For the network shown, the equivalent Thevenin voltage and Thevenin impedance as seen across terminals 'ab' is

The Thevenin equivalent voltage, , in V (rounded off to 2 decimal places) of the network shown below, is

A benchtop DC power supply acts as an ideal 4 A current source as long as its terminal voltage is below 10 V. Beyond this point, it begins to behave as an ideal 10 V voltage source for all load currents going down to 0A. When connected to an ideal rheostat, find the load resistance value at which maximum power is transferred, and the corresponding load voltage and current.  

The driving point input impedance seen from the source  of the circuit shown below, in  is ___________.

For the given circuit, the Thevenin equivalent is to be determined. The Thevenin voltage,  

(in Volt), seen from terminal AB is _____________.

The current i(in Ampere) in the  resistor of the given network is _______.

A non-ideal voltage source has an internal impedance of . If a purely resistive load is to be chosen that maximizes the power transferred to the load, its value must be

The Norton’s equivalent source in amperes as seen into the terminals X and Y is__________.

A source  has an internal impedance of . If a purely resistive load connected to this source has to extract the maximum power out of the source, its value in Ω should beA source  has an internal impedance of . If a purely resistive load connected to this source has to extract the maximum power out of the source, its value in Ω should be

The impedance looking into nodes 1 and 2 in the given circuit is

With 10V dc connected at port A in the linear nonreciprocal two-port network shown below, the following were observed:

(i)  connected at port B draws a current of 3A

(ii)  connected at port B draws a current of 2A

For the same network, with 6V dc connected at port A,  connected at port B draws 7/3A. If 8V dc connected to port A, the open circuit voltage at port B is

With 10V dc connected at port A in the linear nonreciprocal two-port network shown below, the following were observed:

(i)  connected at port B draws a current of 3A

(ii)  connected at port B draws a current of 2A

With 10V dc connected at port A, the current drawn by  connected at port B is

In the circuit given below, the value of R required for the transfer of maximum power to the load having a resistance of  is

As shown in the figure, a  resistance is connected across a source that has a load line

v + i = 100. The current through the resistance is

For the circuit shown, find out the current flowing through the 2Ω resistance. Also identify the changes to be made to double the current through the 2Ω resistance.

For the circuit given, the Thevenin's resistance across the terminals A and B is

For the circuit given, the Thevenin's voltage across the terminals A and B is 

In Figure, the Thevenin’s equivalent pair (voltage, impedance), as seen at the terminals P-Q, is given by

Two ac sources feed a common variable resistive load as shown in Figure. Under the maximum power transfer condition, the power absorbed by the load resistance RL is

The circuit shown in figure is equivalent to a load of

Viewed from the terminals A, B the following circuit shown in figure can be reduced to an equivalent circuit of a single voltage source series with a single resistance with the following parameters:

For the circuit shown in figure. The Norton equivalent source current value is _________ A and its resistance is _________ Ohms

Find the Thevenin equivalent about AB for the circuit shown in figure

The V-I characteristic as seen from the terminal- pair (A, B) of the network of figure is shown in figure. If an inductance of value 6mH is connected across the terminal-pair (A, B), the time constant of the system will be

For the circuit shown in figure, find the current through the resistance R connected between points a and b by Thevenin’s theorem.

The superposition principle is not applicable to a network containing time-varying resistors
Choose the correct options

The V-I characteristic as seen from the terminal pair (A,B) of the network of figure (a) is shown figure (b), if a variable resistance  is connected across the terminal pair (A,B), the maximum power that can be supplied to  would be