Introduction to Drinfeld Module
Drinfeld modules are certain function field analogues of elliptic curves. In fact, due to this analogy, in his seminal paper, Vladimir Drinfeld introduced
these objects under the name of “elliptic modules.” Drinfeld’s motivation was to construct function field analogues of classical modular curves classifying elliptic curves with some additional data and use these to relate automorphic forms and Galois representations, in line with the program envisioned by Langlands. The theory of Drinfeld modules and their generalizations, called shtukas, has since led to a successful resolution of the Langlands correspondence over function fields, and it continues to play a central role in number theory because of its applications to many other important problems, such as the
Birch and Swinnerton-Dyer conjecture. We do not discuss any of the applications of Drinfeld modules and their modular varieties to the Langlands program. Our goal is much more modest: to develop the theory of Drinfeld modules in parallel with the theory of elliptic curves assuming as little background material as possible. In this lecture, we only assume that the reader is familiar with graduate-level abstract algebra as presented, for example, in the book by Dummit and Foote; we review some of the algebra results important for our purposes. In addition, in some proofs we use facts from algebraic number theory, which can be found, for example, in the book by Marcus.
these objects under the name of “elliptic modules.” Drinfeld’s motivation was to construct function field analogues of classical modular curves classifying elliptic curves with some additional data and use these to relate automorphic forms and Galois representations, in line with the program envisioned by Langlands. The theory of Drinfeld modules and their generalizations, called shtukas, has since led to a successful resolution of the Langlands correspondence over function fields, and it continues to play a central role in number theory because of its applications to many other important problems, such as the
Birch and Swinnerton-Dyer conjecture. We do not discuss any of the applications of Drinfeld modules and their modular varieties to the Langlands program. Our goal is much more modest: to develop the theory of Drinfeld modules in parallel with the theory of elliptic curves assuming as little background material as possible. In this lecture, we only assume that the reader is familiar with graduate-level abstract algebra as presented, for example, in the book by Dummit and Foote; we review some of the algebra results important for our purposes. In addition, in some proofs we use facts from algebraic number theory, which can be found, for example, in the book by Marcus.

讲师
日期
2024年09月30日 至 2025年01月08日
位置
Weekday | Time | Venue | Online | ID | Password |
---|---|---|---|---|---|
周一,周三 | 15:20 - 16:55 | A3-3-301 | ZOOM 11 | 435 529 7909 | BIMSA |
修课要求
Number Field Theory, Function Field Theory, Class Field Theory, Basic Algebraic Geometry.
参考资料
Mihran Papikian, Drinfeld Moudle;
David Goss, Basic Structures Of Function Field;
David Goss, Basic Structures Of Function Field;
听众
Graduate
, 博士后
, Researcher
视频公开
公开
笔记公开
公开
语言
中文
讲师介绍
胡创强,2021年秋季入职BIMSA。主要研究领域包括:编码理论,函数域及数论,奇点理论。近年来在量子码,代数几何码,Drinfeld模,椭圆奇点,丘-李代数等课题研究中取得了一系列学术成就。在《IEEE Trans. on IT.》《Finite Fields and Their Applications》《Designs, Codes and Cryptography》等著名学术期刊上发表论文13篇。先后多次应邀出席国内外学术会议并作大会报告。