:01 | history | edited | bof | CC BY-SA 4.0 |
added 808 characters in body
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Feb 10, 2021 at 14:21 | comment | added | Dominic van der Zypen | To make things more precise: I would be glad if you can define the $\sigma$-algebra ${\cal A}$ on $2^\omega$ you consider, as well as the probability measure $P:{\cal A}\to [0,1]$. Then we have to establish $A \in {\cal A}$ where $A$ is the collection of non-colorings of the rainbow hypergraph $H$. - Or am I completely off the track? | |
Feb 10, 2021 at 14:16 | comment | added | Dominic van der Zypen | Thanks for expanding your comment into an answer. I am uneasy about "events", how can we put a probability measure $P$ on the set of maps $c:\omega \to \{0,1\}$ (let's call this set $2^\omega$)? So I assume $A\subseteq 2^\omega$ is the collection of functions $c\in 2^\omega$ such that $c$ is not a proper coloring of the rainbow hypergraph $H$. I would be happy to know $A \neq 2^\omega$, but you appear to prove something stronger: $P(A)<1$, but how do you define $P$? | |
Feb 10, 2021 at 12:48 | history | answered | bof | CC BY-SA 4.0 |