Math Problem Statement
Solution
The question provides details on a 0.25 kg softball that initially has a velocity of at an angle of below the horizontal, just before it hits the bat. After contact with the bat, the ball's final velocities are given in two parts:
- (a) vertically downward.
- (b) horizontally back toward the pitcher.
We need to determine the magnitude of the change in momentum for each case.
Step-by-Step Solution
-
Initial Velocity Components (Before Contact)
- The initial velocity, at an angle of below the horizontal.
- Horizontal component of :
- Vertical component of : (negative because it is downward).
-
Calculating Momentum Components
- Momentum before contact : where .
-
Final Momentum (for Each Case)
-
Case (a): Final velocity is vertically downward.
- Horizontal final momentum .
- Vertical final momentum .
-
Case (b): Final velocity is horizontally back toward the pitcher.
- Horizontal final momentum .
- Vertical final momentum .
-
-
Calculating Change in Momentum (Δp)
- Change in momentum in each component: and .
- The magnitude of the change in momentum is given by:
Would you like the detailed calculations to find the final answer for each case?
Related Questions
- How would the answer change if the ball’s mass were different?
- What effect does the angle of the initial velocity have on the momentum change?
- Why do we consider the direction (sign) of momentum components in calculations?
- How would you calculate the change in kinetic energy instead of momentum?
- What are common applications of momentum principles in sports like baseball?
Tip: Always resolve vectors into components to simplify physics problems involving angles and directions.
Ask a new question for Free
By Image
Drop file here or Click Here to upload
Math Problem Analysis
Mathematical Concepts
Physics
Vector Components
Momentum Change
Trigonometry
Formulas
Horizontal component of initial velocity: v_{i_x} = v_i * cos(θ)
Vertical component of initial velocity: v_{i_y} = -v_i * sin(θ)
Momentum change in x and y components: Δp_x = p_{f_x} - p_{i_x}, Δp_y = p_{f_y} - p_{i_y}
Magnitude of change in momentum: |Δp| = √((Δp_x)^2 + (Δp_y)^2)
Theorems
Pythagorean Theorem for vector magnitude
Suitable Grade Level
Grades 11-12 (Physics)
Related Recommendation
Calculating the Final Velocity of a Softball Using Impulse-Momentum Theorem
Calculate Impulse Applied to a Baseball - Physics Problem
Final Speed of a Baseball after Impact Using Impulse-Momentum Theorem
Billiard Ball Momentum Change: Calculate Magnitude and Direction
Calculating Impulse for Nolan Ryan's Fastest Baseball Pitch