Astérisque· 2018Q2
Operads, algebras, modules and motives
- 201citations
- Q2SCImago
- 2018year
Short summary
This paper develops the theory of modules up to homotopy over differential graded algebras (DGAs) and their homotopy versions, providing a framework for mixed Tate motives.
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Key points
- Studies operads and their actions on differential graded algebras (DGAs).
- Develops the theory of modules up to homotopy over DGAs.
- Connects derived categories of modules over DGAs to mixed Tate motives in algebraic geometry.
AI-generated from the title and abstract; the full text is not read.
Abstract
Abstract. With motivation from algebraic topology, algebraic geometry, and string theory, we study various topics in differential homological algebra. The work is divided into five largely independent parts: I Definitions and examples of operads and their actions II Partial algebraic structures and conversion theorems III Derived categories from a topological point of view IV Rational derived categories and mixed Tate motives V Derived categories of modules over E ∞ algebras In differential algebra, operads are systems of parameter chain complexes for multiplication on various types of differential graded algebras “up to homotopy”, for example commutative algebras, n-Lie algebras, n-braid algebras, etc. Our primary focus is the development of the concomitant theory of modules up to homotopy and the study of both classical derived categories of modules over DGA’s and derived categories of modules up to homotopy over DGA’s up to homotopy. Examples of such derived categories provide the appropriate setting for one approach to mixed Tate motives in algebraic geometry, both rational and integral.
The authors' abstract, as published at the source. Astérisque, 2018 · DOI ↗
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Field: Algebra and Number Theory
Algebra and Number TheoryMathematics