Transmission Lines: Incremental Model

Related lectures (32)

Covers the analysis and synthesis of microstrip lines, discussing effective permittivity, characteristic impedance, attenuation, and dispersion.

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

Covers the analysis of terminated transmission lines and impedance matching techniques for maximum power transfer.

Covers challenging exercises on transmission lines and reactive elements, emphasizing characteristic impedance and reflections theory.

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

Covers lightning-induced voltages, FDTD dispersion, and surge arrester applications.

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

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

Discusses characteristic impedance, dispersion, and modes in microstrip lines.

Provides an overview of the Swiss electricity grid, power plants, pylons, current transmission, and sustainable energy projects.

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

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

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