H.W.: For the circuit of Fig. 3.15, compute the average power delivered to each of the passive elements. Verify your answer by computing the power delivered by the two sources. j45 N -j100 N elle 10/50° V I2 )5 /0° V

Q: In the circuit of fig.3 assume L = 100 mH, C = 0.1 µF, vi =Vmsinωt. Calculate the peak value of…

A: (a) Given circuit is – Given values are –

Q: Q3:-Using superposition, determine the current through the (62) resistor for network of Fig.2 1= 0.3…

A: The superposition theorem is the sum of response of individual sources acting alone is same as…

Q: 3.6 In the circuit of Fig. 3.14, find the power absorbed by each of the 12 V five elements in the…

A: Power absorb by element Using kvl, find in current in circuit

Q: Activity 3: Power Dissipated in a circuit Calculate the power dissipated in each resistor.…

A: PR1 = Power in resistance R1  PR2 = Power in Resistance R2  PR3 = Power in resistance R3    Power…

Q: 2. The variable resistor R in the circuit of Fig. 3.19 is adjusted until it absorbs the maximum…

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Q: Q3- Calculate the power in the 602 resistor using Norton's theorem. 24Ω 12V www 652 1A

A: Given: Circuit

Q: For the Circuit shown in fig iT = I1 Sin (1004+10") +13 (sin 300++20²) + Id sin (yoot if I +36)A In…

A: Capacitive reactance is inversely proportional to frequency  Inductive reactance is directly…

Q: 3. For the circuit shown in Fig. 3.20, determine the load impedance Z for maximum power transfer (to…

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Q: For the given circuit shown in Fig.3, Determine, a) The supply current b) The voltage across each…

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Q: Q3A) Find the load impedance in Fig.4 for maximum power to the load, and find the maximum power. (…

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Q: Q3/A/ For the three bus power system shown in Fig.(3), all the per unit reactances of its elements…

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Q: Find the real power, apparent power, reactive power, and complex power for each of the passive and…

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Q: 3.14 Consider the system shown in Figure 3.35. Assume that the average value of m(t) is zero and…

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Q: For the circuit shown in Fig.3, determine the valuo of R such that the maximum power delivered to…

A: The explanation is as follows.

Q: 1. One kW-Hr is equivalent to, (a) 1,414.14 BTU per hour (c) 1,414.14 Cal. per sec 2. The voltage…

A: Answer the given multiple choice questions

Q: x(t) R А.с y(t) source Fig. (3-1): electric (R-C) circuit.

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Q: Q3: For the network shown in figure (2), determine the power factor and what can be done to improve…

A: In the circuit What is power factor of the circuit How to improve the power factor?

Q: Q.1) For the circuit below, find the power delivered to 2.2k Q using nodal analysis. 7.5 kN 3V R1…

A: Hello. Since you have posted multiple questions and not specified which question needs to be solved,…

Q: Q3/A/ For the three bus power system shown in Fig.(3), all the per unit reactances of its elements…

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Q: Q3/B/Calculate the equivalent resistance Rab in the circuit in Fig. 10 Ω 12 ao ww ww- 6Ω Rab 5Ω 3Ω…

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Q: H.W. 3.8: Apply nodal analysis to find i, and the power dissipated in each resistor in the circuit…

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Q: c) For the circuit shown in fig.(3), the supply voltage is v(t) = 50+ 40 sin(wt) + 30 sin(3wt-30) +…

A: In this question we need to find power factor of the given circuit

Q: Q3/A/ For the three bus power system shown in Fig.(3) , all the per unit reactances of its elements…

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Q: 3.5 Consider the microgrid of Figure 3.68. A three-phase 500 kVA, 440 V Y grounded/3.2 kV delta…

A: The given microgrid figure is shown below, The series impedance is,  Z=(0.01+j0.09) ohm Find - 1.…

Q: 3.4 Given the circuit in Fig. 3.53, calculate the currents i, through i4. ЗА iz i3 6 A () 2 A 20 Q…

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Q: Fig. 3.45 2. A dc. 2-wire ring main ABCDEA is fed from 230 V supply as shown in Fig. 13.46. The…

A: We can solve the given DC feeder problem as follows.

Q: Q3/A/ For the three bus power system shown in Fig.(3) , all the per unit reactances of its elements…

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Q: Q3/A/ For the three bus power system shown in Fig.(3), all the per unit reactances of its elements…

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Q: In power system 3.3 kV devices are generally available at O High rating power generation system O…

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Q: 3- Is the source Vs in the network of Fig. 3 absorbing or supplying power, and how much? 4- Find I,…

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Q: Q3/Calculate the voltage at nodes 1 and 2 in the circuit of fig below using nodal analysis j42 all…

A: Let the voltage at node 1 is V1 and at node 2 is V2

Q: V = 10 V= R = 470 N I la) = (a) V = R = 330 N I (b) Fig. 3-2.2 Ohm's law test circuits. (a) Given…

A: The solution is given below

Q: A power transmission line carries current from a 6000-V generator to three loads, A, B, and C. The…

A: Voltage at the loads is decreased due to line resistance.  Voltage drop in a line=(current in…

Q: H.W.: For the circuit of Fig. 3.13, find the (a) open-circuit voltage Vab; (b) downward current in a…

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Q: R1 XL 5Ω R3 a ll ll 6Ω 8 2 120 + + R21 E 10 V Z 0° E2 20 V Z 30° a' Thévenin

A: Thevenin's Theorem states that “Any linear two terminal circuit containing several voltages and…

Q: 3.3 Find the currents I, through I, and the voltage v, in the circ 4t of Fig. 3.52. 1₁ Τ | 2 | 13 14…

A: In this question we will find unknown currents using nodal analysis.....

Q: Compute the power absorbed by each element in the circuit of Fig. 3.67 if the mysterious element X…

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Q: Hiwl ase mesh analysis to detor mine the Power delivered by the in dependent (3v) source in network…

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Q: Use mesh analysis to determine ij, iz, and iz in Fig. 3.25.

A: From the given circuit,                                      I1-I2=4I1=4+I2 .................(a)…

Q: Practice (3.11): In the autotransformer circuit of Fig. 3.38, find currents I1, I2, and Io. Take Vi…

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Q: Q3:-Using superposition, determine the current through the (6 ) resistor for network of Fig.2.…

A: It is given that:

Q: Q.No.3. (a) Determine the maximum power rating of the resistor R required to connect in the circuit…

A: It is given a circuit of Zener diode as a voltage regulator.  We need to determine the maximum…

Q: b) Given a balanced system where the S30 base= 120 MVA, VL. base = 80 kV and VLL actual = 50kV, S30…

A: This question belongs to electrical machine . It is based on the relation between three phase power…

Q: Calculate the node voltages U1, U2, and vz in the circuit of Fig. 3.75.

A: The solution can be achieved as follows.

Q: For the circuit of Fig. 3-5a, R=2 , L = 20 mH, and Vd 100 V. The ac source is 120 V rms at 60 Hz.…

A: KVL states that algebraic sum of voltage at a closed loop must be equal to zero.…

Q: For the circuit below, Vs = 40V, R1 = 140, R2 = 40, R3 = 120, R4 = 290, R5 = 160, R6 = 3 With R4 as…

A: Given that :  Vs = 40V R1 =14 ohm R2 = 4 ohm R3 = 12 ohm R4 = 29 ohm R5 = 16 ohm R6 = 3 ohm RL = R4…

Q: H.W.: For the circuit of Fig. 3.15, compute the average power delivered to each of the passive…

A: we have to compute the average power delivered to each of the passive elements. and verify answer by…

Q: i(wt) = 21.8 sin(wt – 1.31) – 50 + 75.3e¬»/3.77 3.37 Ims i?(wt)d(wt) = 3.98 A

A: let wt=x   now square i(t) and integrate

Q: 25 N 3 30 V *90 V 10 N 15 N Fig. 3-9

A: So we will apply nodal analysis to get current and voltages.

Maximum power transfer theorem

A resistive load will consume maximum power from a network when the load resistance is equal to the resistance of the network as viewed from the open-circuit terminals, with all energy sources removed leaving only the internal resistances. Physicist Moritz von Jacobi introduced the maximum power transfer theorem in 1940. Therefore, this theorem is also known as Jacobi's law.