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A 120 Ω load is connected across an ideal voltage source with VS = 12 V. The voltage across the load is
A 2 Ω RL is connected across a voltage source, VS, of 110 V. The source’s internal resistance is 24 Ω. What is the output voltage across the load?
A 12 mA current source has an internal resistance, RS, of 1.2 kΩ. The equivalent voltage source is
In a two-source circuit, one source acting alone produces 12 mA through a given branch. The other source acting alone produces 10 mA in the opposite direction through the same branch. The actual current through the branch is
A 470 Ω RL is connected across a voltage source, VS, of 120 V. The source’s internal resistance, RS, is 12 Ω. What is the output voltage across the load?
A 120 Ω load is connected across a voltage source with VS = 12 V and RS = 8 Ω. The voltage across the load is
A 120 V voltage source has a source resistance, RS, of 60 Ω. The equivalent current source is
An 18 V source has an internal resistance of 70 Ω. If a load resistance of 33 Ω is connected to the voltage source, the load power, PL, is
A 680 Ω load resistor, RL, is connected across a constant current source of 1.2 A. The internal source resistance, RS, is 12 kΩ. The load current, RL, is
A 12 V source has an internal resistance of 90 Ω. If a load resistance of 20 Ω is connected to the voltage source, the load power, PL, is
A voltage source having an open-circuit voltage of 100 V and internal resistance of 50 ω is equivalent to a current source:
The superposition theorem is applicable to:
An ideal current source has ___ in parallel with the source.
What is Norton’s equivalent current?
The current source present in the Norton's equivalent circuit is called as Norton's equivalent current.
The current source present in the circuit is called as Norton's equivalent current.
The voltage source present in the Norton's equivalent circuit is called as Norton's equivalent current.
All of the above
