2017
DOI: 10.17323/1609-4514-2017-17-1-59-77
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A Calculation of Blanchfield Pairings of 3-Manifolds and Knots

Abstract: We calculate Blanchfield pairings of 3-manifolds. In particular, we give a formula for the Blanchfield pairing of a fibred 3-manifold and we give a new proof that the Blanchfield pairing of a knot can be expressed in terms of a Seifert matrix.

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Cited by 30 publications
(30 citation statements)
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“…The adjoints of the two Blanchfield pairings above fit into the following diagram. We have verified that it is hermitian and nonsingular (see [FP15] for an alternative argument). Inspection of the essential properties that we have used in the argument yields the following potentially useful proposition, which was Proposition 1.4 in the introduction.…”
Section: Recovering the Classical Blanchfield Pairingmentioning
confidence: 57%
“…The adjoints of the two Blanchfield pairings above fit into the following diagram. We have verified that it is hermitian and nonsingular (see [FP15] for an alternative argument). Inspection of the essential properties that we have used in the argument yields the following potentially useful proposition, which was Proposition 1.4 in the introduction.…”
Section: Recovering the Classical Blanchfield Pairingmentioning
confidence: 57%
“…called the Blanchfield pairing. The pairing can be computed using a Seifert matrix of K as follows, for more details see [14,22,28].…”
Section: Sliceness Obstructions From Twisted Alexander Polynomialsmentioning
confidence: 99%
“…] → 0, and κ is the so-called Kronecker evaluation (see e.g. [FP17] for details regarding this definition). The involution • on Z[t ±1 ] is given by p(t) = p(t −1 ), and for a Z[t ±1 ]-module M , M denotes the module given by the same abelian group as M , and p(t) acting as p(t).…”
Section: Twisted Alexander Polynomialsmentioning
confidence: 99%