The average acceleration of the particle between 0 seconds and 4 seconds is
meters per second squared. However, this value is not one of the options provided. The closest option to
meters per second squared is:
c.
meters/second²
Given the coordinates (2, 2) and (4, 0.2), we can calculate the average acceleration between 2 seconds and 4 seconds. The change in velocity
is the difference between the final velocity and the initial velocity. The change in time
is the difference between the final time and the initial time.
The formula for average acceleration is:
![\[ a_{\text{avg}} = (\Delta v)/(\Delta t) \]](https://img.qammunity.org/2024/formulas/mathematics/high-school/h28f4cr9og9ocwcn3aw3j17ytjdu2vlu16.png)
Where:
-
= final velocity = 0.2 m/s (at
seconds)
-
= initial velocity = 2 m/s (at
seconds)
-
= final time = 4 seconds
-
= initial time = 2 seconds
Let's plug these values into the formula and calculate the average acceleration.
The average acceleration of the particle between 2 seconds and 4 seconds is \(-0.9\) meters per second squared. This indicates the particle is decelerating, as the velocity is decreasing over time.
However, the question asked for the average acceleration between 0 seconds and 4 seconds, so we would need the velocity at 0 seconds to calculate this. Since the velocity at 0 seconds was not explicitly given, we'll need to infer it based on the graph. If we assume that the graph starts from the origin and the velocity at 0 seconds is 0 m/s, then the initial velocity
at
seconds is 0 m/s, and the final velocity
at
seconds is 0.2 m/s.
Let's calculate the average acceleration over the entire interval from 0 to 4 seconds with these assumptions.
The average acceleration of the particle between 0 seconds and 4 seconds is
meters per second squared. However, this value is not one of the options provided. The closest option to
meters per second squared is:
c.
meters/second²
It's worth noting that the value calculated is based on an assumption about the velocity at 0 seconds and the exact velocity at 4 seconds. If these assumptions were incorrect, the actual average acceleration might be different. If you need further clarification or assistance, please let me know!