2011
DOI: 10.1215/00127094-1334013
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Inductive construction of the p-adic zeta functions for noncommutative p-extensions of exponent p of totally real fields

Abstract: Abstract. We construct the p-adic zeta function for a one-dimensional (as a p-adic Lie extension) non-commutative p-extension F∞ of a totally real number field F such that the finite part of its Galois group G is a p-group with exponent p. We first calculate the Whitehead groups of the Iwasawa algebra Λ(G) and its canonical Ore localisation Λ(G)S by using Oliver-Taylor's theory upon integral logarithms. This calculation reduces the existence of the non-commutative p-adic zeta function to certain congruence con… Show more

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Cited by 2 publications
(2 citation statements)
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“…Hence we obtain an algebraic number L(ρ, −n), "the value of complex L-function associated to ρ at −n". For details see section 1.2 in Coates-Lichtenbaum [7] (when ρ is one dimensional see equation (15) below in section 6.3. For ρ of higher dimension one has to use Brauer's induction theorem).…”
Section: K-theorymentioning
confidence: 99%
See 1 more Smart Citation
“…Hence we obtain an algebraic number L(ρ, −n), "the value of complex L-function associated to ρ at −n". For details see section 1.2 in Coates-Lichtenbaum [7] (when ρ is one dimensional see equation (15) below in section 6.3. For ρ of higher dimension one has to use Brauer's induction theorem).…”
Section: K-theorymentioning
confidence: 99%
“…It uses the integral logarithm of Oliver and Taylor. This strategy was used by the author to prove such algebraic theorem for pro-p meta-abelian groups in [19] and by Hara for the groups of the form H × Z p , where H is a finite group of exponent p, in [15]. The author believes that results in sections 4 and 5 will be useful in handling noncommutative main conjectures for other motives.…”
Section: Introductionmentioning
confidence: 99%