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∫ Complex Analysis
Complex functions, Cauchy-Riemann equations, conformal mappings, and contour integration
📊 Probability & Statistics
Distributions, curve fitting, regression, and hypothesis testing — all exam-oriented
Introduction to Complex Analysis
Complex numbers, limits, continuity, and analytic functions
Pricing (per student)
Prerequisites
- Basic calculus (differentiation, integration)
- Familiarity with algebra and trigonometry
Overview
Introduces students to the fundamentals of complex numbers and functions, ensuring they understand limits, continuity, and differentiability in the complex plane. Builds the foundation needed for all subsequent Complex Analysis courses.
Topics
| Hour | Topic | Details |
|---|---|---|
| 1 | Introduction to Complex Numbers | Definition, representation, algebraic operations. |
| 2 | Complex Plane & Polar Form | Argand diagram, polar form, De Moivre's theorem. |
| 3 | Functions of a Complex Variable | Definition, examples, domain, and range. |
| 4 | Limits in Complex Analysis | Definition, examples, and geometric interpretation. |
| 5 | Continuity in the Complex Plane | Definition, conditions, and examples. |
| 6 | Differentiability of Complex Functions | Definition and Cauchy-Riemann conditions (Cartesian form). |
| 7 | Analytic Functions | Definition, properties, and examples. |
| 8 | Problems on Cauchy-Riemann Equations | Solving problems to verify analyticity. |
| 9 | Construction of Analytic Functions | Introduction to the Milne-Thompson method. |
| 10 | Recap & Problem-Solving Session | Revision, doubt clearance, and timed practice problems. |
Expected Outcomes
- Understand complex numbers and their geometric representation.
- Solve problems on limits, continuity, and differentiability.
- Apply Cauchy-Riemann equations to check analyticity.