(1) The 3-block system shown below is on a surface that is so slippery you may consider it to be frictionless. The 3.0 kg and 1.0 kg masses are connected by a very light rope, and a force F = 84 N force acts directly on the 2.0 kg mass as shown. (a) Calculate: the tension in the rope • the force exerted on the 2.0 kg block by the 3.0 kg block • the force exerted on the 3.0 kg block by the 2.0 kg block. [answer: tension in rope = 14 N; F30n2 = F20n3 = 56 N] (b) Suppose all three blocks had a common speed of 42 m/s to the left at the moment the force F was applied. How long will it take the motion of the blocks to reverse direction after F is applied? [answer: 3.0 s] 1.0 kg F 2.0 kg 3.0 kg
(1) The 3-block system shown below is on a surface that is so slippery you may consider it to be frictionless. The 3.0 kg and 1.0 kg masses are connected by a very light rope, and a force F = 84 N force acts directly on the 2.0 kg mass as shown. (a) Calculate: the tension in the rope • the force exerted on the 2.0 kg block by the 3.0 kg block • the force exerted on the 3.0 kg block by the 2.0 kg block. [answer: tension in rope = 14 N; F30n2 = F20n3 = 56 N] (b) Suppose all three blocks had a common speed of 42 m/s to the left at the moment the force F was applied. How long will it take the motion of the blocks to reverse direction after F is applied? [answer: 3.0 s] 1.0 kg F 2.0 kg 3.0 kg
College Physics
11th Edition
ISBN:9781305952300
Author:Raymond A. Serway, Chris Vuille
Publisher:Raymond A. Serway, Chris Vuille
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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
Transcribed Image Text:**Three-Block System Analysis**
In this problem, we explore the dynamics of a three-block system set on a frictionless surface. The system includes blocks weighing 3.0 kg, 2.0 kg, and 1.0 kg. The 3.0 kg and 1.0 kg blocks are connected by a very light rope, and a force \( F = 84 \, \text{N} \) is applied directly to the 2.0 kg mass.
### Objective:
1. **Calculate the following:**
- **Tension in the rope.**
- **Force exerted on the 2.0 kg block by the 3.0 kg block.**
- **Force exerted on the 3.0 kg block by the 2.0 kg block.**
**Solution:**
- Tension in the rope: \( 14 \, \text{N} \)
- Force exerted on the 2.0 kg block by the 3.0 kg block: \( 56 \, \text{N} \)
- Force exerted on the 3.0 kg block by the 2.0 kg block: \( 56 \, \text{N} \)
2. **Reverse Motion Analysis:**
- Assume all three blocks initially have a common speed of \( 42 \, \text{m/s} \) to the left at the moment the force \( F \) is applied.
- Determine the time required for the motion of the blocks to reverse direction.
**Solution:**
- Time to reverse direction: \( 3.0 \, \text{s} \)
### Diagram Explanation:
The diagram illustrates a horizontal arrangement of the blocks:
- **1.0 kg block** on the left, **3.0 kg block** on the right, and **2.0 kg block** in the center.
- Block masses are depicted, and the force \( F \) is shown acting to the right on the 2.0 kg block.
- The system is on a surface where friction is negligible, enabling an ideal scenario for these calculations.
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