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In the system shown below, the generator is ideal (Xs = 0) and the magnitude of the load bus voltage, VL is to be held at 110 kV. Working on a system base of 100 MVA and a base voltage of 115 kV in the load circuit: a) b) draw the single-phase equivalent pu reactance diagram, and determine the necessary generator terminal voltage VG (kV).

In the system shown below, the generator is ideal (Xs = 0) and the magnitude of the load bus voltage, VL is to be held at 110 kV. Working on a system base of 100 MVA and a base voltage of 115 kV in the load circuit: a) b) draw the single-phase equivalent pu reactance diagram, and determine the necessary generator terminal voltage VG (kV).

Introductory Circuit Analysis (13th Edition)
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
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2. In the system shown below, the generator is ideal (Xs = 0) and the magnitude of the load bus voltage, VL is to be held at 110 kV. Working on a system base of 100 MVA and a base voltage of 115 kV in the load circuit: a) b) draw the single-phase equivalent pu reactance diagram, and determine the necessary generator terminal voltage VG (kV). Transformer 1 200 MVA 25 kV : 600 kV X = 5% Transformer 2 150 MVA 500 kV: 115 kV X = 6% Line X = 60 N Load S = 120 MVA pf = 0.85 lag VG VT1 VT2 VL
Transcribed Image Text:2. In the system shown below, the generator is ideal (Xs = 0) and the magnitude of the load bus voltage, VL is to be held at 110 kV. Working on a system base of 100 MVA and a base voltage of 115 kV in the load circuit: a) b) draw the single-phase equivalent pu reactance diagram, and determine the necessary generator terminal voltage VG (kV). Transformer 1 200 MVA 25 kV : 600 kV X = 5% Transformer 2 150 MVA 500 kV: 115 kV X = 6% Line X = 60 N Load S = 120 MVA pf = 0.85 lag VG VT1 VT2 VL
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