Circuit analysis using phasor/impedance, complex power calculation: A three-phase RLC circuit is shown below. The reactance of the capacitor is 40 Ohm. The reactance of the inductor is 80 Ohm, and the resistor is 8 Ohm. The sending end voltage is v₁(t) = √2³45 cos(wt +) kV, where w = 2π - 60 rad/s. The receiving end voltage is v₂(t) = √2345 cos(wt) kV. The power base is 1000 MVA and the voltage base (L-L) is 345 kV. Please compute total transferred complex power S₁ and S₂ in the physical unit. Please draw a per-phase phasor/impedance diagram using per unit values. Please compute the per unit complex power S₁ and 5₂. Find out the real power loss by the resistor, reactive power consumption by the inductor and the reactive power generated by the series capacitor in per unit. f Si 777 Figure R L с mm F S₂ + Vr

Circuit analysis using phasor/impedance, complex power calculation: A three-phase RLC circuit is shown below. The reactance of the capacitor is 40 Ohm. The reactance of the inductor is 80 Ohm, and the resistor is 8 Ohm. The sending end voltage is v₁(t) = √2³45 cos(wt +) kV, where w = 2π - 60 rad/s. The receiving end voltage is v₂(t) = √2345 cos(wt) kV. The power base is 1000 MVA and the voltage base (L-L) is 345 kV. Please compute total transferred complex power S₁ and S₂ in the physical unit. Please draw a per-phase phasor/impedance diagram using per unit values. Please compute the per unit complex power S₁ and 5₂. Find out the real power loss by the resistor, reactive power consumption by the inductor and the reactive power generated by the series capacitor in per unit. f Si 777 Figure R L с mm F S₂ + Vr

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 2.7P: Let a 100V sinusoidal source be connected to a series combination of a 3 resistor, an 8 inductor,...

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