a (m/s²) 3 a, + The following figure shows the acceleration of objects of different mass that experience the same force. Suppose a0 = 11 m/s?. What is the magnitude of the force? 2a. -m (g) 300 100 200

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### Exploring the Relationship Between Mass, Acceleration, and Force

The following figure illustrates the acceleration of objects with varying masses subjected to a constant force. Given that \(a_0 = 11 \, \text{m/s}^2\), determine the magnitude of the force.

#### Graph Description:

- **Axes**: 
  - The horizontal axis represents mass in grams (g), ranging from 0 to 300 g.
  - The vertical axis shows acceleration in meters per second squared \((\text{m/s}^2)\), marked at intervals of \(a_0, 2a_0, \text{ and } 3a_0\).

- **Curve**: 
  - The curve demonstrates an inversely proportional relationship, starting at a higher acceleration with lower mass and decreasing as mass increases.
  - At 0 g, the acceleration is at its maximum \((3a_0)\), and it diminishes as the mass approaches 300 g.

This graph reflects the principle that under a constant force, lighter objects accelerate more than heavier ones, following Newton's second law of motion. To calculate the force, use the formula:

\[ F = m \cdot a \]

where \( m \) is the mass and \( a \) is the acceleration.
Transcribed Image Text:### Exploring the Relationship Between Mass, Acceleration, and Force The following figure illustrates the acceleration of objects with varying masses subjected to a constant force. Given that \(a_0 = 11 \, \text{m/s}^2\), determine the magnitude of the force. #### Graph Description: - **Axes**: - The horizontal axis represents mass in grams (g), ranging from 0 to 300 g. - The vertical axis shows acceleration in meters per second squared \((\text{m/s}^2)\), marked at intervals of \(a_0, 2a_0, \text{ and } 3a_0\). - **Curve**: - The curve demonstrates an inversely proportional relationship, starting at a higher acceleration with lower mass and decreasing as mass increases. - At 0 g, the acceleration is at its maximum \((3a_0)\), and it diminishes as the mass approaches 300 g. This graph reflects the principle that under a constant force, lighter objects accelerate more than heavier ones, following Newton's second law of motion. To calculate the force, use the formula: \[ F = m \cdot a \] where \( m \) is the mass and \( a \) is the acceleration.
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