Lectures related to Duality (electrical circuits)

Introduces the basics of electrical circuits, covering elements, laws, Ohm's law, and series/parallel connections.

Explores impedance analysis, power distribution, method advantages, and power calculations in electrical circuits through practical exercises.

Covers topics related to electrical circuits and power consumption through a series of exam questions.

Explores inductance coil, accumulated energy, coils in series, and RL circuits.

Explores acoustic quantities, wave propagation, and analogies with electrical systems in 1D mediums.

Explores the Jarzynski equation and the quantization of electrical circuits in quantum harmonic oscillators.

Explores phasors in electrical circuits, including impedance, admittance, and application to resistance, inductance, and capacitance.

Explores electroacoustics, focusing on capacitors, transducers, and non-linearities in transduction.

Covers the basics of electrotechnique, including linear elements, current regimes, power types, and practical applications.

Covers the basics of electrotechnique, including linear elements, regimes, power types, and practical applications.

Explores transient stability in power systems dynamics, covering algebraic equations, generator models, and numerical integration techniques.

Explores the origins of common mode voltage in biomedical instrumentation and techniques to reduce it, including the Driven Right Leg circuit.

Explores the superposition principle in electrical circuits for simplification and current calculation.

Explores forces and torsion in electrical circuits, analyzing the impact of angles on wire behavior.

Covers ideal sources, resistance properties, power in circuits, and energy dissipation.

Explores electrical circuits, emphasizing reductions to simplify complex circuits into more manageable forms.

Explains phase shift, RMS values, and power calculations in electrical circuits.

Explores diagnostic problems, emphasizing abduction and consistency in finding faulty components based on observed symptoms and measurements.

Covers the fundamentals of electrical neural stimulation, electrode-tissue interface, charge balancing, tissue damage, and safe stimulation levels.

Introduces Ohm's law, energy conservation, and Kirchhoff's laws for electrical circuits.