Lectures in course EE-200: Electromagnetics I : Transmission lines and waves

Covers the fundamentals of electromagnetism, focusing on lines and waves.

Explores the theory of distributed circuits in electromagnetism and the importance of considering time delays in various engineering applications.

Discusses criteria to distinguish between localized and distributed circuits based on time and frequency considerations.

Demonstrates the application of multiple reflection diagrams to analyze signal behavior in transmission lines.

Explores the spatial criterion for distinguishing localized and distributed circuits based on size and wavelength, with practical examples.

Explores multiple reflection diagrams and their application to voltage and current analysis.

Explores the generation and transmission of rectangular pulses in high-frequency logic circuits.

Covers the theory of transmission lines, discussing different types and how to model them with capacitance and inductance.

Explores delay effects in transmission lines, analyzing the time response to a step voltage.

Covers the theory and example of connecting two transmission lines in series.

Covers the mathematical theory of transmission lines, focusing on basic equations and characteristic impedance.

Explores the concept of reflection by an inductance in a circuit.

Discusses the response of an infinite line to a voltage square.

Covers the reflection coefficient of loads in transmission lines and the generation of reflected voltages and currents.

Explores the temporal variation of load voltage in a complex transmission line example.

Covers the Bergeron diagram and its application through examples of multiple reflections and Shepherd's diagram.

Analyzes multiple reflections in electromagnetism and their impact on transmission lines.

Delves into reflectometry in the time domain, showcasing practical load characterization examples and common temporal signatures.

Explains how transmission line parameters change with different mediums and materials, providing formulas and examples for practical applications.