Lesson 23 AC Source Tx AC Thèvenin

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Presentation transcript:

Lesson 23 AC Source Tx AC Thèvenin

Learning Objectives Construct equivalent circuits by converting an AC voltage source and a resistor to an AC current source and a resistor. Apply Thèvenin's Theorem to simplify an AC circuit for analysis.

DC Source transformation Review DC Source transformation Source transformation is the process of replacing a voltage source vs in series with a resistor R by a current source is in parallel with a resistor R, or vice versa.

AC Source transformation A voltage source with impedance Z in series is the same as a current source with an impedance Z in parallel.

Example Problem 1 Convert the voltage source to a current source:

Example Problem 2 Using source transformations, determine the voltage drop VR across the 3 ohm resistor and the current IR through it.

Example Problem 3 Using source transformations, determine the voltage drop Vab across the 10 ohm resistor.

Thévenin’s theorem for AC ETh is the open circuit voltage at the terminals, ZTh is the input or equivalent resistance at the terminals when the independent sources are turned off.

Determining ETh Review Remove the load (open-circuit) and measure the resulting voltage. Eth = open ckt voltage

Determining ZTh With the load disconnected, turn off all independent sources. Voltage sources – 0 V is equivalent to a short-circuit. Current sources – 0 A is equivalent to a open-circuit. ZTh is the equivalent resistance looking into the “dead” circuit through terminals a-b. Zth

Applying Thévenin equivalent Once ETh and ZTh have been found, the original circuit is replaced by its equivalent and solving for ILD and VLD becomes trivial.

Example Problem 4 Convert the source below into a Thévenin equivalent and determine the current through load Zab.

Example Problem 5 Convert the source below into a Thévenin equivalent. ZLOAD