
This is an brief introduction of the course in which students will be able to know what they are going to learn in each lecture.
This video lecture contains concept of function of complex variables, entire function, singular point, analytic function and Cauchy Riemann equations with its proof.
This video lecture contains some problems based on Cauchy Riemann equations with their solutions.
In this lecture we have discussed about Milne Thomson method with some examples. Milne Thomson method is a method to construct analytic function.
In this lecture some basic concepts and terminologies related to complex integration are explained like partition and norm, rectifiable curve, Jordan arc and contour.
In this lecture students will learn about simply and multiply connected regions and Cauchy's theorem with its proof. Again extension of Cauchy's theorem is given for multiply connected region.
In this lecture some examples of Cauchy's Integral Theorem is discussed so that he students can better understand applications of the theorem.
This video lecture contains explanation of Cauchy's integral formula with its derivation. Derivatives of an analytic function is also discussed.
In this lecture some examples of Cauchy's integral theorem are illustrated to explain application of the formula. Also difference between Cauchy's integral theorem and Cauchy's integral formula is explained through some examples so that students will not get confused with their usage.
This lecture contains simple and easy proof of Morera's Theorem which is converse of Cauchy's Theorem.
This lecture contains the concepts of power series, absolute and conditional convergence, circle and radius of convergence and some examples based on radius of convergence.
This lecture contains concepts of Taylor's series and Laurent's series for complex functions with their applications.
This video lecture contains concepts of different types of singularities, poles and zeros of a complex function.
This video lecture contains the concepts of residue of a complex function at simple pole, higher order pole and infinity.
This video lecture contains the concept of Cauchy's residue theorem with its proof. Some examples are also given to understand the applications of Cauchy's residue theorem.
This video lecture contains the concept of bilinear transformation with examples.
This video lecture contains the concept of contour integration around the unit circle. The topic is illustrated by an example also.
This video lecture contains the concept of finding definite integral around a small semi circle with an example.
This video lecture contains the concept of contour Integration by indenting the contours having poles on the real axis, with an example.
This video lecture contains the concept of integration around a small semicircle where integrand contains a term of Sin or Cos function. An illustration is given to make the concept more clear.
This is a complete course on complex analysis in which all the topics are explained in detailed but simple and easy manner. This course is designed for university and college level students of science and engineering stream as well as for the students who are preparing for various competitive exams . The whole curriculum is divided into two parts.
Part 1
Functions of Complex variables, Analytic Function, Cauchy Riemann Equations
Some examples of Cauchy Riemann Equations
Milne Thomson Method to construct Analytic function
Simply and Multiply Connected Domains, Cauchy's theorem and its proof, extension of Cauchy's theorem for multiply connected domain
Some examples of Cauchy's theorem
Cauchy's Integral Formula with its proof
Some examples of Cauchy's integral formula
Morera's Theorem
Power series and Radius of Convergence
Part 2
Taylor's series and Laurent's series and some examples based on these
Residues and Cauchy's Residue Theorem
Some applications of Cauchy's residue theorem
Poles and Singularities
Contour Integration
Bi linear or Mobius Transformation
Complex numbers are just extension of real numbers. In complex Analysis mostly we discuss about complex variables. This course on Complex Analysis is taught to the students of science and engineering with the task of meeting two objectives : one, it must create a sound foundation based on the understanding of fundamental concepts and development of manipulative skills, and second it must reach far enough so that the student who completes such a course will be prepared to tackle relatively advanced applications of the subject in subsequent courses that utilize complex variables.