Introduction to Complex Analysis

  • 4.8
Approx. 27 hours to complete

Course Summary

This course is an introduction to complex analysis which is a branch of mathematics that studies functions of complex numbers. It covers topics such as complex functions, differentiation, integration, and series.

Key Learning Points

  • Learn about the basics of complex analysis
  • Understand the theory behind complex functions and their properties
  • Apply complex analysis to real-world problems
  • Explore the relationship between complex analysis and other branches of mathematics

Related Topics for further study


Learning Outcomes

  • Understand the theory and applications of complex analysis
  • Develop analytical skills for solving complex problems
  • Apply complex analysis to real-world scenarios

Prerequisites or good to have knowledge before taking this course

  • Knowledge of calculus and basic algebra
  • Familiarity with complex numbers

Course Difficulty Level

Intermediate

Course Format

  • Online self-paced course
  • Video lectures and quizzes

Similar Courses

  • Real Analysis
  • Partial Differential Equations
  • Abstract Algebra

Notable People in This Field

  • Terence Tao
  • John Baez
  • Timothy Gowers

Related Books

Description

This course provides an introduction to complex analysis which is the theory of complex functions of a complex variable. We will start by introducing the complex plane, along with the algebra and geometry of complex numbers, and then we will make our way via differentiation, integration, complex dynamics, power series representation and Laurent series into territories at the edge of what is known today. Each module consists of five video lectures with embedded quizzes, followed by an electronically graded homework assignment. Additionally, modules 1, 3, and 5 also contain a peer assessment.

Outline

  • Introduction to Complex Numbers
  • History of Complex Numbers
  • Algebra and Geometry in the Complex Plane
  • Polar Representation of Complex Numbers
  • Roots of Complex Numbers
  • Topology in the Plane
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Module 1 Homework
  • Complex Functions and Iteration
  • Complex Functions
  • Sequences and Limits of Complex Numbers
  • Iteration of Quadratic Polynomials, Julia Sets
  • How to Find Julia Sets
  • The Mandelbrot Set
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Module 2 Homework
  • Analytic Functions
  • The Complex Derivative
  • The Cauchy-Riemann Equations
  • The Complex Exponential Function
  • Complex Trigonometric Functions
  • First Properties of Analytic Functions
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Module 3 Homework
  • Conformal Mappings
  • Inverse Functions of Analytic Functions
  • Conformal Mappings
  • Möbius transformations, Part 1
  • Möbius Transformations, Part 2
  • The Riemann Mapping Theorem
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Module 4 Homework
  • Complex Integration
  • Complex Integration
  • Complex Integration - Examples and First Facts
  • The Fundamental Theorem of Calculus for Analytic Functions
  • Cauchy’s Theorem and Integral Formula
  • Consequences of Cauchy’s Theorem and Integral Formula
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Module 5 Homework
  • Power Series
  • Infinite Series of Complex Numbers
  • Power Series
  • The Radius of Convergence of a Power Series
  • The Riemann Zeta Function And The Riemann Hypothesis
  • The Prime Number Theorem
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Module 6 Homework
  • Laurent Series and the Residue Theorem
  • Laurent Series
  • Isolated Singularities of Analytic Functions
  • The Residue Theorem
  • Finding Residues
  • Evaluating Integrals via the Residue Theorem
  • Bonus: Evaluating an Improper Integral via the Residue Theorem
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Lecture Slides
  • Module 7 Homework
  • Final Exam
  • Final Exam

Summary of User Reviews

Discover the world of complex analysis with this highly recommended course on Coursera. Users have praised the course for its comprehensive approach to the subject matter, with a focus on practical applications and real-world examples.

Key Aspect Users Liked About This Course

The course is highly comprehensive and covers a wide range of topics in complex analysis.

Pros from User Reviews

  • The course is well-structured and easy to follow.
  • The instructors are knowledgeable and engaging.
  • The course is suitable for both beginners and advanced learners.
  • The course offers plenty of opportunities for hands-on practice and application.

Cons from User Reviews

  • Some users have complained about the pace of the course, finding it too slow or too fast.
  • The course may require prior knowledge in calculus or other mathematical concepts.
  • Some users have found the course to be too theoretical and lacking in practical application.
  • The course may not be suitable for those looking for a quick, superficial overview of the subject matter.
English
Available now
Approx. 27 hours to complete
Dr. Petra Bonfert-Taylor Top Instructor
Wesleyan University
Coursera
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