Studying Iwasawa Invariants in Hida Families
This article discusses Iwasawa invariants in Hida families and their connections to modular forms.
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Table of Contents
This article reflects on the study of Iwasawa Invariants within the context of Hida families, a significant area in number theory. Hida families connect Modular Forms and arithmetic properties of elliptic curves, making them a rich subject for research. The discussion includes variations of Iwasawa invariants in modular forms that belong to families intersecting with Eisenstein families.
Hida Families and Eisenstein Families
Hida families are families of modular forms that depend on a parameter, typically referred to as weight. When considering modular forms, researchers often encounter Eisenstein families, which play a crucial role in understanding Congruences among modular forms. The focus here is on the variation of certain properties (the Iwasawa invariants) of these modular forms as one navigates through these families.
Congruences and Invariants
Congruences arise when two modular forms share similar properties at specific points, which can lead to the study of their interrelationships. Iwasawa invariants help illuminate these connections further, especially in cases where these forms belong to families that intersect with Eisenstein families.
In studying these congruences, the analysis of special values leads to the study of certain numbers known as Bernoulli numbers, which are important in number theory. The specific case of congruences from the values of these numbers reveals much about the underlying structure of the Hida families.
Special Cases and Results
As researchers delve deeper into these families, specific cases demonstrate interesting results regarding the behavior of Iwasawa invariants. For instance, there are situations in which these invariants tend to increase significantly as one approaches specific intersection points in the weight space. The behavior of these invariants helps characterize the nature of the modular forms involved.
Techniques and Approaches
The techniques employed in this research involve algebraic methods and the study of Hecke algebras. The analysis of Gorenstein properties in these algebras provides valuable insight into the structure of modular forms within Hida families. When the Hecke algebras exhibit certain properties, researchers can draw significant conclusions about the invariants of these forms.
General Conditions and Implications
Various conditions can affect the study of Hida families and their Iwasawa invariants. For example, the rank of the Hida family over the weight space plays a fundamental role in determining the relationship between the forms and their invariants. When considering different settings, the results can vary greatly, and researchers must carefully consider these factors when drawing conclusions.
Broader Context of Research
The broader context of this research touches on the connections between analytic and algebraic number theory. The interplay between Iwasawa theory and the study of modular forms reveals deep connections within number theory that continue to inspire further research.
Future Directions
Looking ahead, there are many exciting avenues for further exploration within this field. The understanding of Iwasawa invariants can lead to new results regarding modular forms and their congruences. As researchers refine their techniques and expand their frameworks, the potential for new discoveries in number theory remains vast.
In conclusion, the study of Iwasawa invariants in the context of Hida families provides a rich avenue for exploration in number theory. The connections between modular forms, their invariants, and the underlying algebraic structures unveil a complex and fascinating landscape that beckons further research and discovery in the coming years.
Title: Iwasawa invariants in residually reducible Hida families
Abstract: We study the variation of $\mu$-invariants of modular forms in a cuspidal Hida family in the case that the family intersects an Eisenstein family. We allow for intersections that occur because of "trivial zeros" (that is, because $p$ divides an Euler factor) as in Mazur's Eisenstein ideal paper, and pay special attention to the case of the 5-adic family passing through the elliptic curve $X_0(11)$.
Authors: Robert Pollack, Preston Wake
Last Update: 2024-09-24 00:00:00
Language: English
Source URL: https://arxiv.org/abs/2401.14518
Source PDF: https://arxiv.org/pdf/2401.14518
Licence: https://creativecommons.org/licenses/by/4.0/
Changes: This summary was created with assistance from AI and may have inaccuracies. For accurate information, please refer to the original source documents linked here.
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