Excitation Tables of FF

Working of 4 bit binary ripple counter using positive edge triggered T flip flop.

Implement the following using 8:1 MUX with a,b,c as select lines. F(a,b,c,d)=Σ(0,1,5,6,7,9,10,15)

Simplify using the Quine-McClusky minimization technique.

Simplify the following expression using a 4 variable K Map. P=f(r,s,t,u)=Σ(1,3,4,6,9,11,12,14)

Simplify the following expression using a 3 variable K Map. Q=f(a,b,c)=Σ(1,2,3,6,7)

Place the following equations into the proper canonical Form.

Implement the following Boolean function using 8:1 multiplexer and 4:1 multiplexer

Design of 2 bit comparator.

Convert the following equation into proper canonical form

Simplify the following expression using K-map.

Design circuit that has 4 inputs, the output will only be high, when majority of the inputs are high

Draw the Thevenin’s equivalent of the circuit at terminals X and Y

Implement Y=ad+bc'+bd using 4:1 Mux . Use A nd B as select lines

Using superposition theorem find the voltage across Z=(3+j4)Ω

Find current through 10Ω resistor using nodal analysis.

Find current through 10Ω resistor using mesh analysis.

Find the open circuit impedance parameters.

A series RLC circuit has R=1Ω, L= 0.01H and C=0.01μF.

Obtain Laplace transform of Triangular waveform

Find Y and Z parameters

Determine node voltages V1, V2, V3 and V4.

Determine Ix using Mesh analysis

Find current using Mesh or loop analysis

Determine the current I in the network shown below, and verify reciprocity theorem

Thevenin’s equivalent circuit across terminal AB . find power dissipation in load resistance 4Ω

Using Millman’s theorem find current IL through RL

Find the value of load resistance when maximum power is transferred.

For the circuit shown below , find two values of capacitor for the reasonable. Consider f=50Hz.

Find i(t) for t≥0, for the network shown below, using Laplace Transformation