About 1.5 second drop, goes about 35 ft.
What if I took a ball and hung it from a 35ft string, then dropped it like a pendulum so it would "swing down" instead of fall.
How much difference would that make in the velocity, once it has dropped the 35ft, as opposed to a free fall.
What if I took a ball and hung it from a 35ft string, then dropped it like a pendulum so it would "swing down" instead of fall.
How much difference would that make in the velocity, once it has dropped the 35ft, as opposed to a free fall.
Using the terminal velocity equation below, and assuming a normal air density of 1.27kg/m3, and a drag coefficient of 0.5 for a sphere.....
V = √(2mg/pAc)
m = mass of CB = 170.1g
g = gravity = 9.8m/s2
c = drag coefficient = 0.5
A = area of falling object = 25.66cm2 (convert to meters = 0.002566m2)
p = air density = 1.27kg/m3 (covert to grams3 = 1,270g/m3)
Plug it all in and get 45.24m/s, or 101.2mph. Nobody can break the balls that fast!
The post asked with no air resistance - in a vacuum. an academic question.
How about a tail wind to offset the air resistance?