S(ii)G1For the power system illustrated in Figure Q1a, the voltages at both endsof the power system are given as:V₁ = 1.0528° pu, V₂ = 120° puThe line reactance is given as j 0.05 pu. The real power at both ends ofthe line are P₁ = P2 = 5pu. The complex power outputs SL and SL2 at thetwo buses are given as:SL1 = 6+j3pu, SL2 = 5-j2puIf the load S13 at bus 2 is the same as the generator power at bus 1(SL3=SG1), determine the generator power SG2 connected to bus 2 (usingthe formulae provided).V₁S₁1BuslS₁L1Ij0.05Figure Qla.S₂2S..L2V₂2Bus2L3G2

Given Circuit: Given Values: V1=1.05∠δ° V2=1∠0° Line reactance,XL=j0.05 P1=P2=5pu SL1=6+j3pu…

ii) For the power system illustrated in Figur of the power system are given as: V₁ = 1.0528° pu, V₂ = 120° pu The line reactance is given as j 0.05 pu. The real power at both ends of the line are P₁ = P2 = 5pu. The complex power outputs SLI and SL2 at the two buses are given as: SL1 = 6+j3pu, SL2 = 5-j2pu If the load S13 at bus 2 is the same as the generator power at bus 1 (SL3 SG1), determine the generator power SG2 connected to bus 2 (using the formulae provided). V₂ S₁ Busl S₁ L1 I j0.05 Figure Qla. S₁ 2 S. L2 S₁3 L3 Bus2 S G2

ii) For the power system illustrated in Figur of the power system are given as: V₁ = 1.0528° pu, V₂ = 120° pu The line reactance is given as j 0.05 pu. The real power at both ends of the line are P₁ = P2 = 5pu. The complex power outputs SLI and SL2 at the two buses are given as: SL1 = 6+j3pu, SL2 = 5-j2pu If the load S13 at bus 2 is the same as the generator power at bus 1 (SL3 SG1), determine the generator power SG2 connected to bus 2 (using the formulae provided). V₂ S₁ Busl S₁ L1 I j0.05 Figure Qla. S₁ 2 S. L2 S₁3 L3 Bus2 S G2

Power System Analysis and Design (MindTap Course List)

6th Edition

ISBN:9781305632134

Author:J. Duncan Glover, Thomas Overbye, Mulukutla S. Sarma

Publisher:J. Duncan Glover, Thomas Overbye, Mulukutla S. Sarma

Chapter2: Fundamentals

Section: Chapter Questions

Problem 2.31P: Consider two interconnected voltage sources connected by a line of impedance Z=jX, as shown in...

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The subject EE463 Power Systems analysis Please show all steps , and in clear writing it is better in hand written form.
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