Your free body diagram for Part 1 should have looked it this. F max Drag and drop the heads and tails of the vectors to construct the free-body diagram. Note: the applied force is directed to the right. Note: the angles may be within +15°, and the magnitudes are not considered. = Suppose you have a 120-kg wooden crate resting on a wood floor. Use µ§ = 0.5 and . Assume all quantities are correct to 3 significant figures. a = 1.96 ffrie; 180° N N; 90° a (b) What is the maximum force you can exert horizontally on the crate without moving it? Enter to 3 significant figures m/s² mg; 270° F:0° HK = 0.3 (c) If you continue to exert this force once the crate starts to slip, what will its acceleration then be? Enter to 3 significant figures

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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**Free Body Diagram and Problem Explanation**

1. **Free Body Diagram for Part 1**

   The diagram displays a box on which several forces act. These forces are represented by arrows:
   - **N (Normal Force):** Acts upward at 90°.
   - **fₛₜₐₜ (Static Frictional Force):** Acts leftward at 180°.
   - **F (Applied Force):** Acts rightward at 0°.
   - **mg (Gravitational Force):** Acts downward at 270°.

   **Instructions:**
   - Drag and drop the heads and tails of the vectors to construct the free-body diagram.
   - Note: The applied force is directed to the right. The angles may be within ±15°, and the magnitudes are not considered.

2. **Problem Statement**

   You have a 120-kg wooden crate resting on a wood floor. Use static friction coefficient \(\mu_s = 0.5\) and kinetic friction coefficient \(\mu_k = 0.3\). Assume all quantities are correct to 3 significant figures.

   **(b) Maximum Force Calculation**

   What is the maximum force you can exert horizontally on the crate without moving it?

   - **Input:**
     - Maximum force (\(F_{\text{max}}\)) in N (Newtons)

   **(c) Acceleration Calculation**

   If you continue to exert this force once the crate starts to slip, what will its acceleration then be?

   - **Input:**
     - Acceleration \(a = 1.96 \, \text{m/s}^2\) (already calculated, shown as an example).
Transcribed Image Text:**Free Body Diagram and Problem Explanation** 1. **Free Body Diagram for Part 1** The diagram displays a box on which several forces act. These forces are represented by arrows: - **N (Normal Force):** Acts upward at 90°. - **fₛₜₐₜ (Static Frictional Force):** Acts leftward at 180°. - **F (Applied Force):** Acts rightward at 0°. - **mg (Gravitational Force):** Acts downward at 270°. **Instructions:** - Drag and drop the heads and tails of the vectors to construct the free-body diagram. - Note: The applied force is directed to the right. The angles may be within ±15°, and the magnitudes are not considered. 2. **Problem Statement** You have a 120-kg wooden crate resting on a wood floor. Use static friction coefficient \(\mu_s = 0.5\) and kinetic friction coefficient \(\mu_k = 0.3\). Assume all quantities are correct to 3 significant figures. **(b) Maximum Force Calculation** What is the maximum force you can exert horizontally on the crate without moving it? - **Input:** - Maximum force (\(F_{\text{max}}\)) in N (Newtons) **(c) Acceleration Calculation** If you continue to exert this force once the crate starts to slip, what will its acceleration then be? - **Input:** - Acceleration \(a = 1.96 \, \text{m/s}^2\) (already calculated, shown as an example).
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