- #1
garcia1
- 27
- 0
The tallest volcano in the solar system is the
19 km tall Martian volcano, Olympus Mons.
An astronaut drops a ball off the rim of the
crater and that the free fall acceleration of the
ball remains constant throughout the ball’s
19 km fall at a value of 4 m/s2. (We assume
that the crater is as deep as the volcano is tall,
which is not usually the case in nature.)
Find the time for the ball to reach the crater
floor.
Answer in units of s.
Find the magnitude of the velocity with which
the ball hits the crater floor.
Answer in units of m/s.
Vf = Vo +at
I simply plugged in values from the first problem's answer, 97.468s, along with the given acceleration and implied initial velocity to make:
Vf = (-4m/s)(97.468s) = -389.872 m/s
This was wrong though, so I'm wondering where I screwed up along the way.
19 km tall Martian volcano, Olympus Mons.
An astronaut drops a ball off the rim of the
crater and that the free fall acceleration of the
ball remains constant throughout the ball’s
19 km fall at a value of 4 m/s2. (We assume
that the crater is as deep as the volcano is tall,
which is not usually the case in nature.)
Find the time for the ball to reach the crater
floor.
Answer in units of s.
Find the magnitude of the velocity with which
the ball hits the crater floor.
Answer in units of m/s.
Homework Equations
Vf = Vo +at
The Attempt at a Solution
I simply plugged in values from the first problem's answer, 97.468s, along with the given acceleration and implied initial velocity to make:
Vf = (-4m/s)(97.468s) = -389.872 m/s
This was wrong though, so I'm wondering where I screwed up along the way.