* A mass of 5.0 kg slides down a frictionless slope into a spring with spring constant k (a) If the spring experiences a maximum compression of 20 cm, what is the height h of the initial release point? (b) What is the velocity of the mass when the spring has been compressed 15 cm? (c) If the mass sticks to the end of the spring, what are the period and amplitude of the oscillations that take place? (d) Determine the expressions for position as a function of time, x(t), and veloc- ity as a function of time, v(t), for this oscillator. (e) What is the maximum velocity of the mass during any oscillation? (f) If the spring were to break while the mass is at the equilibrium posi- tion and moving to the right, to what maximum height would the mass rise up the slope? (g) Sketch or plot the position-time graph and velocity-time graph for the first second of the periodic motion. 4.9 kN/m as depicted in Figure P11.65. wave, Chap ves (including light sited and developed fur k www Figure P11.65

University Physics Volume 1
18th Edition
ISBN:9781938168277
Author:William Moebs, Samuel J. Ling, Jeff Sanny
Publisher:William Moebs, Samuel J. Ling, Jeff Sanny
Chapter2: Vectors
Section: Chapter Questions
Problem 2.9CYU: Check Your Understanding Suppose that Balto in Example 2.10 leaves the game to attend to more...
icon
Related questions
Question
Problem 65. I’m really confused. I hope you can help.
aniwe to
64. SSM * Get new struts! A'car with woi-ORH (urxierdacped)
struts is observed driving over a dip is rd. The car bounces
up and down a total of three times in a perd recends after
hitting the dip. If an average automobile str sang has a spring
constant of 6.0 kN/m, what is the approximste mass of the
observed car? Note: The body of a car is supported on four struts.
without transp0
65. * A mass of 5.0 kg slides down a frictionless slope into a spring
with spring constant k = 4.9 kN/m as depicted in Figure P11.65.
(a) If the spring experiences a maximum compression of 20 cm,
what is the height h of the initial release point? (b) What is the
velocity of the mass when the spring has been compressed 15 cm?
(c) If the mass sticks to the end of the spring, what are the period
and amplitude of the oscillations that take place? (d) Determine
the expressions for position as a function of time, x(t), and veloc-
ity as a function of time, v(t), for this oscillator. (e) What is the
maximum velocity of the mass during any oscillation? (f) If the
spring were to break while the mass is at the equilibrium posi-
tion and moving to the right, to what maximum height would
the mass rise up the slope? (g) Sketch or plot the position-time
graph and velocity-time graph for the first second of the periodic
Chapt
67.
motion.
ves (including light),
berevisited and developed further
h
www.
en
in
Figure P11.65
Transcribed Image Text:aniwe to 64. SSM * Get new struts! A'car with woi-ORH (urxierdacped) struts is observed driving over a dip is rd. The car bounces up and down a total of three times in a perd recends after hitting the dip. If an average automobile str sang has a spring constant of 6.0 kN/m, what is the approximste mass of the observed car? Note: The body of a car is supported on four struts. without transp0 65. * A mass of 5.0 kg slides down a frictionless slope into a spring with spring constant k = 4.9 kN/m as depicted in Figure P11.65. (a) If the spring experiences a maximum compression of 20 cm, what is the height h of the initial release point? (b) What is the velocity of the mass when the spring has been compressed 15 cm? (c) If the mass sticks to the end of the spring, what are the period and amplitude of the oscillations that take place? (d) Determine the expressions for position as a function of time, x(t), and veloc- ity as a function of time, v(t), for this oscillator. (e) What is the maximum velocity of the mass during any oscillation? (f) If the spring were to break while the mass is at the equilibrium posi- tion and moving to the right, to what maximum height would the mass rise up the slope? (g) Sketch or plot the position-time graph and velocity-time graph for the first second of the periodic Chapt 67. motion. ves (including light), berevisited and developed further h www. en in Figure P11.65
Expert Solution
steps

Step by step

Solved in 2 steps with 2 images

Blurred answer
Knowledge Booster
Length contraction and Lorentz equation
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
  • SEE MORE QUESTIONS
Recommended textbooks for you
University Physics Volume 1
University Physics Volume 1
Physics
ISBN:
9781938168277
Author:
William Moebs, Samuel J. Ling, Jeff Sanny
Publisher:
OpenStax - Rice University
College Physics
College Physics
Physics
ISBN:
9781305952300
Author:
Raymond A. Serway, Chris Vuille
Publisher:
Cengage Learning