Geometric Monodromy and the Hyperbolic Disc
By I. Smith. 2000
58 citations recorded by the source corpus.
Symplectic four-manifolds give rise to Lefschetz fibrations, which are determined by monodromy representations of free groups in mapping class groups. We study the topology of Lefschetz fibrations by analysing the action of the monodromy on the universal cover of a smooth fibre. We give new and simple proofs that Lefschetz fibrations arising from pencils (i.e. with exceptional sections) never split as non-trivial fibre sums, and that no simple closed curve can be invariant to isotopy under the monodromy representation.
Subfields: Discrete Mathematics and Combinatorics, Geometry and Topology, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/8f15edbd5c0601f20fad5224db1d55ccbd741529
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In Discrete Mathematics and Combinatorics
In Geometry and Topology
In Mathematical Physics
Citations in the corpus
- Lefschetz pencils and divisors in moduli space (2000, methodology): “We recall a theorem of Stipsicz [26]; a simpler proof is given by the author in [21]:”
- Contact 3-manifolds with infinitely many Stein fillings (2003, background): “It is known (see [18]) that if for the relator w we have w = ∆g in Γ 1 g, then the Lefschetz fibration X → S(2) given by w admits a section of square −k.”
- Branched coverings of ℂℙ2 and invariants of symplectic 4-manifolds (2000, background): “It is also known that there does not exist any non-trivial element in the fundamental group of the generic fiber Σg which remains fixed by the monodromy of the Lefschetz fibration ([12], [11]).”