[Paper Review] On a conjecture of Perrin-Riou
This paper proves Perrin-Riou's conjecture on the non-vanishing of the $p$-adic Beilinson-Kato class for elliptic curves over $\mathbb{Q}$ with ordinary or supersingular reduction at $p$, using a unified approach based on $\Lambda$-adic Kolyvagin systems. The result extends prior work by Bertolini-Darmon and Venerucci and establishes the non-vanishing under mild hypotheses, advancing the $p$-adic Birch and Swinnerton-Dyer conjecture.
Our goal in this article is to give a proof of Perrin-Riou's conjecture (under reasonably mild hypotheses) on the non-vanishing of the $p$-adic Beilinson-Kato class associated to an elliptic curve $E_{/\mathbb{Q}}$, when $E$ has ordinary (i.e., good ordinary or multiplicative) or supersingular reduction at $p$. This generalizes the forthcoming work of Bertolini and Darmon for a good ordinary prime $p$ and of Venerucci for a split multiplicative prime $p$. Our method is based on the general theory of $\Lambda$-adic Kolyvagin systems, as developed by the author previously (and enhanced slightly here) and it applies equally well to treat all these cases simultaneously.
Motivation & Objective
- To prove Perrin-Riou's conjecture on the non-vanishing of the $p$-adic Beilinson-Kato class for elliptic curves over $\mathbb{Q}$ with ordinary or supersingular reduction at $p$.
- To generalize previous results by Bertolini and Darmon (good ordinary case) and Venerucci (split multiplicative case) into a single, unified framework.
- To establish the non-vanishing of the $p$-adic $L$-function special $L$-values via $\Lambda$-adic Kolyvagin systems under mild hypotheses.
- To extend the applicability of $\Lambda$-adic Kolyvagin systems to include both ordinary and supersingular reduction cases simultaneously.
Proposed method
- Utilizes the general theory of $\Lambda$-adic Kolyvagin systems, previously developed by the author, as the foundational framework.
- Applies a refined version of the $\Lambda$-adic Kolyvagin system machinery, slightly enhanced for this work.
- Establishes the non-vanishing of the $p$-adic Beilinson-Kato class by analyzing its image in the $\Lambda$-adic Selmer group.
- Uses the structure of the Iwasawa module and the control theorem to relate the $p$-adic $L$-values to the Kolyvagin system construction.
- Applies the theory of Euler systems and $\Lambda$-modules to deduce non-vanishing from the non-triviality of the system.
- Treats both ordinary and supersingular cases uniformly by leveraging the $\Lambda$-adic framework, avoiding case-by-case analysis.
Experimental results
Research questions
- RQ1Does the $p$-adic Beilinson-Kato class associated to an elliptic curve over $\mathbb{Q}$ with ordinary or supersingular reduction at $p$ remain non-zero in the $\Lambda$-adic Selmer group?
- RQ2Can the non-vanishing of the $p$-adic $L$-value special $L$-values be deduced uniformly across ordinary and supersingular reduction types?
- RQ3To what extent can the $\Lambda$-adic Kolyvagin system method be extended to cover both ordinary and supersingular cases simultaneously?
- RQ4Is there a unified framework that generalizes the results of Bertolini-Darmon and Venerucci under a common set of mild hypotheses?
- RQ5How does the structure of the $\Lambda$-module control the non-vanishing of the $p$-adic $L$-function in the supersingular case?
Key findings
- The $p$-adic Beilinson-Kato class is non-vanishing for elliptic curves over $\mathbb{Q}$ with ordinary or supersingular reduction at $p$, under reasonably mild hypotheses.
- The proof unifies the treatment of ordinary and supersingular cases via the $\Lambda$-adic Kolyvagin system framework.
- The non-vanishing result extends prior work of Bertolini and Darmon for good ordinary primes and of Venerucci for split multiplicative primes.
- The method relies on the enhanced theory of $\Lambda$-adic Kolyvagin systems, which allows for a coherent treatment across different reduction types.
- The result provides strong evidence toward the $p$-adic Birch and Swinnerton-Dyer conjecture in the supersingular case.
- The framework demonstrates the robustness of $\Lambda$-adic systems in handling diverse $p$-adic $L$-function behaviors.
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This review was created by AI and reviewed by human editors.