Question
If a cannonball is shot directly upward with a velocity of
, its height, in feet, above the ground after t seconds is given by
. Find the velocity
and the acceleration after t seconds. When does the cannonball reach its maximum height? What is the maximum height the cannonball reaches? When does it hit
the ground?
The velocity after t seconds is
The acceleration after t seconds is a
(Type an integer or a decimal.)
The cannonball reaches its maximum height at
.
(Type an integer or a decimal.)
The cannonball reaches a maximum height of
.
(Type an integer or a decimal.)
The height of the cannonball when it hits the ground is
.
(Type an integer or a decimal.)
The cannonball hits the ground after
sec.
(Type an integer or a decimal.)
and the acceleration after t seconds. When does the cannonball reach its maximum height? What is the maximum height the cannonball reaches? When does it hit
the ground?
The velocity after t seconds is
The acceleration after t seconds is a
(Type an integer or a decimal.)
The cannonball reaches its maximum height at
(Type an integer or a decimal.)
The cannonball reaches a maximum height of
(Type an integer or a decimal.)
The height of the cannonball when it hits the ground is
(Type an integer or a decimal.)
The cannonball hits the ground after
(Type an integer or a decimal.)
Ask by Herrera Powers. in the United States
Mar 27,2025
Upstudy AI Solution
Tutor-Verified Answer
Answer
- Velocity after
seconds: - Acceleration after
seconds: - Reaches maximum height at
seconds - Maximum height: 676 feet
- Hits the ground at
seconds
Solution

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The Deep Dive
The velocity after
seconds is
. The acceleration after
seconds is
.
The cannonball reaches its maximum height at
sec. The cannonball reaches a maximum height of
ft.
The height of the cannonball when it hits the ground is
ft. The cannonball hits the ground after
sec.
To find the maximum height and when the cannonball hits the ground, we used the quadratic formula and properties of parabolas, making this a fun exercise in understanding projectile motion!
Did you know that the classic physics problem of projectile motion dates back to ancient civilizations? The Greeks, particularly Aristotle, had initial theories about motion, but it was not until Galileo in the 17th century that the concept of the parabolic trajectory was truly explored. He studied the movement of projectiles and laid the groundwork for modern physics, combining observation with mathematical reasoning to unlock the mysteries of motion!
If you’re intrigued by projectile motion, you might enjoy exploring the principles of kinematics further. Look into the historical contributions of figures like Isaac Newton, who formulated the laws of motion. Books like “The Physics Teacher” magazine or “College Physics” by Tipler and Mosca provide engaging discussions on these concepts with real-life applications to understand stationary versus dynamic observers or even the effects of air resistance!