A strictification theorem makes Lagrangian distributions on -2-shifted symplectic derived schemes strict, and gluing gives a global distribution under Hausdorff and second countability assumptions.
Homological Algebra for Superalgebras of Differentiable Functions
1 Pith paper cite this work. Polarity classification is still indexing.
abstract
This is the second in a series of papers laying the foundations for a differential graded approach to derived differential geometry (and other geometries in characteristic zero). In this paper, we extend the classical notion of a dg-algebra to define, in particular, the notion of a differential graded algebra in the world of C-infinity rings. The opposite of the category of differential graded C-infinity algebras contains the category of differential graded manifolds as a full subcategory. More generally, this notion of differential graded algebra makes sense for algebras over any (super) Fermat theory, and hence one also arrives at the definition of a differential graded algebra appropriate for the study of derived real and complex analytic manifolds and other variants. We go on to show that, for any super Fermat theory S which admits integration, a concept we define and show is satisfied by all important examples, the category of differential graded S-algebras supports a Quillen model structure naturally extending the classical one on differential graded algebras, both in the bounded and unbounded case (as well as differential algebras with no grading). Finally, we show that, under the same assumptions, any of these categories of differential graded S-algebras have a simplicial enrichment, compatible in a suitable sense with the model structure.
fields
math.AG 1years
2019 1verdicts
CONDITIONAL 1representative citing papers
citing papers explorer
-
Strictification and gluing of Lagrangian distributions on derived schemes with shifted symplectic forms
A strictification theorem makes Lagrangian distributions on -2-shifted symplectic derived schemes strict, and gluing gives a global distribution under Hausdorff and second countability assumptions.