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physics
electricity and magnetism

Questions and Answers of Electricity and Magnetism

Calculate the power dissipated in each resistor in the circuit in Fig. 3.104?Figure 3.104
Calculate the current gain io/is in the circuit of Fig. 3.105?Figure 3.105
Find the mesh currents i1, i2, and i3 in the network of Fig. 3.106?Figure 3.106
Find vx, and ix in the circuit shown in Fig. 3.107.Figure 3.107
Find vo, and io in the circuit of Fig. 3.108.Figure 3.108
Use MATLAB to solve for the mesh currents in the circuit of Fig. 3.109?Figure 3.109
Write a set of mesh equations for the circuit in Fig. 3.110. Use MATLAB to determine the mesh currents.Figure 3.110 For Prob. 3.66.
Obtain the node-voltage equations for the circuit in Fig. 3.111 by inspection. Then solve for Vo.Figure 3.111 For Prob. 3.67.
Find the voltage Vo in the circuit of Fig. 3.112.Figure 3.112 For Prob.3.68.
For the circuit in Fig. 3.113, write the node voltage equations by inspection?Figure 3.113
Apply nodal analysis to solve for Vs in the circuit in Fig. 3.56.Figure 3.56 For Prob. 3.7
Write the node-voltage equations by inspection and then determine values of V1 and V2 in the circuit in Fig. 3.114?Figure 3.114 For Prob. 3.70.
Write the mesh current equations for the circuit in Fig. 3.115. Next, determine the values of I1, I2, and I3.Figure 3.115 For Prob. 3.71.
By inspection, write the mesh current equations for the circuit in Fig. 3.116.Figure 3.116
Write the mesh-current equations for the circuit in Fig. 3.117?Figure 3.117
By inspection, obtain the mesh current equations for the circuit in Fig. 3.11?Figure 3.118
Use PSpice to solve Prob. 3.58.Chapter 3, Problem 58Find i1, i2, and i3 the circuit in Fig. 3.103.Figure 3.103
Use PSpice to solve Prob. 3.27.Chapter 3, Problem 27Use nodal analysis to determine voltages v1, v2, and v3 in the circuit in Fig. 3.76.
Solve for V1 and V2 in the circuit of Fig. 3.119 using PSpice?Figure 3.119 For Prob. 3.77.
Solve Prob. 3.20 using PSpice.Chapter 3, Problem 20For the circuit in Fig. 3.69, find V1, V2, and V3 using nodal analysis.Figure 3.69
Chapter 3, Problem 28Use MATLAB find the voltages at nodes a, b, c, and d in the circuit of Fig. 3.77.Figure 3.77
Using nodal analysis, find v0 in the circuit in Fig. 3.57.Figure 3.57
Find the nodal voltage v1 through v4 in the circuit in Fig. 3.120 using PSpice.Figure 3.120
Find the node voltages in the circuit of Fig. 3.12?Figure 3.12
If the Schematics Netlist for a network is as follows, draw the network?
The following program is the Schematics Netlist of a particular circuit. Draw the circuit and determine the voltage at node 2.
Calculate vo and io in the circuit of Fig. 3.121.Fig. 3.121
An audio amplifier with resistance 9Ω supplies power to a speaker. In order that maximum power is delivered, what should be the resistance of the speaker?
For the simplified transistor circuit of Fig. 3.122, calculate the voltage vo.Figure 3.122
For the circuit in Fig. 3.123, find the gain vo/vs.Figure 3.123
Determine the gain vo/vs of the transistor amplifier circuit in Fig. 3.124.Figure 3.124
For the transistor circuit shown in Fig. 3.125, find IB and VCE. Let Î² = 100 and VBE = 0.7V.Figure 3.125 For Prob. 3.89.
Determine Ib in the circuit in Fig. 3.58 using nodal analysis.Figure 3.58 For Prob. 3.9
Calculate vs for the transistor in Fig. 3.126, given that vo = 4 V, Î² = 150, VBE = 0.7V.Figure 3.126
For the transistor circuit of Fig. 3.127, find IB, VCE, and vo. Take Î² = 200, VBE = 0.7V.Figure 3.127
Find IB and VC for the circuit in Fig. 3.128. Let Î² = 100, VBE = 0.7V.Figure 3.128
In the circuit in Fig. 3.34, determine the currents i1, i2, and i3.Figure 3.34
Calculate the current io in the circuit of Fig. 4.69. What does this current become when the input voltage is raised to 10 V?Figure 4.69
For the circuit in Fig. 4.78, find the terminal voltage Vab using superposition.Figure 4.78
Use the superposition principle to find io and vo in the circuit Fig. 4.79?Figure 4.79 For Prob. 4.11.
Determine vo in the circuit in Fig. 4.80 using the superposition principle?Figure 4.80
Use superposition to find vo in the circuit of Fig. 4.81.Figure 4.81 For Prob.4.13
Apply the superposition principle to find vo in the circuit of Fig. 4.82.
For the circuit in Fig. 4.83, use superposition to find i. Calculate the power delivered to the 3-Î© resistor.
Given the circuit in Fig. 4.84, use superposition to get io?
Use superposition to obtain vx in the circuit of Fig. 4.85. Check your result using PSpice.
Use superposition to find Vo in the circuit of Fig. 4.86.
Use superposition to solve for vx in the circuit of Fig. 4.87.
Find vo in the circuit of Fig. 4.70. if the source current is reduced to 1 (A, what is vo?Figure 4.70
Use source transformations to reduce the circuit in Fig. 4.88 to a single voltage source in series with a single resistor?
Apply source transformation to determine vo and io in the circuit in Fig. 4.89.
Referring to Fig. 4.90, use source transformation to determine the current and power in the 8-Î© resistor?
Referring to Fig. 4.91, use source transformation to determine the current and power in the 8-Î© resistor?
Use source transformation to find the voltage Vx in the circuit of Fig. 4.92?
Obtain vo in the circuit of Fig. 4.93 using source transformation. Check your result using PSpices?
Use source transformation to find io in the circuit of Fig. 4.94?
Apply source transformation to find vx in the circuit of Fig. 4.95?
Use source transformation to find Io in Fig. 4.96?
Use source transformation to find vo in the circuit of Fig. 4.93?
(a) In the circuit in Fig. 4.71, calculate vo and Io when vs = 1 V.(b) Find vo and io when vs = 10 V.(c) What are vo and Io when each of the 1-Î© resistors is replaced by a
Use source transformation on the circuit in Fig. 4.98 to find ix?
Determine vx in the circuit of Fig. 4.99 using source transformation.
Use source transformation to find ix in the circuit of Fig. 4.100?
Determine RTh and VTh at terminals 1-2 of each of the circuits of Fig. 4.101?(a)(b)
Find the Thevenin equivalent at terminals a-b of the circuit in Fig. 4.102.
Use Thevenin's theorem to find vo in Prob. 4.12.Chapter 4, Problem 12.Determine vo in the circuit in Fig. 4.80 using the superposition principle?
Solve for the current i in the circuit of Fig. 4.103 using Thevenin's theorem. (Find the Thevenin equivalent as seen by the 12-Î© resistor.)
Find the Norton equivalent with respect to terminals a-b in the circuit shown in Fig. 4.100?
Apply Thevenin's theorem to find Vo in the circuit of Fig. 4.105?
Obtain the Thevenin equivalent at terminals a-b of the circuit in Fig. 4.106?
Use linearity to determine io in the circuit in Fig. 4.72?Figure 4.72
Find the Thevenin equivalent at terminals a-b of the circuit in Fig. 4.107?
Find the ThÃ¨venin and Norton equivalents at terminals a-b of the circuit shown in Fig. 4.108?
For the circuit in Fig. 4.109, find Thevenin equivalent between terminals a and b?
Find the Thevenin equivalent looking into terminals a-b of the circuit in Fig. 4.110 and solve for ix?
For the circuit in Fig. 4.111, obtain the Thevenin equivalent as seen from terminals(a) a-b(b) b-c
Find the Thevenin equivalent of the circuit in Fig. 4.112?
Find the Norton equivalent at terminals a-b of the circuit in Fig. 4.113.
Obtain the Thevenin and Norton equivalent circuits of the circuit in Fig. 4.114 with respect to terminals a and b.
Determine the Norton equivalent at terminals a-b for the circuit in Fig. 4.115?
Find the Norton equivalent looking into thermals a-b of the circuit in Fig. 4.102?
For the circuit in Fig. 4.73, assume vo = 1 V, and use linearity to find the actual value of vo.Figure 4.73
Obtain the Norton equivalent of the circuit in Fig. 4.116 to the left of terminals a-b. Use the result to find current i
Given the circuit in Fig. 4.117, obtain the Norton equivalent as viewed from terminals(a) a-b(b) c-d
For the transistor model in Fig. 4.118, obtain the Thevenin equivalent at terminals a-b?
Find the Norton equivalent at terminals a-b of the circuit in Fig. 4.119?
Find the ThÃ¨venin equivalent between terminals a-b of the circuit in Fig. 4.120.
Obtain the Norton equivalent at terminals a-b of the circuit in Fig. 4.121?
Obtain the Thevenin and Norton equivalent circuits at the terminals a-b for the circuit in Fig. 4.123.
The network in Fig. 4.124 models a bipolar transistor common-emitter amplifier connected to a load. Find the Thevenin resistance seen by the load?
Determine the Thevenin and Norton equivalents at terminals a-b of the circuit in Fig. 4.125?
For the linear circuit shown in Fig. 4.74, use linearity to complete the following table.Figure 4.74 For Prob. 4.6.
Find the Thevenin equivalent of the circuit in Fig. 4.128?
Find the Norton equivalent for the circuit in Fig. 4.129?
Obtain the Thevenin equivalent seen at terminals a-b of the circuit in Fig. 4.130?
For the circuit shown in Fig. 4.131, determine the relationship between Vo and Io?
Find the maximum power that can be delivered to the resistor R in the circuit in Fig. 4.132?
The variable resistor R in Fig. 4.133 is adjusted until it absorbs the maximum power from the circuit. (a) Calculate the value of R for maximum power. (b) Determine the maximum power absorbed by R.
Compute the value of R that results in maximum power transfer to the 10-Î© resistor in Fig. 4.134. Find the maximum power?
Use linearity and the assumption that Vo = 1V to find the actual value of Vo in Fig. 4.75.Figure 4.75 For Prob. 4.7.

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