Final answer:
The magnitude of the coin's displacement between times t1 = 0.2212 s and t2 = 0.737 s is 2.4183 meters. This was calculated using the formula for displacement in one-dimensional motion under gravity, given the initial velocity is zero.
Step-by-step explanation:
The question pertains to the displacement of a falling coin over a specific time interval. We are dealing with a physics problem that involves one-dimensional motion under gravity, also known as free-fall. Since the initial velocity (u) of the coin is zero, we can use the equation of motion for constant acceleration (gravity) to find the displacement (s):
s = ut + ½ at^2
Where:
- u = initial velocity (0 m/s, since the coin starts at rest)
- a = acceleration due to gravity (9.8 m/s2 on Earth)
- t = time
We are interested in the displacement between two times, t1 = 0.2212 s and t2 = 0.737 s.
To find the displacement at t1, we substitute the values into the equation:
s1 = 0 × 0.2212 + ½ × 9.8 × (0.2212)^2 = 0.2407 m
Now, let's find the displacement at t2:
s2 = 0 × 0.737 + ½ × 9.8 × (0.737)^2 = 2.659 m
The magnitude of the coin's displacement between t1 and t2 is simply the difference between s2 and s1:
|Displacement| = |s2 - s1| = |2.659 m - 0.2407 m| = 2.4183 m
Thus, the coin's displacement between the given times is 2.4183 meters.