Energy of a Vibrating Mass on a Spring - Questions

The Energy of a Vibrating Mass on a Spring Concept Builder is comprised of 70 questions. The questions are divided into 24 different Question Groups. Questions in the same group are rather similar to one another. The Concept Builder is coded to select at random a question from each group until a student is successful with that group of questions.

There are four different activities that can be engaged in through the Concept Builder. Those four activities are differentiated as follows:

• KE, PE, and TME: Question Groups 1 - 6 ... Describe how the KE, PE, and TME changes as a mass vibrates on a horizontal or a vertical spring. 
• Energy Bar Charts: Question Groups 7-12 ... Identify the correct energy bar charts for a mass vibrating on a horizontal spring.
• Do It With Numbers 1: Question Groups 13-18 ... Given the KE and PE values at one location for a mass vibrating on a horizontal spring, identify the KE and PE values at a second location.
• Do It With Numbers 2: Question Groups 19-24 ... Given the KE and PE values at one location for a mass vibrating on a vertical spring, identify the KE and PE values at a second location.

The questions from each group are shown below. Teachers are encouraged to view the questions in order to judge which activities are most appropriate for their classes. We recommend providing students two or more options. 

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Activity 1  KE, PE, and TME
Question Group 1
Question 1
A spring is attached to a ceiling hook. A mass is attached to the spring and pulled down to position A. It is released from rest and vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations A to B?
The kinetic energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The gravitational potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The elastic potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The total mechanical energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
 

Question 2
A spring is attached to a ceiling hook. A mass is attached to the spring and pulled down to position A. It is released from rest and vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations A to B?
The kinetic energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The gravitational potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The elastic potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The total mechanical energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
 
 
 

Question Group 2
Question 3
A spring is attached to a ceiling hook. A mass is attached to the spring and pulled down to position A. It is released from rest and vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations C to B?
The kinetic energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The gravitational potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The elastic potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The total mechanical energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
 
 
 
 
 

Question 4
A spring is attached to a ceiling hook. A mass is attached to the spring and pulled down to position A. It is released from rest and vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations C to B?
The kinetic energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The gravitational potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The elastic potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The total mechanical energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
 
 
 

Question Group 3
Question 5
A spring is attached to a ceiling hook. A mass is attached to the spring and pulled down to position A. It is released from rest and vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations B to A?
The kinetic energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The gravitational potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The elastic potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The total mechanical energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
 
 

 
Question 6
A spring is attached to a ceiling hook. A mass is attached to the spring and pulled down to position A. It is released from rest and vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations B to A?
The kinetic energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The gravitational potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The elastic potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The total mechanical energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
 
 
 

Question Group 4
Question 7
A spring is attached to a ceiling hook. A mass is attached to the spring and pulled down to position A. It is released from rest and vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations B to C?
The kinetic energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The gravitational potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The elastic potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The total mechanical energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
 
 

 
Question 8
A spring is attached to a ceiling hook. A mass is attached to the spring and pulled down to position A. It is released from rest and vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations B to C?
The kinetic energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The gravitational potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The elastic potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The total mechanical energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
 
 
 

Question Group 5
Question 9
An air track glider is attached to a spring. It is pulled back to position A and released from rest. It vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations A to B?
The kinetic energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The gravitational potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The elastic potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The total mechanical energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
 
 

 
Question 10
An air track glider is attached to a spring. It is pulled back to position A and released from rest. It vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations A to B?
The kinetic energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The gravitational potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The elastic potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The total mechanical energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
 
 
 

Question 11
An air track glider is attached to a spring. It is pulled back to position A and released from rest. It vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations C to B?
The kinetic energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The gravitational potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The elastic potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The total mechanical energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
 
 

 
Question 12
An air track glider is attached to a spring. It is pulled back to position A and released from rest. It vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations C to B?
The kinetic energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The gravitational potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The elastic potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The total mechanical energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
 
 
 

Question Group 6
Question 13
An air track glider is attached to a spring. It is pulled back to position A and released from rest. It vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations B to A?
The kinetic energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The gravitational potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The elastic potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The total mechanical energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
 
 

 
Question 14
An air track glider is attached to a spring. It is pulled back to position A and released from rest. It vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations B to A?
The kinetic energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The gravitational potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The elastic potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The total mechanical energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
 
 
 

Question 15
An air track glider is attached to a spring. It is pulled back to position A and released from rest. It vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations B to C?
The kinetic energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The gravitational potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The elastic potential energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
The total mechanical energy would …
a. increase                b. decrease               c. first increase and then decrease
d. first decrease and then increase           e. remain unchanged
 
 
 

 
Question 16
An air track glider is attached to a spring. It is pulled back to position A and released from rest. It vibrates back and forth between positions A and C. Position B is the equilibrium position. Assuming no damping, what changes would be observed as the mass vibrates from locations B to C?
The kinetic energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The gravitational potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The elastic potential energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
The total mechanical energy would …
a. remain unchanged                                  b. increase
c. first increase and then decrease
d. decrease               e. first decrease and then increase
 
 
 
 

Activity 2  Energy Bar Charts
Question Group 7
Question 17
An air track glider is attached to a spring. Positions A and B are two positions along its back-and-forth path. The energy bar chart for A is shown below. Identify the co rrect energy bar chart for position B.
 

 
 
 
 

Question Group 8
Question 18
An air track glider is attached to a spring. Positions A and B are two positions along its back-and-forth path. The energy bar chart for A is shown below. Identify the correct energy bar chart for position B.
 
 



 
 

 

Question Group 9
Question 19
An air track glider is attached to a spring. Positions A and B are two positions along its back-and-forth path. The energy bar chart for A is shown below. Identify the correct energy bar chart for position B.
 
 
 
 
 
 

Question Group 10
Question 20
An air track glider is attached to a spring. Positions A and B are two positions along its back-and-forth path. The energy bar chart for A is shown below. Identify the correct energy bar chart for position B.
 
 
 
 
 
 

Question Group 11
Question 21
An air track glider is attached to a spring. Positions A and B are two positions along its back-and-forth path. The energy bar chart for A is shown below. Identify the correct energy bar chart for position B.
 
 

 
 
 
 
 
Question Group 12
Question 22
An air track glider is attached to a spring. Positions A and B are two positions along its back-and-forth path. The energy bar chart for A is shown below. Identify the correct energy bar chart for position B.
 
 
 
 
 
 
 
 
 

 

Activity 3:  Do It With Numbers (Horizontal)
Question Group 13
Question 23
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 12 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 




Question 24
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 12 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 



 

 

Question 25
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 12 J and the KE is 0 J. Determine the energy values at location B.
 
 

 
 
 




 

Question 26
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 12 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 



 

Question Group 14
Question 27
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 12 J. Determine the energy values at location B.
 
 
 
 
 




 
 

Question 28
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 12 J. Determine the energy values at location B.
 
 
 
 
 




 

 

Question 29
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 12 J. Determine the energy values at location B.
 
 
 
 
 


 
 
 
 
 
 

Question 30
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is AAA J and the KE is BBB J. Determine the energy values at location B.
 
 
 
 
 


 

 

Question Group 15
Question 31
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 10 J and the KE is 0 J. Determine the energy values at location B.
 
 


 
 
 


 
 
 

Question 32
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 10 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 


 
 
 
 

 

Question 33
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 10 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 


 
 
 
 
 

Question 34
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 10 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 
 


 
 

 

Question Group 16
Question 35
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 2 J and the KE is 6 J. Determine the energy values at location B.
 
 
 
 
 




 
 

Question 36
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 2 J and the KE is 6 J. Determine the energy values at location B.
 
 
 
 
 
 




 

Question 37
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 2 J and the KE is 6 J. Determine the energy values at location B.
 
 
 
 
 


 
 
 

Question 38
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 2 J and the KE is 6 J. Determine the energy values at location B.
 
 
 
 
 


 

 

Question Group 17
Question 39
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 8 J. Determine the energy values at location B.
 
 
 
 
 


 

Question 40
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 8 J. Determine the energy values at location B.
 
 
 
 
 



 

Question 41
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 8 J. Determine the energy values at location B.
 
 
 
 
 
 


 
 

Question 42
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 8 J. Determine the energy values at location B.
 
 
 
 
 
 
 

 

 

Question Group 18
Question 43
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 8 J. Determine the energy values at location B.
 
 
 
 
 


 
 
 

Question 44
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 8 J. Determine the energy values at location B.
 
 
 
 
 


 
 
 

Question 45
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 8 J. Determine the energy values at location B.
 
 
 
 
 





Question 46
A mass is attached to a horizontal spring and vibrating back and forth. At location A, the PE is 4 J and the KE is 8 J. Determine the energy values at location B.
 
 
 
 
 
 


 

 

Activity 4 Do It With Numbers (Vertical)
Question Group 19
Question 47
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.200 J, the PE_spring is 0.900 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 


Question 48
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.200 J, the PE_spring is 0.900 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 
 

Question 49
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.200 J, the PE_spring is 0.900 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 
 


 
 
 

Question 50
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.200 J, the PE_spring is 0.900 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 
 



Question Group 20
Question 51
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -0.800 J, the PE_spring is 0.800 J and the KE is 0.600 J. Determine the energy values at location B.
 
 
 
 


 
 
 
 

Question 52
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -0.800 J, the PE_spring is 0.800 J and the KE is 0.600 J. Determine the energy values at location B.
 
 
 
 
 
 

Question 53
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -0.800 J, the PE_spring is 0.800 J and the KE is 0.600 J. Determine the energy values at location B.
 
 
 
 

 

Question 54
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -0.800 J, the PE_spring is 0.800 J and the KE is 0.600 J. Determine the energy values at location B.
 
 
 



 

Question Group 21
Question 55
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -0.600 J, the PE_spring is 0.225 J and the KE is 0.075 J. Determine the energy values at location B.
 
 
 
 

Question 56
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -0.600 J, the PE_spring is 0.225 J and the KE is 0.075 J. Determine the energy values at location B.
 
 
 
 
 
 

Question 57
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -0.600 J, the PE_spring is 0.225 J and the KE is 0.075 J. Determine the energy values at location B.
 
 
 
 

Question 58
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -0.600 J, the PE_spring is 0.225 J and the KE is 0.075 J. Determine the energy values at location B.
 
 
 

 

Question Group 22
Question 59
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.50 J, the PE_spring is 0.45 J and the KE is 0 J. Determine the energy values at location B.
 
 
 


Question 60
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.50 J, the PE_spring is 0.45 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 


Question 61
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.50 J, the PE_spring is 0.45 J and the KE is 0 J. Determine the energy values at location B.
 
 
 



Question 62
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.50 J, the PE_spring is 0.45 J and the KE is 0 J. Determine the energy values at location B.
 
 
 


Question Group 23
Question 63
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -4.00 J, the PE_spring is 3.20 J and the KE is 0 J. Determine the energy values at location B.
 
 
 

 

Question 64
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -4.00 J, the PE_spring is 3.20 J and the KE is 0 J. Determine the energy values at location B.
 
 
 
 
 

Question 65
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -4.00 J, the PE_spring is 3.20 J and the KE is 0 J. Determine the energy values at location B.
 
 
 

 

Question 66
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -4.00 J, the PE_spring is 3.20 J and the KE is 0 J. Determine the energy values at location B.
 
 
 


Question Group 24
Question 67
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.2 J, the PE_spring is 0.45 J and the KE is 0.15 J. Determine the energy values at location B.
 
 



Question 68
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.2 J, the PE_spring is 0.45 J and the KE is 0.15 J. Determine the energy values at location B.
 
 
 


Question 69
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.2 J, the PE_spring is 0.45 J and the KE is 0.15 J. Determine the energy values at location B.
 
 
 
 
 
Question 70
A mass is attached to a vertical spring and vibrating up and down. At location A, the PE_grav is -1.2 J, the PE_spring is 0.45 J and the KE is 0.15 J. Determine the energy values at location B.