Skip to main content
12 events
when toggle format what by license comment
Jan 22, 2022 at 21:51 history edited Sam Nead
edited tags
Mar 15, 2018 at 1:48 vote accept Adam
Mar 7, 2018 at 16:10 answer added Lee Mosher timeline score: 6
Mar 7, 2018 at 16:03 comment added Adam @SamNead Indeed, $n$ depends on $\gamma.$ If you see a way to proceed, I would be curious to know.
Mar 7, 2018 at 13:52 comment added Lee Mosher The best you are going to get about support is that every $\mathcal F$ has an invariant measure. It might be that the support is a finite union of simple closed curves each contained in a leaf. Even if there is no simple closed curve contained in any leaf, the support still need not be full, because of the Denjoy construction.
Mar 7, 2018 at 8:36 comment added Sam Nead I assume that the power $n$ is allowed to vary with the loop or arc $\gamma$? If we have that, and if the foliation $\mathcal{F}$ has a measure of full support, then we should win.
Mar 7, 2018 at 2:31 history edited Adam CC BY-SA 3.0
added 117 characters in body
Mar 7, 2018 at 2:30 comment added Adam Speaking of that, is there some result asserting that every $\cal F$ has an invariant measure with partial, but "reasonably" large support?
Mar 7, 2018 at 0:17 comment added Lee Mosher As you say, the support of the measure is disjoint from the interior of the Reeb component.
Mar 6, 2018 at 21:35 comment added Adam @LeeMosher: When you say $\cal F$ has an invariant transverse measure even with a Reeb component, do you mean a measure of full support? Wouldn't an arc connecting the two boundaries of the Reeb annulus intersect each leaf infinitely many times and, hence, have an infinite transverse length?
Mar 6, 2018 at 14:55 comment added Lee Mosher Its false for every $\cal F$ that has a Reeb component. en.wikipedia.org/wiki/Reeb_foliation#/media/… And even when $\cal F$ has a Reeb component it will always have an invariant transverse measure.
Mar 3, 2018 at 7:49 history asked Adam CC BY-SA 3.0