Question

How is electrical energy distributed and dissipated in an L-R-C circuit? Please explain.

How is electrical energy distributed and dissipated in an L-R-C circuit? Please explain.

Homework Answers

Answer #1

rate at which eenrgy is distributed is Power

Impendece in RLC circuit is given by Z^2 = R^2+(XL-XC)^2

where XL = inductivereactance = WL = 2pifL

Xc = capcacitve reactnace = 1/WC = 1/(2pifC) =

now current I = V/Z

vOlatge across inductor VL = iXL

Voltage across capacitor Vc = iXC

Volatge across resistor VR = iR

phase angle tan theta = (XL-Xc)/R

power factor cos theta = R/Z

Power across Ressitor Pr = I^2 R

Power across Indcutor PL = I^2 XL

Power across Capacitor Pc = I^2 Xc

Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
An L-R-C series circuit L= 0.125 H , R = 245 ΩΩ , and C= 7.32...
An L-R-C series circuit L= 0.125 H , R = 245 ΩΩ , and C= 7.32 μFμF carries an rms current of 0.452 AA with a frequency of 396 Hz. a) What average power is delivered by the source? b) What is the average rate at which electrical energy is converted to thermal energy in the resistor? c) What is the average rate at which electrical energy is dissipated (converted to other forms) in the capacitor? d) What is the...
An L-R-C series circuit L = 0.123 H , R = 242 Ω , and C...
An L-R-C series circuit L = 0.123 H , R = 242 Ω , and C = 7.32 μF carries an rms current of 0.445 A with a frequency of 401 Hz . a. What is the phase angle? b. What is the power factor for this circuit? c. What is the impedance of the circuit? d. What is the rms voltage of the source? e) What is the average rate at which electrical energy is converted to thermal energy...
An L-R-C series circuit L = 0.121 H , R = 240 Ω , and C...
An L-R-C series circuit L = 0.121 H , R = 240 Ω , and C = 7.31 μF carries an rms current of 0.452 A with a frequency of 400 Hz . A. What is the phase angle B. What is the power factor for this circuit. C. What is the impedence of the circuit D. What is the RMS voltage of the source. E) What is the average rate at which electrical energy is converted to thermal energy...
An L-R-C series circuit L = 0.117 H , R = 243? , and C =...
An L-R-C series circuit L = 0.117 H , R = 243? , and C = 7.27?F  carries an rms current of 0.454A  with a frequency of 408Hz . a) What is the phase angle? (in radians) b) What is the power factor for this circuit? c) What is the impedance of the circuit? (in Ω) d) What is the rms voltage of the source? (in V) e) What is the average rate at which electrical energy is converted to thermal energy...
Question 1: An L-R-C series circuit L = 0.117 H , R = 243 Ω ,...
Question 1: An L-R-C series circuit L = 0.117 H , R = 243 Ω , and C = 7.27 μF carries an rms current of 0.448 A with a frequency of 402 Hz . What is the phase angle, answer in (radians) What is the power factor of this circuit? What is the impedance of the circuit? What is the rms voltage of the source? What is the average rate at which electrical energy is converted to thermal energy...
A series R–L–C circuit of R = 225 ? , L = 0.900 H and C...
A series R–L–C circuit of R = 225 ? , L = 0.900 H and C = 1.75 ?F carries an rms current of 0.230 A with a frequency of 100 Hz . What is the average rate at which electrical energy is converted to heat in the resistor? Express your answer in watts to three significant figures. What average power is delivered by the source? Express your answer in watts to three significant figures. What is the average rate...
An L-R-C series circuit LLL = 0.122 HH , RRR = 244 ΩΩ , and CCC...
An L-R-C series circuit LLL = 0.122 HH , RRR = 244 ΩΩ , and CCC = 7.25 μFμF carries an rms current of 0.445 AA with a frequency of 397 HzHz . What average power is delivered by the source? What is the average rate at which electrical energy is converted to thermal energy in the resistor? What is the average rate at which electrical energy is dissipated (converted to other forms) in the capacitor? What is the average...
The sum of the electrical and magnetic energies in an L-C circuit is 0.800 J. At...
The sum of the electrical and magnetic energies in an L-C circuit is 0.800 J. At a certain instant the energy is exactly half electrical and half magnetic, the capacitor charge is 5.30 mC, and the current is 8.00 A. Find (a) the capacitance, (b) the inductance, and (c) the angular frequency of oscillation.
In a series oscillating RLC circuit, R = 16.4 Ω, C = 30.9 μF, L =...
In a series oscillating RLC circuit, R = 16.4 Ω, C = 30.9 μF, L = 9.74 mH, and E = Emsinωdt with Em = 45.2 V and ωd = 2940 rad/s. For time t = 0.431 ms find (a) the rate Pg at which energy is being supplied by the generator, (b) the rate PC at which the energy in the capacitor is changing, (c) the rate PL at which the energy in the inductor is changing, and (d)...
In a series oscillating RLC circuit, R = 15.5 Ω, C = 31.6 μF, L =...
In a series oscillating RLC circuit, R = 15.5 Ω, C = 31.6 μF, L = 9.32 mH, and E = Emsinωdt with Em = 44.6 V and ωd = 3070 rad/s. For time t = 0.432 ms find (a) the rate Pg at which energy is being supplied by the generator, (b) the rate PC at which the energy in the capacitor is changing, (c) the rate PL at which the energy in the inductor is changing, and (d)...