Answer:


Step-by-step explanation:
The most common formula from which acceleration of an object can be determined is
F = ma
Where,
F = Force
m = Mass
a = Acceleration
Rearranging the equation we get

There are equations also from which acceleration can be determined they are

Rearranging the equations we get



Where,
a = Acceleration
u = Initial velocity
v = Final velocity
s = Displacement
t = Time taken