Jacobi modular forms: 30 ans après

  • 4.8
Approx. 30 hours to complete

Course Summary

Learn about modular forms and Jacobi forms in this advanced mathematics course. Dive deep into the theory and applications of these important mathematical concepts and gain a deeper understanding of topics such as automorphic forms, elliptic curves, and more.

Key Learning Points

  • Explore the theory and applications of modular forms and Jacobi forms
  • Gain a deeper understanding of automorphic forms and elliptic curves
  • Learn about the role of modular forms in number theory and other areas of mathematics

Related Topics for further study


Learning Outcomes

  • Understand the theory and applications of modular forms and Jacobi forms
  • Deepen your knowledge of automorphic forms and elliptic curves
  • Gain a deeper understanding of the role of modular forms in number theory and other areas of mathematics

Prerequisites or good to have knowledge before taking this course

  • Familiarity with advanced mathematics concepts such as calculus, linear algebra, and abstract algebra
  • Experience with mathematical proofs and rigorous reasoning

Course Difficulty Level

Advanced

Course Format

  • Online
  • Self-paced
  • Video lectures
  • Quizzes and exercises

Similar Courses

  • Introduction to Number Theory
  • Calculus: Single Variable
  • Linear Algebra

Related Education Paths


Notable People in This Field

  • Andrew Wiles
  • John Tate
  • Harold Stark

Related Books

Description

This is a master course given in Moscow at the Laboratory of Algebraic Geometry of the National Research University Higher School of Economics by Valery Gritsenko, a professor of University Lille 1, France.

Outline

  • Introduction to the Course
  • About the University
  • About the Course
  • About University
  • Rules on the academic integrity in the course
  • Course Overview
  • Grading and Logistics
  • Suggested Readings
  • About the Instructor
  • Jacobi modular forms: motivations
  • Motivations
  • Theta-function
  • Modular and abelian transformations
  • Pullbacks of theta-function
  • Modular forms
  • Jacobi modular forms: the first definition
  • Definition of Jacobi forms
  • Definition of Jacobi forms (part 2)
  • Basic properties of Jacobi forms
  • Jacobi modular group
  • Symplectic group
  • Jacobi modular group (part 2)
  • Jacobi modular group and the second definition of Jacobi forms. Special values of Jacobi modular forms
  • Heisenberg group
  • The action of Jacobi modular group
  • The action of Jacobi modular group (part 2)
  • The second definition of Jacobi forms
  • Special values of Jacobi forms
  • The first theorem
  • Zeros of Jacobi forms. The Jacobi theta-series, the Dedekind eta-function and the first examples of Jacobi modular forms
  • The zeros of elliptic functions
  • The zeros of Jacobi forms (part 2)
  • Taylor expansion of Jacobi forms
  • Taylor expansion of Jacobi forms (part 2)
  • Dimensions of some spaces of Jacobi forms
  • Examples of Jacobi modular forms
  • The Jacobi theta-series as Jacobi modular form. The basic Jacobi modular forms
  • Examples of Jacobi forms (part 2)
  • Properties of Jacobi theta-function
  • Properties of Jacobi theta-function (part 2)
  • Properties of Jacobi theta-function (part 3)
  • Construction of Jacobi forms using theta-series
  • Construction of Jacobi forms using theta-series (part 2)
  • Theta-blocks, theta-quarks and the first Jacobi cusp form of weight 2
  • Theta-blocks
  • Theta-blocks (part 2)
  • Theta-quarks
  • Dimension of the space of Jacobi forms of odd weight
  • Theta-quarks (part 2)
  • The proof of theorem about theta-quarks
  • The first Jacobi cusp form of weight 2
  • Jacobi forms in many variables and the Eichler-Zagier Jacobi forms
  • Jacobi theta-series and Jacobi forms in many variables
  • Jacobi theta-series and Jacobi forms in many variables (part 2)
  • Hyperbolic reformulation
  • Examples of Jacobi forms in many variables
  • Examples of Jacobi forms in many variables (part 2)
  • Examples of Jacobi forms in many variables (part 3)
  • Jacobi forms in many variables and the splitting principle. Theta-quarks as a pull-back. Weak Jacobi forms in many variables
  • Theta-quarks as pull-backs of Jacobi forms
  • Theta-quarks as pull-backs of Jacobi forms (part 2)
  • Theta-quarks as pull-backs of Jacobi forms (part 3)
  • The splitting principle
  • The splitting principle (part 2)
  • Weak Jacobi forms in many variables
  • The Weil representation and vector valued modular forms. Jacobi forms of singular weight
  • The Weil representation
  • The Weil representation (part 2)
  • Jacobi forms of singular weight
  • Jacobi forms of singular weight (part 2)
  • Jacobi forms of critical weight
  • Jacobi forms of critical weight (part 2)
  • Quasi-modular Eisenstein series. The automorphic correction of Jacobi forms and Taylor expansions
  • Automorpic correction
  • Differential operator D
  • Quasi-modular Eisenstein series
  • Automorphic correction and Taylor expansions
  • Automorphic correction of Jacobi forms in many variables
  • Automorphic correction of Jacobi forms in many variables (part 2)
  • Modular differential operators. The graded ring of the weak Jacobi modular forms
  • Modular differential operators for Jacobi forms
  • Heat operator
  • Heat operator (part 2)
  • Applications of differential operators for Jacobi forms
  • The graded ring of the weak Jacobi modular forms
  • Jacobi type forms in many variables
  • Jacobi type forms and the generalisation of the Cohen-Kuznetsov-Zagier operator
  • A new proof of Cohen-Kuznetsov-Zagier theorem
  • A new proof of Cohen-Kuznetsov-Zagier theorem
  • A new proof of Cohen-Kuznetsov-Zagier theorem (part 2)
  • Cohen-Kuznetsov-Zagier theorem in case of many variables

Summary of User Reviews

Discover the beauty of modular forms and Jacobi theory with this top-rated course on Coursera. Many users have praised the engaging and comprehensive content of the course, making it an ideal choice for both beginners and advanced learners.

Key Aspect Users Liked About This Course

The course provides a thorough and well-structured introduction to modular forms and Jacobi theory, making it easy to understand even for those with limited background knowledge.

Pros from User Reviews

  • Excellent content and presentation
  • Great for beginners and advanced learners alike
  • In-depth explanations and examples
  • Engaging and interactive
  • Well-structured and easy to follow

Cons from User Reviews

  • Some exercises are too difficult for beginners
  • More challenging than expected for some
  • Not enough emphasis on practical applications
  • Limited interaction with the instructor
  • No certificate offered for free users
English
Available now
Approx. 30 hours to complete
Valery Gritsenko
HSE University
Coursera

Instructor

Valery Gritsenko

  • 4.8 Raiting
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