Lectures related to Short-Circuited or Open Lines

Explores the effects of complex impedance on reflected waves and distribution of quantities.

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

Explores transmission line theory, telegrapher's equations, and frequency-domain solutions for lossless and lossy lines.

Explores frequency solutions for transmission lines, including voltage reflection coefficients and the Blumer index.

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

Explores time-domain and frequency-domain solutions for transmission lines, including the Bergeron Method and input impedance.

Explores time-domain solutions for lossless lines and examples of wave propagation behavior.

Covers the Smith Chart, a graphical tool for solving transmission line problems and impedance matching.

Explores standing wave ratio, load impedance, reflection coefficient, and wave propagation analysis.

Explores impedance, wave behavior, and equivalent diagrams in electroacoustics, focusing on tube length, terminal impedance, and wave transmission.

Explores input impedance, wave reflections, and Fourier analysis of arterial waves.

Covers the derivation of transmission line equations and analysis of lossless lines in the frequency domain.

Explores incremental models, terminated lines, VSWR, and input impedance in transmission lines.

Explores terminated transmission lines, impedance matching, transformers, and power transfer techniques.

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

Explains the basic principles of ultrasound imaging and the factors determining resolution.

Covers transmission line theory, Telegrapher's Equations, frequency domain solutions, multi-conductor lines, and load responses.

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

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

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