Consider the quantity H(f) defined below: 1 H(f)= 1+j2f(RC) H(f) is the frequency response of a simple circuit containing a a resistor with resistance R and a capacitor with capacitance C. The circuit is a real linear time-invariant system. For the rest of this problem, you can assume that RC = 2(1000). The input to this circuit is a sinusoidal voltage x(t) = A cos(2 ft). The output is the voltage across the capacitor is y(t). (a) Make a plot of the magnitude of the frequency response, |H(f), for 0

Consider the quantity H(f) defined below: 1 H(f)= 1+j2f(RC) H(f) is the frequency response of a simple circuit containing a a resistor with resistance R and a capacitor with capacitance C. The circuit is a real linear time-invariant system. For the rest of this problem, you can assume that RC = 2(1000). The input to this circuit is a sinusoidal voltage x(t) = A cos(2 ft). The output is the voltage across the capacitor is y(t). (a) Make a plot of the magnitude of the frequency response, |H(f), for 0

Delmar's Standard Textbook Of Electricity

7th Edition

ISBN:9781337900348

Author:Stephen L. Herman

Publisher:Stephen L. Herman

Chapter24: Resistive-inductive-capacitive Parallel Circuits

Section: Chapter Questions

Problem 1RQ: An AC circuit contains a 24 resistor, a 15.9-mH inductor, and a 13.3F capacitor connected in...

See similar textbooks

Similar questions

1. Graph the following complex numbers and convert in the specified form a. 5-j7 to exponential form b. 5 cjs (-45°) to rectangular form C. -2-j3 to polar form d. 32-45° to exponential form of complex numbers, (10pts each)
Let Zeq be the equivalent impedance of a parallel connection of an inductor with inductance L and a capacitor with capacitance C. At w=1/√√LC, the equivalent impedance is given by O a. Zeq = 0 b. Zeq = 1 O c. Zeq = 00 O d. Zeq = 0.5
The current through a 50 mH inductor is given below. Use Ohm’s Law to find the voltage. Convert to polar form, find the impedance and complete the math, then convert back to the waveform at i1 = 7.5sin(2500t – 20°) mA and i2 = 5.9sin(200t + 40°) mA
An RLC paralle circuit contains a resistor with a resistance of 16 ohms, an inductor with an inductive reactance of 8ohms, and a capacitor reactance of 20 ohms. What is the total impedance of this circuit?
the equivalent impedance of a capacitor in parallel with an iductor is equivalent to an open circuit (i.e equal to infinity) at a certain frequency.Drive an expression for this frequency
The figure below shows a simple RC circuit with a 3.30-μF capacitor, a 4.40-M resistor, a 9.00-V emf, and a switch. What are the following exactly 9.00 s after the switch is closed? (a) the charge on the capacitor 13.7204 UC (b) the current in the resistor 0.0110522 x Your response is off by a multiple of ten. HA (c) the rate at which the capacitor is storing energy μW (d) the rate at which the battery is delivering energy μW
Select all correct statement(s):1, The equivalent resistance for resistors in parallel is the harmonic mean of all resistors;2, The equivalent capacitance for capacitors in series is the sum of all capacitors;3, The equivalent inductance for inductors in series is the sum of all resistors.32None of them is correct1
A circuit consists of an inductor and two capacitors all in series. The inductor has a resistance of 10Ω and an inductance of 159μH. The first capacitor has 200pF and the second is a variable capacitor with a wide capacitive range. This series circuit is connected to a 50mV sinusoidal supply of fixed frequency 1MHz. (i) What value of the variable capacitance will be required for a resonance condition (give the answer in pF)?
Express the following in its simplist form: sin(2πft)+sin(2πft-π). Hint: Thinkabout what each seperate waveform looks like.
6-please fast
In the following circuit: A sinusoidal voltage source Vs(t)=24sin(5t)V is in parallel with R=0.2MQ and C=10µF. Find Ir, Ic, Is and maximum energy stored in C?
An 50 resistor, a 5 mH inductor, and a 1.25 μF capacitor are connected in series. The series-connected elements are energized by a sinusoidal voltage source whose voltage is 600 cos(8000t+ 20°)V. Part A Determine the impedances of the elements in the frequency-domain equivalent circuit. Express your answers in ohms to three significant figures separated by commas. Enter your answers in rectangular form. ZL, ZC, ZR= Submit Part B ΠΫΠΙ ΑΣΦ Ig= Request Answer ΑΣΦ | 11 Ivec Reference the current in the direction of the voltage rise across the source, and find the phasor current. Express answer in amperes to three significant figures. Enter your answer using angle notation. Express argument in degrees. vec ? ? A Ω