Black V box re 4.143

Q: 60 Calculate the node voltages in the circuit of Fig. 4-45. Ans. V, = -63.5 V. V, 105.9 V 20 kN 12…

A: We to calculate voltage at two node . For node voltage calculation we will use krichhoff's current…

Q: Find i, in the circuit of Fig. 4.19 using source transformation. 3 5V 12 6Ω 5 A A (4) 3Ω 7Ω 3 A 42…

A: Circuit diagram is given as, Here, 6 Ω and 3Ω are in parallel. Their equivalent resistance will be…

Q: Q4: Answer these questions : 1. A network has 8 branches and 3 independent loops. How many nodes are…

A: KVL (Kirchhoff's Voltage Law) states that the algebraic sum of all voltage in a closed loop is zero.…

Q: 1. For the circuit shown in Fig. (4-8), calculate the current through the resistor using…

A: We are authorized to answer one question at a time, since you have not mentioned which question you…

Q: 4.50 Obtain the Norton equivalent of the circuit in Fig. 4.116 to the left of terminals a-b. Use the…

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Q: Exercise: Sketch the output (V.) for the circuit of Fig. 4-8 for the input (V) shown. Assume ideal d…

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Q: For the circuit in Fig. 4.3. find Vo when i, = 15 and i, = 30 A. Answer: 10 V. 20 V. ww -ww

A: The above question is a part of circuit analysis and can be solved using the source conversion or…

Q: Chapter 4, Problem 44. For the circuit in Fig. 4.111, obtain the Thevenin equivalent as seen from…

A: The solution can be achieved as follows.

Q: 4.27 Apply source transformation to find vỵ in the circuit of Fig. 4.95.

A: Source transformation is change voltage source in series with resistance into a current source in…

Q: 47. For the circuit of Fig. 4.7 22 i2 7 V 7 V

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Q: Find the maximum power that can be delivered to the resistor R in the circuit of Fig. 4.132.

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Q: Find Norton equivalent circuit: 4Ω Μ 2 Ω t Μ + 6V ον Ξ ΦΩ Μ 4Ω Μ 300 (2 Ω Με x2V

A: Norton and Thevenin Theorems are used to convert a complex electrical circuit into a simple…

Q: 22. Referring to the circuit of Fig. 4.48, obtain a numerical value for the power supplied by the 1…

A: Since you have asked multiple questions in a single request, we will be answering only the 1st…

Q: 4. Find PT, P2, and V3. R, 1.7 MA V,E 39 v R,31.7 MA R, 1.7 M9 Fig. 4-33

A: This question belongs to circuit theory .  It is based on the concept of ohm's law in the circuit…

Q: 4.41 Find the Norton equivalents at terminals a-b of the circuit shown in Fig. 4.108. 8. 14 V 14 2…

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Q: 4.37 Find the Norton equivalent with respect to terminals a-b in the circuit shown in Fig. 4.104. ЗА…

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Q: Determine the value of RL that will draw the maximum power from the rest of the circuit in Fig.…

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Q: 5. Determine the value of the voltage labeled v, in Fig. 4.35. + 50 4 A 80 -6 A 10 2

A: Perform the following steps to solve the given example using nodal analysisIdentify the nodesLabel…

Q: 28. For the circuit of Fig. 4.54, determine all four nodal voltages. 4Ω 1Ω 1 V 3 0 V4 Ref. 3 A 1Ω…

A: Apply the KVL at node 1  V1-V44+V1-V21=05V1-4V2-V4 =0.................1 Apply the KVL at node 2…

Q: 51. Define three clockwise mesh currents for the circuit of Fig. 4.78 2, and employ the supermesh…

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Q: Find I in the circuit of Fig. 4.14 using the superposition principle. ww- ww 8 V 2 A 6 V Figure 4.14

A: Given circuit,

Q: Find io in the circuit of Fig. 4.19 using source transformation 5 V 5 A 4 3Ω ЗА ww ww

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Q: 31. Use mesh analysis as appropriate to determine the two mesh currents labeled in Fig. 4.57. 1Ω 15…

A: In this question,  We need to calculate the currents i1 and i2 as shown in the circuit.  Here 2 mesh…

Q: 4.12 Determine v, in the circuit of Fig. 4.80 using the superposition principle. 4 A 6Ω 5Ω 4Ω ww- +.…

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Q: nd V. for the circuit shown in Fig. 4-43. 15. - 50 V 2 kn 0.3 V 0.004V, 251 40 kn. 10 kN Fig. 4-43

A: In the circuit, Independent voltage source, resistance and depended voltage and current source are…

Q: 3 Find the Norton equivalent at terminals a-b of the circuit in Fig. 4.119.

A: The solution can be achieved as follows.

Q: 6. H.W 1. For the circuit shown in Fig. (4-8), calculate the current through the 9 Q resistor using…

A: So we have to apply super position to get current through 9 ohm resistor

Q: 3Ω 2Ω + 50 V 6Ω Vx 0.5vx 10 Ω o b Figure 4.123

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Q: 1 kΩ ww 1 V RL Figure 4.55 For Example 4.15. Find the maximum power transferred to RL if the 1-k2…

A: In this question,  We need to determine the maximum power transfer to the load resistance RL   If…

Q: Find t, in the circuit of Fig. 4.19 using source transformation. sV 10 ww 60 SA 30 70 ЗА Figure 4.19

A: In the question given a circuit and ask the value of Io (Current) through 7 ohm.

Q: 10 Using superposition, determine the voltage labeled Vx in the circuit represented in Fig.4. 3Ω 1Ω…

A: In this question,  We need to calculate the value of voltage VX using the super position theorem.…

Q: 4. a) Use the mesh-current method to write a complete set of independent equations that could be…

A: The circuit is assigned with current variables as shown below,

Q: Fi *4.68 Compute the value of R that results in maximum power transfer to the 10-N resistor in Fig.…

A: Disclaimer:  Since you have asked multiple questions, we will solve the first question for you. If…

Q: 4) For the network of Fig. 4,determine the value of R for maximum power to R. Determine the maximum…

A: The solution can be achieved as follows.

Q: (a) For the circuit in Fig. 4.138, obtain the Thevenin equivalent at terminals a-b. (b) Calculate…

A: Consider the below figure. Now from the above figure, it can be seen that the load resistance has…

Q: 6.8 k2 7.5 k2 100 2 200 2 ww 39 2 V, 1.5 k2 4.7 k2 Reg ww

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Q: .11 Use the superposition principle to find i, and v, in the circuit of Fig. 4.79.

A: As per the guidelines, we supposed to answer one question at a time so please ask other questions…

Q: 10 N s0 v 20 N 31 22.5 N V Fig. 4-44 V in the circuit show in Fig. 4-44. 180 V

A: In the circuit, resistance ,voltage sources are consist.  Find the voltage V .  We are solving this…

Q: 4.72 (a) For the circuit in Fig. 4.138. obtain the Thevenin equivalent at terminals a-b. (b)…

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Q: 4. Find the Thévenin equivalent circuit for the portion of the network in Fig. 4.7 kn W- Oa R2 R47…

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Q: The network of Problem 4.18 has been redrawn in Fig. 4-35 for solution by the node voltage method.…

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Q: 3. Use nodal analysis to find v, in the circuit of Fig. 4.38. 20N 4 A -2 A 50 Ω 40 N 100 N 25 N 10…

A: Note: As per the company policy, we experts are allowed to answer only one question. Kindly post the…

Q: btain the mesh currents in the circuit of Fig. 4-38. Ins. I, -0.879 mA, 12 = - 6.34 mA. 1, = - 10.1…

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Q: Current Divider 7. Connect the circuit shown in Fig.4.7. take R1=820, R2 = 1000, R3=4700, and…

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Q: 4.19 Use superposition to solve for v, in the circuit of Fig. 4.87. 4 A 4 22 6 A 82 4i,

A: In this question we will explain how to solve for vx using super position theorem.

Q: Find i, in the circuit of Fig. 4.19 using source transformation. Practice Problem 4.6 5 V 6 Q 5 A 7Ω…

A: Given network, source transformation is used to simplifying a circuit by transforming voltage…

Q: 4.14 Apply the superposition principle to find v, in the circuit of Fig. 4.82. ps 6Ω 4 A 4Ω 2Ω 40 V…

A: Note : Since you have not specified any question to be answered , as per our honor code  we are…

Q: 4.48 Determine the Norton equivalent at terminals a-b for the circuit in Fig. 4.115. 10i, 2Ω Mwo a 2…

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Q: 4-12. Draw the f-i analogous mechanical system for the electrical circuit of Fig. 4-33.

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Q: Define three clockwise mesh currents for the circuit of Fig. 4.74 the supermesh technique to obtain…

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Norton Theorem

In the current circuit law, the Norton theorem (also known as the Mayer-Norton theorem) is a simplification that can be applied to networks generated by a constant line of opposition, power sources, and current assets. In two network terminals, it can be switched on with a current supply and single resistor respectively.