The circuit in (Figure 1) is operating in the sinusoidal steady state. Figure 1 of 1 31.25 nF + ŠB- V8 Σ2 ΚΩ Vo 500 mH Part A Find the steady-state expression for vo(t) if v = 72 cos 8000t V. Suppose that vo(t) = V₁ cos(wt + p), where -180° << 180°. Determine the values of Vo, w, and p Express your answers using three significant figures separated by commas. Express V₁ in volts, w in radians per second, and in degrees. Vo, w, p= Submit Provide Feedback VAΣo↓ vec Request Answer Review ? V, rad/s, ° Next >

The circuit in (Figure 1) is operating in the sinusoidal steady state. Figure 1 of 1 31.25 nF + ŠB- V8 Σ2 ΚΩ Vo 500 mH Part A Find the steady-state expression for vo(t) if v = 72 cos 8000t V. Suppose that vo(t) = V₁ cos(wt + p), where -180° << 180°. Determine the values of Vo, w, and p Express your answers using three significant figures separated by commas. Express V₁ in volts, w in radians per second, and in degrees. Vo, w, p= Submit Provide Feedback VAΣo↓ vec Request Answer Review ? V, rad/s, ° Next >

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

See similar textbooks

Similar questions

When the average real power absorbed by an impedance is zero, then the impedance is: Select one: a. A parallel combination of resistors and capacitors b. An ideal resistor c. A pure inductor d. A resistor in parallel to an inductor e. A resistor in parallel to a capacitor
A sinusoid V1 =V m1 cos (at + 35") leads another sinusoid v,=V m2 sin (at + $) by 120 degrees. What is P in degrees?
A voltage source is supplying a load through a long cable. The load is consuming 250 VA at 0.82 lagging power factor, and the voltage across it is 180 Vrms. The impedance of the cable is 5 + j4 9. a. The load may be modeled as an impedance consisting of a resistor in series with Choose one: a capacitor / an inductor. b. Draw the circuit that you can use to analyze the problem. Label all circuit elements and variables. c. Using the voltage across the load as the reference phasor, solve for the phasor current around the loop. d. What is the voltage (in rms) across the source? e. What is the real power delivered by the source?
Fill in the blanks Answer all branches
Solve!
Applications of the Higher Ordered Linear Equations 9. A'sinusoidal e.m.f. 110 sin 400t volts is connected in series in a circuit with an inductance of 0.1 henry, a re- sistance of 10 ohms, and a capacitance of 250(10)6 farad. Find the steady-state solutions of Q and I in terms of the time t. Also find the maximum values of the steady-state charge and current. ANSWERS: Q = - 0.00275(3 sin 400t + cos 400t) I = 1,10(sin 400t- 3 cos 400t) Qmax = 0.0087 coul. 9. %3D Imax = 3:48 amp. ...2 amn.
A 400 Hz sinusoidal voltage with a maximum amplitude of 120 V at t = 0 is applied across the terminals of an inductor. The maximum amplitude of the steady-state current in the inductor is 20 A Part A What is the frequency of the inductor current? Express your answer with the appropriate units. f= Part B Submit Request Answer μÀ 0₁ = Value Submit If the phase angle of the voltage is zero, what is the phase angle of the current? Express your answer with the appropriate units. μA Value Units Request Answer ? Units ?
A given circuit has a resistor (R=20 ohms) and an inductor (L=0.3 henrys) connected in series with a sinusoidal voltage with the following equation: v(t) = 120v2cos (120t + 10°) a.) Find the current immediately after switching b.) Find the magnitude of impedance (in ohms) c.) Find the steady-state RMS current in amperes
#11 please choose the correct answer, show your complete solution
The figure below shows the one-line diagram of a four- bus power system. The voltages, the scheduled real power and reactive powers, and the reactances of transmission lines are marked at this one line diagram (The voltages and reactances are in PU referred to 100 MW base. The active power P2 in MW is the last three digits (from right) of your registration number (i.e for the student that has a registration number 202112396, P2 =396). [10] Starting from an estimated voltage at bus 2, bus 3, and bus 4 equals V2 (0) = 1.15<0°, V3 = 1.15 < 0°, V4 1.1< 0°. 1- Specify the type of each bus and known & unknown quantities at each bus. 2- Find the elements of the second row of the admittance matrix (i.e. [Y21 Y22 Y23 Y24]). 3- Using Gauss-Siedal fınd the voltage at bus 2 after the first iteration. 4- Using Newton-Raphson, calculate: |- The value of real power (P2), at bus 2 after the first iteration. Il- The second element in the first row of the Jacobian matrix after the first iteration. 2 P2…
Preform AC Steady-State analysis for the circuit calculating the time response function for VRC2, the green probe. R1 50 L1 10mH V1 C2 33u VOFF = 0 VAMPL = 15 FREQ = 200 AC = 0 R2 100
Given the circuit shown below while assuming a sinusoidal steady state, 50 0 2500 2 A 10 V1 /50 0 / 50 0 If we apply a source Transformation the voltage source becomes equal to: Select one O a. None of these O b. 100+ j100V Oc 100- j100 V O d. 10-j10 V