## Marks 1

In the given circuit, for maximum power to be delivered to RL, its value should be ______ Ω. (Round off to 2 decimal places.)
...

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

For the given circuit the Thevenin equivalent is to be determined. The Thevenin voltage,
VTh (in volt), seen from terminal AB is _________.
...

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

A source $$v_s\left(t\right)=V\cos100\mathrm{πt}$$ has an internal impedance of (4 + j3) Ω.If a purely
resistive load connected to this source has to ...

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

In the circuit shown below, the current through the inductor is
...

In the circuit given below, the value of R required for the transfer of maximum
power to the load having a resistance of 3 Ω is
...

In the figure the current source is $$1\,\,\angle \,0\,A,$$ $$R = \,1\,\,\Omega ,$$ the impedances are $${Z_C} = - j\,\,\Omega ,$$ and $${Z_L} = 2\,...

In the Fig. $${Z_1} = 10\angle - {60^ \circ },\,\,{Z_2} = 10\angle {60^ \circ },\,$$ $${Z_3} = 50\angle {53.13^ \circ }.\,\,$$ Thevenin's impedance s...

Superposition principle is not applicable to a network containing time-varying registors.

## Marks 2

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

The current I flowing in the circuit shown below in Amperes is ________.
...

For the network given in figure below, the Thevenin's voltage Vab is
...

In the circuit shown below, the maximum power transferred to the resistor R is _______ W.
...

In the circuit shown below, the node voltage VA is _________ V.
...

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

In the circuit shown below, if the source voltage $$V_s=100\angle53.12^\circ\;V$$ then the Thevenin’s equivalent
voltage in Volts as seen by the load ...

If $$V_A-V_B=\;6\;V$$, then $$V_C-V_D$$ 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
...

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

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

In the given Fig. the Thevenin's equivalent pair (voltage, impedence), as seen at the terminals $$P-Q$$, is given by
...

Two ac sources feed a common variable resistive load as shown in Fig. Under the maximum power transfer condition, the power absorbed by the load resis...

In Fig. the potential difference between points $$P$$ and $$Q$$ is
...

Viewed from the terminals $$A, B$$ the following circuit shown in Figure can be reduced to an equivalent circuit of a single voltage source in series ...

For the circuit shown in Fig, the Norton equivalent source current value is _________ $$A$$ and its resistance is ___________ $$Ohms$$
...

## Marks 5

An electrical network is fed by two $$ac$$ sources, as shown in Fig. Given that
$${Z_1} = \left( {1 - j} \right)\Omega ,\,\,{Z_2} = \left( {1 + j} \r...

Predict the current $${\rm I}$$ in Fig. in response to a voltage of $$20\angle {0^0}\,V.$$ The impedance values are given in $$ohms.$$ Use Thevenin's ...

Find the Thevenin equivalent about $$AB$$ for the circuit shown in Figure.
...