Skip to main content
Commonmark migration
Source Link

This [paper][1]paper, "AF-algebras and topology of 3-manifolds" seems to claim on page 5 that a [transversely] oriented measured foliation on a compact surface is given by a closed form. On the other hand, the book ["Differential Geometry of Foliations: The Fundamental Integrability Problem"][2]"Differential Geometry of Foliations: The Fundamental Integrability Problem" by Reinhart places a restriction on the transversely oriented foliation to have trivial holonomy. On the other hand, the latter result pertains to $C^k$-foliations, while the first one refers to the smooth case.

Is the claim in the paper false?

EDIT: "Smooth" is a bit of misnomer. What I had in mind is foliations suited to train tracks (so the singular leaves only have cusps as singularities.) [1]: http://arxiv.org/pdf/math/0110227v7.pdf [2]: http://www.amazon.com/Differential-Geometry-Foliations-Integrability-Grenzgebiete/dp/3642690173/

This [paper][1], "AF-algebras and topology of 3-manifolds" seems to claim on page 5 that a [transversely] oriented measured foliation on a compact surface is given by a closed form. On the other hand, the book ["Differential Geometry of Foliations: The Fundamental Integrability Problem"][2] by Reinhart places a restriction on the transversely oriented foliation to have trivial holonomy. On the other hand, the latter result pertains to $C^k$-foliations, while the first one refers to the smooth case.

Is the claim in the paper false?

EDIT: "Smooth" is a bit of misnomer. What I had in mind is foliations suited to train tracks (so the singular leaves only have cusps as singularities.) [1]: http://arxiv.org/pdf/math/0110227v7.pdf [2]: http://www.amazon.com/Differential-Geometry-Foliations-Integrability-Grenzgebiete/dp/3642690173/

This paper, "AF-algebras and topology of 3-manifolds" seems to claim on page 5 that a [transversely] oriented measured foliation on a compact surface is given by a closed form. On the other hand, the book "Differential Geometry of Foliations: The Fundamental Integrability Problem" by Reinhart places a restriction on the transversely oriented foliation to have trivial holonomy. On the other hand, the latter result pertains to $C^k$-foliations, while the first one refers to the smooth case.

Is the claim in the paper false?

EDIT: "Smooth" is a bit of misnomer. What I had in mind is foliations suited to train tracks (so the singular leaves only have cusps as singularities.)

edited title
Link
user6419
  • 441
  • 2
  • 12

Are all transversely oriented, transversely measured foliations given by closed forms?

deleted 2 characters in body
Source Link
user6419
  • 441
  • 2
  • 12

This [paper][1], "AF-algebras and topology of 3-manifolds" seems to claim on page 5 that a [transversely] oriented measured foliation on a compact surface is given by a closed form. On the other hand, the book ["Differential Geometry of Foliations: The Fundamental Integrability Problem"][2] by Reinhart places a restriction on the transversely oriented foliation to have trivial holonomy. On the other hand, the latter result pertains to $C^k$-foliations, while the first one refers to the smooth case.

Is the claim in the paper false? EDIT

EDIT: "Smooth" is a bit of misnomer. What I had in mind is foliations describable by trainsuited to train tracks (so the singular leaves only have cusps as singularities.) [1]: http://arxiv.org/pdf/math/0110227v7.pdf [2]: http://www.amazon.com/Differential-Geometry-Foliations-Integrability-Grenzgebiete/dp/3642690173/

This [paper][1], "AF-algebras and topology of 3-manifolds" seems to claim on page 5 that a [transversely] oriented measured foliation on a compact surface is given by a closed form. On the other hand, the book ["Differential Geometry of Foliations: The Fundamental Integrability Problem"][2] by Reinhart places a restriction on the transversely oriented foliation to have trivial holonomy. On the other hand, the latter result pertains to $C^k$-foliations, while the first one refers to the smooth case.

Is the claim in the paper false? EDIT: "Smooth" is a bit of misnomer. What I had in mind is foliations describable by train tracks (so the singular leaves only have cusps as singularities.) [1]: http://arxiv.org/pdf/math/0110227v7.pdf [2]: http://www.amazon.com/Differential-Geometry-Foliations-Integrability-Grenzgebiete/dp/3642690173/

This [paper][1], "AF-algebras and topology of 3-manifolds" seems to claim on page 5 that a [transversely] oriented measured foliation on a compact surface is given by a closed form. On the other hand, the book ["Differential Geometry of Foliations: The Fundamental Integrability Problem"][2] by Reinhart places a restriction on the transversely oriented foliation to have trivial holonomy. On the other hand, the latter result pertains to $C^k$-foliations, while the first one refers to the smooth case.

Is the claim in the paper false?

EDIT: "Smooth" is a bit of misnomer. What I had in mind is foliations suited to train tracks (so the singular leaves only have cusps as singularities.) [1]: http://arxiv.org/pdf/math/0110227v7.pdf [2]: http://www.amazon.com/Differential-Geometry-Foliations-Integrability-Grenzgebiete/dp/3642690173/

added 154 characters in body
Source Link
user6419
  • 441
  • 2
  • 12
Loading
Source Link
user6419
  • 441
  • 2
  • 12
Loading