Final Vertical Velocity Equation:
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The final vertical velocity equation calculates the vertical component of velocity after a given time under constant acceleration. It's derived from the basic kinematic equations of motion and is essential in physics for analyzing vertical motion under gravity or other constant accelerations.
The calculator uses the final vertical velocity equation:
Where:
Explanation: This equation calculates the final vertical velocity by adding the product of acceleration and time to the initial velocity. For free fall under gravity, \( a_y \) would typically be -9.8 m/s² (downward direction).
Details: Calculating final vertical velocity is crucial in physics, engineering, and various applications including projectile motion analysis, free fall calculations, rocket trajectory planning, and sports science for analyzing jumps and throws.
Tips: Enter initial vertical velocity in m/s, vertical acceleration in m/s², and time in seconds. Time must be non-negative. For downward motion, use negative values for acceleration (e.g., -9.8 m/s² for gravity).
Q1: What is the difference between vertical and horizontal velocity?
A: Vertical velocity refers to motion in the up-down direction, while horizontal velocity refers to motion in the left-right direction. They are independent components in projectile motion.
Q2: How does gravity affect vertical velocity?
A: Gravity causes a constant downward acceleration of approximately 9.8 m/s², which continuously changes the vertical velocity of objects in free fall.
Q3: Can vertical velocity be negative?
A: Yes, negative vertical velocity indicates downward motion, while positive vertical velocity indicates upward motion.
Q4: What happens when vertical velocity reaches zero?
A: When vertical velocity reaches zero at the peak of projectile motion, the object momentarily stops moving vertically before beginning to descend.
Q5: How is this equation used in real-world applications?
A: This equation is used in calculating jump heights, determining rocket ascent velocities, analyzing sports trajectories, and predicting object positions in vertical motion scenarios.