2011
DOI: 10.1007/s10114-011-0416-x
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Finiteness of mapping degree sets for 3-manifolds

Abstract: By constructing certain maps, this note completes the answer of the Question: For which closed orientable 3-manifold N , the set of mapping degrees D(M, N ) is finite for any closed orientable 3-manifold M ? Date: June 9, 2018. 1991 Mathematics Subject Classification. 57M99, 55M25.

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Cited by 12 publications
(8 citation statements)
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“…We will now focus on the 3-dimensional case. The classification of weakly flexible 3-manifolds by Derbez, Sun, and Wang [3] translates into the following result: Corollary 3.9. Let M be an oriented closed connected 3-manifold.…”
Section: Secondary Simplicial Volumementioning
confidence: 96%
“…We will now focus on the 3-dimensional case. The classification of weakly flexible 3-manifolds by Derbez, Sun, and Wang [3] translates into the following result: Corollary 3.9. Let M be an oriented closed connected 3-manifold.…”
Section: Secondary Simplicial Volumementioning
confidence: 96%
“…This invariant has been introduced and studied by R. Brooks and W. Goldman [BG1,BG2,Go] as a geometrical analogue of the celebrated simplicial volume of orientable closed manifolds due to M. Gromov [Gr,Th1]. During the past few years, much has been known about the ( SL 2 (R) × Z R)representation volume (the Seifert volume) and the PSL(2, C)-representation volume (the hyperbolic volume) for 3-manifolds and their finite covers [DW1,DW2,DLW,DSW,DLSW]. Those invariants have demonstrated to be useful in studying nonzero degree maps between 3-manifolds, especially when the simplicial volume vanishes.…”
Section: Introductionmentioning
confidence: 99%
“…Let D be the set of all closed orientable 3-manifolds N with D(M, N ) finite for any fixed M . By Theorem 1.1 (4), SV(N ) = HV(N ) = 0 if N / ∈ D. It is known that (see [7], for example) N ∈ D if and only if N contains a prime factor Q with non-trivial geometric decomposition, or supporting an SL 2 (R) or a hyperbolic geometry. This fact combined with Theorem 1.1(2), (3), (4) implies that if vol(N, Iso e SL 2 (R)) = {0}, then necessarily a prime factor of N has a non-trivial geometric decomposition, or supports an SL 2 (R) or a hyperbolic geometry and if vol(N, PSL(2; C)) = {0}, then necessarily a prime factor of N contains some hyperbolic JSJ pieces.…”
Section: Introductionmentioning
confidence: 99%