More about the (co)homology of groups and associative algebras.
Inassaridze, Hvedri (2005)
Homology, Homotopy and Applications
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Inassaridze, Hvedri (2005)
Homology, Homotopy and Applications
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French, Christopher (2003)
Homology, Homotopy and Applications
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Cegarra, A.M., García-Calcines , J.M., Ortega, J.A. (2002)
Homology, Homotopy and Applications
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Hu, Po, Kriz, Igor (2004)
Homology, Homotopy and Applications
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M. Izydorek, A. Vidal (1993)
Annales Polonici Mathematici
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The purpose of this note is to prove the converse of the Lefschetz fixed point theorem (CLT) together with an equivariant version of the converse of the Lefschetz deformation theorem (CDT) in the category of finite G-simplicial complexes, where G is a finite group.
Michael Weiss (2008)
Archivum Mathematicum
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The Mumford conjecture predicts the ring of rational characteristic classes for surface bundles with oriented connected fibers of large genus. The first proof in [11] relied on a number of well known but difficult theorems in differential topology. Most of these difficult ingredients have been eliminated in the years since then. This can be seen particularly in [7] which has a second proof of the Mumford conjecture, and in the work of Galatius [5] which is concerned mainly with a “graph”...
Bernd Günther (1992)
Fundamenta Mathematicae
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We show that the Vietoris system of a space is isomorphic to a strong expansion of that space in the Steenrod homotopy category, and from this we derive a simple description of strong homology. It is proved that in ZFC strong homology does not have compact supports, and that enforcing compact supports by taking limits leads to a homology functor that does not factor over the strong shape category. For compact Hausdorff spaces strong homology is proved to be isomorphic to Massey's homology. ...
Martin Arkowitz (1998)
Banach Center Publications
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We give conditions for a map of spaces to induce maps of the homology decompositions of the spaces which are compatible with the homology sections and dual Postnikov invariants. Several applications of this result are obtained. We show how the homotopy type of the (n+1)st homology section depends on the homotopy type of the nth homology section and the (n+1)st homology group. We prove that all homology sections of a co-H-space are co-H-spaces, all n-equivalences of the homology decomposition...
Damian, Mihai (2005)
General Mathematics
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Ebeling, Paul, Keune, Frans (2002)
Georgian Mathematical Journal
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