In the circuit shown below,V_{S} is a constant voltage source and I_{L} is a constant current load.
The value of I_{L} that maximizes the power absorbed by the constant current load is
In the given circuit, the maximum power (in Watts) that can be transferred to the load R_{L} is ____.
In the circuit shown, the Norton equivalent resistance (in Ω) across terminals a-b is ___________.
For the circuit shown in the figure, the Thevenin equivalent voltage (in Volts) across terminals a-b is _____.
Norton’s theorem states that a complex network connected to a load can be replaced with an equivalent impedance
In the figure shown, the value of the current I (in Amperes) is __________.
In the circuit shown in the figure, the angular frequency ω (in rad/s), at which the Norton equivalent impedance as seen from terminals b-b′ is purely resistive, is _________.
The impedance looking into nodes 1 and 2 in the given circuit is
Assuming both the voltage sources are in phase, the value of R for which maximum power is transferred from circuit A to circuit B is
In the circuit shown below, the Norton equivalent current in amperes with respect to the terminals P and Q is
In the circuit shown below, the value of R_{L} such that the power transferred to R_{L} is maximum is
In the circuit shown, what value of R_{L} maximizes the power delivered to R_{L}?
The Thevenin equivalent impedance Z_{th} between the nodes P and Q in the following circuit is
An independent voltage source in series with an impedance Z_{S} = R_{S} + jX_{S} delivers a maximum average power to a load impedance Z_{L} when
For the circuit shown in the figure, the Thevenin voltage and resistance looking into X-Y are: