The distance covered by an object moving by uniformly accelerated motion is given by:
![S(t)=S_0 + v_0 t + (1)/(2)at^2](https://img.qammunity.org/2019/formulas/physics/middle-school/jk1i59hg961b554jntv2b6egledzipq73l.png)
where
![S_0](https://img.qammunity.org/2019/formulas/physics/middle-school/gmwkcw9fkx10xusd5kr2z94fsvdzdxkq8r.png)
is the intiial position
![v_0](https://img.qammunity.org/2019/formulas/physics/college/ef782wawcl1okk933bqkve0l1a68n775ct.png)
is the initial velocity (in this case,
![v_0=5.82 m/s](https://img.qammunity.org/2019/formulas/physics/middle-school/4p7v9yhijpiqfi6ii0cp12bh4rvgkl1ymp.png)
)
![a](https://img.qammunity.org/2019/formulas/mathematics/middle-school/29wl7w45fjbhkymu53hsles9qvadja8y1s.png)
is the acceleration (in this case,
![a=2.35 m/s^2](https://img.qammunity.org/2019/formulas/physics/middle-school/dfaccj4rrh4o7xwtbggme8s0iymf1qgvpc.png)
)
We can assume
![S_0=0](https://img.qammunity.org/2019/formulas/physics/middle-school/e8wey1a7g42o251fdkpiwbzo08s6nrbt1o.png)
since we are only interested in the distance covered by the car with respect to its initial position; so, if we substitute t=3.25 s in the equation, we can find how far the car traveled:
![S=v_0t+ (1)/(2)at^2=(5.82 m/s)(3.25 s)+ (1)/(2)(2.35 m/s^2)(3.25 s)^2=31.3 m](https://img.qammunity.org/2019/formulas/physics/middle-school/6i2w7wr54paclhhrn6tto6isef5kcgatv9.png)