The spectral sequence relating algebraic K-theory to motivic cohomology
By Eric Friedlander, A. Suslin. 2002
170 citations recorded by the source corpus.
Subfields: Geometry and Topology, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/ac922b9ed15f00647fd89a8eae44028c2794352a
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Geometry and Topology
- O. Rondigs
- Ivan Panin
- Andrew Justin Blumberg
- S. Saito
- M. Levine
- F. Binda
- K. Pimenov
- Michael A. Mandell
In Mathematical Physics
- O. Rondigs
- Ivan Panin
- Andrew Justin Blumberg
- S. Saito
- F. Binda
- K. Pimenov
- Michael A. Mandell
- Vladimir Voevodsky
Citations in the corpus
- Algebraic K-Theory of Rings of Integers in Local and Global Fields (2005, unknown): “If X is any scheme, smooth overZ[1|2], the multiplicative pairing of v4 1 (see [16,32]) with the spectral sequence converging to K∗(X;Z|2) gives a morphism of spectral sequences E p,q r → E r from (5.”
- On Voevodsky's algebraic K-theory spectrum BGL (2007, methodology): “ructure on the Thomason-Trobaugh K-theory [TT]. 3 1.2 A construction of BGL Let S be a regular scheme. For every S-scheme X consider the category Big(X) of big vector bundles over X (see for instance [FS] for the definition and basic properties). The assignments X →Big(X) and (f: Y →X) →f∗ : Big(X) →”
- Localization theorems in topological Hochschild homology and topological cyclic homology (2008, background): “Recent work of Levine [24] axiomatizes the role of localization and Mayer-Vietoris theorems in the construction of the motivic spectral sequence [1, 14], and such theorems for TR should provide key input to the construction of this conjectural “additive” motivic spectral sequence.”
- Motivic cohomology groups are isomorphic to higher chow groups in any characteristic (2002, background): “In this short paper we show that the motivic cohomology groups defined in [3] are isomorphic to the motivic cohomology groups defined in [1] for smooth schemes over any field.”
- Motivic cohomology with Z/2-coefficients (2003, methodology): “Their construction was reformulated in much more natural terms and extended to all smooth varieties over fields in [ 6 ].”
- RELATIVE CYCLES WITH MODULI AND REGULATOR MAPS (2014, background): “Bloch’s apparently näıve definition of higher Chow groups, given in terms of algebraic cycles, provides the right answer, as established in [21] and [38].”
- On motivic cohomology with Z/l -coefficients (2008, methodology): “Their construction was reformulated in much more natural terms and extended to all smooth varieties over fields in [ 6 ].”