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Arithmetic level raising on triple product of Shimura curves and Gross--Kudla--Schoen Diagonal cycles II: Bipartite Euler system

Haining Wang

Abstract

In this article, we study the Gross--Kudla--Schoen diagonal cycle on the triple product of Shimura curves at a place of good reduction and prove an unramified arithmetic level raising theorem for the cohomology of this triple product. We deduce from it a reciprocity law which relates the image of the diagonal cycle under the Abel--Jacobi map to certain period integral of Gross--Kudla type. Combing this with the first reciprocity law we proved in a previous work, we show that the Gross--Kudla--Schoen diagonal cycles form a bipartite Euler system for the symmetric cube motive of a modular form. As an application we provide some evidence for the rank one case of the Bloch--Kato conjecture for the symmetric cube motive of a modular form.

Arithmetic level raising on triple product of Shimura curves and Gross--Kudla--Schoen Diagonal cycles II: Bipartite Euler system

Abstract

In this article, we study the Gross--Kudla--Schoen diagonal cycle on the triple product of Shimura curves at a place of good reduction and prove an unramified arithmetic level raising theorem for the cohomology of this triple product. We deduce from it a reciprocity law which relates the image of the diagonal cycle under the Abel--Jacobi map to certain period integral of Gross--Kudla type. Combing this with the first reciprocity law we proved in a previous work, we show that the Gross--Kudla--Schoen diagonal cycles form a bipartite Euler system for the symmetric cube motive of a modular form. As an application we provide some evidence for the rank one case of the Bloch--Kato conjecture for the symmetric cube motive of a modular form.

Paper Structure

This paper contains 18 sections, 25 theorems, 141 equations.

Key Result

Theorem 2

Let $p$ be an $n$-admissible prime for $\underline{\mathbf{f}}$. We assume that each maximal ideal in the triple $\mathfrak{m}_{\underline{\mathbf{f}}}=(\mathfrak{m}_{1}, \mathfrak{m}_{2}, \mathfrak{m}_{3})$ satisfies Assumption intro-ass. Then we have the following isomorphism between $\mathcal{O}_{\underline{\lambda}, n}$-modules.

Theorems & Definitions (54)

  • Definition 1.1
  • Theorem 2
  • Theorem 3
  • Theorem 4
  • Lemma 2.1
  • proof
  • Lemma 2.2
  • proof
  • Theorem 2.3: Ihara's lemma
  • Definition 2.4
  • ...and 44 more