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Connections between Floer-type invariants and Morse-type invariants of Legendrian knots

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arxiv 0911.1735 v3 pith:LCYK7ZPB submitted 2009-11-09 math.GT math.SG

classification math.GTmath.SG
keywords sigmaclasseslegendrianaugmentationsconnectionsequivalencefamiliesforms
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abstract

We define an algebraic/combinatorial object on the front projection $\Sigma$ of a Legendrian knot called a Morse complex sequence, abbreviated MCS. This object is motivated by the theory of generating families and provides new connections between generating families, normal rulings, and augmentations of the Chekanov-Eliashberg DGA. In particular, we place an equivalence relation on the set of MCSs on $\Sigma$ and construct a surjective map from the equivalence classes to the set of chain homotopy classes of augmentations of $L_\Sigma$, where $L_\Sigma$ is the Ng resolution of $\Sigma$. In the case of Legendrian knot classes admitting representatives with two-bridge front projections, this map is bijective. We also exhibit two standard forms for MCSs and give explicit algorithms for finding these forms.

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  1. Legendrian DGA Representations and the Colored Kauffman Polynomial

    math.SG 2019-08 accept novelty 7.0 of 10

    For every Legendrian knot, ungraded n-dimensional representation numbers of its contact homology DGA equal the n-colored Kauffman polynomial specialized at a^{-1}=0.

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