An 8.0-g bullet is shot into a 4.0-kg block, at rest on a frictionless horizontal surface (see the figure). The bullet remains lodged in the block. The block moves into an ideal massless spring and compresses it by 8.7 cm. The spring constant of the spring is 2400 N/m. The initial velocity of the bullet is closest to мей O O O O O 4.0 kg O 900 m/s. O1200 m/s. O 1100 m/s. O1000 m/s. 1300 m/s.

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Chapter1: Units, Trigonometry. And Vectors
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Doing some physics homework and am kind of stumped here!

**Dynamic Systems: Bullet and Block Interaction**

In this physics problem, an 8.0-g bullet is fired into a 4.0-kg block that is initially at rest on a frictionless horizontal surface. As illustrated in the accompanying diagram, the bullet remains embedded in the block. The combined bullet-block system subsequently compresses an ideal, massless spring by a distance of 8.7 cm. 

Relevant parameters for the scenario include:
- Spring constant (\(k\)) = 2400 N/m.

The question asks for the initial velocity of the bullet. The possible options are:

- a) 900 m/s
- b) 1200 m/s
- c) 1100 m/s
- d) 1000 m/s
- e) 1300 m/s

**Diagram Explanation:**

The diagram consists of three main elements:
1. **Bullet and Block Setup**: On the left, an 8.0-g bullet (depicted as an arrow) approaches a 4.0-kg block positioned on a horizontal track.
2. **Spring System**: A spring is shown to the right of the block, representing the system into which the bullet-block combination will move, causing compression.
3. **Compression and Rest Position**: A wedge labeled with the spring constant \(k\) shows the final state where the spring is compressed by the block.

This scenario serves as a practical demonstration of the principles of conservation of momentum and energy in dynamic systems.
Transcribed Image Text:**Dynamic Systems: Bullet and Block Interaction** In this physics problem, an 8.0-g bullet is fired into a 4.0-kg block that is initially at rest on a frictionless horizontal surface. As illustrated in the accompanying diagram, the bullet remains embedded in the block. The combined bullet-block system subsequently compresses an ideal, massless spring by a distance of 8.7 cm. Relevant parameters for the scenario include: - Spring constant (\(k\)) = 2400 N/m. The question asks for the initial velocity of the bullet. The possible options are: - a) 900 m/s - b) 1200 m/s - c) 1100 m/s - d) 1000 m/s - e) 1300 m/s **Diagram Explanation:** The diagram consists of three main elements: 1. **Bullet and Block Setup**: On the left, an 8.0-g bullet (depicted as an arrow) approaches a 4.0-kg block positioned on a horizontal track. 2. **Spring System**: A spring is shown to the right of the block, representing the system into which the bullet-block combination will move, causing compression. 3. **Compression and Rest Position**: A wedge labeled with the spring constant \(k\) shows the final state where the spring is compressed by the block. This scenario serves as a practical demonstration of the principles of conservation of momentum and energy in dynamic systems.
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