1. A three-phase four wire 440 V, 50 Hz system supplies to a star-connected load with Z = 10 20°, Z=15230°, and Z = 102-30°. Find the line currents, the neutral current, and the total power. 18 Chapter 1. Introduction to High-Voltage Engineering 2. Calculate the ideal power transfer capability in MW of an ac 1200 kV, 900 km line to be commissioned from Guwahati to Patna having per-phase line inductance of 1.2 mH/km and capacitance of 15.7 nF/km. 3. In Problem 2, if the surge impedance of the existing 400 kV lines in this area is 250 2, how many three-phase circuits of these lines can 1. 25.420°, 16.94 4. be replaced by a single three-phase circuit of 1200 kV line? A single-phase ac voltage of 230 V is applied to a series circuit whose impedance is 10 260°. Find active and reactive power of the circuit. What will be power factor of circuit? 5. Repeat Problem 4 with ac voltage of 120 V. Compare results. -150°, 25.4 Z150°, 12.44 2159.42° A 15.76 kW and 1.074 kVAr 2. 5208.52 MW 3. 8 circuits 4. 10.58 kW, 6.1 kVAr, 0.5 5. 2.88 kW, 1.66 kVAr, 0.5
1. A three-phase four wire 440 V, 50 Hz system supplies to a star-connected load with Z = 10 20°, Z=15230°, and Z = 102-30°. Find the line currents, the neutral current, and the total power. 18 Chapter 1. Introduction to High-Voltage Engineering 2. Calculate the ideal power transfer capability in MW of an ac 1200 kV, 900 km line to be commissioned from Guwahati to Patna having per-phase line inductance of 1.2 mH/km and capacitance of 15.7 nF/km. 3. In Problem 2, if the surge impedance of the existing 400 kV lines in this area is 250 2, how many three-phase circuits of these lines can 1. 25.420°, 16.94 4. be replaced by a single three-phase circuit of 1200 kV line? A single-phase ac voltage of 230 V is applied to a series circuit whose impedance is 10 260°. Find active and reactive power of the circuit. What will be power factor of circuit? 5. Repeat Problem 4 with ac voltage of 120 V. Compare results. -150°, 25.4 Z150°, 12.44 2159.42° A 15.76 kW and 1.074 kVAr 2. 5208.52 MW 3. 8 circuits 4. 10.58 kW, 6.1 kVAr, 0.5 5. 2.88 kW, 1.66 kVAr, 0.5
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
Chapter3: Power Transformers
Section: Chapter Questions
Problem 3.60P: PowerWorid Simulator case Problem 3_60 duplicates Example 3.13 except that a resistance term of 0.06...
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![1. A three-phase four wire 440 V, 50 Hz system
supplies to a star-connected load with Z = 10
20°, Z=15230°, and Z = 102-30°.
Find the line currents, the neutral current, and
the total power.
18 Chapter 1. Introduction to High-Voltage Engineering
2. Calculate the ideal power transfer capability in
MW of an ac 1200 kV, 900 km line to be
commissioned from Guwahati to Patna having
per-phase line inductance of 1.2 mH/km and
capacitance of 15.7 nF/km.
3. In Problem 2, if the surge impedance of the
existing 400 kV lines in this area is 250 2,
how many three-phase circuits of these lines can
1. 25.420°, 16.94
4.
be replaced by a single three-phase circuit of
1200 kV line?
A single-phase ac voltage of 230 V is applied to
a series circuit whose impedance is 10 260°.
Find active and reactive power of the circuit.
What will be power factor of circuit?
5. Repeat Problem 4 with ac voltage of 120 V.
Compare results.
-150°, 25.4 Z150°, 12.44 2159.42° A
15.76 kW and 1.074 kVAr
2. 5208.52 MW
3. 8 circuits
4. 10.58 kW, 6.1 kVAr, 0.5
5. 2.88 kW, 1.66 kVAr, 0.5](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F7eaa3e1d-2427-4f34-b02c-cda7719eb621%2F3ac6f52a-2d5e-4899-9645-8e0c0bdc5f6c%2Farjhazk_processed.png&w=3840&q=75)
Transcribed Image Text:1. A three-phase four wire 440 V, 50 Hz system
supplies to a star-connected load with Z = 10
20°, Z=15230°, and Z = 102-30°.
Find the line currents, the neutral current, and
the total power.
18 Chapter 1. Introduction to High-Voltage Engineering
2. Calculate the ideal power transfer capability in
MW of an ac 1200 kV, 900 km line to be
commissioned from Guwahati to Patna having
per-phase line inductance of 1.2 mH/km and
capacitance of 15.7 nF/km.
3. In Problem 2, if the surge impedance of the
existing 400 kV lines in this area is 250 2,
how many three-phase circuits of these lines can
1. 25.420°, 16.94
4.
be replaced by a single three-phase circuit of
1200 kV line?
A single-phase ac voltage of 230 V is applied to
a series circuit whose impedance is 10 260°.
Find active and reactive power of the circuit.
What will be power factor of circuit?
5. Repeat Problem 4 with ac voltage of 120 V.
Compare results.
-150°, 25.4 Z150°, 12.44 2159.42° A
15.76 kW and 1.074 kVAr
2. 5208.52 MW
3. 8 circuits
4. 10.58 kW, 6.1 kVAr, 0.5
5. 2.88 kW, 1.66 kVAr, 0.5
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