(d) Assume that the magnitude of the tension in the rope is fixed but that the angle may be varied. For what value of 0 would the resulting horizontal acceleration of the crate be maximized?

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Chapter1: Units, Trigonometry. And Vectors
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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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id like to see part d plz!

**1. Topic: Motion of a Crate Being Pulled Across a Horizontal Surface**

This exercise addresses the motion of a crate that is being pulled across a horizontal floor by a rope. In the diagram provided, the following variables are defined:
- \( m \): Mass of the crate
- \( \mu \): Coefficient of kinetic friction between the crate and the floor
- \( F_T \): Tension in the rope
- \( \theta \): Angle of the rope above the horizontal

**Diagram Explanation:** 
The diagram shows a crate of mass \( m \) on a horizontal surface, with a rope attached to it. The rope is at an angle \( \theta \) above the horizontal. The forces acting on the crate include the tension in the rope \( F_T \).

**Questions & Solutions:**

**(a) Draw and label all of the forces acting on the crate.**

*Solution:*

The forces acting on the crate are:
- The gravitational force (\( F_g = mg \)) acting downwards.
- The normal force (\( F_N \)) acting perpendicular to the surface and upwards.
- The tension force (\( F_T \)) along the rope, which can be resolved into two components: horizontal (\( F_{T_x} = F_T \cos\theta \)) and vertical (\( F_{T_y} = F_T \sin\theta \)).
- The frictional force (\( F_f \)) acting opposite to the direction of motion, which is calculated as \( F_f = \mu F_N \).

**(b) Compute the normal force acting on the crate in terms of \( m \), \( F_T \), \( \theta \), and \( g \).**

*Solution:*

The normal force (\( F_N \)) can be found by balancing the vertical forces:
\[ F_N + F_T \sin \theta = mg \]
Thus,
\[ F_N = mg - F_T \sin \theta \]

**(c) Compute the acceleration of the crate in terms of \( m \), \( F_T \), \( \theta \), \( \mu \), and \( g \).**

*Solution:*

First, determine the net horizontal force (\( F_{net} \)) acting on the crate:
\[ F_{net} = F_T \cos \theta - F_f \]
\[ F_f = \mu F_N = \mu (
Transcribed Image Text:**1. Topic: Motion of a Crate Being Pulled Across a Horizontal Surface** This exercise addresses the motion of a crate that is being pulled across a horizontal floor by a rope. In the diagram provided, the following variables are defined: - \( m \): Mass of the crate - \( \mu \): Coefficient of kinetic friction between the crate and the floor - \( F_T \): Tension in the rope - \( \theta \): Angle of the rope above the horizontal **Diagram Explanation:** The diagram shows a crate of mass \( m \) on a horizontal surface, with a rope attached to it. The rope is at an angle \( \theta \) above the horizontal. The forces acting on the crate include the tension in the rope \( F_T \). **Questions & Solutions:** **(a) Draw and label all of the forces acting on the crate.** *Solution:* The forces acting on the crate are: - The gravitational force (\( F_g = mg \)) acting downwards. - The normal force (\( F_N \)) acting perpendicular to the surface and upwards. - The tension force (\( F_T \)) along the rope, which can be resolved into two components: horizontal (\( F_{T_x} = F_T \cos\theta \)) and vertical (\( F_{T_y} = F_T \sin\theta \)). - The frictional force (\( F_f \)) acting opposite to the direction of motion, which is calculated as \( F_f = \mu F_N \). **(b) Compute the normal force acting on the crate in terms of \( m \), \( F_T \), \( \theta \), and \( g \).** *Solution:* The normal force (\( F_N \)) can be found by balancing the vertical forces: \[ F_N + F_T \sin \theta = mg \] Thus, \[ F_N = mg - F_T \sin \theta \] **(c) Compute the acceleration of the crate in terms of \( m \), \( F_T \), \( \theta \), \( \mu \), and \( g \).** *Solution:* First, determine the net horizontal force (\( F_{net} \)) acting on the crate: \[ F_{net} = F_T \cos \theta - F_f \] \[ F_f = \mu F_N = \mu (
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