manifolds and cobordisms
cobordism theory, Introduction
The volume conjectures are a class of conjectures (slightly differing in generality and assumptions), saying that on a suitable (in particular: hyperbolic) 3-manifold $X$ a large N limit of SU(n)-Chern-Simons theory quantum observables ($N$-colored Jones polynomials or more generally RT-invariants, TV-invariants) is equal to the volume or complex volume of $X$.
For a few special cases of 3-manifolds there are explicit proofs of the volume conjecture(s). Besides this there is an abundance of numerical evidence for the volume conjectures, using computer algebra such as SnapPy (see also Zickert 07). In fact experimentation with these numerics is what has been driving the formulation of further variants of the volume conjecture.
Hence experimental mathematics strongly suggests that the volume conjectures are true. But a conceptual explanation (let alone proof) in terms of quantum field theory has remained open (Witten 14, bottom of p. 4). But an explanation in terms of wrapped M5-branes (3d-3d correspondence) is claimed in Gang-Kim-Lee 14, 3.2, see also Gang-Kim 18 (21).
The original volume conjecture (also “Kashaev’s conjecture”, due to Kashaev 95, and understood in terms of the $N$-colored Jones polynomial by Murakami-Murakami 01) states that the large N limit of the $N$-colored Jones polynomial (for gauge group SU(2)) of a knot $K$ gives the simplicial volume of its complement in the 3-sphere (for hyperbolic knots this is the volume of the complementary hyperbolic 3-manifold)
Here $V_N(K; q)$ is the ratio of the values of the $N$-colored Jones polynomial of $K$ and of the unknot
The simplicial volume of a knot complement can be found via its unique torus decomposition into hyperbolic pieces and Seifert fibered pieces by a system of tori. The simplicial volume is then the sum of the hyperbolic volumes of the hyperbolic pieces of the decomposition.
If one omits the absolute value in (1) then the volume conjecture instead involves the complex volume (MMOTY 02, Conjecture 1.2).
More generally, volume conjectures state convergence of the Turaev-Viro invariants or Reshetikhin-Turaev invariants on general hyperbolic 3-manifolds to the volume or complex volume, respectively.
See (Chen-Yang 15)
Generalization from gauge group SU(2) to SU(n): Chen-Liu-Zhu 15
Original articles include
Rinat Kashaev, A Link Invariant from Quantum Dilogarithm, Modern Physics Letters AVol. 10, No. 19, pp. 1409-1418 (1995) (arXiv:q-alg/9504020)
Rinat Kashaev, The Hyperbolic Volume Of Knots From The Quantum Dilogarithm Lett. Math. Phys. 39 (1997) 269-275 (arXiv:q-alg/9601025)
Rinat Kashaev, O. Tirkkonen, Proof of the volume conjecture for torus knots, Journal of Mathematical Sciences (2003) 115: 2033 (arXiv:math/9912210)
Hitoshi Murakami and Jun Murakami, The Colored Jones Polynomial And The Simplicial Volume Of A Knot, Acta Math. 186 (2001) 85-104.
Hitoshi Murakami, Jun Murakami, M. Okamoto, T. Takata, and Y. Yokota, Kashaev’s Conjecture And The Chern-Simons Invariants Of Knots And Links, Experiment. Math. 11 (2002) 427-435 (arXiv:math/0203119)
Hitoshi Murakami, Asymptotic Behaviors Of The Colored Jones Polynomials Of A Torus Knot, Internat. J. Math. 15 (2004) 547-555.
Generalization to Reshetikhin-Turaev construction on closed manifold, to the Turaev-Viro construction on manifolds with boundary, and to more general roots of unity than considered before is in
Qingtao Chen, Tian Yang, A volume conjecture for a family of Turaev-Viro type invariants of 3-manifolds with boundary (arXiv:1503.02547)
Dongmin Gang, Mauricio Romo, Masahito Yamazaki, All-Order Volume Conjecture for Closed 3-Manifolds from Complex Chern-Simons Theory, Commun. Math. Phys. (2018) 359: 915. (arXiv:1704.00918, doi:10.1007/s00220-018-3115-y)
Generalization to SU(n):
Review includes
Hitoshi Murakami, An Introduction to the Volume Conjecture (arXiv:1002.0126) In: Interactions Between Hyperbolic Geometry, Quantum Topology and Number Theory, Contemporary Mathematics Volume 541, AMS 2011 (doi:10.1090/conm/541)
Edward Witten, pp. 4 of Two Lectures On The Jones Polynomial And Khovanov Homology (arXiv:1401.6996)
Wikipedia, Volume conjecture
See also
Walter Neumann, Extended Bloch group and the Cheeger-Chern-Simons class, Geom. Topol. 8 (2004) 413-474 (arXiv:math/0307092)
Christian Zickert, The volume and Chern-Simons invariant of a representation, Duke Math. J., 150 (3):489-532, 2009 (arXiv:0710.2049)
Walter Neumann, Realizing arithmetic invariants of hyperbolic 3-manifolds, Contemporary Math 541 (Amer. Math. Soc. 2011), 233–246 (arXiv:1108.0062)
Stavros Garoufalidis, Dylan Thurston, Christian Zickert, The complex volume of $SL(n,\mathbb{C})$-representations of 3-manifolds (arXiv:1111.2828, Euclid)
Speculative discussion in terms of quantum field theory or string theory includes
Sergei Gukov, Three-Dimensional Quantum Gravity, Chern-Simons Theory, And The A-Polynomial, Commun. Math. Phys. 255 (2005) 577-627 (arXiv:hep-th/0306165)
Robbert Dijkgraaf, Hiroyuki Fuji, The Volume Conjecture and Topological Strings (arXiv:0903.2084)
Tudor Dimofte, Sergei Gukov, Quantum Field Theory and the Volume Conjecture, Contemporary Mathematics 541 (2011), p.41-67 (arxiv:1003.4808)
A conceptual explanation of the volume conjecture via analytically continued Chern-Simons theory was proposed in
(but it seems that as a sketch or strategy for a rigorous proof, it didn’t catch on).
In terms of M5-branes wrapped on the hyperbolic 3-manifold (3d-3d correspondence):
Dongmin Gang, Nakwoo Kim, Sangmin Lee, Holography of Wrapped M5-branes and Chern-Simons theory, j.physletb.2014.04.051 (arXiv:1401.3595)
Dongmin Gang, Nakwoo Kim, Sangmin Lee, Section 3.2 of Holography of 3d-3d correspondence at Large N, JHEP04(2015) 091 (arXiv:1409.6206)
Dongmin Gang, Nakwoo Kim, aound (21) of Large $N$ twisted partition functions in 3d-3d correspondence and Holography, Phys. Rev. D 99, 021901 (2019) (arXiv:1808.02797)
Last revised on May 22, 2019 at 15:56:25. See the history of this page for a list of all contributions to it.