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Manifolds with poly-surface fundamental groups. (English) Zbl 1110.57016

The authors prove that if \(M\) is a closed connected orientable topological \(2n\)-manifold, \(n\geq 2\), with poly-surface fundamental group, and if \(M\) is simple homotopy equivalent to the total space \(E\) of an \(Y\)-bundle over a closed connected orientable manifold with negative Euler characteristic, where \(Y\) is a closed connected aspherical \((2n-2)\)-manifold such that \(\widetilde K_0(\mathbb{Z} [\pi_1(Y)])=0\), then \(M\) is topologically \(s\)-cobordant to \(E\). This extends to higher dimensions the result of J. A. Hillman [Topology Appl. 40, No. 3, 275–286 (1991; Zbl 0754.57014)] obtained for 4-manifolds. The proof given by the authors is different from the one provided by Hillman: the authors use Mayer-Vietoris techniques and the properties of the \(\mathbb{L}\)-theory assembly maps for such bundles.

MSC:

57N65 Algebraic topology of manifolds
57R67 Surgery obstructions, Wall groups

Citations:

Zbl 0754.57014
Full Text: DOI

References:

[4] Cappell SE (1973) Mayer-Vietoris sequences in Hermitian K-theory. In: Bass H (ed) Hermitian K-Theory and Geometric Applications. Lect Notes Math 343: 478–512. Berlin Heidelberg New York: Springer · Zbl 0298.57021
[6] Choo KG, Lam KY, Luft E (1973) On free products of rings and the coherence property. In: Bass H (ed) Hermitian K-Theory and Geometric Applications. Lect Notes Math 342: 155–179. Berlin Heidelberg New York: Springer
[7] Farrell FT, Hsiang WC (1970) A formula for K1R{\(\alpha\)}[T]. In: Applications of Categorial Algebra, pp 192–218. Proc Symp Pure Math 17. Providence, RI: Amer Math Soc
[10] Ferry SC, Ranicki AA, Rosenberg J (1995) A history and survey of the Novikov conjecture. In: Ferry SC, Ranicki AA, Rosenberg J (eds) Novikov Conjectures, Rigidity and Index Theorems, 7–66. London Math Soc Lect Notes 226. Cambridge: Univ Press · Zbl 0954.57018
[12] Gersten SM (1973) Higher K-theory of rings. In: Bass H (ed) Hermitian K-Theory and Geometric Applications. Lect Notes Math 341: 135–159. Berlin Heidelberg New York: Springer
[13] Hambleton I, Pedersen E (2002) Identifying assembly maps in K- and L-theory. Preprint, available via http://www.math.binghamton.edu/erik/ · Zbl 1051.19002
[15] Hillman JA (1994) The Algebraic Characterization of Geometric 4-Manifolds. London Math Soc Lect Notes Ser 198. Cambridge Univ Press
[24] Quillen D (1973) Higher algebraic K-theory. In: Bass H (ed) Hermitian K-Theory and Geometric Applications. Lect Notes Math 341: 85–148. Berlin Heidelberg New York: Springer · Zbl 0292.18004
[25] Quinn F (1969) A geometric formulation of surgery. In: Topology of Manifolds, Proc Univ Georgia, Athens, Ga Chicago: Markham, pp 500–512
[27] Ranicki AA (1995) On the Novikov conjecture. In: Ferry SC, Ranicki AA, Rosenberg J (eds) Novikov Conjectures, Rigidity and Index Theorems, pp 272–337. London Math Soc Lect Notes 226: Cambridge: Univ Press · Zbl 0954.57017
[31] Waldhausen F (1969) Whitehead groups of generalized free products, notes · Zbl 0202.54702
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