launched straight off V launch 'is horizontial | released from rest

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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Using the diagram, apply conservation of energy in order to predict what the speed of the ball is when it reaches the end of the track.  Form the expression symbolically

**Projectile Motion Analysis**

This diagram represents a scenario involving projectile motion in physics, often used to illustrate how objects move through space influenced by gravity. Below is a detailed description and explanation:

1. **Starting Point and Initial Conditions**:
   - **Released from Rest**: The object starts from rest at a height \( h \) above the launching surface. Meaning it has an initial velocity of 0.

2. **Movement and Launch**:
   - The object, attached to a string or pivot, swings down due to gravity.
   - Upon reaching the end of its arc, it is **launched straight off** the edge of the surface with a horizontal velocity \( v \).

3. **Trajectory Path**:
   - Once launched, the object follows a parabolic trajectory due to the combination of its horizontal velocity and the vertical pull of gravity.
   - This path is divided into horizontal and vertical components.
   
4. **Horizontal Launch Velocity ( \( v \) )**:
   - The launch is horizontal which means that at the point of launch, all velocity is in the horizontal direction. The horizontal velocity \( v \) remains constant throughout the flight in the absence of air resistance.

5. **Vertical Motion**:
   - The vertical component of the motion starts from zero (since the launch is horizontal) and increases linearly with time due to gravity (\( g \)).
   - \( y \) represents the vertical distance the object falls from the launch point.

6. **Displacement Upon Landing**:
   - \( x \) depicts the horizontal distance traveled by the object from the launch point to the point where it impacts the ground.
   - \( y \) corresponds to the total vertical distance fallen from the launch point down to the ground.

7. **Key Variables**:
   - **\( h \)**: Initial height from which the object is released.
   - **\( v \)**: Horizontal launch velocity of the object.
   - **\( x \)**: Horizontal distance traveled after launch.
   - **\( y \)**: Vertical distance traveled after launch, equivalent to \( h \) if the object falls directly from the edge.

Understanding this diagram helps in computing:
- **Projectile Range**: The horizontal distance \( x \) the object travels, calculated using the formula \( x = v \cdot t \), where \( t \) is the time of flight.
- **Time of Flight**: The total time the object
Transcribed Image Text:**Projectile Motion Analysis** This diagram represents a scenario involving projectile motion in physics, often used to illustrate how objects move through space influenced by gravity. Below is a detailed description and explanation: 1. **Starting Point and Initial Conditions**: - **Released from Rest**: The object starts from rest at a height \( h \) above the launching surface. Meaning it has an initial velocity of 0. 2. **Movement and Launch**: - The object, attached to a string or pivot, swings down due to gravity. - Upon reaching the end of its arc, it is **launched straight off** the edge of the surface with a horizontal velocity \( v \). 3. **Trajectory Path**: - Once launched, the object follows a parabolic trajectory due to the combination of its horizontal velocity and the vertical pull of gravity. - This path is divided into horizontal and vertical components. 4. **Horizontal Launch Velocity ( \( v \) )**: - The launch is horizontal which means that at the point of launch, all velocity is in the horizontal direction. The horizontal velocity \( v \) remains constant throughout the flight in the absence of air resistance. 5. **Vertical Motion**: - The vertical component of the motion starts from zero (since the launch is horizontal) and increases linearly with time due to gravity (\( g \)). - \( y \) represents the vertical distance the object falls from the launch point. 6. **Displacement Upon Landing**: - \( x \) depicts the horizontal distance traveled by the object from the launch point to the point where it impacts the ground. - \( y \) corresponds to the total vertical distance fallen from the launch point down to the ground. 7. **Key Variables**: - **\( h \)**: Initial height from which the object is released. - **\( v \)**: Horizontal launch velocity of the object. - **\( x \)**: Horizontal distance traveled after launch. - **\( y \)**: Vertical distance traveled after launch, equivalent to \( h \) if the object falls directly from the edge. Understanding this diagram helps in computing: - **Projectile Range**: The horizontal distance \( x \) the object travels, calculated using the formula \( x = v \cdot t \), where \( t \) is the time of flight. - **Time of Flight**: The total time the object
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