This is similar to Can humans control rotation of the Earth? and
How can you find the impact necessary to change the direction of Earth's spin?
Suppose the ball is kicked against the direction in which the Earth is rotating. This increases the speed of rotation of the Earth, reducing the rotation period (ie the length of 1 day).
The angular momentum imparted to the Earth by the ball's kick is :
$\Delta L$ = mass of ball x its velocity x radius of Earth = $mvR$.
This is related to the moment of inertia J of the Earth and the increase in angular speed $\Delta \omega$ by
$\Delta L = J\Delta \omega$.
Assuming the Earth is a sphere of uniform density with mass M and radius R then
$J = \frac25MR^2$.
The angular speed $\omega$ is related to the period of rotation of the Earth $T$ by $\omega=\frac{2\pi}{T}$ so $\Delta \omega = - \frac{2\pi}{T^2} \Delta T$.
Bringing this all together and rearranging we get
$mvR = (\frac25MR^2)(-\frac{2\pi}{T^2} \Delta T)$
$\Delta T = - \frac{5mvT^2}{\pi MR}$.
The LHS is the decrease (- sign) in the time it takes for the Earth to make one rotation.
You will need to look up values for M and R, and to convert $T=24$ to hours to seconds. While $vT \approx 2000km$, the distance travelled by the ball during one revolution of the Earth, is comparable with $R \approx 6000km$, the radius of the Earth, there is an enormous difference in the two masses $m$ and $M$. So $\Delta T$ will be very small compared with $T$.