As shown In the figure below, a box of mass m = 37.0 kg is sliding along a horizontal frictionless surface at a speed v, = 5.95 m/s when it encounters a ramp inclined at an angle of 0 = 28.8°. rough surface V frictionless surface The coefficient of kinetic friction between the ramp and the box is u = 0.0704 and the box slides a distance d'up the ramp before coming momentarily to rest. (a) Determine the distance (in m) the box slides up the ramp before coming momentarily to rest. m (b) Determine which of the following statements is most correct about the box traveling up the ramp and coming momentarily to rest. O Wwlet = AKE O w, = -APE, WNet = W cons + Wnoncons O AE = W noncons Ο ΔΕ- ΔΚΕ + ΔΡΕ O O O
As shown In the figure below, a box of mass m = 37.0 kg is sliding along a horizontal frictionless surface at a speed v, = 5.95 m/s when it encounters a ramp inclined at an angle of 0 = 28.8°. rough surface V frictionless surface The coefficient of kinetic friction between the ramp and the box is u = 0.0704 and the box slides a distance d'up the ramp before coming momentarily to rest. (a) Determine the distance (in m) the box slides up the ramp before coming momentarily to rest. m (b) Determine which of the following statements is most correct about the box traveling up the ramp and coming momentarily to rest. O Wwlet = AKE O w, = -APE, WNet = W cons + Wnoncons O AE = W noncons Ο ΔΕ- ΔΚΕ + ΔΡΕ O O O
College Physics
11th Edition
ISBN:9781305952300
Author:Raymond A. Serway, Chris Vuille
Publisher:Raymond A. Serway, Chris Vuille
Chapter1: Units, Trigonometry. And Vectors
Section: Chapter Questions
Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...
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![As shown in the figure below, a box of mass \( m = 37.0 \, \text{kg} \) is sliding along a horizontal frictionless surface at a speed \( v_i = 5.95 \, \text{m/s} \) when it encounters a ramp inclined at an angle of \( \theta = 28.8^\circ \).
![Ramp Diagram]
- The diagram shows a box moving from a frictionless horizontal surface onto a rough inclined surface.
- The inclined surface forms an angle \( \theta \) with the horizontal, marked as \( 28.8^\circ \).
The coefficient of kinetic friction between the ramp and the box is \( \mu = 0.0704 \), and the box slides a distance \( d \) up the ramp before coming momentarily to rest.
(a) **Determine the distance (in m) the box slides up the ramp before coming momentarily to rest.**
\[ \boxed{\rule{3cm}{0.1mm}} \text{ m} \]
(b) **Determine which of the following statements is most correct about the box traveling up the ramp and coming momentarily to rest.**
- □ \( W_{\text{Net}} = \Delta \text{KE} \)
- □ \( W_g = -\Delta \text{PE}_g \)
- □ \( W_{\text{Net}} = W_{\text{cons}} + W_{\text{noncons}} \)
- □ \( \Delta E = W_{\text{noncons}} \)
- □ \( \Delta E = \Delta \text{KE} + \Delta \text{PE} \)](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fbdadc505-3c89-4141-8858-87a4ddd57c30%2F5984296f-392c-41c8-b7a5-5974395c2eaf%2Fki6u67p_processed.jpeg&w=3840&q=75)
Transcribed Image Text:As shown in the figure below, a box of mass \( m = 37.0 \, \text{kg} \) is sliding along a horizontal frictionless surface at a speed \( v_i = 5.95 \, \text{m/s} \) when it encounters a ramp inclined at an angle of \( \theta = 28.8^\circ \).
![Ramp Diagram]
- The diagram shows a box moving from a frictionless horizontal surface onto a rough inclined surface.
- The inclined surface forms an angle \( \theta \) with the horizontal, marked as \( 28.8^\circ \).
The coefficient of kinetic friction between the ramp and the box is \( \mu = 0.0704 \), and the box slides a distance \( d \) up the ramp before coming momentarily to rest.
(a) **Determine the distance (in m) the box slides up the ramp before coming momentarily to rest.**
\[ \boxed{\rule{3cm}{0.1mm}} \text{ m} \]
(b) **Determine which of the following statements is most correct about the box traveling up the ramp and coming momentarily to rest.**
- □ \( W_{\text{Net}} = \Delta \text{KE} \)
- □ \( W_g = -\Delta \text{PE}_g \)
- □ \( W_{\text{Net}} = W_{\text{cons}} + W_{\text{noncons}} \)
- □ \( \Delta E = W_{\text{noncons}} \)
- □ \( \Delta E = \Delta \text{KE} + \Delta \text{PE} \)
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