22. Referring to the circuit of Fig. 4.48, obtain a numerical value for the power supplied by the 1 V source. 6 A 4 V 14 0 3 V 4 A 2Ω

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: Practice Problem 4.9 Find the Thevenin equivalent circuit of the circuit in Fig. 4.34 to the left of…

A: Let us find out open circuit voltage (VOC) first.

Q: . Regarding the circuit of Fig. 4.57, employ mesh analysis to determine (a) the current iy; (b) the…

A: a mesh is a loop that does not enclose other loops. KVL, states that “in any closed loop network,…

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

A:

Q: Qi The sequences of voltage levels shown in Fig. 4.28 are applied to the summing amplifier.…

A: Summing amplifier: The summing amplifier is used to combine the different voltage input to give…

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

A:

Q: 4. For the network in Fig. 4: (a) For the circuit across to the terminal a & b, find RTh and ETh…

A: Thevenin Equivalent- For Rth independent sources are taken as zero- So,Rth=4ll10+8      =4×184+18…

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: Q.3 Find the Thevinin equivalent circuit for the portion (between a and b) of the network of Fig. 4:…

A:

Q: PRACTICE Use voltage division to determine vz in the circuit of Fig. 4.2.

A: According to the voltage division rule, the value of the voltage across any resistor which is…

Q: 2.7 ka 2.2 ko Consider the value of R, for maximum power transfer in the circuit of Fig. 4.7 and…

A:

Q: Determine RTh and VTh at terminals 1-2 of each of the circuits of Fig. 4. 10 Ω 20 V 40 2 o 2 (a) 60…

A:

Q: 4.15 For the circuit in Fig. 4.83, use superposition to find i. Calculate the power delivered to the…

A: Superposition theorem is applied to the circuits which consists of independent sources only. It…

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: Employing the supermesh technique to best advantage, obtain numerical val- ues for each of the mesh…

A:

Q: Example 4.9 Find the Thevenin equivalent of the circuit in Fig. 4.31 at terminals a-b. Solution:…

A: Finding VTH:-   Node 1 and node 2 forming super node:  vx4-5+vx-vTH2+VTH6+VTH-VX2=0…

Q: Q4 /( 25 Mark ) For the circuit shown in fig find the value of RL For maximum power , chen calculate…

A: In the  diagram, we find the  values of We know that to find the equivalent diagram we  remove the…

Q: نقطتان )2( In the circuit shown in Fig.4, the * current through 80 is 50 20 10 V 10 2 10Ω 80 Fig.4…

A: The problem no. 2 can be solved using the nodal analysis technique and thereby we can calculate the…

Q: Find the Thevenin and Norton equivalent circuits for the circuit shown in Fig.4 5 Q jll N H 2Ω ww…

A: In this question,  Find the Thevenin equivalent and Norton equivalent circuit acorss the terminal a…

Q: 4.57 Obtain the Thevenin and Norton equivalent circuits at terminals a-b for the circuit in Fig.…

A:

Q: 2.7 ka 2.2 ka 3. Consider the value of R, for maximum power transfer in the circuit of Fig. 4.7 and…

A: Consider the Thevenin voltage of the circuit is the voltage across the load of 1.5 kΩ. VTh=7 V2.7…

Q: Practice (4.8): Obtain io in the instrumentation 6.98 Vo- 40 ka ww amplifier circuit of Fig. 4.26.…

A:

Q: Q4/ (6 Marks) In the circuit shown in Fig.4, apply mesh analysis to determine the current through 32…

A:

Q: 4.10 Determine v3 in the circuit of Fig. 4.27. 10 Ω 20 Ω 30 V 15i1 80 V 40 Ω 30 Ω

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

Q: 4.47 Obtain the Norton equivalent circuits of the circuit in Fig. 4.114 with respect to terminals a…

A: Solution:-  Given circuit is given below:       →Obtain  the Norton equivalent  circuits  of the…

Q: Find the Norton equivalent with respect to the terminals a, b in the circuit shown in Fig. 4. 15 kn…

A: Norton's equivalent consist of current source with parallel resistor. Norton's current is the…

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: 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: Qi The sequences of voltage levels shown in Fig. 4.28 are applied to the summing amplifier.…

A: The op-amp is a device which ideally has very high input resistance. Hence, input current is zero.…

Q: For Fig. 4.37, calculate the voltage gain. Given that: 8m = 4 mA/V, r = 45 ks2, RD = 20 k2, and R =…

A: We have an Circuit as shown in figure. Circuit uses an JFET. Given data, gm = 4 mA/V = 4 * 10-3 mA/V…

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: (2) „Ek In the circuit shown in Fig.4, the * current through 80 is 20 10 V 10 0 10 2

A: This circuit have one 10V battery source.  Resistance are connected in series and parallel.  Find…

Q: 4.48 Determine the Norton equivalent at terminals a-b for the circuit in Fig. 4.115. 10i, 42 w o a 4…

A: Applying KVL           -Vab-10 i0+i08=0              Vab =-10 i0+8 i0 =-2 i0=-2×4=…

Q: 37. Employing mesh analysis procedures, obtain a value for the current labeled i in the circuit…

A: In this question we need to find a current i by using mesh analysis.

Q: 4.42 For the circuit in Fig. 4.109, find the Thevenin equivalent between terminals a and b. 20 Ω

A: The solution can be achieved as follows.

Q: Obtain the Thevenin equivalent of the circuit in Fig. 4.36. Practice Problem 4.10 Answer: VTh = 0 V,…

A:

Q: Example Use the superposition theorem to find v in the circuit of Fig. 4.6. 8Ω Solution: Since there…

A: Superposition theorem states that In a linear bilateral network containing more than one independent…

Q: Determine the level of VE and IE for the network of Fig. 4.134.

A:

Q: Derive the approximated relation between (V.) and (V) for each circuit shown in Fig. (6) in the…

A: Given: Two circuits in which approximate value of ratio between output voltage and input voltage is…

Q: 21. Employing supernode/nodal analysis techniques as appropriate, determine the power dissipated by…

A: Given circuit shown

Q: a) Construct the network of Fig. 4.1. Calculate the Thevenin voltage and resistance for the network…

A:

Q: 41. Employ mesh analysis to obtain values for i, and v, in the circuit of Fig. 4.66. 0.2i 9 V 4 N +,…

A: in the case of mesh analysis we have:- it is basically the combination of KVL and ohm's law and in…

Q: Practice (4.8): Obtain i, in the instrumentation 6.98 Vo- 40 ka ww amplifier circuit of Fig. 4.26.…

A:

Q: 4. Find the Thévenin equivalent circuit for the portion of the network in Fig. 4.7 kn 47 270

A: The Thevenin Equivalent circuit can be achieved as follows.

Q: 4. Calculate the mirrored current I in the circuit of Fig. 4 +18 V 2 k2 B = 200

A: we need to find out the mirror current.

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: 4.47 Obtain the Thevenin and Norton equivalent circuits of the circuit in Fig. 4.114 with respect to…

A:

Q: Employ mesh analysis to determine the current flowing in the circuit Fig. 4.58 through (a) the 2 2…

A:

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.