and generates 5 KVAR. The sinusoidal voltage10.10 The load impedance in Fig. P10.10 absorbs 2.5 kwsource develops 7.5 kW.a) Find the values of inductive line reactance thatwill satisfy these constraints.b) For each value of line reactance found in (a).o od nshow that the magnetizing vars developed equalsCam the magnetizing vars absorbed.ln boogSvinstis bolleo oels 2uly 2MFigure P10.10ol20 ΩjXΩod olgns 2edad lo onizoa odi ai 1ol+.500/0°V(rms)pire power bein .coadi bns seto the pnohenSource -LineLoadssess youundersProblem

zL=RL-iXczS=20+iXTherefore z=zL+zs=20+iX+RL-iXc=(25+RL)+i(x-Xc)The current flowing through…

0.10 The load impedance in Fig. P10.10 absorbs 2.5 kw and generates 5 kVAR. The sinusoidal voltage source develops 7.5 kW. a) Find the values of inductive line reactance that will satisfy these constraints. b) For each value of line reactance found in (a), od neshow that the magnetizing vars developed equals hm the magnetizing vars absorbed.lb g bolles oels eu Figure P10.10 20 Ω jΧΩ

0.10 The load impedance in Fig. P10.10 absorbs 2.5 kw and generates 5 kVAR. The sinusoidal voltage source develops 7.5 kW. a) Find the values of inductive line reactance that will satisfy these constraints. b) For each value of line reactance found in (a), od neshow that the magnetizing vars developed equals hm the magnetizing vars absorbed.lb g bolles oels eu Figure P10.10 20 Ω jΧΩ

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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A load Z draws 19 KVA at a power factor of 0.8 lagging from a 124 V rms sinusoidal source. Answer the following two questions: The reactive power drawn by the load is: a. 11.4 KVAR Cb. 9.4 KVAR c. 13.4 KVAR d. 7.4 KVAR The load impedance is: Ca. 1.01 L 36.87 ° Q Ob. 0.81 L 36.87 ° Q Cc. 0.52 L 16.87 ° Q d. 0.65 L 16.87 ° Q
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Question 1/13 Answer is mandatory A load Z draws 12 kW at a power factor of 0.707 lagging from a 230 Vrms and 50 Hz sinusoidal source. If it is aimed to raise the power factor to 0.95 power factor lagging using a capacitor connected in parallel to the load, then the capacitance value (in uF) is: 444.3 242.4 484.7 969.4 888.6 SUBMIT ANSWER
An industrial load is driven from a single phase supply at 106V. Load power is 394W. Power Factor is 0.642 lagging. What value of Q of Power Factor Correction capacitors are needed to bring the Power Factor to 0.90 lagging? Result should be in VARs, magnitude only (no sign).
Answer subparts D,E,F
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