The inductive reactance is most nearlyA. 45.2 NThe current in the circuit is given by i(t) = I cos[(9580 rad/s){, where I is theB. 126 kNamplitude current. The voltage amplitude of the AC source is 112 V.C. 138 m2D. 1.38 m?E. 726 NR = 335 NC = 0.625 µFL = 75.8 mH

Given C = 0.625 × 10-6 F L = 75.8mH = 75.8 ×10-3 H R = 335 Ohm

А. 45.2 Q The current in the circuit is given by i(t) = I cos[(9580 rad/s){], where I is the В. 126 k9 С. 138 m.? amplitude current. The voltage amplitude of the AC source is 112 V. D. 1.38 m? E. 726 N R= 335 N

А. 45.2 Q The current in the circuit is given by i(t) = I cos[(9580 rad/s){], where I is the В. 126 k9 С. 138 m.? amplitude current. The voltage amplitude of the AC source is 112 V. D. 1.38 m? E. 726 N R= 335 N

University Physics Volume 2

18th Edition

ISBN:9781938168161

Author:OpenStax

Publisher:OpenStax

Chapter14: Inductance

Section: Chapter Questions

Problem 12CQ: When the current in the RL circuit of Figure 14.12(b) reaches its final value /R, what is the...

See similar textbooks

Related questions

Q: The capacitive reactance is most nearly А. 167 The current in the circuit is given by i(t) = I…

Q: A 9.86-Ω resistor, a 14.4-μF capacitor, and a 14.5-mH inductor are connected in series with a 121-V…

Q: A sinusoidal voltage Av = 36.0 sin 100t, where Av is in volts and t is in seconds, is applied to a…

Q: A resistor (R = 9.00 x 102 ), a capacitor (C = 0.250 µF), and an inductor (L = 1.40 H) are connected…

A: Given : Resistor(R) = 900ΩCapacitorC = 0.25 μFInductorL = 1.4 HFrequencyf = 240 Hz∆Vmax = 135…

Q: A sinusoidal voltage Δv = 45.0 sin(100t), where Δv is in volts and t is in seconds, is applied to a…

Q: A 1.75 μF capacitor is connected as in the figure to an ac generator with εm = 40.0 V. What is the…

A: Given Capacitor = 1.75 μF εm = 40.0 V To find out Amplitude of the resulting alternating current…

Q: An RLC series circuit has a 1.00 kΩ resistor, a 131 mH inductor, and a 25.0 nF capacitor. (a) Find…

Q: A sinusoidal voltage Av = 45.0 sin(100t), where Av is in volts and t is in seconds, is applied to a…

Q: A sinusoidal voltage Av = (90.0 V)sin(120t) is applied to a series RLC circuit with L = 50.0 mH, C =…

Q: The self-inductance and capacitance of an oscillating LC circuit are L = 20 mH and C = 1.0 µF,…

A: L = 20 mH and C = 1.0 µF V = 50 V

Q: In an oscillating LC circuit in which C = 4.00 mF, the maximum potential difference across the…

Q: a) What is the impedance (in Ω) of the circuit? (b) What is the maximum current (in A)? (c)Determine…

A: a) The circuit’s impedance can be determined as, Here, R, L, C, and ω represent the resistor’s…

Q: A sinusoidal voltage Av = (65.0 V)sin(110t) is applied to a series RLC circuit with L = 10.0 mH, C =…

Q: Consider the circuit in the figure. (a) If the current through the inductor (L = 25 mH) at 360 Hz…

Q: A sinusoidal voltage Av = 36.0 sin 100t, where Av is in volts and t is in seconds, is applied to a…

A: Since you have posted a question with a multiple sub parts, we will solve first three sub - parts…

Q: In an oscillating LC circuit, the maximum charge on the capacitor is 3.5 × 10' current through the…

A: energy is conserved at any time energy in inductor=energy in capacitor12Li2=1Q22CL is inductance, C…

Q: In an oscillating LC circuit in which C= 4.2 µF, the maximum potential difference across the…

A: Given: Value of the capacitance = 4.2x10-6 F Maximum potential difference = 1.3 V Current through…

Q: A resistor (R = 9.00 x 10² N), a capacitor (C = 0.250 µF), and an inductor (L = 1.40 H) are…

Q: In an oscillating LC circuit, L = 8.00 mH and C = 1.40 mF.At time t = 0, the current is maximum at…

Q: In an L-C circuit, C= 3.21 μF and L = 88.0 mH . During the oscillations the maximum current in the…

A: L = 88 mH = 0.088 H C = 3.21×10-6 F Imax = 0.853 mA

Q: Consider an LC circuit in which L = 485 mH and C = 0.113 µF. (a) What is the resonance frequency…

A: Given Data: L = 485 mH C = 0.113 µF (a) The resonance frequency of the given LC circuit is,…

Q: In an LC circuit, the self-inductance is 2.0 × 10−2 H and the capacitance is 8.0 × 10−6 F. At t = 0,…

A: “Since you have posted a question with multiple sub-parts, we will solve first three subpartsfor…

Q: An RLC series circuit with R = 600 Ω , L = 30 mH, and C = 0.050μF is driven by an ac source whose…

Q: A resistor (R = 9.00 x 102 N), a capacitor (C = 0.250 µF), and an inductor (L = 1.90 H) are…

Q: An RLC series circuit has a 2.12 kQ resistor, a 155 mH inductor, and a 32.9 nF capacitor. (a) What…

Q: A sinusoidal voltage Δv = 35.0 sin(100t), where Δv is in volts and t is in seconds, is applied to a…

Q: In an oscillating LC circuit, the maximum charge on the capacitor is 2.0 × 10−6 C and the maximum…

A: Given: The charge on the capacitor is q=2.0 × 10−6 C. The current is I=8 mA. (a) The relation…

Q: A 1.85 µF capacitor is connected as in the figure to an ac generator with ɛm = 25.0 V. What is the…

A: (a) capacitive reactance is, Xc=12πfC=12π1.07×103 Hz1.85×10-6 F=80.4 Ω the amplitude of resulting…

Q: A sinusoidal voltage Δv = (80.0 V) sin (150t) is applied to aseries RLC circuit with L = 80.0 mH, C…

A: Part A:

Q: A 1.56 µF capacitor is connected as in the figure to an ac generator with &m = 30.0 V. What is the…

Q: A 57.022 resistor is connected as in the figure to an ac generator with Em = 25.0 V. What is the…

Q: A 250-ohm resistor, a 0.450 H inductor, and a 6.45 µF capacitor are connected in series across an…

A: Since you have posted a question with multiple sub-parts, we will solve the first three sub-parts…

Q: A resistor ( R = 9.00 × 102 Ω), a capacitor (C = 0.250 µF), and an inductor (L = 2.50 H) are…

Q: An ac generator whose emf is given by v(t) = (4.00 V) sin (1.00 ×104 rad/s)t) is connected to an RLC…

Q: An RIC: serles circult is constructed with R= 200.0 0, C= 1.25 ut, and L= 0.54 H. The circult is…

A: R = 200 ohm C = 7.25 μF L = 0.54 H frequency (f) = 60 Hz Maximum current (I) = 2.40 A

Q: A series RLC circuit driven by a source with an amplitude of 120.0 V and a frequency of 50.0 Hz has…

Q: A resistor (R = 9.00 x 102 Q), a capacitor (C = 0.250 µF), and an inductor (L = 2.40 H) are…

A: The impedance of an LCR circuit is given as Z=R2+XL-XC2…

Q: In an oscillating LC circuit in which C- 4.1 UF, the maximum potential difference across the…

Q: A sinusoidal voltage where Vmax = 100.0 V and a frequency of 60 Hz is applied to a series RLC…

A: Hello. Since your question has multiple sub-parts, we will solve first three sub-parts for you. If…

Q: An AC source operating at 60. Hz with a maximum voltage of170 V is connected in series with a…

Q: The primary coil of a transformer has N1 = 4.25 x 102 turns, and its secondary coil has N2 = 1.28 x…

Q: An LC circuit is composed of a 100.0 mH inductor and a 4.0 µF capacitor. If the capacitor can have a…

Q: A sinusoidal voltage Δv = 35.0 sin(100t), where Δv is in volts and t is in seconds, is applied to a…

A: Since you have posted a question with multiple sub-parts, we will solve first three sub-parts for…

Q: Series RLC circuit with L=160mH , C= 100mF and R= 40.0ohms is connected to a sinusoidal voltage…

Q: A 0.200 H inductor is connected in series with a 88 resistor and an ac source. The voltage across…

Question

The inductive reactance is most nearly
A. 45.2 N
The current in the circuit is given by i(t) = I cos[(9580 rad/s){, where I is the
B. 126 kN
amplitude current. The voltage amplitude of the AC source is 112 V.
C. 138 m2
D. 1.38 m?
E. 726 N
R = 335 N
C = 0.625 µF
L = 75.8 mH

Expert Solution

This question has been solved!

Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.

SEE SOLUTION Check out a sample Q&A here

Step 1

VIEW

Step 2

VIEW

Step by step

Solved in 2 steps with 1 images

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, physics and related others by exploring similar questions and additional content below.

Similar questions

Calculate the reactance of a 5.0-mH inductor at (a) 60 Hz, (b) 600 Hz, and (C) 6000 Hz.
In an oscillating RLC circuit with L = 10 mH, C = 1.5 F , and R = 2.0 , how much time elapses before the amplitude of the oscillations drops to half its initial value?
When the current in the RL circuit of Figure 14.12(b) reaches its final value /R, what is the voltage across the inductor? Across the resistor?
The self-inductance and capacitance of an LC circuit e 0.20 mH and 5.0 pF. What is the angular frequency at which the circuit oscillates?
What resistance R must be connected in series with a 200-mH inductor of the resulting RLC oscillating circuit is to decay to 50% of its initial value of charge in 50 cycles? To 0.10% of its initial value in 50 cycles?
Suppose a coil has a self-inductance of 20.0 H and a resistance of 200 . What (a) capacitance and (b) resistance must be connected in series with the coil to produce a circuit that has a resonant frequency of 100 Hz and a Q of 10?
Show that N m /l and el(dl/dt), which are both expressions for se1f-inductance, have the same units.
In an RLC series circuit, can the voltage measured across the capacitor be greater than the voltage of the source? Answer the same question for the voltage across the inductor.
A series RLCcircuit contains a 20.0- resistor, a 0.750-F capacitor, and a 120-mH inductor. (i) 11 a sinusoidally varying rms voltage of 120 V at f = 500 Hz is applied across this combination of elements, what is the rms current in the circuit? (a) 2.33 A (b) 6.00 A (c) 10.0 A (d) 17.0 A (e) none of those answers (ii) What If? W hat is the rms current in the circuit when operating at its resonance frequency? Choose from the same possibilities as in part (i).
An LC circuit in an AM tuner (in a car stereo) uses a coil with an inductance of 2.5 mH and a variable capacitor. If the natural frequency of the circuit is to be adjustable over the range 540 to 1600 kHz (the AM broadcast band), that range of capacitance is required?
Can the instantaneous power output of an ac source ever be negative? Can the average power output be negative?
In an oscillating RLC circuit, R = 7.0 L. = 10 mH. And C = 3.0 F. Initially, the capacitor has a charge of 8.0 C and the current is zero. Calculate the charge on the capacitor (a) five cycles later and (b) 50 cycles later.