not use ai please Determine the current I, in the circuit of Fig. P3.60 by applying the source-superposition method. Call I, the component of I', due to thevoltage source alone, and I", the component due to the current source alone.2030260204048 VFigure P3.60: Circuit for Problem 3.60.I'x (current due to voltage source alone)Number UnitsI" (current due to current source alone)Number UnitsIx (current due to both sourcesNumber UnitsApply the source-superposition method to the circuit in Fig. P3.63 to determine: (a) V'x, the component of V, due to the 1 A currentsource alone. (b) V"x, the component of V, due to the 10 V voltage source alone. (c) V", the component of V, due to the 3 A currentsource alone. (d) The total voltage Vx = V'x + V"x +V"xNote: Remember to use provide 3 significant figures.+ Vxww15021802100 3AΩ502ww3021A112010VFigure P3.63: Circuit for Problem 3.63.V'x (voltage due to 1 A current source alone)Number UnitsV"x (voltage due to 10 V voltage source alone)Number UnitsVx (voltage due to 3 A current source alone)Number UnitsVx (voltage due to all sources)Number Units

Step 1: Step 2: Step 3: Step 4:

Answered: Determine the current I, in the circuit…

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

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4) Use the Thevenin equivalent circuit technique to find Vab (a) without the load circuit connected (source circuit only) and (b) with the load circuit connected. (c) Using only one additional circuit element, to be connected across the ab terminals, sketch a circuit that would prevent the loading effect of the load circuit on the source circuit voltage. Please sketch this final circuit using the Thevenin equivalents from parts a and b. 3i1 SOURCE LOAD 2kN 3kN 2kN a 24V 4mA 8kQ 2k2 1kQ b 2000lx
LE424 QUESTION 3 a) Using resistor nearest preferred values (NPV), design a network as shown in Figure Q3a if Vcc = 25 V, Vc = 10 V, Ica = 3 mA and IcSATURATION) = 1.5lco. Determine the values of RB, Rc, and RE and state all assumptions made. Vcc lo Rc RB ovc Vo Co Vio B = 100 RE Zo Figure Q3a
QUESTION 3 a) Using resistor nearest preferred values (NPV), design a network as shown in Figure Q3a if Vcc = 25 V, Vc = 10 V, Ica = 3 mA and IcsATURATION) = 1.5lca. Determine the values of Re, Rc, and Re and state all assumptions made. Vcc Rç Rs ovc Vo Vi o Co B = 100 RE Z. Zi Figure Q3a
The elements in the circuit shown have the following values: R1 = 1937.97 Q. R2 = 8792.15 Q. Rz R3 = 1441.86 0. It V1 = 8.1 V. 11 = 0.0072 A R. Vo Determine the following: a.) The Thevenin Resistance is, Rth (in ohms): b.) The Thevenin Voltage is, Vth (in volts): c.) The I, output voltage Vo (in volts): Assume R3 to be the load.
b) Using the Superposition Theorem, show that the voltage Vo = -20 V in the circuit of Figure Q3b. QUESTION 4 a) i) ii) 10 Ω M 30 Ω ww 102 5cos2000t V 1 A 2 A Zin 30 V + Figure Q3b m 10 mH With the aid of suitable diagram, discuss and make comparison between an ideal AC and DC signals. 1052 For the circuit of Figure Q4a, illustrate the circuit in phasor domain equivalent circuit and hence find the input impedance, Zin + V₂ ww 50 50 μF 502
(i) For the circuit shown in Figures 3.0, consider the input D.C. source voltages, E1 = 5V and E2 = 2V (note the polarities of each source!). Determine the values of voltage, VX and current, IX using either the nodal-voltage or the mesh-current analysis technique. Show your analysis below, and record your results in Table 4.0. (ii) For the same circuit shown in Figures 3.0 with the input D.C. source voltages, E1 = 5V and E2 = 2V, apply the Superposition Principle technique as follows:- Remove input source, E2 and replace it with a short-circuit by connecting a wire between “c” and “d”. Determine the resultant voltage, VX1 across R3 and current, IX1 through R3. Show your analysis below, and record the results in Table 4.0. Connect input source, E2 in its original place between “c” and “d”. Be mindful of the polarity connections. Then remove input source, E1 and replace it with a short-circuit by connecting a wire between “a” and “b”. Determine the resultant voltage, VX2…
can you please explain what a supernode is, how do I apply it in this question.
In the circuit shown in Figure P3.70, VS models thevoltage produced by the generator in a power plant,and RS models the losses in the generator, distributionwire, and transformers. The three resistances model thevarious loads connected to the system by a customer.How much does the voltage across the total loadchange when the customer connects the third load R3in parallel with the other two loads?VS = 110 V RS = 19 mΩR1 = R2 = 930 mΩ R3 = 100 mΩ
3.19 For the circuit arrangement shown in Fig.3.66 and for a pure resistive load, sketch a set of waveforms for thyristor triggering a = 90° showing b.b bathe supply current,load current and thyristors voltage. (5) 02-Derive an expression for the average value of the load current Ide and calculate its values for α = 0°, 60°, and 120° if the the supply voltage is ideal sinusoid with Vm 400 V, 50 Hz and the load resisror R =10 2. How is the average load current affected if diode D₂ fails to open circuit? = viqque 1812 is of betosmos a sitiost ballowing av signs grimit & is no-bom ai fi f Fig.3.66. DI Idc D3 R Vac Load Used of getto viqqua Vm sin cot Som box H 2.81 to sonstoubni ne to 21D4D2 60102 92lq-dsH 02 V 004 & mont be 2 5gbrid 10091 92-991bovew-llut bollonnos vilut SS.C [Ans: 12.7 A, 9.5 A, 3.17 A .When diode D₂ failed to open circuit, the circuit will act as a half-wave rectifier]
Please answer parts (i) and (ii) and include all calculations and steps, thank you so much!
Using resistor nearest preferred values (NPV), design a network as shown in Figure Q3a if Vcc = 25 V, Vc = 10 V, Ica = 3 mA and IcSATURATION) = 1.5lco. Determine the values of Re, Rc, and Re and state all assumptions made. Vcc Rc Re ove Vo Ci Vi o Co B = 100 RE Z. Figure Q3a ww
mponent of nódal ch element. There is no way of knowing the current through wever, KCL must be satisfied at a sunernode like any other node. Hence a tde spernode in Fig. 3.5, i + i4 = i2 + i3 (3.11a) v1 - v2 v1 - v3 v2 – 0 v3 - 0 (3.11b) 6. To apply Kirchhoff's voltage law to the supernode in Fig. 3.4 we redraw the circuit as shown in Fig. 3.5. Going around the loop in the clockwise»direction gives -V2 + 5 + v3 = 0=v2 – V3 = 5 (3.12) From Eqs. (3.10), (3.11b), and (3.12), we obtain the node volltages. 5V د مُسق ک من ؤ Figure 3.5 Applying KVL to a supernode. Example 3.2: For the circuit shown in Fig. 3.6, find the node voltages. Solution: The supernode contains the 2-V source, nodes 1 and 10 2 www 2, and the 10-2 resistor. Applying KCL to the 2 V supernode as shown in Fig. 3.7(a) gives 2. 12 2 = i + iz +7 7 A Expressing in and iz in terms of the node voltages 2 A 22 v1 - 0 v2 - 0 2 = 7 4 or (3.2.1) V2 =-20 - 2vVI Figure 3.6 For Example 3.2. ESTHRER: ALI SHARAAN METHORS OF ANALYSIS…

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