Question 1

To completely charge a   capacitor in 15 seconds, use a ________ resistor.

Accepted Answer

A)    
B)    
C)    
D)    
A)    
B)    
C)    
D)

Question 2

What is the output voltage at the end of the input pulse from an RL integrator that uses a 400 mH inductor, a   resistor and a 5 V, 1.2 ms input pulse?

Accepted Answer

A) 4.75 V 
B) 5 V 
C) 4.532 V 
D) 3.16 V 
A) 4.75 V 
B) 5 V 
C) 4.532 V 
D) 3.16 V

Question 3

RC and RL differentiators produce an output voltage that closely approximates the:

Accepted Answer

A) mathematical average. 
B) mathematical difference. 
C) mathematical rate of change process. 
D) mathematical sum. 
A) mathematical average. 
B) mathematical difference. 
C) mathematical rate of change process. 
D) mathematical sum.

Question 4

What is VC at the end of the input pulse to an RC integrator if the input pulse is 15 V and the pulse width equals one time constant?

Accepted Answer

A) 9.48 V 
B) 13.0 V 
C) 14.25 V 
D) 14.7 V 
A) 9.48 V 
B) 13.0 V 
C) 14.25 V 
D) 14.7 V

Question 5

What is the output voltage at the end of the input pulse from an RL integrator that uses a 2 H inductor, a   resistor and a 32 V, 0.4 ms input pulse?

Accepted Answer

A) 13.9 V 
B) 27.7 V 
C) 19.0 V 
D) 21.6 V 
A) 13.9 V 
B) 27.7 V 
C) 19.0 V 
D) 21.6 V

Question 6

If RC and RL differentiators with equal time constants receive the same pulse, ________.

Accepted Answer

A) one outputs an increasing exponential while the other outputs a decreasing exponential 
B) the RL has the most narrow spikes on the output 
C) the RC has the widest output pulse 
D) you canʹt tell the difference by observing the output wave forms 
A) one outputs an increasing exponential while the other outputs a decreasing exponential 
B) the RL has the most narrow spikes on the output 
C) the RC has the widest output pulse 
D) you canʹt tell the difference by observing the output wave forms

To completely charge a capacitor in 15 seconds, use a ________ resistor.

What is the output voltage at the end of the input pulse from an RL integrator that uses a 400 mH inductor, a resistor and a 5 V, 1.2 ms input pulse?

RC and RL differentiators produce an output voltage that closely approximates the:

What is VC at the end of the input pulse to an RC integrator if the input pulse is 15 V and the pulse width equals one time constant?

What is the output voltage at the end of the input pulse from an RL integrator that uses a 2 H inductor, a resistor and a 32 V, 0.4 ms input pulse?

If RC and RL differentiators with equal time constants receive the same pulse, ________.

Quantities and Units

Voltage, Current, and Resistance

Ohms Law

Energy and Power

Series Circuits

Parallel Circuits

Series-Parallel Circuits

Circuit Theorems and Conversions

Branch, Loop, and Node Analyses

Magnetism and Electromagnetism

Introduction to Alternating Current and Voltage

Capacitors

Inductors

Transformers

RL Circuits

RlC Circuits and Resonance

Passive Filters

Circuit Theorems in Ac Analysis

Time Response of Reactive Circuits

Three-Phase Systems in Power Applications

Filters

Exam 15: RC Circuits

To completely charge a capacitor in 15 seconds, use a ________ resistor.

What is the output voltage at the end of the input pulse from an RL integrator that uses a 400 mH inductor, a resistor and a 5 V, 1.2 ms input pulse?

RC and RL differentiators produce an output voltage that closely approximates the:

What is VC at the end of the input pulse to an RC integrator if the input pulse is 15 V and the pulse width equals one time constant?

What is the output voltage at the end of the input pulse from an RL integrator that uses a 2 H inductor, a resistor and a 32 V, 0.4 ms input pulse?

If RC and RL differentiators with equal time constants receive the same pulse, ________.

Quantities and Units

Voltage, Current, and Resistance

Ohms Law

Energy and Power

Series Circuits

Parallel Circuits

Series-Parallel Circuits

Circuit Theorems and Conversions

Branch, Loop, and Node Analyses

Magnetism and Electromagnetism

Introduction to Alternating Current and Voltage

Capacitors

Inductors

Transformers

RL Circuits

RlC Circuits and Resonance

Passive Filters

Circuit Theorems in Ac Analysis

Time Response of Reactive Circuits

Three-Phase Systems in Power Applications

Filters