Talk:Color confinement
 | The contents of the QCD string page were merged into Color confinement on October 20, 2017. For the contribution history and old versions of the redirected page, please see its history; for the discussion at that location, see its talk page. |
 | This article is written in American English, which has its own spelling conventions (color, defense, traveled) and some terms that are used in it may be different or absent from other varieties of English. According to the relevant style guide, this should not be changed without broad consensus. |
 | This article is rated Start-class on Wikipedia's content assessment scale. It is of interest to the following WikiProjects: | ||||||||||
| |||||||||||
.jpg){kind=small}
|
|
Archives: 1 |
Confining 'phase' edit
What does 'confining phase' mean in following excerpt? not understandable to even lay physicist. Wilson loop is ok since there is a link.
"The confining phase is usually defined by the behavior of the action of the Wilson loop" —Preceding unsigned comment added by 134.174.140.104 (talk) 18:51, 2 February 2009 (UTC)
Information left out regarding application to mesons edit
The article explains why color confinement prevents quarks from being separated, but not why mesons can only be made of a quark and an antiquark.ZFT (talk) 22:56, 22 July 2012 (UTC)
- I guess you mean "why aren't there any light-weight three-quark particles, lighter than the proton?" Good question. Another good question might be "so why isn't the mass of a quark-anti-quark meson equal to about 2/3rds of a proton?" and that's another good question. 67.198.37.16 (talk) 21:59, 10 April 2019 (UTC)
Rubber band comparison edit
I think the rubber band comparison is a little misleading. The force in a rubber band is proportional to its extension, whereas the force between two quarks is independent of the distance between them. — Preceding unsigned comment added by 92.20.145.180 (talk) 17:35, 19 May 2015 (UTC)
160,000 or 10,000 Newtons? edit
Color confinement “Because of this behavior of the gluon field, a strong force between the quark pair acts constantly—regardless of their distance—with a strength of around 160,000 newtons, roughly the weight of three elephants.”
Strong interaction: "After a limiting distance (about the size of a hadron) has been reached, it remains at a strength of about 10,000 newtons, no matter how much farther the distance between the quarks."Antonquery (talk) 03:38, 10 August 2015 (UTC)