Problem 1RQ: The voltage Vo across the capacitor in Fig. 10.43 is: Figure 10.43 For Review Question 10.1. Problem 2RQ: The value of the current Io in the circuit of Fig. 10.44 is: (a) 1 A Figure 10.44 For Review... Problem 3RQ: Using nodal analysis, the value of Vo in the circuit of Fig. 10.45 is: (a) 24 V (b) 8 V (c) 8 V (d)... Problem 4RQ: In the circuit of Fig. 10.46, current i(t) is: (a) 10 cos t A (b) 10 sin t A (c) 5 cos t A (d) 5 sin... Problem 5RQ: Refer to the circuit in Fig. 10.47 and observe that the two sources do not have the same frequency.... Problem 6RQ: For the circuit in Fig. 10.48, the Thevenin impedance at terminals a-b is: (a) 1 (b) 0.5 j0.5 (c)... Problem 7RQ: In the circuit of Fig. 10.48, the Thevenin voltage at terminals a-b is: Figure 10.48 For Review... Problem 8RQ: Refer to the circuit in Fig. 10.49. The Norton equivalent impedance at terminals a-b is: (a) j4 ... Problem 9RQ: Figure 10.49 For Review Questions 10.8 and 10.9. The Norton current at terminals a-b in the circuit... Problem 10RQ: PSpice can handle a circuit with two independent sources of different frequencies. (a) True (b)... Problem 1P: Determine i in the circuit of Fig. 10.50. Figure 10.50 For Prob. 10.1. Problem 2P: Using Fig. 10.51, design a problem to help other students better understand nodal analysis. Figure... Problem 3P: Determine vo in the circuit of Fig. 10.52. Figure 10.52 Problem 4P: Compute vo(t) in the circuit of Fig. 10.53. Figure 10.53 For Prob. 10.4. Problem 5P: Find io in the circuit of Fig. 10.54. Problem 6P: Determine Vx in Fig. 10.55. Figure 10.55 For Prob. 10.6. Problem 7P: Use nodal analysis to find V in the circuit of Fig. 10.56. Problem 8P: Use nodal analysis to find current io in the circuit of Fig. 10.57. Let is = 6 cos(200t + 15) A.... Problem 9P: Use nodal analysis to find vo in the circuit of Fig. 10.58. Figure 10.58 Problem 10P: Use nodal analysis to find vo in the circuit of Fig. 10.59. Let = 2 krad/s. Figure 10.59 Problem 11P: Using nodal analysis, find io(t) in the circuit in Fig. 10.60. Figure 10.60 For Prob. 10.11. Problem 12P: Using Fig. 10.61, design a problem to help other students better understand nodal analysis. Figure... Problem 13P: Determine Vx in the circuit of Fig. 10.62 using any method of your choice. Figure 10.62 Problem 14P: Calculate the voltage at nodes 1 and 2 in the circuit of Fig. 10.63 using nodal analysis. Problem 15P: Solve for the current I in the circuit of Fig. 10.64 using nodal analysis. Figure 10.64 Problem 16P: Use nodal analysis to find Vx in the circuit shown in Fig. 10.65. Figure 10.65 Problem 17P: By nodal analysis, obtain current Io in the circuit of Fig. 10.66. Figure 10.66 Problem 18P: Use nodal analysis to obtain Vo in the circuit of Fig. 10.67 below. Problem 19P: Obtain Vo in Fig. 10.68 using nodal analysis. Problem 20P: Refer to Fig. 10.69. If vs (t) = Vm sin t and vo (t) = A sin (t + ) derive the expressions for A and... Problem 21P: For each of the circuits in Fig. 10.70, find Vo/Vi for = 0, , and 2 = 1/LC. Problem 22P: For the circuit in Fig. 10.71, determine Vo/Vs. Figure 10.71 For Prob. 10.22. Problem 23P: Using nodal analysis obtain V in the circuit of Fig. 10.72. Figure 10.72 For Prob. 10.23. Problem 24P: Design a problem to help other students better understand mesh analysis. Problem 25P: Solve for io in Fig. 10.73 using mesh analysis. Figure 10.73 Problem 26P: Use mesh analysis to find current io in the circuit of Fig. 10.74. Figure 10.74 For Prob. 10.26. Problem 27P: Using mesh analysis, find I1 and I2 in the circuit of Fig. 10.75. Figure 10.75 For Prob. 10.27. Problem 28P: In the circuit of Fig. 10.76, determine the mesh currents i1 and i2. Let v1 = 10 cos 4t V and v2 =... Problem 29P: Using Fig. 10.77, design a problem help other students better understand mesh analysis. Figure 10.77 Problem 30P: Use mesh analysis to find vo in the circuit of Fig. 10.78. Let vs1 = 120 cos (100t + 90) V, vs2 = 80... Problem 31P: Use mesh analysis to determine current Io in the circuit of Fig. 10.79 below. Figure 10.79 Problem 32P: Determine Vo and Io in the circuit of Fig. 10.80 using mesh analysis. Figure 10.80 Problem 33P: Compute I in Prob. 10.15 using mesh analysis. Solve for the current I in the circuit of Fig. 10.64... Problem 34P: Use mesh analysis to find Io in Fig. 10.28 (for Example 10.10). Figure 10.28 Problem 35P: Calculate Io in Fig. 10.30 (for Practice Prob. 10.10) using mesh analysis. Determine the Norton... Problem 36P: Compute Vo in the circuit of Fig. 10.81 using mesh analysis. Figure 10.81 Problem 37P: Use mesh analysis to find currents I1, I2, and I3 in the circuit of Fig. 10.82. Figure 10.82 Problem 38P: Using mesh analysis, obtain Io in the circuit shown in Fig. 10.83. Figure 10.83 Problem 39P: Find I1, I2, I3, and Ix in the circuit of Fig. 10.84. Figure 10.84 Problem 40P: Find io in the circuit shown in Fig. 10.85 using superposition. Figure 10.85 Problem 41P: Find vo for the circuit in Fig. 10.86, assuming that is(t) = 2 sin (2t) + 3 cos (4t) A. Figure 10.86 Problem 42P: Using Fig. 10.87, design a problem to help other students better understand the superposition... Problem 43P: Using the superposition principle, find ix in the circuit of Fig. 10.88. Figure 10.88 Problem 44P: Use the superposition principle to obtain vx in the circuit of Fig. 10.89. Let vs = 50 sin 2t V and... Problem 45P: Use superposition to find i(t) in the circuit of Fig. 10.90. Figure 10.90 Problem 46P: Solve for vo(t) in the circuit of Fig. 10.91 using the superposition principle. Figure 10.91 Problem 47P: Determine io in the circuit of Fig. 10.92, using the superposition principle. Problem 48P: Find io in the circuit of Fig. 10.93 using superposition. Problem 49P: Using source transformation, find i in the circuit of Fig. 10.94. Figure 10.94 For Prob. 10.49. Problem 50P: Using Fig. 10.95, design a problem to help other students understand source transformation. Figure... Problem 51P: Use source transformation to find Io in the circuit of Prob. 10.42. Using Fig. 10.87, design a... Problem 53P: Use the concept of source transformation to find Vo in the circuit of Fig. 10.97. Figure 10.97 Problem 54P: Rework Prob. 10.7 using source transformation. Use nodal analysis to find V in the circuit of Fig.... Problem 55P: Find the Thevenin and Norton equivalent circuits at terminals a-b for each of the circuits in Fig.... Problem 56P: For each of the circuits in Fig. 10.99, obtain Thevenin and Norton equivalent circuits at terminals... Problem 57P: Using Fig. 10.100, design a problem to help other students better understand Thevenin and Norton... Problem 58P: For the circuit depicted in Fig. 10.101, find the Thevenin equivalent circuit at terminals a-b.... Problem 59P: Calculate the output impedance of the circuit shown in Fig. 10.102. Figure 10.102 Problem 60P: Find the Thevenin equivalent of the circuit in Fig. 10.103 as seen from: (a) terminals a-b (b)... Problem 62P: Using Thevenins theorem, find vo in the circuit of Fig. 10.105. Figure 10.105 Problem 63P: Obtain the Norton equivalent of the circuit depicted in Fig. 10.106 at terminals a-b. Figure 10.106 Problem 64P: For the circuit shown in Fig. 10.107, find the Norton equivalent circuit at terminals a-b. Figure... Problem 65P: Using Fig. 10.108, design a problem to help other students better understand Nortons theorem. Figure... Problem 66P: At terminals a-b, obtain Thevenin and Norton equivalent circuits for the network depicted in Fig.... Problem 67P: Find the Thevenin and Norton equivalent circuits at terminals ab in the circuit of Fig. 10.110.... Problem 68P: Find the Thevenin equivalent at terminals ab in the circuit of Fig. 10.111. Figure 10.111 Problem 69P: For the integrator shown in Fig. 10.112, obtain Vo/Vs. Find vo(t) when vs(t) = Vm sin t and = 1RC.... Problem 70P: Using Fig. 10.113, design a problem to help other students better understand op amps in AC circuits.... Problem 71P: Find vo in the op amp circuit of Fig. 10.114. Figure 10.114 Problem 72P: Compute io(t) in the op amp circuit in Fig. 10.115 if vs = 4 cos(104t) V. Figure 10.115 Problem 73P: If the input impedance is defined as Zin = Vs/Is, find the input impedance of the op amp circuit in... Problem 74P: Evaluate the voltage gain Av = Vo/Vs in the op amp circuit of Fig. 10.117. Find Av at = 0, , =... Problem 75P: In the op amp circuit of Fig. 10.118, find the closed-loop gain and phase shift of the output... Problem 76P: Determine Vo and Io in the op amp circuit of Fig. 10.119. Problem 77P: Compute the closed-loop gain Vo/Vs for the op amp circuit of Fig. 10.120. Figure 10.120 syms Vs W R1... Problem 78P: Determine vo(t) in the op amp circuit in Fig. 10.121 below. Problem 79P: For the op amp circuit in Fig. 10.122, obtain Vo. Figure 10.122 Problem 80P: Obtain vo(t) for the op amp circuit in Fig. 10.123 if vs = 12 cos(1000t 60) V. Figure 10.123 Problem 81P: Use PSpice or MultiSim to determine Vo in the circuit of Fig. 10.124. Assume = 1 rad/s. Figure... Problem 82P: Solve Prob. 10.19 using PSpice or MultiSim. Obtain Vo in Fig. 10.68 using nodal analysis. Problem 83P: Use PSpice or MultiSim to find vo(t) in the circuit of Fig. 10.125. Let is = 2 cos(103t) A. Problem 84P: Obtain Vo in the circuit of Fig. 10.126 using PSpice or MultiSim. Problem 85P: Using Fig. 10.127, design a problem to help other students better understand performing AC analysis... Problem 86P: Use PSpice or MultiSim to find V1, V2, and V3 in the network of Fig. 10.128. Figure 10.128 Problem 87P: Determine V1, V2, and V3 in the circuit of Fig. 10.129 using PSpice or MultiSim. Figure 10.129 Problem 88P: Use PSpice or MultiSim to find vo and io in the circuit of Fig. 10.130 below. Problem 89P: The op amp circuit in Fig. 10.131 is called an inductance simulator. Show that the input impedance... Problem 90P: Figure 10.132 shows a Wien-bridge network. Show that the frequency at which the phase shift between... Problem 91P: Consider the oscillator in Fig. 10.133. (a) Determine the oscillation frequency. (b) Obtain the... Problem 92P: The oscillator circuit in Fig. 10.134 uses an ideal op amp. (a) Calculate the minimum value of Ro... Problem 93P: Figure 10.135 shows a Colpitts oscillator. Show that the oscillation frequency is fo=12LCT where CT... Problem 94P: Design a Colpitts oscillator that will operate at 50 kHz. Problem 95P: Figure 10.136 shows a Hartley oscillator. Show that the frequency of oscillation is fo=12C(L1+L2)... Problem 96P: Refer to the oscillator in Fig. 10.137. (a) Show that V2Vo=13+j(L/RR/L) (b) Determine the... format_list_bulleted