Solve iv and v only 3:16Instagram=0.62The capacitive reactance of the circuit can becalculated as:Xe300x 400x 10-6=8, 332Therefore, the inductive and capacitivereactance of the given circuit is 0.6 and 8.33ohm respectively.Part (ii).The rms value of the source is:325Vrms==229. 81 voltThe angle of the source is 0 degree, in phasorform it can be written as:Vphasor=Vrms4(angle)=229. 8120" voltTherefore, in phasor form the voltage can bewritten as 229. 8120° Volt.Part (iii).The total impedance of the above circuit can becalculated as:Zr=(R series jX1,) parallel (-jXc)=(3+ j0. 6) parallel (-j8. 33)(3+j0.6) x (- j8.33)(3+j0.6) + (- j8.33)=(3.028 – j0. 528)? R = 3 Nv-(t) = 325 cos 300t VC = 400 µFV.L = 2 mHFigure Q1By referring to Figure Q1, answer the following questions.i.Find the respective reactance of the inductor, XL, and capacitor, Xc.(marks)ii.Convert the voltage source from time domain, vs(t), to phasor domain, Vs. (The phasordomain needs to be in r.m.s).ii.Find the total impedance of the circuit.iv.Find vz(t) and iL(t) using Mesh analysis. (Show answer in peak value).Sketch the phasor diagram of VL and IL.V.

Given: Circuit elements are known Supply voltage is given Calculate: voltage, current, impedance in…

R = 3 N v.(t) = 325 cos 300t V C = 400 µF IL VL L = 2 mH Figure Q1 By referring to Figure Q1, answer the following questions. i. Find the respective reactance of the inductor, XL, and capacitor, Xc. marks) ii. Convert the voltage source from time domain, vs(t), to phasor domain, Vs. (The phasor domain needs to be in r.m.s). iii. Find the total impedance of the circuit. iv. Find vL(t) and iL(t) using Mesh analysis. (Show answer in peak value). Sketch the phasor diagram of VL and IL. V.

R = 3 N v.(t) = 325 cos 300t V C = 400 µF IL VL L = 2 mH Figure Q1 By referring to Figure Q1, answer the following questions. i. Find the respective reactance of the inductor, XL, and capacitor, Xc. marks) ii. Convert the voltage source from time domain, vs(t), to phasor domain, Vs. (The phasor domain needs to be in r.m.s). iii. Find the total impedance of the circuit. iv. Find vL(t) and iL(t) using Mesh analysis. (Show answer in peak value). Sketch the phasor diagram of VL and IL. V.

Delmar's Standard Textbook Of Electricity

7th Edition

ISBN:9781337900348

Author:Stephen L. Herman

Publisher:Stephen L. Herman

Chapter17: Resistive-inductive Series Circuits

Section: Chapter Questions

Problem 2PP: Assume that the voltage drop across the resistor, ER, is 78 V, that the voltage drop across the...

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