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The analytic de Rham stack in rigid geometry

Juan Esteban Rodríguez Camargo

Abstract

Applying the new theory of analytic stacks of Clausen and Scholze we introduce a general notion of derived Tate adic spaces. We use this formalism to define the analytic de Rham stack in rigid geometry, extending the theory of $D$-cap-modules of Ardakov and Wadsley to the theory of analytic $D$-modules. We prove some foundational results such as the existence of a six functor formalism and Poincaré duality for analytic $D$-modules, generalizing previous work of Bode. Finally, we relate the theory of analytic $D$-modules to previous work of the author with Rodrigues Jacinto on solid locally analytic representations of $p$-adic Lie groups.

The analytic de Rham stack in rigid geometry

Abstract

Applying the new theory of analytic stacks of Clausen and Scholze we introduce a general notion of derived Tate adic spaces. We use this formalism to define the analytic de Rham stack in rigid geometry, extending the theory of -cap-modules of Ardakov and Wadsley to the theory of analytic -modules. We prove some foundational results such as the existence of a six functor formalism and Poincaré duality for analytic -modules, generalizing previous work of Bode. Finally, we relate the theory of analytic -modules to previous work of the author with Rodrigues Jacinto on solid locally analytic representations of -adic Lie groups.
Paper Structure (51 sections, 163 theorems, 334 equations)

This paper contains 51 sections, 163 theorems, 334 equations.

Key Result

Theorem 1.0.1

Let $R=\mathbb{Z}((\pi))$ be the Huber ring parametrizing pseudo-uniformizers in Tate Huber pairs. There is a full subcategory $\mathop{\mathrm{AffRing}}\nolimits^{b}_{R}\subset \mathop{\mathrm{AnRing}}\nolimits_R$ of the $\infty$-category of analytic $R$-algebras, called the category of bounded aff

Theorems & Definitions (430)

  • Theorem 1.0.1
  • Definition 1.0.2
  • Theorem 1.0.3
  • Theorem 1.0.4
  • Proposition 1.0.5
  • Definition 1.0.6
  • Theorem 1.0.7
  • Theorem 1.0.8
  • Corollary 1.0.9
  • Definition 1.0.10: Algebraic de Rham stack
  • ...and 420 more