(b) Figure 2 illustrates the one-line diagram of a power system. The ratings of thevarious components in the system are given as follows:Gl: 200 MVA, 48 kV, R = 5 %, X= 85 %G2: 300 MVA, 48 kV, R = 10 %, X= 85 %T1: 100 MVA, 48/440 kV, R = 2 %, X= 10 %T2: 80 MVA, 480/28.8 kV, R = 2 %, X= 10 %M: 75 MVA, 24 kV, R = 15 %, X= 95 %The transmission line has an impedance of (25 + j50) N, and the static loadimpedance is (2.25 + j2.63) Q. Consider a base apparent power of 200 MVAand a base voltage of 48 kV at the generator side.(i) Determine the base voltages and impedances in Regions 1, 2 and 3.(ii) Draw the impedance diagram of this power system, and label all theimpedances in per-unit (p.u.).Region 1Region 2Region 3(G1)(M1T1T2Transmission line3E(G2Static loadFigure 2

Answered: Image /qna-images/answer/bbf4172c-9660-4b3e-9cef-e630938330d4.jpg

(b) Figure 2 illustrates the one-line diagram of a power system. The ratings of the various components in the system are given as follows: Gl: 200 MVA, 48 kV, R= 5 %, X= 85 % G2: 300 MVA, 48 kV, R= 10 %, X= 85 % T1: 100 MVA, 48/440 kV, R = 2 %, X= 10 % T2: 80 MVA, 480/28.8 kV, R = 2%, X= 10 % M: 75 MVA, 24 kV, R= 15 %, X= 95 % The transmission line has an impedance of (25 + j50) N, and the static load impedance is (2.25 + j2.63) N. Consider a base apparent power of 200 MVA and a base voltage of 48 kV at the generator side. (i) Determine the base voltages and impedances in Regions 1, 2 and 3. (ii) Draw the impedance diagram of this power system, and label all the impedances in per-unit (p.u.). Region 1 Region 2 Region 3 (G1 (M1) T1 T2 Transmission line (G2) Static load Figure 2

(b) Figure 2 illustrates the one-line diagram of a power system. The ratings of the various components in the system are given as follows: Gl: 200 MVA, 48 kV, R= 5 %, X= 85 % G2: 300 MVA, 48 kV, R= 10 %, X= 85 % T1: 100 MVA, 48/440 kV, R = 2 %, X= 10 % T2: 80 MVA, 480/28.8 kV, R = 2%, X= 10 % M: 75 MVA, 24 kV, R= 15 %, X= 95 % The transmission line has an impedance of (25 + j50) N, and the static load impedance is (2.25 + j2.63) N. Consider a base apparent power of 200 MVA and a base voltage of 48 kV at the generator side. (i) Determine the base voltages and impedances in Regions 1, 2 and 3. (ii) Draw the impedance diagram of this power system, and label all the impedances in per-unit (p.u.). Region 1 Region 2 Region 3 (G1 (M1) T1 T2 Transmission line (G2) Static load Figure 2

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...

See similar textbooks

Similar questions

Determina Vo para cada uno de los circuitos dados con la entrada mostrada. Grafica el voltaje de salida e indica el valor correspondiente.
Need help understanding this type of problem. It will be on my final exam in april! Thank you, it is not a graded question. It is a preparation task!
Hou 5 20212 EErWZ150trUnine DAD TEST ttrW25T0 tiectrical Piıncipies LaD iest-1 Son 1 In the following circuit Ví =20V, V2 =10V, V3 =12V, V4 =8V, V6 =16V. cred then by using Kirchhoff's voltage law (KVL) voltage value V7 = ed out of V. g question V. O 6 V O 18 V O10 VA -6 V 2 The Thevenin voltage is called as PrtSc Insert Delete F7 F9 F10 F11 F12 & Backspace 7. 7 V. 8. Y ох P :
2. Convert the following current source into an equivalent voltage source and redraw the circuit. 230a 230a Equivalent Circuit Diagram Va Re
USING NODAL ANALYSIS
In your solution, follow the sequence: Given, unknown, solution, and final answer. BOX your final answers. thank you! 2. A series-parallel ac circuit has two branches across the 60 Hz , 220 V power line. One branch has a 20 ohm R1 in series with a 10 ohm R2. The other branch has a 30 Mega ohm R3 in series with a 10 Mega ohm R4. Calculate the voltage across R4
The reactance data for the given power system is as follows: Item G₁ G₂ Ti T2 X¹ X² xº 0.10 0.10 0.05 0.10 0.10 0.05 G₁ 0.25 0.25 0.25 0.25 0.25 0.25 Line 1-2 0.30 0.30 0.50 T2 2 -+*+ & D 41 A bolted single phase-to-ground fault occurred at bus 1. Compute the fault current in per unit. 3 Τ 1 to coto 4 G₂
Electrical Engineering Al (A2 A3 V1 Al A2 N m B1 B2 C1 w Ps 2 A To 240 V supply Supply Neutral NS C2 A4 LY I Is there a circulating current (A5) in the delta connected winding? Is there a significant current trough the short circuits (A6 & A7)? (iv) Does the short circuit on the secondary side make any difference to primary side? bl 62 a B A6 b A7 A5
Find the calculated I1 and V1 for both circuits.
Maximum power capacity 15 kVa, rated voltage 2300 (primary) / 230 (secondary) volts. The respective impedances of the primary and secondary sides are as follows: R1 = 2 ohms R2 = 0.0245 ohms Rc = 105 Kohm X1 = 3 ohms X2 = 0.0345 ohms Xm = 11 k ohms a. How big is R2 from the primary circuit? b. What is the maximum current on the primary side? c. At maximum current on the primary side, what is the power loss in R1?
please answer this question 3