Abstract:Using the correspondence between Chern-Simons theories and Wess-Zumino-Witten models we present the necessary tools to calculate colored HOMFLY polynomials for hyperbolic knots. For two-bridge hyperbolic knots we derive the colored HOMFLY invariants in terms of crossing matrices of the underlying Wess-Zumino-Witten model. Our analysis extends previous works by incorporating non-trivial multiplicities for the primaries appearing in the crossing matrices, so as to describe colorings of HOMFLY invariants beyond t… Show more
“…With these sign prescriptions, H [21] for knots are polynomials (otherwise denominators can occur) and coincide with the previously known answers from [37,40,41,78]. Among knots belonging to starfish configurations, the 3-finger configurations we checked are described by (7.3) (with the third finger chosen antiparallel but the first two fingers taken parallel) except knot 10 71 where (7.2) choice is used.…”
Section: Sign Dependence On Knotsmentioning
confidence: 53%
“…This matrix is obtained from that of [41] by transposition to make it consistent with (1.10) and thus with our representation of knots. Also minor (always allowed) conjugations are performed in (6.13) and (6.16) to get rid of unnecessary minuses and imaginary units.…”
Section: Jhep07(2015)109mentioning
confidence: 86%
“…The same formula continue to work for representation [21], but then some σ-factors are −1. Expressions for R = [21] are rather involved using Racah matrices explicitly calculated in [41]. Our main focus in Part II will be to compute R = [21] colored HOMFLY polynomials.…”
Section: Jhep07(2015)109mentioning
confidence: 99%
“…The answers for twist knots agree with those in refs. [40,41,78]. Other members of the same three-finger family are: 7 4 (3,3,1), 9 5 (−1, −3, −5), 9 35 (3,3,3), 9 46 (3, −3,3), 10 3 (1,5, −5), .…”
Many knots and links in S 3 can be drawn as gluing of three manifolds with one or more four-punctured S 2 boundaries. We call these knot diagrams as double fat graphs whose invariants involve only the knowledge of the fusion and the braiding matrices of four -strand braids. Incorporating the properties of four-point conformal blocks in WZNW models, we conjecture colored HOMFLY polynomials for these double fat graphs where the color can be rectangular or non-rectangular representation. With the recent work of Gu-Jockers, the fusion matrices for the non-rectangular [21] representation, the first which involves multiplicity is known. We verify our conjecture by comparing with the [21] colored HOMFLY of many knots, obtained as closure of three braids. The conjectured form is computationally very effective leading to writing [21]-colored HOMFLY polynomials for many pretzel type knots and non-pretzel type knots. In particular, we find class of pretzel mutants which are distinguished and another class of mutants which cannot be distinguished by [21] representation. The difference between the [21]-colored HOMFLY of two mutants seems to have a general form, with A-dependence completely defined by the old conjecture due to Morton and Cromwell. In particular, we check it for an entire multi-parametric family of mutant knots evaluated using evolution method.
“…With these sign prescriptions, H [21] for knots are polynomials (otherwise denominators can occur) and coincide with the previously known answers from [37,40,41,78]. Among knots belonging to starfish configurations, the 3-finger configurations we checked are described by (7.3) (with the third finger chosen antiparallel but the first two fingers taken parallel) except knot 10 71 where (7.2) choice is used.…”
Section: Sign Dependence On Knotsmentioning
confidence: 53%
“…This matrix is obtained from that of [41] by transposition to make it consistent with (1.10) and thus with our representation of knots. Also minor (always allowed) conjugations are performed in (6.13) and (6.16) to get rid of unnecessary minuses and imaginary units.…”
Section: Jhep07(2015)109mentioning
confidence: 86%
“…The same formula continue to work for representation [21], but then some σ-factors are −1. Expressions for R = [21] are rather involved using Racah matrices explicitly calculated in [41]. Our main focus in Part II will be to compute R = [21] colored HOMFLY polynomials.…”
Section: Jhep07(2015)109mentioning
confidence: 99%
“…The answers for twist knots agree with those in refs. [40,41,78]. Other members of the same three-finger family are: 7 4 (3,3,1), 9 5 (−1, −3, −5), 9 35 (3,3,3), 9 46 (3, −3,3), 10 3 (1,5, −5), .…”
Many knots and links in S 3 can be drawn as gluing of three manifolds with one or more four-punctured S 2 boundaries. We call these knot diagrams as double fat graphs whose invariants involve only the knowledge of the fusion and the braiding matrices of four -strand braids. Incorporating the properties of four-point conformal blocks in WZNW models, we conjecture colored HOMFLY polynomials for these double fat graphs where the color can be rectangular or non-rectangular representation. With the recent work of Gu-Jockers, the fusion matrices for the non-rectangular [21] representation, the first which involves multiplicity is known. We verify our conjecture by comparing with the [21] colored HOMFLY of many knots, obtained as closure of three braids. The conjectured form is computationally very effective leading to writing [21]-colored HOMFLY polynomials for many pretzel type knots and non-pretzel type knots. In particular, we find class of pretzel mutants which are distinguished and another class of mutants which cannot be distinguished by [21] representation. The difference between the [21]-colored HOMFLY of two mutants seems to have a general form, with A-dependence completely defined by the old conjecture due to Morton and Cromwell. In particular, we check it for an entire multi-parametric family of mutant knots evaluated using evolution method.
Tests of the integrality properties of a scalar operator in topological strings on a resolved conifold background or orientifold of conifold backgrounds have been performed for arborescent knots and some non-arborescent knots. The recent results on polynomials for those knots colored by SU(N ) and SO(N ) adjoint representations [1] are useful to verify Marino's integrality conjecture up to two boxes in the Young diagram. In this paper, we review the salient aspects of the integrality properties and tabulate explicitly for an arborescent knot and a link. In our knotebook website, we have put these results for over 100 prime knots available in Rolfsen table and some links. The first application of the obtained results, an observation of the Gaussian distribution of the LMOV invariants is also reported.
With the help of the evolution method we calculate all HOMFLY polynomials in all symmetric representations [r] for a huge family of (generalized) pretzel links, which are made from g + 1 two strand braids, parallel or antiparallel, and depend on g + 1 integer numbers. We demonstrate that they possess a pronounced new structure: are decomposed into a sum of a product of g + 1 elementary polynomials, which are obtained from the evolution eigenvalues by rotation with the help of rescaled SU q (N ) Racah matrix, for which we provide an explicit expression. The generalized pretzel family contains many mutants, undistinguishable by symmetric HOMFLY polynomials, hence, the extension of our results to non-symmetric representations R is a challenging open problem. To this end, a non-trivial generalization of the suggested formula can be conjectured for entire family with arbitrary g and R.
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